PBTWiki - User contributions [en]

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-09-30T16:31:42Z

RaffaellaRadogna: /* Measurements 30/09/2025 */

== Beam Time Request Forms ==

https://www.hep.ucl.ac.uk/pbt/wikiData/BeamRequests/Trento_09_2025/

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Fiber Module Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | 2D Fiber Arrays
| style="text-align: center;" | 2 Modules of vertical and horizontal fibers
|-
| style="text-align: center;" | Read-out electronics
| style="text-align: center;" | 2 Hamamatsu S13885-128 photodiode array each coupled to a Hamamatsu C9118-02 driver circuit
|-
| style="text-align: center;" | ZYBO Z7-10 Diligent FPGA development board.
| style="text-align: center;" | To provide clocks to C9118.
|-
| style="text-align: center;" | NI USB-6366 Multifunction I/O device.
| style="text-align: center;" | For interfacing between C9118 and PC.
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|}

== Experiment Plan ==
For each beam delivery, our acquisition time is 5 seconds. This gives us an optimal number of events. For FLASH beam time restrictions, we could consider reducing the acquisition time, if necessary.
* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through:
** 8 beam deliveries 245 MeV conventional current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at conventional current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
** 8 beam deliveries 245 MeV FLASH current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at FLASH current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
* Pristine Bragg peak measurements at clinical current for full clinical range:
** 19 beam deliveries from 245 MeV and 240 to 70 MeV in 10 MeV steps.
* Pristine Bragg peak measurements at FLASH current for full clinical range:
** 19 beam deliveries from 245 MeV and from 240 to 70 MeV in 10 MeV steps at FLASH current.
*** if there is FLASH beam time limitation we can take less energies points. Moreover, we could reduced the acquisition time for each FLASH beam delivery.
* Spot scanning:
** pristine Bragg Peak measurements at fixed energy (i.e. 150 MeV and 245 MeV) and clinical current shifting the beam up, down, left and right wrt isocenter by 3mm
*** 4 beam deliveries per energy

=== Setup ===

* Peli case set up on FLASH station.
* Network connected through TIFPA experimental room patch panel:
** Inside experimental room:
*** Long cable from patch panel (1) to DLink switch.
*** Long cable from switch to QuARC.
*** Short cable from switch to profile monitor DAQ laptop.
** Inside control room:
*** Long cable from patch panel (5) to GL.iNet Slate router.
*** Short cables to laptops.
* Case aligned to room lasers:
** Blocks used for levelling.
** Set up on height adjustable platform.
** Aligned to front cover plate.

== Measurements 29/09/2025 ==

* Approximately 100 minutes running 29/09/2025 (20:50–22:30).
* Peli case set up '''without''' movable stage: 1cm block under front, ~3mm under rear to level case.
* Isocentre at upstream face of first stack (level with inner edge of wheel mounts).
* Alignment checked with in room lasers after each adjustment.
* Beam optics are '''different''' between CONV mode and FLASH mode:
** Other than FLASH shoot through measurement with stack 1, running restricted to CONV mode.
** Current sufficient at maximum ion source current to almost saturate QuARC).
* SciFi monitor '''not''' installed.

=== Calibration conventional and FLASH ===

{| class="wikitable"
!Run number
!Modules
!Beam Energy (MeV)
!Estimated Range (mm)
!Ion Source Current (nA)
!Delivered protons
!Irradiation time
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Acquisition Time (s)
!Degrader WET (mm)
!Beam setup
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|1 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 3 || 0 || Background || Lid open || ||
|-
|2 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 0 || Background || Lid open || ||
|-
|3 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 0 || Background || Lid open, added network switch to DAQ chain || ||
|-
|4 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 0 || Background || Lid closed, BG with lid open ~0.10pC per PD, lid closed ~0.014pC || ||
|-
|5 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 0 || Background || Lid open, Added long network cable between switch and wall patch panel || ||
|-
|6 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 0 || Background || Lid closed, Peli case moved to FLASH beamline station and aligned with lasers @15.13 || ||
|-
|7 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 5 || 50 || Background || Peli case aligned, cover plates removed, 50mm WET installed || ||
|-
|8 || 1 || 228 || 325 || - || - || - || 6.8 || 12.5 || 170 || 5 || 50 || FLASH, low current, shoot through front || Only 50% of measurements acquired, saturating; aiming for 1nA at detector || ||
|-
|9 || 1 || 228 || 325 || - || - || - || 6.8 || 12.5 || 170 || 5 || 50 || FLASH, low current, shoot through front || 4 sheets saturating; aiming for 0.5nA at detector || ||
|-
|10 || 1 || 228 || 325 || - || - || - || 6.8 || 12.5 || 170 || 5 || 50 || FLASH, low current, shoot through front || Sheets saturating; aiming for 0.5nA at detector; switching to CONV optics || ||
|-
|11 || 1 || 228 || 325 || 10 || 4E9 || - || 6.8 || 12.5 || 170 || 5 || 50 || CONV, high current, shoot through front || Switch to CONV mode, good FSR || ||
|-
|12 || 1 || 228 || 325 || 20 || - || - || 6.8 || 350 || 170 || 5 || 50 || CONV, high current, shoot through front || ~20nA isocentre, ~120pC per sheet maximum || ||
|-
|13 || 1 || 228 || 325 || - || 3E12 || - || 6.8 || 350 || 170 || 3 || 50 || CONV, high current, shoot through front || ~50nA isocentre, ~270pC per sheet maximum, Raspberry Pi frozen, restarted: only ~58% measurements recorded || ||
|-
|14 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 50 || Background || Lid closed, stack rotated || ||
|-
|15 || 1 || 228 || 325 || 10 || 4E9(?) || - || 6.8 || 12.5 || 170 || 5 || 50 || CONV, shoot through back || ~1nA isocentre(?) || ||
|-
|16 || 2 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 5 || 50 || Background || Lid closed, module 2 installed || ||
|-
|17 || 2 || 228 || 325 || 1 || - || - || 6.8 || 12.5 || 170 || 5 || 50 || Shoot through front || || ||
|-
|18 || 2 || 228 || 325 || 1 || - || - || 6.8 || 12.5 || 170 || 5 || 50 || Shoot through back || Rotated and reinstalled stack || ||
|-
|19 || 3 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 5 || 50 || Background || Lid closed, module 3 installed || ||
|-
|20 || 3 || 228 || 325 || 1 || - || - || 6.8 || 12.5 || 170 || 5 || 50 || Shoot through front || || ||
|-
|21 || 3 || 228 || 325 || 1 || - || - || 6.8 || 12.5 || 170 || 5 || 50 || Shoot through back || Rotated and reinstalled stack || ||
|-
|}

=== Bragg Peak Measurements ===

{| class="wikitable"
!Run number
!Modules
!Beam Energy (MeV)
!Estimated Range (mm)
!Ion Source Current (nA)
!Delivered protons
!Irradiation time
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Acquisition Time (s)
!Degrader WET (mm)
!Beam setup
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|22 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 5 || 0 || Background || Lid open, 3 modules installed || ||
|-
|23 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 5 || 0 || Background || Lid closed, 3 modules installed || ||
|-
|24 || 1, 2, 3 || 179 || 215 || 1 || 1.3E11 || 20 || 8.7 || 12.5 || 220 || 5 || 0 || CONV full energy || 4 photodiodes saturating: drop next current in half, 1.3E11 in 20s || ||
|-
|25 || 1, 2, 3 || 179 || 215 || 15nA || - || - || 8.7 || 12.5 || 220 || 5 || 0 || CONV full energy || 15nA ion source current, ~1nA isocentre || ||
|-
|26 || 1, 2, 3 || 179 || 215 || 300nA || - || - || 8.7 || 350 || 220 || 3 || 0 || CONV full energy, high current || 300nA ion source current, ~10nA isocentre || ||
|-
|27 || 1, 2, 3 || 179 || 215 || 250nA || - || - || 8.7 || 350 || 220 || 3 || 0 || CONV full energy, high current || 250nA ion source current, ~8.3nA isocentre || ||
|-
|28 || 1, 2, 3 || 179 || 215 || 200nA || - || - || 8.7 || 350 || 220 || 3 || 0 || CONV full energy, high current || 200nA ion source current, ~6.7nA isocentre || ||
|-
|29 || 1, 2, 3 || 179 || 215 || 150nA || - || - || 8.7 || 350 || 220 || 3 || 0 || CONV full energy, high current || 150nA ion source current, ~5nA isocentre || ||
|-
|30 || 1, 2, 3 || 179 || 215 || 100nA || - || - || 8.7 || 350 || 220 || 3 || 0 || CONV full energy, high current || 100nA ion source current, ~3.3nA isocentre || ||
|-
|31 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 350 || 220 || 3 || 0 || Background || || ||
|-
|32 || 1, 2, 3 || 179 || 215 || 60nA || - || - || 8.7 || 50 || 220 || 3 || 0 || CONV full energy, high current || 60nA ion source current, had to retake || ||
|-
|33 || 1, 2, 3 || 179 || 215 || 80nA || - || - || 8.7 || 100 || 220 || 3 || 0 || CONV full energy, high current || 80nA ion source current, out of sequence, max 45pC per channel || ||
|-
|34 || 1, 2, 3 || 179 || 215 || 40nA || - || - || 8.7 || 50 || 220 || 3 || 0 || CONV full energy, high current || 40nA ion source current || ||
|-
|35 || 1, 2, 3 || 179 || 215 || 20nA || - || - || 8.7 || 50 || 220 || 3 || 0 || CONV full energy, high current || 20nA ion source current || ||
|-
|36 || 1, 2, 3 || 148 || 155 || 300nA || - || - || 10.6 || 350 || 220 || 3 || 0 || CONV full energy, high current || 300nA ion source current || ||
|-
|37 || 1, 2, 3 || 112 || 95 || 300nA || - || - || 13.3 || 350 || 220 || 3 || 0 || CONV full energy, high current || 300nA ion source current || ||
|-
|38 || 1, 2, 3 || 70 || 41 || 300nA || - || - || 16.2 || 350 || 220 || 3 || 0 || CONV full energy, high current || 300nA ion source current || ||
|-
|39 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 350 || 220 || 3 || 0 || Background || Lid closed || ||
|-
|40 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 3 || 0 || Background || Lid closed || ||
|-
|}

== Measurements 30/09/2025 ==

* Approximately 100 minutes running 29/09/2025 (20:50–22:30).
* Peli case set up '''without''' movable stage: 1cm block under front, ~3mm under rear to level case.
* Isocentre at upstream face of first stack (level with inner edge of wheel mounts).
* Alignment checked with in room lasers after each adjustment.
* Beam optics are '''different''' between CONV mode and FLASH mode:
** Other than FLASH shoot through measurement with stack 1, running restricted to CONV mode.
** Current sufficient at maximum ion source current to almost saturate QuARC).
* SciFi monitor '''not''' installed.

=== General notes about the electronics ===
* Hamamatsu C9118-02 operated in Low Gain
** In low gain the dark output voltage is typ. 0.005 mV, max 0.1 mV
** The saturation output voltage is min. 3 V typ 3.5 V
* MCLK 1 MHz. Suggested min. reset time 10us and suggested min. integration time 17+4x128 clocks = 529 us.
* FPGA high period of RESET clock (reset) = 50 us, low period (integration) 950 us.* Link to the datasheet
https://www.hamamatsu.com/content/dam/hamamatsu-photonics/sites/documents/99_SALES_LIBRARY/ssd/s11865-64_etc_kmpd1134e.pdf

=== Desirable mesurements ===

* each acquisition should be 10s
* don't forget background runs
* find the minimum current to see the beam spot in the center of the detector and increase the current up to saturation of the central pixel and close by pair of pixels (to obtain the linearity curves not only for the central pixel but also for other pixels)
* test other energy to reconstruct beams with different spot size
* position scan (if possible) moving the box position of 5mm right/left up/down

=== Spot scanning Measurements ===

{| class="wikitable"
!Run number
!Modules
!Beam Energy (MeV)
!Estimated Range (mm)
!Ion Source Current (nA)
!Delivered protons
!Irradiation time
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Acquisition Time (s)
!Degrader WET (mm)
!Beam setup
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || 1, 2 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 10 || 0 || Background || Lid open, 2 modules installed || ||
|-
|n || 1, 2 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 10 || 0 || Background || Lid closed, 2 modules installed || ||
|-
|n || 1, 2 || 148 || 155 || - || - || - || 10.6 || 12.5 || 220 || 5 || 0 || CONV optics || Intensity check || ||
|-
|n || 1, 2 || 148 || 155 || - || - || - || 10.6 || 12.5 || 220 || 5 || 0 || CONV optics || Intensity check || ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-09-30T16:23:49Z

RaffaellaRadogna: /* Measurements 30/09/2025 */

== Beam Time Request Forms ==

https://www.hep.ucl.ac.uk/pbt/wikiData/BeamRequests/Trento_09_2025/

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Fiber Module Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | 2D Fiber Arrays
| style="text-align: center;" | 2 Modules of vertical and horizontal fibers
|-
| style="text-align: center;" | Read-out electronics
| style="text-align: center;" | 2 Hamamatsu S13885-128 photodiode array each coupled to a Hamamatsu C9118-02 driver circuit
|-
| style="text-align: center;" | ZYBO Z7-10 Diligent FPGA development board.
| style="text-align: center;" | To provide clocks to C9118.
|-
| style="text-align: center;" | NI USB-6366 Multifunction I/O device.
| style="text-align: center;" | For interfacing between C9118 and PC.
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|}

== Experiment Plan ==
For each beam delivery, our acquisition time is 5 seconds. This gives us an optimal number of events. For FLASH beam time restrictions, we could consider reducing the acquisition time, if necessary.
* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through:
** 8 beam deliveries 245 MeV conventional current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at conventional current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
** 8 beam deliveries 245 MeV FLASH current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at FLASH current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
* Pristine Bragg peak measurements at clinical current for full clinical range:
** 19 beam deliveries from 245 MeV and 240 to 70 MeV in 10 MeV steps.
* Pristine Bragg peak measurements at FLASH current for full clinical range:
** 19 beam deliveries from 245 MeV and from 240 to 70 MeV in 10 MeV steps at FLASH current.
*** if there is FLASH beam time limitation we can take less energies points. Moreover, we could reduced the acquisition time for each FLASH beam delivery.
* Spot scanning:
** pristine Bragg Peak measurements at fixed energy (i.e. 150 MeV and 245 MeV) and clinical current shifting the beam up, down, left and right wrt isocenter by 3mm
*** 4 beam deliveries per energy

=== Setup ===

* Peli case set up on FLASH station.
* Network connected through TIFPA experimental room patch panel:
** Inside experimental room:
*** Long cable from patch panel (1) to DLink switch.
*** Long cable from switch to QuARC.
*** Short cable from switch to profile monitor DAQ laptop.
** Inside control room:
*** Long cable from patch panel (5) to GL.iNet Slate router.
*** Short cables to laptops.
* Case aligned to room lasers:
** Blocks used for levelling.
** Set up on height adjustable platform.
** Aligned to front cover plate.

== Measurements 29/09/2025 ==

* Approximately 100 minutes running 29/09/2025 (20:50–22:30).
* Peli case set up '''without''' movable stage: 1cm block under front, ~3mm under rear to level case.
* Isocentre at upstream face of first stack (level with inner edge of wheel mounts).
* Alignment checked with in room lasers after each adjustment.
* Beam optics are '''different''' between CONV mode and FLASH mode:
** Other than FLASH shoot through measurement with stack 1, running restricted to CONV mode.
** Current sufficient at maximum ion source current to almost saturate QuARC).
* SciFi monitor '''not''' installed.

=== Calibration conventional and FLASH ===

{| class="wikitable"
!Run number
!Modules
!Beam Energy (MeV)
!Estimated Range (mm)
!Ion Source Current (nA)
!Delivered protons
!Irradiation time
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Acquisition Time (s)
!Degrader WET (mm)
!Beam setup
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|1 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 3 || 0 || Background || Lid open || ||
|-
|2 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 0 || Background || Lid open || ||
|-
|3 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 0 || Background || Lid open, added network switch to DAQ chain || ||
|-
|4 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 0 || Background || Lid closed, BG with lid open ~0.10pC per PD, lid closed ~0.014pC || ||
|-
|5 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 0 || Background || Lid open, Added long network cable between switch and wall patch panel || ||
|-
|6 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 0 || Background || Lid closed, Peli case moved to FLASH beamline station and aligned with lasers @15.13 || ||
|-
|7 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 5 || 50 || Background || Peli case aligned, cover plates removed, 50mm WET installed || ||
|-
|8 || 1 || 228 || 325 || - || - || - || 6.8 || 12.5 || 170 || 5 || 50 || FLASH, low current, shoot through front || Only 50% of measurements acquired, saturating; aiming for 1nA at detector || ||
|-
|9 || 1 || 228 || 325 || - || - || - || 6.8 || 12.5 || 170 || 5 || 50 || FLASH, low current, shoot through front || 4 sheets saturating; aiming for 0.5nA at detector || ||
|-
|10 || 1 || 228 || 325 || - || - || - || 6.8 || 12.5 || 170 || 5 || 50 || FLASH, low current, shoot through front || Sheets saturating; aiming for 0.5nA at detector; switching to CONV optics || ||
|-
|11 || 1 || 228 || 325 || 10 || 4E9 || - || 6.8 || 12.5 || 170 || 5 || 50 || CONV, high current, shoot through front || Switch to CONV mode, good FSR || ||
|-
|12 || 1 || 228 || 325 || 20 || - || - || 6.8 || 350 || 170 || 5 || 50 || CONV, high current, shoot through front || ~20nA isocentre, ~120pC per sheet maximum || ||
|-
|13 || 1 || 228 || 325 || - || 3E12 || - || 6.8 || 350 || 170 || 3 || 50 || CONV, high current, shoot through front || ~50nA isocentre, ~270pC per sheet maximum, Raspberry Pi frozen, restarted: only ~58% measurements recorded || ||
|-
|14 || 1 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 3 || 50 || Background || Lid closed, stack rotated || ||
|-
|15 || 1 || 228 || 325 || 10 || 4E9(?) || - || 6.8 || 12.5 || 170 || 5 || 50 || CONV, shoot through back || ~1nA isocentre(?) || ||
|-
|16 || 2 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 5 || 50 || Background || Lid closed, module 2 installed || ||
|-
|17 || 2 || 228 || 325 || 1 || - || - || 6.8 || 12.5 || 170 || 5 || 50 || Shoot through front || || ||
|-
|18 || 2 || 228 || 325 || 1 || - || - || 6.8 || 12.5 || 170 || 5 || 50 || Shoot through back || Rotated and reinstalled stack || ||
|-
|19 || 3 || Background || N/A || 0 || 0 || 0 || N/A || 12.5 || 170 || 5 || 50 || Background || Lid closed, module 3 installed || ||
|-
|20 || 3 || 228 || 325 || 1 || - || - || 6.8 || 12.5 || 170 || 5 || 50 || Shoot through front || || ||
|-
|21 || 3 || 228 || 325 || 1 || - || - || 6.8 || 12.5 || 170 || 5 || 50 || Shoot through back || Rotated and reinstalled stack || ||
|-
|}

=== Bragg Peak Measurements ===

{| class="wikitable"
!Run number
!Modules
!Beam Energy (MeV)
!Estimated Range (mm)
!Ion Source Current (nA)
!Delivered protons
!Irradiation time
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Acquisition Time (s)
!Degrader WET (mm)
!Beam setup
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|22 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 5 || 0 || Background || Lid open, 3 modules installed || ||
|-
|23 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 5 || 0 || Background || Lid closed, 3 modules installed || ||
|-
|24 || 1, 2, 3 || 179 || 215 || 1 || 1.3E11 || 20 || 8.7 || 12.5 || 220 || 5 || 0 || CONV full energy || 4 photodiodes saturating: drop next current in half, 1.3E11 in 20s || ||
|-
|25 || 1, 2, 3 || 179 || 215 || 15nA || - || - || 8.7 || 12.5 || 220 || 5 || 0 || CONV full energy || 15nA ion source current, ~1nA isocentre || ||
|-
|26 || 1, 2, 3 || 179 || 215 || 300nA || - || - || 8.7 || 350 || 220 || 3 || 0 || CONV full energy, high current || 300nA ion source current, ~10nA isocentre || ||
|-
|27 || 1, 2, 3 || 179 || 215 || 250nA || - || - || 8.7 || 350 || 220 || 3 || 0 || CONV full energy, high current || 250nA ion source current, ~8.3nA isocentre || ||
|-
|28 || 1, 2, 3 || 179 || 215 || 200nA || - || - || 8.7 || 350 || 220 || 3 || 0 || CONV full energy, high current || 200nA ion source current, ~6.7nA isocentre || ||
|-
|29 || 1, 2, 3 || 179 || 215 || 150nA || - || - || 8.7 || 350 || 220 || 3 || 0 || CONV full energy, high current || 150nA ion source current, ~5nA isocentre || ||
|-
|30 || 1, 2, 3 || 179 || 215 || 100nA || - || - || 8.7 || 350 || 220 || 3 || 0 || CONV full energy, high current || 100nA ion source current, ~3.3nA isocentre || ||
|-
|31 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 350 || 220 || 3 || 0 || Background || || ||
|-
|32 || 1, 2, 3 || 179 || 215 || 60nA || - || - || 8.7 || 50 || 220 || 3 || 0 || CONV full energy, high current || 60nA ion source current, had to retake || ||
|-
|33 || 1, 2, 3 || 179 || 215 || 80nA || - || - || 8.7 || 100 || 220 || 3 || 0 || CONV full energy, high current || 80nA ion source current, out of sequence, max 45pC per channel || ||
|-
|34 || 1, 2, 3 || 179 || 215 || 40nA || - || - || 8.7 || 50 || 220 || 3 || 0 || CONV full energy, high current || 40nA ion source current || ||
|-
|35 || 1, 2, 3 || 179 || 215 || 40nA || - || - || 8.7 || 50 || 220 || 3 || 0 || CONV full energy, high current || 20nA ion source current || ||
|-
|36 || 1, 2, 3 || 148 || 155 || 300nA || - || - || 10.6 || 350 || 220 || 3 || 0 || CONV full energy, high current || 300nA ion source current || ||
|-
|37 || 1, 2, 3 || 112 || 95 || 300nA || - || - || 13.3 || 350 || 220 || 3 || 0 || CONV full energy, high current || 300nA ion source current || ||
|-
|38 || 1, 2, 3 || 70 || 41 || 300nA || - || - || 16.2 || 350 || 220 || 3 || 0 || CONV full energy, high current || 300nA ion source current || ||
|-
|39 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 350 || 220 || 3 || 0 || Background || Lid closed || ||
|-
|40 || 1, 2, 3 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 3 || 0 || Background || Lid closed || ||
|-
|}

== Measurements 30/09/2025 ==

* Approximately 100 minutes running 29/09/2025 (20:50–22:30).
* Peli case set up '''without''' movable stage: 1cm block under front, ~3mm under rear to level case.
* Isocentre at upstream face of first stack (level with inner edge of wheel mounts).
* Alignment checked with in room lasers after each adjustment.
* Beam optics are '''different''' between CONV mode and FLASH mode:
** Other than FLASH shoot through measurement with stack 1, running restricted to CONV mode.
** Current sufficient at maximum ion source current to almost saturate QuARC).
* SciFi monitor '''not''' installed.

=== General notes about the electronics ===
* Hamamatsu C9118-02 operated in Low Gain
** In low gain the dark output voltage is typ. 0.005 mV, max 0.1 mV
** The saturation output voltage is min. 3 V typ 3.5 V
* MCLK 1 MHz. Suggested min. reset time 10us and suggested min. integration time 17+4x128 clocks = 529 us.
* FPGA high period of RESET clock (reset) = 50 us, low period (integration) 950 us.* Link to the datasheet
https://www.hamamatsu.com/content/dam/hamamatsu-photonics/sites/documents/99_SALES_LIBRARY/ssd/s11865-64_etc_kmpd1134e.pdf

=== Spot scanning Measurements ===

{| class="wikitable"
!Run number
!Modules
!Beam Energy (MeV)
!Estimated Range (mm)
!Ion Source Current (nA)
!Delivered protons
!Irradiation time
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Acquisition Time (s)
!Degrader WET (mm)
!Beam setup
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || 1, 2 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 10 || 0 || Background || Lid open, 2 modules installed || ||
|-
|n || 1, 2 || Background || || 0 || 0 || 0 || N/A || 12.5 || 220 || 10 || 0 || Background || Lid closed, 2 modules installed || ||
|-
|n || 1, 2 || 148 || 215 || - || - || - || 8.7 || 12.5 || 220 || 5 || 0 || CONV optics || Notes || ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-09-30T08:16:48Z

RaffaellaRadogna: /* Experiment Equipment */

== Beam Time Request Forms ==

https://www.hep.ucl.ac.uk/pbt/wikiData/BeamRequests/Trento_09_2025/

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Fiber Module Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | 2D Fiber Arrays
| style="text-align: center;" | 2 Modules of vertical and horizontal fibers
|-
| style="text-align: center;" | Read-out electronics
| style="text-align: center;" | 2 Hamamatsu S13885-128 photodiode array each coupled to a Hamamatsu C9118-02 driver circuit
|-
| style="text-align: center;" | ZYBO Z7-10 Diligent FPGA development board.
| style="text-align: center;" | To provide clocks to C9118.
|-
| style="text-align: center;" | NI USB-6366 Multifunction I/O device.
| style="text-align: center;" | For interfacing between C9118 and PC.
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|}

== Experiment Plan ==
For each beam delivery, our acquisition time is 5 seconds. This gives us an optimal number of events. For FLASH beam time restrictions, we could consider reducing the acquisition time, if necessary.
* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through:
** 8 beam deliveries 245 MeV conventional current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at conventional current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
** 8 beam deliveries 245 MeV FLASH current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at FLASH current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
* Pristine Bragg peak measurements at clinical current for full clinical range:
** 19 beam deliveries from 245 MeV and 240 to 70 MeV in 10 MeV steps.
* Pristine Bragg peak measurements at FLASH current for full clinical range:
** 19 beam deliveries from 245 MeV and from 240 to 70 MeV in 10 MeV steps at FLASH current.
*** if there is FLASH beam time limitation we can take less energies points. Moreover, we could reduced the acquisition time for each FLASH beam delivery.
* Spot scanning:
** pristine Bragg Peak measurements at fixed energy (i.e. 150 MeV and 245 MeV) and clinical current shifting the beam up, down, left and right wrt isocenter by 3mm
*** 4 beam deliveries per energy

=== Setup ===

* Peli case set up on FLASH station.
* Network connected through TIFPA experimental room patch panel:
** Inside experimental room:
*** Long cable from patch panel (1) to DLink switch.
*** Long cable from switch to QuARC.
*** Short cable from switch to profile monitor DAQ laptop.
** Inside control room:
*** Long cable from patch panel (5) to GL.iNet Slate router.
*** Short cables to laptops.
* Case aligned to room lasers:
** Blocks used for levelling.
** Set up on height adjustable platform.
** Aligned to front cover plate.

=== Calibration conventional and FLASH ===
DDC232 FSR should be determined at max beam current starting from minimum FSR value that does not give signal saturation. This could require 2 or 3 beam deliveries.
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|}

=== Bragg Peak Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack (1-2-3-4) || Background || - || - || N/A || 350 || 170 (constant) || || || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 230 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 220 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 210 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 200 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 200 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 210 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 220 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 230 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || Background || || - || - || || 170 || || || N/A ||
|-
|}

=== Spot scanning Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || right || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || right || N/A ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-05T09:11:31Z

RaffaellaRadogna: /* Experiment Plan */

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Experiment Plan ==
For each beam delivery, our acquisition time is 5 seconds. This gives us an optimal number of events. For FLASH beam time restrictions, we could consider reducing the acquisition time, if necessary.
* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through:
** 8 beam deliveries 245 MeV conventional current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at conventional current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
** 8 beam deliveries 245 MeV FLASH current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at FLASH current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
* Pristine Bragg peak measurements at clinical current for full clinical range:
** 19 beam deliveries from 245 MeV and 240 to 70 MeV in 10 MeV steps.
* Pristine Bragg peak measurements at FLASH current for full clinical range:
** 19 beam deliveries from 245 MeV and from 240 to 70 MeV in 10 MeV steps at FLASH current.
*** if there is FLASH beam time limitation we can take less energies points. Moreover, we could reduced the acquisition time for each FLASH beam delivery.
* Spot scanning:
** pristine Bragg Peak measurements at fixed energy (i.e. 150 MeV and 245 MeV) and clinical current shifting the beam up, down, left and right wrt isocenter by 3mm
*** 4 beam deliveries per energy

=== Calibration conventional and FLASH ===
DDC232 FSR should be determined at max beam current starting from minimum FSR value that does not give signal saturation. This could require 2 or 3 beam deliveries.
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|}

=== Bragg Peak Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack (1-2-3-4) || Background || - || - || N/A || 350 || 170 (constant) || || || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 230 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 220 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 210 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 200 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 200 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 210 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 220 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 230 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || Background || || - || - || || 170 || || || N/A ||
|-
|}

=== Spot scanning Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || right || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || right || N/A ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-05T08:47:12Z

RaffaellaRadogna: /* Experiment Plan */

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Experiment Plan ==
For each beam delivery our acquisition time is 5 seconds. This gives us an optimal number of events. For FLASH beam time restrictions, we could consider reducing the acquisition time, if necessary.
* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through:
** 8 beam deliveries 245 MeV conventional current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at conventional current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
** 8 beam deliveries 245 MeV FLASH current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at FLASH current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
* Pristine Bragg peak measurements at clinical current for full clinical range:
** 19 beam deliveries from 245 MeV and 240 to 70 MeV in 10 MeV steps.
* Pristine Bragg peak measurements at FLASH current for full clinical range:
** 19 beam deliveries from 245 MeV and from 240 to 70 MeV in 10 MeV steps at FLASH current.
*** if there is FLASH beam time limitation we can take less energies points. Moreover, we could reduced the acquisition time for each FLASH beam delivery.
* Spot scanning:
** pristine Bragg Peak measurements at fixed energy (i.e. 150 MeV and 245 MeV) and clinical current shifting the beam up, down, left and right wrt isocenter by 3mm
*** 4 beam deliveries per energy

=== Calibration conventional and FLASH ===
DDC232 FSR should be determined at max beam current starting from minimum FSR value that does not give signal saturation. This could require 2 or 3 beam deliveries.
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|}

=== Bragg Peak Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack (1-2-3-4) || Background || - || - || N/A || 350 || 170 (constant) || || || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 230 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 220 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 210 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 200 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 200 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 210 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 220 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 230 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || Background || || - || - || || 170 || || || N/A ||
|-
|}

=== Spot scanning Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || right || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || right || N/A ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-05T08:42:56Z

RaffaellaRadogna: /* Experiment Plan */

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Experiment Plan ==

* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through:
** 8 beam deliveries 245 MeV conventional current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at conventional current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
** 8 beam deliveries 245 MeV FLASH current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at FLASH current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
* Pristine Bragg peak measurements at clinical current for full clinical range:
** 19 beam deliveries from 245 MeV and 240 to 70 MeV in 10 MeV steps.
* Pristine Bragg peak measurements at FLASH current for full clinical range:
** 19 beam deliveries from 245 MeV and from 240 to 70 MeV in 10 MeV steps at FLASH current.
*** if there is FLASH beam time limitation we can take less energies points. Moreover, we could reduced the acquisition time for each FLASH beam delivery.
* Spot scanning:
** pristine Bragg Peak measurements at fixed energy (i.e. 150 MeV and 245 MeV) and clinical current shifting the beam up, down, left and right wrt isocenter by 3mm
*** 4 beam deliveries per energy

=== Calibration conventional and FLASH ===
DDC232 FSR should be determined at max beam current starting from minimum FSR value that does not give signal saturation. This could require 2 or 3 beam deliveries.
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|}

=== Bragg Peak Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack (1-2-3-4) || Background || - || - || N/A || 350 || 170 (constant) || || || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 230 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 220 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 210 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 200 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 200 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 210 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 220 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 230 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || Background || || - || - || || 170 || || || N/A ||
|-
|}

=== Spot scanning Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || right || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || right || N/A ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-05T08:37:38Z

RaffaellaRadogna: /* Bragg Peak Measurements */

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Experiment Plan ==

* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through:
** 8 beam deliveries 245 MeV conventional current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at conventional current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
** 8 beam deliveries 245 MeV FLASH current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at FLASH current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
* Pristine Bragg peak measurements at clinical current for full clinical range:
** 19 beam deliveries from 245 to 70 MeV in 10 MeV steps.
* Pristine Bragg peak measurements at FLASH current for full clinical range:
** 19 beam deliveries from 245 to 70 MeV in 10 MeV steps at FLASH current.
* Spot scanning:
** pristine Bragg Peak measurements at fixed energy (i.e. 150 MeV and 245 MeV) and clinical current shifting the beam up, down, left and right wrt isocenter by 3mm
*** 4 beam deliveries per energy

=== Calibration conventional and FLASH ===
DDC232 FSR should be determined at max beam current starting from minimum FSR value that does not give signal saturation. This could require 2 or 3 beam deliveries.
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|}

=== Bragg Peak Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack (1-2-3-4) || Background || - || - || N/A || 350 || 170 (constant) || || || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 230 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 220 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 210 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 200 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 200 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 210 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 220 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 230 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || Background || || - || - || || 170 || || || N/A ||
|-
|}

=== Spot scanning Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || right || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || right || N/A ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-05T08:37:09Z

RaffaellaRadogna: /* Experiment Plan */

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Experiment Plan ==

* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through:
** 8 beam deliveries 245 MeV conventional current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at conventional current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
** 8 beam deliveries 245 MeV FLASH current (2 beam deliveries (back and forth) per each module)
** additional 2 or 3 beam deliveries 245 MeV at FLASH current might be needed to find the minimum DDC232 FSR that does not saturate the signal.
* Pristine Bragg peak measurements at clinical current for full clinical range:
** 19 beam deliveries from 245 to 70 MeV in 10 MeV steps.
* Pristine Bragg peak measurements at FLASH current for full clinical range:
** 19 beam deliveries from 245 to 70 MeV in 10 MeV steps at FLASH current.
* Spot scanning:
** pristine Bragg Peak measurements at fixed energy (i.e. 150 MeV and 245 MeV) and clinical current shifting the beam up, down, left and right wrt isocenter by 3mm
*** 4 beam deliveries per energy

=== Calibration conventional and FLASH ===
DDC232 FSR should be determined at max beam current starting from minimum FSR value that does not give signal saturation. This could require 2 or 3 beam deliveries.
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|}

=== Bragg Peak Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack (1-2-3-4) || Background || - || - || N/A || 350 || 170 (constant) || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 300 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 250 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 200 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 150 || 170 || || || N/A ||
|-
|n || Full Stack || Background|| || - || - || 100 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 50 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 230 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 220 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 210 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 200 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 200 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 210 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 220 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 230 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || Background || || - || - || || 170 || || || N/A ||
|-
|}

=== Spot scanning Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || right || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || right || N/A ||
|-
|}

Proton Calorimetry/Experimental Runs

2025-02-05T08:33:46Z

RaffaellaRadogna: /* 2025 */

Information is available for the following experimental runs:

== [[/2025|2025]] ==
; [[/2025/Trento_2025-03|QuADProBe FLASH Measurements]]

== [[/2024|2024]] ==
; [[/2024/UCLHQuADProBe_2024-04|UCLH QuADProBe Measurements]]
: Pristine Bragg peak measurements at UCLH using two modules of QuARC prototype.
: Detector combined with Pixel Sensor from University of Birmingham and the Transmission Calorimeter from NPL.

== [[/2023|2023]] ==
; [[/2022/ClatterbridgeQuARC|Clatterbridge Range Measurements]]
: Pristine Bragg peak and SOBP measurements at Clatterbridge using compact QuARC prototype.
: Demonstrate detector principle and SOBP fitting.

== [[/2022|2022]] ==

; [[/2022/PARTREC|Groningen FLASH Measurements]]
: FLASH range QA measurements at PARTREC UMCG in Groningen.
: Using same scintillator stacks from Manchester.

; [[/2022/ManchesterFLASH|Manchester FLASH Measurements]]
: FLASH range QA measurements at The Christie.
: Also measure WET of stack using PTW PeakFinder.

; [[/2022/Sep1|UCLH 1st September 2022]]
: Experimental measurements at UCLH. Fourth beam test with photodiode DAQ system.
: Measurements of the WET of stack of white painted sheets and clear sheets (with Mylar) from previous UCLH beam test using IBA Giraffe.
: Scintillator light quenching using single scintillator block and camera.

; [[/2022/Jun16|UCLH 16th June 2022]]
: Experimental measurements at UCLH. Third beam test with photodiode DAQ system.
: Test light output with Rev. B prototype containing white sheets and clear sheets, comparing with CMOS sensor. Test new Rev.C prototype.
: Also contains details on cross-talk measurements made on 25/07/22 of prototypes used in beam test.

; [[/2022/MayLED|LED Optical Isolation Tests]]
: Lab tests at UCL using LED fibre injection and unpainted sheets with layers of material in between to provide optical isolation.
: Test cross-talk and light levels with no material, white paper, black card and mylar foil

== [[/2021|2021]] ==

; [[/2021/Nov2|UCLH 2nd November 2021]]
: Experimental measurements at UCLH. Second beam test with photodiode DAQ system.
: Test light output with white sheets, detector enclosure grounding and optical grease coupling. Investigate positional and angular dependence of range reconstruction.

; [[/2021/JulScintSheets|Measurements of 2 and 3 mm scintillator sheets]]
: Thickness measurements of 2 mm and 3 mm thick scintillator sheets from Nuvia, stripped of black paint and then painted white.

; [[/2021/Apr22|Noise Tests of 2nd DDC232 Prototype. 22nd April.]]
: Investigating source of electronic background noise observed in UCLH beam test.
: Measure dark noise in lab/office with CMOS sensor turned on/off.

; [[/2021/Apr15|UCLH 15th April 2021]]
: Experimental measurements at UCLH. First beam test with photodiode DAQ system.
: Validate photodiode range reconstruction against CMOS sensor.

; [[/2021/Apr1|Daisy Chain Tests of 2nd DDC232 Prototype. 1st April.]]
: Debugging daisy chain problems in the 2nd DDC232 prototype, using a board with resistors instead of photodiodes.

; [[/2021/Mar4|Daisy Chain Tests of 2nd DDC232 Prototype. 4th March.]]
: Debugging daisy chain problems in the 2nd DDC232 prototype, using a board with resistors instead of photodiodes.

== [[/2020|2020]] ==

; [[/2020/Nov27|Dark noise in different rooms at UCL. Nov 27th]]
: DDC232 Rev. A large statistic tests of dark noise in D27, D109 and D106.

; [[/2020/Nov13|Electronics test with large statistics. Nov 13th]]
: DDC232 Rev. A large statistic tests of photodiodes with light injected in many layers, different FSR and integration times, test mode and PD unplugged.

; [[/2020/Nov12|Home Test of Photodiodes. Nov 12th]]
: DDC232 Rev. A large statistic tests of photodiodes at home with different FSR and integration times.

; [[/2020/Oct23|Large statistics photodiode signal. Oct 23rd]]
: DDC232 Rev. A LED injected light in sheet 8: different PDs arrays, integration time and full scale.

; [[/2020/Oct7|Comparison of sensor and photodiodes signal. Oct 7th]]
: LED injected light in sheet 8: two read-out comparison.

; [[/2020/CrossTalk|Measurements of scintillator sheets cross talk]]
: Cross Talk measurements.

== [[/2019|2019]] ==

; [[/2019/NovScintSheets|Measurements of 2 and 3 mm scintillator sheets]]
: Thickness measurements of 2 mm and 3 mm thick scintillator sheets from Nuvia.

; [[/2019/Apr12-15|12th–15th April 2019]]
: Experimental measurements at Heidelberg using range calorimeter and Proton, Helium, Carbon, Oxygen beam.
: Data for PTCOPG talk.

; [[/2019/Mar26|LeCroy HDO6104 Trigger Dead-time Measurements]]
: Summary of LeCroy HDO6104 Trigger Dead-time Measurements.

== [[/2018|2018]] ==

; [[/2018/Nov16-18|16th–18th November 2018]]
: Experimental measurements at Heidelberg using range calorimeter and Helium beam.
: Single PMT module tests to provide data for HIT pCT reconstruction.

; [[/2018/Oct25-6|25th-26th October 2018]]
: Experimental measurements at Birmingham using fast treatment plan verification test setup.
: Improved setup from [[/2018/Feb21|21st February 2018]] with PRaVDA module trigger output.

; [[/2018/Aug16|16th August 2018]]
: Experimental measurements with range calorimeter using Carbon beam at MedAustron.
: Range measurements from 120 to 184.5 MeV/u.

; [[/2018/Mar23|23rd March 2018]]
: Single module calorimeter measurements to support TUWien proton CT tracker.

; [[/2018/Mar22|22nd March 2018]]
: Experimental measurements with range calorimeter from 62 to 252 MeV.
: Precision range measurements from 62 to 100 MeV.

; [[/2018/Mar8-9|8th-9th March 2018]]
: First experimental measurements of the plastic scintillator range calorimeter.
: Measurements at 28 and 36 MeV using ISDI sensor and Nikon DSLR.

; [[/2018/Feb21|21st February 2018]]
: Experimental measurements at Birmingham using fast treatment plan verification test setup.

; [[/2018/FebScintSheets|Measurements of 2 and 3 mm scintillator sheets]]
: Thickness measurements of 2 mm and 3 mm thick scintillator sheets from Nuvia.

; [[/2018/JanMarPlans|Plan of Action for January–March 2018]]
: Plan of action for range calorimeter assembly and experimental tests from January to March 2018.

== [[/2017|2017]] ==

; [[/2017/September7|7th September 2017]]
: Tests of Nuvia scintillator stacks with PRaVDA CMOS pixel sensors (PRIAPUS) at the Birmingham Cyclotron with a 28 MeV beam.
; [[/2017/Aug10-31|10th August 2017]]
: Tests of Nuvia scintillator stacks with PRaVDA CMOS pixel sensors (PRIAPUS).
; [[/2017/Mar1-3|1st-3rd March 2017]]
: Measurements at MedAustron with longer scintillator and 252MeV beam.
: Give short explanation of the purpose and results.

== [[/2016|2016]] ==

; [[/2016/Nov24-25|24th-25th November 2016]]
: Give short explanation of the purpose and results.
; [[/2016/Aug2-3|2nd-3rd August 2016]]
: Energy-to-range calibration measurements with a calibration wheel used by physicists at Clatterbridge with detector module comprising a 2" PMT and new PS-based scintillator.
: Data cross-checking measurements taken with the wheel to that taken with PMMA blocks of equivalent thickness at the same location, and further upstream at the modulator box.
: Measured total dose delivered to the new PS-based scintillator for radiation damage and hardness considerations.
: Recorded waveform data with new LeCroy HDO6104 oscilloscope.
: Made neutron measurements with the large 8" PMT hexagonal block module.

== [[/2015|2015]] ==

; [[/2015/Dec21-22|21st-22nd December 2015]]
: Give short explanation of the purpose and results.
; [[/2015/Jul8-9|8th-9th July 2015]]
: Give short explanation of the purpose and results.

== [[/2014|2014]] ==

; [[/2014/Dec8-9|8th-9th December 2014]]
: Give short explanation of the purpose and results.

== [[/2013|2013]] ==

; [[/2013/Dec9-10|9th-10th December 2013]]
: Give short explanation of the purpose and results.

Proton Calorimetry/Experimental Runs/2025

2025-02-05T08:33:18Z

RaffaellaRadogna:

; [[/Trento_2025-03|2025 Integrated system (QuADProBe) conventional/FLASH Measurements]]
: Experimental plan for next beam tests.
: First test of new QuARC electronics.
: Includes FLASH beam and fibre array measurements.

Proton Calorimetry/Experimental Runs/2025

2025-02-05T08:32:08Z

RaffaellaRadogna:

; [[/QuADProBe_FLASH_2025|2025 Integrated system (QuADProBe) conventional/FLASH Measurements]]
: Experimental plan for next beam tests.
: First test of new QuARC electronics.
: Includes FLASH beam and fibre array measurements.
Trento_2025-03

Proton Calorimetry/Experimental Runs

2025-02-05T08:30:13Z

RaffaellaRadogna:

Information is available for the following experimental runs:

== [[/2025|2025]] ==
; [[/2025/QuADProBe_FLASH_2025|QuADProBe FLASH Measurements]]

== [[/2024|2024]] ==
; [[/2024/UCLHQuADProBe_2024-04|UCLH QuADProBe Measurements]]
: Pristine Bragg peak measurements at UCLH using two modules of QuARC prototype.
: Detector combined with Pixel Sensor from University of Birmingham and the Transmission Calorimeter from NPL.

== [[/2023|2023]] ==
; [[/2022/ClatterbridgeQuARC|Clatterbridge Range Measurements]]
: Pristine Bragg peak and SOBP measurements at Clatterbridge using compact QuARC prototype.
: Demonstrate detector principle and SOBP fitting.

== [[/2022|2022]] ==

; [[/2022/PARTREC|Groningen FLASH Measurements]]
: FLASH range QA measurements at PARTREC UMCG in Groningen.
: Using same scintillator stacks from Manchester.

; [[/2022/ManchesterFLASH|Manchester FLASH Measurements]]
: FLASH range QA measurements at The Christie.
: Also measure WET of stack using PTW PeakFinder.

; [[/2022/Sep1|UCLH 1st September 2022]]
: Experimental measurements at UCLH. Fourth beam test with photodiode DAQ system.
: Measurements of the WET of stack of white painted sheets and clear sheets (with Mylar) from previous UCLH beam test using IBA Giraffe.
: Scintillator light quenching using single scintillator block and camera.

; [[/2022/Jun16|UCLH 16th June 2022]]
: Experimental measurements at UCLH. Third beam test with photodiode DAQ system.
: Test light output with Rev. B prototype containing white sheets and clear sheets, comparing with CMOS sensor. Test new Rev.C prototype.
: Also contains details on cross-talk measurements made on 25/07/22 of prototypes used in beam test.

; [[/2022/MayLED|LED Optical Isolation Tests]]
: Lab tests at UCL using LED fibre injection and unpainted sheets with layers of material in between to provide optical isolation.
: Test cross-talk and light levels with no material, white paper, black card and mylar foil

== [[/2021|2021]] ==

; [[/2021/Nov2|UCLH 2nd November 2021]]
: Experimental measurements at UCLH. Second beam test with photodiode DAQ system.
: Test light output with white sheets, detector enclosure grounding and optical grease coupling. Investigate positional and angular dependence of range reconstruction.

; [[/2021/JulScintSheets|Measurements of 2 and 3 mm scintillator sheets]]
: Thickness measurements of 2 mm and 3 mm thick scintillator sheets from Nuvia, stripped of black paint and then painted white.

; [[/2021/Apr22|Noise Tests of 2nd DDC232 Prototype. 22nd April.]]
: Investigating source of electronic background noise observed in UCLH beam test.
: Measure dark noise in lab/office with CMOS sensor turned on/off.

; [[/2021/Apr15|UCLH 15th April 2021]]
: Experimental measurements at UCLH. First beam test with photodiode DAQ system.
: Validate photodiode range reconstruction against CMOS sensor.

; [[/2021/Apr1|Daisy Chain Tests of 2nd DDC232 Prototype. 1st April.]]
: Debugging daisy chain problems in the 2nd DDC232 prototype, using a board with resistors instead of photodiodes.

; [[/2021/Mar4|Daisy Chain Tests of 2nd DDC232 Prototype. 4th March.]]
: Debugging daisy chain problems in the 2nd DDC232 prototype, using a board with resistors instead of photodiodes.

== [[/2020|2020]] ==

; [[/2020/Nov27|Dark noise in different rooms at UCL. Nov 27th]]
: DDC232 Rev. A large statistic tests of dark noise in D27, D109 and D106.

; [[/2020/Nov13|Electronics test with large statistics. Nov 13th]]
: DDC232 Rev. A large statistic tests of photodiodes with light injected in many layers, different FSR and integration times, test mode and PD unplugged.

; [[/2020/Nov12|Home Test of Photodiodes. Nov 12th]]
: DDC232 Rev. A large statistic tests of photodiodes at home with different FSR and integration times.

; [[/2020/Oct23|Large statistics photodiode signal. Oct 23rd]]
: DDC232 Rev. A LED injected light in sheet 8: different PDs arrays, integration time and full scale.

; [[/2020/Oct7|Comparison of sensor and photodiodes signal. Oct 7th]]
: LED injected light in sheet 8: two read-out comparison.

; [[/2020/CrossTalk|Measurements of scintillator sheets cross talk]]
: Cross Talk measurements.

== [[/2019|2019]] ==

; [[/2019/NovScintSheets|Measurements of 2 and 3 mm scintillator sheets]]
: Thickness measurements of 2 mm and 3 mm thick scintillator sheets from Nuvia.

; [[/2019/Apr12-15|12th–15th April 2019]]
: Experimental measurements at Heidelberg using range calorimeter and Proton, Helium, Carbon, Oxygen beam.
: Data for PTCOPG talk.

; [[/2019/Mar26|LeCroy HDO6104 Trigger Dead-time Measurements]]
: Summary of LeCroy HDO6104 Trigger Dead-time Measurements.

== [[/2018|2018]] ==

; [[/2018/Nov16-18|16th–18th November 2018]]
: Experimental measurements at Heidelberg using range calorimeter and Helium beam.
: Single PMT module tests to provide data for HIT pCT reconstruction.

; [[/2018/Oct25-6|25th-26th October 2018]]
: Experimental measurements at Birmingham using fast treatment plan verification test setup.
: Improved setup from [[/2018/Feb21|21st February 2018]] with PRaVDA module trigger output.

; [[/2018/Aug16|16th August 2018]]
: Experimental measurements with range calorimeter using Carbon beam at MedAustron.
: Range measurements from 120 to 184.5 MeV/u.

; [[/2018/Mar23|23rd March 2018]]
: Single module calorimeter measurements to support TUWien proton CT tracker.

; [[/2018/Mar22|22nd March 2018]]
: Experimental measurements with range calorimeter from 62 to 252 MeV.
: Precision range measurements from 62 to 100 MeV.

; [[/2018/Mar8-9|8th-9th March 2018]]
: First experimental measurements of the plastic scintillator range calorimeter.
: Measurements at 28 and 36 MeV using ISDI sensor and Nikon DSLR.

; [[/2018/Feb21|21st February 2018]]
: Experimental measurements at Birmingham using fast treatment plan verification test setup.

; [[/2018/FebScintSheets|Measurements of 2 and 3 mm scintillator sheets]]
: Thickness measurements of 2 mm and 3 mm thick scintillator sheets from Nuvia.

; [[/2018/JanMarPlans|Plan of Action for January–March 2018]]
: Plan of action for range calorimeter assembly and experimental tests from January to March 2018.

== [[/2017|2017]] ==

; [[/2017/September7|7th September 2017]]
: Tests of Nuvia scintillator stacks with PRaVDA CMOS pixel sensors (PRIAPUS) at the Birmingham Cyclotron with a 28 MeV beam.
; [[/2017/Aug10-31|10th August 2017]]
: Tests of Nuvia scintillator stacks with PRaVDA CMOS pixel sensors (PRIAPUS).
; [[/2017/Mar1-3|1st-3rd March 2017]]
: Measurements at MedAustron with longer scintillator and 252MeV beam.
: Give short explanation of the purpose and results.

== [[/2016|2016]] ==

; [[/2016/Nov24-25|24th-25th November 2016]]
: Give short explanation of the purpose and results.
; [[/2016/Aug2-3|2nd-3rd August 2016]]
: Energy-to-range calibration measurements with a calibration wheel used by physicists at Clatterbridge with detector module comprising a 2" PMT and new PS-based scintillator.
: Data cross-checking measurements taken with the wheel to that taken with PMMA blocks of equivalent thickness at the same location, and further upstream at the modulator box.
: Measured total dose delivered to the new PS-based scintillator for radiation damage and hardness considerations.
: Recorded waveform data with new LeCroy HDO6104 oscilloscope.
: Made neutron measurements with the large 8" PMT hexagonal block module.

== [[/2015|2015]] ==

; [[/2015/Dec21-22|21st-22nd December 2015]]
: Give short explanation of the purpose and results.
; [[/2015/Jul8-9|8th-9th July 2015]]
: Give short explanation of the purpose and results.

== [[/2014|2014]] ==

; [[/2014/Dec8-9|8th-9th December 2014]]
: Give short explanation of the purpose and results.

== [[/2013|2013]] ==

; [[/2013/Dec9-10|9th-10th December 2013]]
: Give short explanation of the purpose and results.

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T11:20:26Z

RaffaellaRadogna: /* Bragg Peak Measurements */

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Experiment Plan ==

* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through:
** 8 beam deliveries 245 MeV conventional current (2 beam deliveries (back and forth) per each module)
** 8 beam deliveries 245 MeV FLASH current (2 beam deliveries (back and forth) per each module)
* Pristine Bragg peak measurements at clinical current for full clinical range:
** 19 beam deliveries from 245 to 70 MeV in 10 MeV steps.
* Pristine Bragg peak measurements at FLASH current for full clinical range:
** 19 beam deliveries from 245 to 70 MeV in 10 MeV steps at FLASH current.
* Spot scanning:
** pristine Bragg Peak measurements at fixed energy (i.e. 150 MeV and 245 MeV) and clinical current shifting the beam up, down, left and right wrt isocenter by 3mm
*** 4 beam deliveries per energy

=== Calibration conventional and FLASH ===
DDC232 FSR should be determined at max beam current starting from minimum FSR value that does not give signal saturation. This could require 2 or 3 beam deliveries.
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|}

=== Bragg Peak Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack (1-2-3-4) || Background || - || - || N/A || 350 || 170 (constant) || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 300 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 250 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 200 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 150 || 170 || || || N/A ||
|-
|n || Full Stack || Background|| || - || - || 100 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 50 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 230 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 220 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 210 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 200 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 200 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 210 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 220 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 230 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || Background || || - || - || || 170 || || || N/A ||
|-
|}

=== Spot scanning Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 245 MeV || - || -|| N/A || 12.5 || 170 || || right || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || top || N/A ||
|-
|n || Full Stack || 150 MeV || - || -|| N/A || 12.5 || 170 || || bottom || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || left || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || right || N/A ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T11:17:55Z

RaffaellaRadogna: /* Experiment Plan */

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Experiment Plan ==

* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through:
** 8 beam deliveries 245 MeV conventional current (2 beam deliveries (back and forth) per each module)
** 8 beam deliveries 245 MeV FLASH current (2 beam deliveries (back and forth) per each module)
* Pristine Bragg peak measurements at clinical current for full clinical range:
** 19 beam deliveries from 245 to 70 MeV in 10 MeV steps.
* Pristine Bragg peak measurements at FLASH current for full clinical range:
** 19 beam deliveries from 245 to 70 MeV in 10 MeV steps at FLASH current.
* Spot scanning:
** pristine Bragg Peak measurements at fixed energy (i.e. 150 MeV and 245 MeV) and clinical current shifting the beam up, down, left and right wrt isocenter by 3mm
*** 4 beam deliveries per energy

=== Calibration conventional and FLASH ===
DDC232 FSR should be determined at max beam current starting from minimum FSR value that does not give signal saturation. This could require 2 or 3 beam deliveries.
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|}

=== Bragg Peak Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack (1-2-3-4) || Background || - || - || N/A || 350 || 170 (constant) || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 300 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 250 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 200 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 150 || 170 || || || N/A ||
|-
|n || Full Stack || Background|| || - || - || 100 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 50 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 230 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 220 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 210 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 200 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 200 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 210 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 220 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 230 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || Background || || - || - || || 170 || || || N/A ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T11:02:16Z

RaffaellaRadogna: /* Calibration FLASH */

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Experiment Plan ==

* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through.
** 8 beam deliveries (2 beam deliveries (back and forth) per each module):

* Pristine Bragg peak measurements at clinical current for full clinical range.
* FLASH measurements at 245 MeV.

=== Calibration conventional and FLASH ===
DDC232 FSR should be determined at max beam current starting from minimum FSR value that does not give signal saturation. This could require 2 or 3 beam deliveries.
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || conventional || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || 245 MeV|| || FLASH || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|}

=== Bragg Peak Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack (1-2-3-4) || Background || - || - || N/A || 350 || 170 (constant) || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 300 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 250 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 200 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 150 || 170 || || || N/A ||
|-
|n || Full Stack || Background|| || - || - || 100 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 50 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 230 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 220 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 210 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 200 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 200 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 210 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 220 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 230 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || Background || || - || - || || 170 || || || N/A ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:59:38Z

RaffaellaRadogna: /* DDC232 Calibration and Bragg Peak Measurements 26/10/2022 */

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Experiment Plan ==

* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through.
** 8 beam deliveries (2 beam deliveries (back and forth) per each module):

* Pristine Bragg peak measurements at clinical current for full clinical range.
* FLASH measurements at 245 MeV.

=== Calibration FLASH ===
DDC232 FSR should be determined at max beam current starting from minimum FSR value that does not give signal saturation. This could require 2 or 3 beam deliveries.
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Stack 1 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 2 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 3 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 4 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|}

=== Bragg Peak Measurements ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Full Stack (1-2-3-4) || Background || - || - || N/A || 350 || 170 (constant) || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 300 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 250 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 200 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 150 || 170 || || || N/A ||
|-
|n || Full Stack || Background|| || - || - || 100 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 50 || 170 || || || N/A ||
|-
|n || Full Stack || Background || || - || - || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 230 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 220 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 210 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 200 MeV || - || -|| N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || 12.5 || 170 || || || N/A ||
|-
|n || Full Stack || 70 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 80 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 90 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 100 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 110 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 120 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 130 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 140 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 150 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 160 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 170 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 180 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 190 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 200 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 210 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 220 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 230 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 240 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || 245 MeV || - || - || N/A || t.b.d. || 170 || || FLASH || N/A ||
|-
|n || Full Stack || Background || || - || - || || 170 || || || N/A ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:43:42Z

RaffaellaRadogna: /* Calibration FLASH */

== Experiment Equipment ==
{| class="wikitable"
! style="text-align: center;" | Item
! style="text-align: center;" | Notes
|-
| style="text-align: center;" | Network Hub
| style="text-align: center;" | Set in control room to take output from experimental room ethernet connection. Control laptops connected via 5GHz WiFi.
|-
| style="text-align: center;" | Control Laptop x2
| style="text-align: center;" | 1 for remote control of FPGA, 1 for notes/web GUI.
|-
| style="text-align: center;" | Ethernet Cable x 2
| style="text-align: center;" | To connect DAQ laptop to network in the experimental room, control laptop to network in control room.
|-
| style="text-align: center;" | Portable Enclosure
| style="text-align: center;" |
|-
| style="text-align: center;" | Scintillator stacks
| style="text-align: center;" | 4 Modules (to cover the full clinical range, from 60 to 250 MeV)
|-
| style="text-align: center;" | Scintillating fibers module
| style="text-align: center;" | 1 2D Module
|-
| style="text-align: center;" | DAQ laptop x1
| style="text-align: center;" | Control photodiode acquisition.
|-
| style="text-align: center;" | Nexys Video FPGA development board.
| style="text-align: center;" | For interfacing between DDC232 and PC.
|}
==== Schematic ====
<div class="image600px" style="text-align: center;">
[http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Nov2021/UCL_Setup.png http://www.hep.ucl.ac.uk/pbt/wikiData/images/UCLH_Jun2022/UCL_Setup.png]
</div>

== Experiment Plan ==

* Set up mains cabling and networking in treatment and control rooms.
** no beam
* Install Peli case on treatment couch.
** no beam
* Background
** no beam
* Calibration shoot-through measurements of 4 stack modules: either rotating case or modules for back shoot-through.
** 8 beam deliveries (2 beam deliveries (back and forth) per each module):

* Pristine Bragg peak measurements at clinical current for full clinical range.
* FLASH measurements at 245 MeV.

=== Calibration FLASH ===
DDC232 FSR should be determined at max beam current starting from minimum FSR value that does not give signal saturation. This could require 2 or 3 beam deliveries.
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|n || Stack 1 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 1 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 1 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 2 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 2 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 2 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 3 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 3 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 3 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|n || Stack 4 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through front || N/A ||
|-
|n || Stack 4 || 245 MeV|| || max || || min FSR that does not saturate the signal || 170 || || Shoot through back || N/A ||
|-
|n || Stack 4 || Background || || - || N/A || - || 170 || || || N/A ||
|-
|}

=== DDC232 Calibration and Bragg Peak Measurements 26/10/2022 ===
{| class="wikitable"
!Run number
!Detector
!Beam Energy (MeV)
!Estimated Range (mm)
!Current (nominal) (nA)
!Spot size (mm, FWHM)
!DDC232 FSR (pC)
!DDC232 Integration Time (us)
!Degrader WET (mm)
!Comments
!Photodiode QB Fit
!Replay Fit
|-
|0 || Full Stack (1-2-3-4) || Background || - || - || N/A || 350 || 170 (constant) || || || N/A ||
|-
|1 || Full Stack || Background || || - || - || 300 || 170 || || || N/A ||
|-
|2 || Full Stack || Background || || - || - || 250 || 170 || || || N/A ||
|-
|3 || Full Stack || Background || || - || - || 200 || 170 || || || N/A ||
|-
|4 || Full Stack || Background || || - || - || 150 || 170 || || || N/A ||
|-
|5 || Full Stack || Background|| || - || - || 100 || 170 || || || N/A ||
|-
|6 || Full Stack || Background || || - || - || 50 || 170 || || || N/A ||
|-
|7 || Full Stack || Background || || - || - || 12.5 || 170 || || || N/A ||
|-
|8 || Full Stack || 245 MeV || - || 18.8 (18.7) || N/A || 12.5 || 170 || || || N/A ||
|-
|9 || Full Stack || 240 MeV || - || 30 (31.4) || N/A || 12.5 || 170 || || || N/A ||
|-
|10 || Full Stack || 230 MeV || - || 57 (57.0)|| N/A || 12.5 || 170 || || || N/A ||
|-
|11 || Full Stack || 220 MeV || - || 75 (76.4)|| N/A || 12.5 || 170 || || || N/A ||
|-
|12 || Full Stack || 210 MeV || - || 97 (100.4)|| N/A || 12.5 || 170 || || || N/A ||
|-
|13 || Full Stack || 200 MeV || - || 124 (127.1)|| N/A || 12.5 || 170 || || || N/A ||
|-
|14 || Full Stack || 190 MeV || - || 149 (152.4) || N/A || 12.5 || 170 || || || N/A ||
|-
|15 || Full Stack || 180 MeV || - || 176 (179.2) || N/A || 12.5 || 170 || || || N/A ||
|-
|16 || Full Stack || 170 MeV || - || 222 (243.4) || N/A || 12.5 || 170 || || || N/A ||
|-
|17 || Full Stack || 160 MeV || - || 300 (323.1) || N/A || 12.5 || 170 || || || N/A ||
|-
|18 || Full Stack || 150 MeV || - || 386 (416.8) || N/A || 12.5 || 170 || || || N/A ||
|-
|19 || Full Stack || 140 MeV || - || 491 (515.9) || N/A || 12.5 || 170 || || || N/A ||
|-
|20 || Full Stack || 130 MeV || - || 655 (683.1) || N/A || 12.5 || 170 || || || N/A ||
|-
|21 || Full Stack || 120 MeV || - || 777 (800) || N/A || 12.5 || 170 || || FLASH || N/A ||
|-
|22 || Full Stack || 110 MeV || - || 771 (800) || N/A || 12.5 || 170 || || FLASH || N/A ||
|-
|23 || Full Stack || 100 MeV || - || 765 (800) || N/A || 12.5 || 170 || || FLASH || N/A ||
|-
|24 || Full Stack || 90 MeV || - || 880 (800) || N/A || 12.5 || 170 || || FLASH || N/A ||
|-
|25 || Full Stack || 80 MeV || - || 845 (800) || N/A || 12.5 || 170 || || FLASH || N/A ||
|-
|26 || Full Stack || 70 MeV || - || 822 (800) || N/A || 12.5 || 170 || || FLASH || N/A ||
|-
|27 || Full Stack || 150 MeV|| - || 807 (800) || N/A || 50 || 170 || || FLASH || N/A ||
|-
|28 || Full Stack || 245 MeV || - || 810 (800) || N/A || 350 || 170 || || FLASH || N/A ||
|-
|29 || Full Stack || 200 MeV|| - || 785 (800) || N/A || 100 || 170 || || FLASH || N/A ||
|-
|30 || Full Stack || Background || || - || - || 12.5 || 170 || || || N/A ||
|-
|31 || Stack 1 || 245 MeV || || 810 (800) || N/A || 350 || 170 || 50 || Shoot through front FLASH || N/A ||
|-
|32 || Stack 1 || Background || || - || - || 12.5 || 170 || || || N/A ||
|-
|33 || Stack 1 || 245 MeV || || 18.8 (18.7) || N/A || 12.5 || 170 || 50 || Shoot through front || N/A ||
|-
|34 || Stack 1 || 245 MeV || || 18.8 (18.7) || N/A || 12.5 || 170 || 50 || Shoot through back || N/A ||
|-
|35 || Stack 2|| 245 MeV || || 18.8 (18.7) || N/A || 12.5 || 170 || 50 || Shoot through back || N/A ||
|-
|36 || Stack 2 || 245 MeV || || 18.8 (18.7) || N/A || 12.5 || 170 || 50 || Shoot through front || N/A ||
|-
|37 || Stack 3 || 245 MeV || || 18.8 (18.7) || N/A || 12.5 || 170 || 50 || Shoot through front || N/A ||
|-
|38 || Stack 3 || 245 MeV || || 18.8 (18.7) || N/A || 12.5 || 170 || 50 || Shoot through back || N/A ||
|-
|39 || Stack 4 || 245 MeV || || 18.8 (18.7) || N/A || 12.5 || 170 || 50 || Shoot through back || N/A ||
|-
|40 || Stack 4 || 245 MeV || || 18.8 (18.7) || N/A || 12.5 || 170 || 50 || Shoot through front || N/A ||
|-
|}

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:41:25Z

RaffaellaRadogna: /* Experiment Plan */

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:40:44Z

RaffaellaRadogna: /* Experiment Plan */

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:38:29Z

RaffaellaRadogna: /* Experiment Plan */

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:37:57Z

RaffaellaRadogna: /* Experiment Plan */

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:35:14Z

RaffaellaRadogna: /* Calibration */

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:31:19Z

RaffaellaRadogna: /* Calibration */

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:28:11Z

RaffaellaRadogna: /* Experiment Plan */

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:20:23Z

RaffaellaRadogna: /* Experiment Plan */

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:13:41Z

RaffaellaRadogna: /* Experiment Equipment */

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:13:15Z

RaffaellaRadogna: /* Experiment Equipment */

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-02-04T10:11:18Z

RaffaellaRadogna: /* Experiment Equipment */

Proton Calorimetry/Experimental Runs/2025

2025-02-04T10:08:24Z

RaffaellaRadogna:

Proton Calorimetry/Experimental Runs

2025-02-04T10:07:58Z

RaffaellaRadogna: /* 2025 */

Proton Calorimetry/Experimental Runs/2025

2025-02-04T10:07:33Z

RaffaellaRadogna:

; [[/Trento_2025-03|2025 Integrated system (QuadProBe) conventional/FLASH Measurements]]
: Experimental plan for next beam tests.
: First test of new QuARC electronics.
: Includes FLASH beam and fibre array measurements.

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-01-15T13:31:33Z

RaffaellaRadogna:

Proton Calorimetry/Experimental Runs/2025/Trento 2025-03

2025-01-15T13:29:40Z

RaffaellaRadogna:

Proton Calorimetry/Equipment/Inventory Location

2020-12-31T14:41:46Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.
A collection of photos can be found in the directory: [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/photos/ /unix/www/html/pbt/wikiData/photos/Inventory_Dec2020/photos/]
The directory [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/ /unix/www/html/pbt/wikiData/photos/Inventory_Dec2020/] contains documents with photo collection and item list for each storage element in D106.

== WOODEN BOOKSHELF ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/Wooden_bookshelf.docx doc file] for the photo collection of the items stored in the wooden bookshelf.
* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser ([http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/Peli_Case_1.docx Peli case n.1 doc file])
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card) ([http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/Peli_Case_2.docx Peli case n.2 doc file])
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

== STANLEY BIG CASE ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/STANLEY%20BIG%20CASE.docx doc file] for the photo collection of the items stored in the STANLEY case close to my desk.
* 1 Power strip: USB and Universal sockets
* Mains power cables
* Wifi router LINKSYS AC1900
* USB to USB long cables
* 4 grommet kits
* Long SHV cables for HV power supply
* Desktop switch
* WARCO Vice

== PELI Case trolley n.1 ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/Peli_Case_1.docx doc file] for the photo collection of the items stored in the PELI case n.1.
* Caen NDT1470 HV Supply
* Caen NDT1470 HV Supply power adaptor + mains cable
* SHV cables for HV power supply

* Caen DT5751 Digitiser
* Caen DT5751 Digitiser power cable
* USB Cable to connect the digitiser to the laptop
* SMA to SMA short cable

== PELI Case trolley n.2 ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/Peli_Case_2.docx doc file] for the photo collection of the items stored in the PELI case n.2.
* Neutral filter (fragile)
* Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Mains power cable + graphic card power supply
* USBc to USBc cable to connect the graphic card enclosure to a laptop
* Travel network switch
* Network switch power cable: USB to barrel power connector
* Short ethernet cable

== DeWALT Tower ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/DeWALT_Tower.docx doc file] for the photo collection of the items stored in the DeWALT Tower.
From Bottom to Top
*Bottom Case. Case n. 1
** Caliper
** USB to USB cables
** USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
** D-Link Network switch empty box (the switch is in Peli Case 2)

*Case n. 2
** PMT
** Silicone Optical grease
** Scintillator cleaning wipes and liquid cleaner (isopropane?)
** black tape

*Case n. 3
** SMA to SMA long and short robust cables
** BNC to BNC cable
** BNC to MCX cables for the CAEN digitiser

*Case n. 4
** Wera Tools: screwdrivers set , blade and L keys

*Case n. 5
** Scintillators with different sizes. Additional scintillator sheets are on my desk

*Case n. 6
** BNC, SMA, and SHV patch panel
** 1 Power strip: USB and Universal sockets
** Mains power cable
** Ethernet cables
** 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

*Case n. 7
** ISDI CMOS sensor
** sensor enclosure screws and washers
** Camera Link Cable

*Top container. Case n. 8
** BNC, SMA, and MCX connectors
** USB sockets for the parch panel
** Tape Measure
** Photodiodes and LEDs

Proton Calorimetry/Equipment/Inventory Location

2020-12-31T14:38:36Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.
A collection of photos can be found in the directory: [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/photos/ /unix/www/html/pbt/wikiData/photos/Inventory_Dec2020]

== WOODEN BOOKSHELF ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/Wooden_bookshelf.docx doc file] for the photo collection of the items stored in the wooden bookshelf.
* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

== STANLEY BIG CASE ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/STANLEY%20BIG%20CASE.docx doc file] for the photo collection of the items stored in the STANLEY case close to my desk.
* 1 Power strip: USB and Universal sockets
* Mains power cables
* Wifi router LINKSYS AC1900
* USB to USB long cables
* 4 grommet kits
* Long SHV cables for HV power supply
* Desktop switch
* WARCO Vice

== PELI Case trolley n.1 ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/Peli_Case_1.docx doc file] for the photo collection of the items stored in the PELI case n.1.
* Caen NDT1470 HV Supply
* Caen NDT1470 HV Supply power adaptor + mains cable
* SHV cables for HV power supply

* Caen DT5751 Digitiser
* Caen DT5751 Digitiser power cable
* USB Cable to connect the digitiser to the laptop
* SMA to SMA short cable

== PELI Case trolley n.2 ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/Peli_Case_2.docx doc file] for the photo collection of the items stored in the PELI case n.2.
* Neutral filter (fragile)
* Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Mains power cable + graphic card power supply
* USBc to USBc cable to connect the graphic card enclosure to a laptop
* Travel network switch
* Network switch power cable: USB to barrel power connector
* Short ethernet cable

== DeWALT Tower ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/DeWALT_Tower.docx doc file] for the photo collection of the items stored in the DeWALT Tower.
From Bottom to Top
*Bottom Case. Case n. 1
** Caliper
** USB to USB cables
** USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
** D-Link Network switch empty box (the switch is in Peli Case 2)

*Case n. 2
** PMT
** Silicone Optical grease
** Scintillator cleaning wipes and liquid cleaner (isopropane?)
** black tape

*Case n. 3
** SMA to SMA long and short robust cables
** BNC to BNC cable
** BNC to MCX cables for the CAEN digitiser

*Case n. 4
** Wera Tools: screwdrivers set , blade and L keys

*Case n. 5
** Scintillators with different sizes. Additional scintillator sheets are on my desk

*Case n. 6
** BNC, SMA, and SHV patch panel
** 1 Power strip: USB and Universal sockets
** Mains power cable
** Ethernet cables
** 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

*Case n. 7
** ISDI CMOS sensor
** sensor enclosure screws and washers
** Camera Link Cable

*Top container. Case n. 8
** BNC, SMA, and MCX connectors
** USB sockets for the parch panel
** Tape Measure
** Photodiodes and LEDs

Proton Calorimetry/Equipment/Inventory Location

2020-12-31T14:34:58Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.
A collection of photos can be found in the directory: [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/photos/ /unix/www/html/pbt/wikiData/photos/Inventory_Dec2020]

== WOODEN BOOKSHELF ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/Wooden_bookshelf.docx doc file] for the photo collection of the items stored in the wooden bookshelf.
* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

== STANLEY BIG CASE ==

Look at this [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/STANLEY%20BIG%20CASE.docx doc file] for the photo collection of the items stored in the STANLEY case close to my desk.
* 1 Power strip: USB and Universal sockets
* Mains power cables
* Wifi router LINKSYS AC1900
* USB to USB long cables
* 4 grommet kits
* Long SHV cables for HV power supply
* Desktop switch
* WARCO Vice

== PELI Case trolley n.1 ==

* Caen NDT1470 HV Supply
* Caen NDT1470 HV Supply power adaptor + mains cable
* SHV cables for HV power supply

* Caen DT5751 Digitiser
* Caen DT5751 Digitiser power cable
* USB Cable to connect the digitiser to the laptop
* SMA to SMA short cable

== PELI Case trolley n.2 ==

* Neutral filter (fragile)
* Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Mains power cable + graphic card power supply
* USBc to USBc cable to connect the graphic card enclosure to a laptop
* Travel network switch
* Network switch power cable: USB to barrel power connector
* Short ethernet cable

== DeWALT Tower ==

From Bottom to Top
*Bottom Case. Case n. 1
** Caliper
** USB to USB cables
** USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
** D-Link Network switch empty box (the switch is in Peli Case 2)

*Case n. 2
** PMT
** Silicone Optical grease
** Scintillator cleaning wipes and liquid cleaner (isopropane?)
** black tape

*Case n. 3
** SMA to SMA long and short robust cables
** BNC to BNC cable
** BNC to MCX cables for the CAEN digitiser

*Case n. 4
** Wera Tools: screwdrivers set , blade and L keys

*Case n. 5
** Scintillators with different sizes. Additional scintillator sheets are on my desk

*Case n. 6
** BNC, SMA, and SHV patch panel
** 1 Power strip: USB and Universal sockets
** Mains power cable
** Ethernet cables
** 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

*Case n. 7
** ISDI CMOS sensor
** sensor enclosure screws and washers
** Camera Link Cable

*Top container. Case n. 8
** BNC, SMA, and MCX connectors
** USB sockets for the parch panel
** Tape Measure
** Photodiodes and LEDs

Proton Calorimetry/Equipment/Inventory Location

2020-12-30T19:36:44Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.
A collection of photos can be found in the directory: [http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/photos/ /unix/www/html/pbt/wikiData/photos/Inventory_Dec2020]

== WOODEN BOOKSHELF ==

* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

== STANLEY BIG CASE ==

* 1 Power strip: USB and Universal sockets
* Mains power cables
* Wifi router LINKSYS AC1900
* USB to USB long cables
* 4 grommet kits
* Long SHV cables for HV power supply
* Desktop switch
* WARCO Vice

== PELI Case trolley n.1 ==

* Caen NDT1470 HV Supply
* Caen NDT1470 HV Supply power adaptor + mains cable
* SHV cables for HV power supply

* Caen DT5751 Digitiser
* Caen DT5751 Digitiser power cable
* USB Cable to connect the digitiser to the laptop
* SMA to SMA short cable

== PELI Case trolley n.2 ==

* Neutral filter (fragile)
* Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Mains power cable + graphic card power supply
* USBc to USBc cable to connect the graphic card enclosure to a laptop
* Travel network switch
* Network switch power cable: USB to barrel power connector
* Short ethernet cable

== DeWALT Tower ==

From Bottom to Top
*Bottom Case. Case n. 1
** Caliper
** USB to USB cables
** USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
** D-Link Network switch empty box (the switch is in Peli Case 2)

*Case n. 2
** PMT
** Silicone Optical grease
** Scintillator cleaning wipes and liquid cleaner (isopropane?)
** black tape

*Case n. 3
** SMA to SMA long and short robust cables
** BNC to BNC cable
** BNC to MCX cables for the CAEN digitiser

*Case n. 4
** Wera Tools: screwdrivers set , blade and L keys

*Case n. 5
** Scintillators with different sizes. Additional scintillator sheets are on my desk

*Case n. 6
** BNC, SMA, and SHV patch panel
** 1 Power strip: USB and Universal sockets
** Mains power cable
** Ethernet cables
** 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

*Case n. 7
** ISDI CMOS sensor
** sensor enclosure screws and washers
** Camera Link Cable

*Top container. Case n. 8
** BNC, SMA, and MCX connectors
** USB sockets for the parch panel
** Tape Measure
** Photodiodes and LEDs

Proton Calorimetry/Equipment/Inventory Location

2020-12-30T19:35:58Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.
A collection of photos can be found in the directory: [ /unix/www/html/pbt/wikiData/photos/Inventory_Dec2020 http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/photos/]

== WOODEN BOOKSHELF ==

* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

== STANLEY BIG CASE ==

* 1 Power strip: USB and Universal sockets
* Mains power cables
* Wifi router LINKSYS AC1900
* USB to USB long cables
* 4 grommet kits
* Long SHV cables for HV power supply
* Desktop switch
* WARCO Vice

== PELI Case trolley n.1 ==

* Caen NDT1470 HV Supply
* Caen NDT1470 HV Supply power adaptor + mains cable
* SHV cables for HV power supply

* Caen DT5751 Digitiser
* Caen DT5751 Digitiser power cable
* USB Cable to connect the digitiser to the laptop
* SMA to SMA short cable

== PELI Case trolley n.2 ==

* Neutral filter (fragile)
* Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Mains power cable + graphic card power supply
* USBc to USBc cable to connect the graphic card enclosure to a laptop
* Travel network switch
* Network switch power cable: USB to barrel power connector
* Short ethernet cable

== DeWALT Tower ==

From Bottom to Top
*Bottom Case. Case n. 1
** Caliper
** USB to USB cables
** USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
** D-Link Network switch empty box (the switch is in Peli Case 2)

*Case n. 2
** PMT
** Silicone Optical grease
** Scintillator cleaning wipes and liquid cleaner (isopropane?)
** black tape

*Case n. 3
** SMA to SMA long and short robust cables
** BNC to BNC cable
** BNC to MCX cables for the CAEN digitiser

*Case n. 4
** Wera Tools: screwdrivers set , blade and L keys

*Case n. 5
** Scintillators with different sizes. Additional scintillator sheets are on my desk

*Case n. 6
** BNC, SMA, and SHV patch panel
** 1 Power strip: USB and Universal sockets
** Mains power cable
** Ethernet cables
** 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

*Case n. 7
** ISDI CMOS sensor
** sensor enclosure screws and washers
** Camera Link Cable

*Top container. Case n. 8
** BNC, SMA, and MCX connectors
** USB sockets for the parch panel
** Tape Measure
** Photodiodes and LEDs

Proton Calorimetry/Equipment/Inventory Location

2020-12-30T19:35:38Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.
A collection of photos can be found in the directory: [ http://www.hep.ucl.ac.uk/pbt/wikiData/photos/Inventory_Dec2020/photos/ /unix/www/html/pbt/wikiData/photos/Inventory_Dec2020]

== WOODEN BOOKSHELF ==

* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

== STANLEY BIG CASE ==

* 1 Power strip: USB and Universal sockets
* Mains power cables
* Wifi router LINKSYS AC1900
* USB to USB long cables
* 4 grommet kits
* Long SHV cables for HV power supply
* Desktop switch
* WARCO Vice

== PELI Case trolley n.1 ==

* Caen NDT1470 HV Supply
* Caen NDT1470 HV Supply power adaptor + mains cable
* SHV cables for HV power supply

* Caen DT5751 Digitiser
* Caen DT5751 Digitiser power cable
* USB Cable to connect the digitiser to the laptop
* SMA to SMA short cable

== PELI Case trolley n.2 ==

* Neutral filter (fragile)
* Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Mains power cable + graphic card power supply
* USBc to USBc cable to connect the graphic card enclosure to a laptop
* Travel network switch
* Network switch power cable: USB to barrel power connector
* Short ethernet cable

== DeWALT Tower ==

From Bottom to Top
*Bottom Case. Case n. 1
** Caliper
** USB to USB cables
** USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
** D-Link Network switch empty box (the switch is in Peli Case 2)

*Case n. 2
** PMT
** Silicone Optical grease
** Scintillator cleaning wipes and liquid cleaner (isopropane?)
** black tape

*Case n. 3
** SMA to SMA long and short robust cables
** BNC to BNC cable
** BNC to MCX cables for the CAEN digitiser

*Case n. 4
** Wera Tools: screwdrivers set , blade and L keys

*Case n. 5
** Scintillators with different sizes. Additional scintillator sheets are on my desk

*Case n. 6
** BNC, SMA, and SHV patch panel
** 1 Power strip: USB and Universal sockets
** Mains power cable
** Ethernet cables
** 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

*Case n. 7
** ISDI CMOS sensor
** sensor enclosure screws and washers
** Camera Link Cable

*Top container. Case n. 8
** BNC, SMA, and MCX connectors
** USB sockets for the parch panel
** Tape Measure
** Photodiodes and LEDs

Proton Calorimetry/Equipment/Inventory Location

2020-12-30T18:54:09Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.

== WOODEN BOOKSHELF ==

* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

== STANLEY BIG CASE ==

* 1 Power strip: USB and Universal sockets
* Mains power cables
* Wifi router LINKSYS AC1900
* USB to USB long cables
* 4 grommet kits
* Long SHV cables for HV power supply
* Desktop switch
* WARCO Vice

== PELI Case trolley n.1 ==

* Caen NDT1470 HV Supply
* Caen NDT1470 HV Supply power adaptor + mains cable
* SHV cables for HV power supply

* Caen DT5751 Digitiser
* Caen DT5751 Digitiser power cable
* USB Cable to connect the digitiser to the laptop
* SMA to SMA short cable

== PELI Case trolley n.2 ==

* Neutral filter (fragile)
* Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Mains power cable + graphic card power supply
* USBc to USBc cable to connect the graphic card enclosure to a laptop
* Travel network switch
* Network switch power cable: USB to barrel power connector
* Short ethernet cable

== DeWALT Tower ==

From Bottom to Top
*Bottom Case. Case n. 1
** Caliper
** USB to USB cables
** USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
** D-Link Network switch empty box (the switch is in Peli Case 2)

*Case n. 2
** PMT
** Silicone Optical grease
** Scintillator cleaning wipes and liquid cleaner (isopropane?)
** black tape

*Case n. 3
** SMA to SMA long and short robust cables
** BNC to BNC cable
** BNC to MCX cables for the CAEN digitiser

*Case n. 4
** Wera Tools: screwdrivers set , blade and L keys

*Case n. 5
** Scintillators with different sizes. Additional scintillator sheets are on my desk

*Case n. 6
** BNC, SMA, and SHV patch panel
** 1 Power strip: USB and Universal sockets
** Mains power cable
** Ethernet cables
** 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

*Case n. 7
** ISDI CMOS sensor
** sensor enclosure screws and washers
** Camera Link Cable

*Top container. Case n. 8
** BNC, SMA, and MCX connectors
** USB sockets for the parch panel
** Tape Measure
** Photodiodes and LEDs

Proton Calorimetry/Equipment/Inventory Location

2020-12-30T18:53:39Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.

== WOODEN BOOKSHELF ==

* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

== STANLEY BIG CASE ==

* 1 Power strip: USB and Universal sockets
* Mains power cables
* Wifi router LINKSYS AC1900
* USB to USB long cables
* 4 grommet kits
* Long SHV cables for HV power supply
* Desktop switch
* WARCO Vice

== PELI Case trolley n.1 ==

* Caen NDT1470 HV Supply
* Caen NDT1470 HV Supply power adaptor + mains cable
* SHV cables for HV power supply
*
* Caen DT5751 Digitiser
* Caen DT5751 Digitiser power cable
* USB Cable to connect the digitiser to the laptop
* SMA to SMA short cable

== PELI Case trolley n.2 ==

* Neutral filter (fragile)
* Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Mains power cable + graphic card power supply
* USBc to USBc cable to connect the graphic card enclosure to a laptop
* Travel network switch
* Network switch power cable: USB to barrel power connector
* Short ethernet cable

== DeWALT Tower ==

From Bottom to Top
*Bottom Case. Case n. 1
** Caliper
** USB to USB cables
** USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
** D-Link Network switch empty box (the switch is in Peli Case 2)

*Case n. 2
** PMT
** Silicone Optical grease
** Scintillator cleaning wipes and liquid cleaner (isopropane?)
** black tape

*Case n. 3
** SMA to SMA long and short robust cables
** BNC to BNC cable
** BNC to MCX cables for the CAEN digitiser

*Case n. 4
** Wera Tools: screwdrivers set , blade and L keys

*Case n. 5
** Scintillators with different sizes. Additional scintillator sheets are on my desk

*Case n. 6
** BNC, SMA, and SHV patch panel
** 1 Power strip: USB and Universal sockets
** Mains power cable
** Ethernet cables
** 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

*Case n. 7
** ISDI CMOS sensor
** sensor enclosure screws and washers
** Camera Link Cable

*Top container. Case n. 8
** BNC, SMA, and MCX connectors
** USB sockets for the parch panel
** Tape Measure
** Photodiodes and LEDs

Proton Calorimetry/Equipment/Inventory Location

2020-12-30T18:52:27Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.

== WOODEN BOOKSHELF ==

* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

== STANLEY BIG CASE ==

- 1 Power strip: USB and Universal sockets
- Mains power cables
- Wifi router LINKSYS AC1900
- USB to USB long cables
- 4 grommet kits
- Long SHV cables for HV power supply
- Desktop switch
- WARCO Vice

== PELI Case trolley n.1 ==

- Caen NDT1470 HV Supply
- Caen NDT1470 HV Supply power adaptor + mains cable
- SHV cables for HV power supply
-
- Caen DT5751 Digitiser
- Caen DT5751 Digitiser power cable
- USB Cable to connect the digitiser to the laptop
- SMA to SMA short cable

== PELI Case trolley n.2 ==

- Neutral filter (fragile)
- Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
- Mains power cable + graphic card power supply
- USBc to USBc cable to connect the graphic card enclosure to a laptop
- Travel network switch
- Network switch power cable: USB to barrel power connector
- Short ethernet cable

== DeWALT Tower ==

From Bottom to Top
*Bottom Case. Case n. 1
** Caliper
** USB to USB cables
** USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
** D-Link Network switch empty box (the switch is in Peli Case 2)

*Case n. 2
** PMT
** Silicone Optical grease
** Scintillator cleaning wipes and liquid cleaner (isopropane?)
** black tape

*Case n. 3
** SMA to SMA long and short robust cables
** BNC to BNC cable
** BNC to MCX cables for the CAEN digitiser

*Case n. 4
** Wera Tools: screwdrivers set , blade and L keys

*Case n. 5
** Scintillators with different sizes. Additional scintillator sheets are on my desk

*Case n. 6
** BNC, SMA, and SHV patch panel
** 1 Power strip: USB and Universal sockets
** Mains power cable
** Ethernet cables
** 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

*Case n. 7
** ISDI CMOS sensor
** sensor enclosure screws and washers
** Camera Link Cable

*Top container. Case n. 8
** BNC, SMA, and MCX connectors
** USB sockets for the parch panel
** Tape Measure
** Photodiodes and LEDs

Proton Calorimetry/Equipment/Inventory Location

2020-12-30T18:49:18Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.

== WOODEN BOOKSHELF ==

* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

== STANLEY BIG CASE ==

- 1 Power strip: USB and Universal sockets
- Mains power cables
- Wifi router LINKSYS AC1900
- USB to USB long cables
- 4 grommet kits
- Long SHV cables for HV power supply
- Desktop switch
- WARCO Vice

== PELI Case trolley n.1 ==

- Caen NDT1470 HV Supply
- Caen NDT1470 HV Supply power adaptor + mains cable
- SHV cables for HV power supply
-
- Caen DT5751 Digitiser
- Caen DT5751 Digitiser power cable
- USB Cable to connect the digitiser to the laptop
- SMA to SMA short cable

== PELI Case trolley n.2 ==

- Neutral filter (fragile)
- Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
- Mains power cable + graphic card power supply
- USBc to USBc cable to connect the graphic card enclosure to a laptop
- Travel network switch
- Network switch power cable: USB to barrel power connector
- Short ethernet cable

== DeWALT Tower ==

From Bottom to Top
1. Bottom Case
* Caliper
* USB to USB cables
* USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
* D-Link Network switch empty box (the switch is in Peli Case 2)

1.
* PMT
* Silicone Optical grease
* Scintillator cleaning wipes and liquid cleaner (isopropane?)
* black tape

3.
*SMA to SMA long and short robust cables
*BNC to BNC cable
*BNC to MCX cables for the CAEN digitiser

4.
*Wera Tools: screwdrivers set , blade and L keys

5.
* Scintillators with different sizes. Additional scintillator sheets are on my desk

6
* BNC, SMA, and SHV patch panel
* 1 Power strip: USB and Universal sockets
* Mains power cable
* Ethernet cables
* 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

7
* ISDI CMOS sensor
* sensor enclosure screws and washers
* Camera Link Cable

8 Top container
* BNC, SMA, and MCX connectors
* USB sockets for the parch panel
* Tape Measure
* Photodiodes and LEDs

Proton Calorimetry/Equipment/Inventory Location

2020-12-30T18:42:42Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.

== WOODEN BOOKSHELF ==

* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

STANLEY BIG CASE:
- 1 Power strip: USB and Universal sockets
- Mains power cables
- Wifi router LINKSYS AC1900
- USB to USB long cables
- 4 grommet kits
- Long SHV cables for HV power supply
- Desktop switch
- WARCO Vice

PELI Case trolley n.1:
- Caen NDT1470 HV Supply
- Caen NDT1470 HV Supply power adaptor + mains cable
- SHV cables for HV power supply
-
- Caen DT5751 Digitiser
- Caen DT5751 Digitiser power cable
- USB Cable to connect the digitiser to the laptop
- SMA to SMA short cable

PELI Case trolley n.2:
- Neutral filter (fragile)
- Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
- Mains power cable + graphic card power supply
- USBc to USBc cable to connect the graphic card enclosure to a laptop
- Travel network switch
- Network switch power cable: USB to barrel power connector
- Short ethernet cable

From Bottom to Top
1 Bottom Case
- Caliper
- USB to USB cables
- USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
- D-Link Network switch empty box (the switch is in Peli Case 2)

.

2.
- PMT
- Silicone Optical grease
- Scintillator cleaning wipes and liquid cleaner (isopropane?)
- black tape

3.
-SMA to SMA long and short robust cables
-BNC to BNC cable
-BNC to MCX cables for the CAEN digitiser

4.
Wera Tools: screwdrivers set , blade and L keys

5.
Scintillators
- different sizes. Additional scintillator sheets are on my desk

6
- BNC, SMA, and SHV patch panel
- 1 Power strip: USB and Universal sockets
- Mains power cable
- Ethernet cables
- 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

7
-ISDI CMOS sensor
- sensor enclosure screws and washers
- Camera Link Cable

8 Top container
- BNC, SMA, and MCX connectors
- USB sockets for the parch panel
- Tape Measure
- Photodiodes and LEDs
-

Proton Calorimetry/Equipment/Inventory Location

2020-12-30T18:42:17Z

RaffaellaRadogna:

List of tools and equipment stored in D106 updated on Dec 2020.

WOODEN BOOKSHELF:
* 2 PELI cases
** 1 PELI CASE contains HV+Digitiser
** 1 PELI CASE contains the Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
* Adam Gibson Nikon camera tools (in the orange plastic bag)
* Mylar Windows for Experimental Runs
* Travel Router
* Features mount for scintillator and PMT
* USB to USB cables
* Ethernet cabler: different length
* Empty Thunderbolt Expansion Chassis with Display Port box (only power cables inside)
* 1 USB to USBC cable
* 1 USB to microUSB cable
* 3 microUSB to USBc cables (different lengths)

STANLEY BIG CASE:
- 1 Power strip: USB and Universal sockets
- Mains power cables
- Wifi router LINKSYS AC1900
- USB to USB long cables
- 4 grommet kits
- Long SHV cables for HV power supply
- Desktop switch
- WARCO Vice

PELI Case trolley n.1:
- Caen NDT1470 HV Supply
- Caen NDT1470 HV Supply power adaptor + mains cable
- SHV cables for HV power supply
-
- Caen DT5751 Digitiser
- Caen DT5751 Digitiser power cable
- USB Cable to connect the digitiser to the laptop
- SMA to SMA short cable

PELI Case trolley n.2:
- Neutral filter (fragile)
- Thunderbolt Expansion Chassis with Display Port (CMOS sensor graphic card)
- Mains power cable + graphic card power supply
- USBc to USBc cable to connect the graphic card enclosure to a laptop
- Travel network switch
- Network switch power cable: USB to barrel power connector
- Short ethernet cable

From Bottom to Top
1 Bottom Case
- Caliper
- USB to USB cables
- USB to jack type M Barrel 5V DC power supply (spare cable for the network switch)
- D-Link Network switch empty box (the switch is in Peli Case 2)

.

2.
- PMT
- Silicone Optical grease
- Scintillator cleaning wipes and liquid cleaner (isopropane?)
- black tape

3.
-SMA to SMA long and short robust cables
-BNC to BNC cable
-BNC to MCX cables for the CAEN digitiser

4.
Wera Tools: screwdrivers set , blade and L keys

5.
Scintillators
- different sizes. Additional scintillator sheets are on my desk

6
- BNC, SMA, and SHV patch panel
- 1 Power strip: USB and Universal sockets
- Mains power cable
- Ethernet cables
- 1 box containing: DC-4200 MHz Signal Splitter, SMA connectors, BNC to SMA connectors and SMA to MCX adaptor. Spanner for SMA connectors.

7
-ISDI CMOS sensor
- sensor enclosure screws and washers
- Camera Link Cable

8 Top container
- BNC, SMA, and MCX connectors
- USB sockets for the parch panel
- Tape Measure
- Photodiodes and LEDs
-

Proton Calorimetry/Equipment

2020-12-30T18:25:44Z

RaffaellaRadogna:

This page contains information on the various pieces of experimental equipment that form the Proton Calorimetry detector setup.

== [[/Inventory Location|D106 Inventory and Location]] ==

The list of items and tools stored in D106, updated on Dec 2020, is available on the [[/Inventory Location|D106 Inventory and Location]] page.

== [[/ISDI CMOS Sensor|ISDI CMOS Sensor]] ==

The [https://www.isdicmos.com/products ISDI 1510-100 15x10cm CMOS pixel sensor] allows images of the scintillator detector stack light output to be recorded.

More details can be found on the [[/ISDI CMOS Sensor|ISDI CMOS Sensor]] page.

== [[/Caen Detector Emulator|Caen Detector Emulator]] ==

The [http://www.caen.it/csite/CaenProd.jsp?idmod=837&parent=59 Caen DT5800D Detector Emulator] provides the capability for emulating the output of an arbitrary detector system.

More details can be found on the [[/Caen Detector Emulator|Caen Detector Emulator]] page.

== [[/Nikon DSLR|Nikon D70 DSLR]] ==

A [https://www.nikonusa.com/en/nikon-products/product-archive/dslr-cameras/d70.html Nikon D70 DSLR] was borrowed from Adam Gibson in Medical Physics to allow remote acquisition of scintillator images.

More details can be found on the [[/Nikon DSLR|Nikon D70 DSLR]] page.

== [[/TI DDC1128EVM|TI DDC1128 Evaluation Module]] ==
The DDC1128EVM provides a platform for evaluating the DDC1128 charge digitizing A/D converters. A PC interface board and two DDC1128 devices are included along with software that makes analysis and testing of these devices manageable.

More details can be found on the [[/TI DDC1128EVM|TI DDC1128 Evaluation Module]] page.

== [[/ZyboZ7_DDC232|Zybo Z7 and DDC232]] ==
The DDC232 is a 32-channel ADC. Housed on a custom circuit board, it used to measure the charges of 16 photodiodes and is interfaced with a Zybo Z7-10.

More details can be found on the [[/ZyboZ7_DDC232|Zybo Z7 and DDC232]] page.

== [[/Remote_Desktop_Access|Remote Desktop Access]] ==
More details can be found on the [[/Remote_Desktop_Access|Remote Desktop Access]] page.

== [[/HV|Connecting HV to DAQ Laptop]] ==
More details can be found on the [[/HV|Connecting HV to DAQ Laptop]] page.

== [[/LeCroy|LeCroy Oscilloscope]] ==
Details of the analysis of single-module calorimeter data taken by the LeCroy scope can be found on the [[/LeCroy|LeCroy Oscilloscope]] page.

This page needs to be updated with work completed in the 2018-2019 academic year.

== Manuals ==

Manuals for relevant detector hardware.

=== WaveCatcher ===

; [http://www.hep.ucl.ac.uk/pbt/wikiData/manuals/WaveCatcher/WaveCatcherFamily_V1.2.pdf WaveCatcherFamily_V1.2.pdf] : Full description of the WaveCatcher Family hardware with paths to Control & Readout software and libraries. Covers the 2-channel and 8-channel WaveCatcher modules, the 16-Channel WaveCatcher board and module, and all the options of the 64-Channel WaveCatcher Crate (16, 32, 48 or 64 channels).
; [http://www.hep.ucl.ac.uk/pbt/wikiData/manuals/WaveCatcher/WaveCatcher64Ch_Library_1.1.16.pdf WaveCatcher64Ch_Library_1.1.16.pdf] : Users manual for WaveCatcher64Ch Control and Readout Library
; [http://www.hep.ucl.ac.uk/pbt/wikiData/manuals/WaveCatcher/WaveCatcherSoftware_V1.1.pdf WaveCatcherSoftware_V1.1.pdf] : User manual for the WaveCatcher Family Control & Readout software (Windows Only, includes scope-like GUI).

=== Caen ===

; [http://www.caen.it/csite/CaenProd.jsp?parent=14&idmod=632 DT5751 Product Page] : Caen product page for DT5751 2-4 Channel 10 bit 2/1 GS/s Digitizer.
; [http://www.caen.it/servlet/checkCaenManualFile?Id=12555 DT5751 User Manual] : User manual for DT5751 2-4 Channel 10 bit 2/1 GS/s Digitizer.

; [http://www.caen.it/csite/CaenProd.jsp?parent=14&idmod=990 DT5740 Product Page] : Caen product page for DT5740 16/32-Channel 12 bit 62.5MS/s Digitizer supporting DPP-QDC firmware.
; [http://www.caen.it/servlet/checkCaenManualFile?Id=11947 DT5740 User Manual] : User manual for the DT5740 Desktop 16/32-channel Desktop Digitizer, that also functions in QDC charge integration mode with the DPP-QDC firmware.
; [http://www.caen.it/servlet/checkCaenManualFile?Id=11286 UM4874_DPP-QDC_UserManual] : User manual for the Digital Pulse Processing for Charge to Digital Converter DPP-QDC implemented exclusively for the "D" model of the 740 Digitizer series (740D).

Proton Calorimetry/Equipment

2020-12-30T18:23:52Z

RaffaellaRadogna:

This page contains information on the various pieces of experimental equipment that form the Proton Calorimetry detector setup.

== [[/Inventory Location|Inventory and Location]] ==

== [[/ISDI CMOS Sensor|ISDI CMOS Sensor]] ==

The [https://www.isdicmos.com/products ISDI 1510-100 15x10cm CMOS pixel sensor] allows images of the scintillator detector stack light output to be recorded.

More details can be found on the [[/ISDI CMOS Sensor|ISDI CMOS Sensor]] page.

== [[/Caen Detector Emulator|Caen Detector Emulator]] ==

The [http://www.caen.it/csite/CaenProd.jsp?idmod=837&parent=59 Caen DT5800D Detector Emulator] provides the capability for emulating the output of an arbitrary detector system.

More details can be found on the [[/Caen Detector Emulator|Caen Detector Emulator]] page.

== [[/Nikon DSLR|Nikon D70 DSLR]] ==

A [https://www.nikonusa.com/en/nikon-products/product-archive/dslr-cameras/d70.html Nikon D70 DSLR] was borrowed from Adam Gibson in Medical Physics to allow remote acquisition of scintillator images.

More details can be found on the [[/Nikon DSLR|Nikon D70 DSLR]] page.

== [[/TI DDC1128EVM|TI DDC1128 Evaluation Module]] ==
The DDC1128EVM provides a platform for evaluating the DDC1128 charge digitizing A/D converters. A PC interface board and two DDC1128 devices are included along with software that makes analysis and testing of these devices manageable.

More details can be found on the [[/TI DDC1128EVM|TI DDC1128 Evaluation Module]] page.

== [[/ZyboZ7_DDC232|Zybo Z7 and DDC232]] ==
The DDC232 is a 32-channel ADC. Housed on a custom circuit board, it used to measure the charges of 16 photodiodes and is interfaced with a Zybo Z7-10.

More details can be found on the [[/ZyboZ7_DDC232|Zybo Z7 and DDC232]] page.

== [[/Remote_Desktop_Access|Remote Desktop Access]] ==
More details can be found on the [[/Remote_Desktop_Access|Remote Desktop Access]] page.

== [[/HV|Connecting HV to DAQ Laptop]] ==
More details can be found on the [[/HV|Connecting HV to DAQ Laptop]] page.

== [[/LeCroy|LeCroy Oscilloscope]] ==
Details of the analysis of single-module calorimeter data taken by the LeCroy scope can be found on the [[/LeCroy|LeCroy Oscilloscope]] page.

This page needs to be updated with work completed in the 2018-2019 academic year.

== Manuals ==

Manuals for relevant detector hardware.

=== WaveCatcher ===

; [http://www.hep.ucl.ac.uk/pbt/wikiData/manuals/WaveCatcher/WaveCatcherFamily_V1.2.pdf WaveCatcherFamily_V1.2.pdf] : Full description of the WaveCatcher Family hardware with paths to Control & Readout software and libraries. Covers the 2-channel and 8-channel WaveCatcher modules, the 16-Channel WaveCatcher board and module, and all the options of the 64-Channel WaveCatcher Crate (16, 32, 48 or 64 channels).
; [http://www.hep.ucl.ac.uk/pbt/wikiData/manuals/WaveCatcher/WaveCatcher64Ch_Library_1.1.16.pdf WaveCatcher64Ch_Library_1.1.16.pdf] : Users manual for WaveCatcher64Ch Control and Readout Library
; [http://www.hep.ucl.ac.uk/pbt/wikiData/manuals/WaveCatcher/WaveCatcherSoftware_V1.1.pdf WaveCatcherSoftware_V1.1.pdf] : User manual for the WaveCatcher Family Control & Readout software (Windows Only, includes scope-like GUI).

=== Caen ===

; [http://www.caen.it/csite/CaenProd.jsp?parent=14&idmod=632 DT5751 Product Page] : Caen product page for DT5751 2-4 Channel 10 bit 2/1 GS/s Digitizer.
; [http://www.caen.it/servlet/checkCaenManualFile?Id=12555 DT5751 User Manual] : User manual for DT5751 2-4 Channel 10 bit 2/1 GS/s Digitizer.

; [http://www.caen.it/csite/CaenProd.jsp?parent=14&idmod=990 DT5740 Product Page] : Caen product page for DT5740 16/32-Channel 12 bit 62.5MS/s Digitizer supporting DPP-QDC firmware.
; [http://www.caen.it/servlet/checkCaenManualFile?Id=11947 DT5740 User Manual] : User manual for the DT5740 Desktop 16/32-channel Desktop Digitizer, that also functions in QDC charge integration mode with the DPP-QDC firmware.
; [http://www.caen.it/servlet/checkCaenManualFile?Id=11286 UM4874_DPP-QDC_UserManual] : User manual for the Digital Pulse Processing for Charge to Digital Converter DPP-QDC implemented exclusively for the "D" model of the 740 Digitizer series (740D).

Proton Calorimetry/Equipment/Inventory Location

2020-12-30T18:22:23Z

RaffaellaRadogna: Created page with "Updated Dec 2020"

Updated Dec 2020

Proton Calorimetry/Experimental Runs/2020/Nov27

2020-12-01T18:38:31Z

RaffaellaRadogna:

27 Nov 2020

== Dark noise measurements in different rooms at UCL and with different conditions==

Setup:
- PD array exposed to dark
- some runs have noise level recorded with PD unplugged

Aim: Measure the dark noise with different conditions. The spikes visible for all runs recorded inside D27 might come from noise

list of runs in this file unix/pbt/data/ucl/20201127/20201127_LEDandADCBoard.xlsx
data saved in unix/pbt/data/ucl/20201027/

{|class="wikitable"
!Run
!DDC int time
!DDC Full scale
!Photodiodes
!Notes
|-
|1|| 170us || 350pC FSR || PDs: S1337-16BR|| Lab D27: dark room. DDC232 board with PD placed INSIDE the box, close to the patch panel holes (probably getting some light).
|-
|2|| 170us || 350pC FSR || PDs: S12915-16R|| Lab D27: dark room. DDC232 board with PD placed face down INSIDE the box.
|-
|3|| 170us || 350pC FSR || PDs: S12915-16R|| Saad's office D109: dark room. DDC232 board with PD placed face down INSIDE the box.
|-
|4|| 170us || 350pC FSR || PDs: S12915-16R|| Saad's office D109: dark room. DDC232 board with PD placed and covered OUTSIDE the box.
|-
|5|| 170us || 350pC FSR || PDs: S12915-16R|| Saad's office D109: dark room. DDC232 board with PD UNPLUGGED placed OUTSIDE the box.
|-
|6|| 170us || 350pC FSR || PDs: S12915-16R|| Raffy's office D106: dark room (light off, but blinds open). DDC232 board with PD UNPLUGGED placed OUTSIDE the box.
|-
|7|| 170us || 350pC FSR || PDs: S12915-16R|| Raffy's office D106: dark room (blinds closed). DDC232 board with PD UNPLUGGED placed OUTSIDE the box.
|-
|8|| 170us || 350pC FSR || PDs: S12915-16R|| Raffy's office D106: dark room (blinds closed). DDC232 board with PD placed and covered OUTSIDE the box.
|-
|9|| 170us || 350pC FSR || PDs: S12915-16R|| Raffy's office D106: DDC232 board with PD placed OUTSIDE the box. UV torch.
|-

Proton Calorimetry/Experimental Runs

2020-12-01T18:37:25Z

RaffaellaRadogna:

Information is available for the following experimental runs:
== [[/2020|2020]] ==

; [[/2020/Nov27|Dark noise in different rooms at UCL. Nov 27th]]
: Large statistic tests of dark noise in D27, D109 and D106.

; [[/2020/Nov13|Electronics test with large statistics. Nov 13th]]
: Large statistic tests of photodiodes with light injected in many layers, different FSR and integration times, test mode and PD unplugged.

; [[/2020/Nov12|Home Test of Photodiodes. Nov 12th]]
: Large statistic tests of photodiodes at home with different FSR and integration times.

; [[/2020/Oct23|Large statistics photodiode signal. Oct 23rd]]
: LED injected light in sheet 8: different PDs arrays, integration time and full scale.

; [[/2020/Oct7|Comparison of sensor and photodiodes signal. Oct 7th]]
: LED injected light in sheet 8: two read-out comparison.

; [[/2020/CrossTalk|Measurements of scintillator sheets cross talk]]
: Cross Talk measurements.

== [[/2019|2019]] ==

; [[/2019/NovScintSheets|Measurements of 2 and 3 mm scintillator sheets]]
: Thickness measurements of 2 mm and 3 mm thick scintillator sheets from Nuvia.

; [[/2019/Apr12-15|12th–15th April 2019]]
: Experimental measurements at Heidelberg using range calorimeter and Proton, Helium, Carbon, Oxygen beam.
: Data for PTCOPG talk.

; [[/2019/Mar26|LeCroy HDO6104 Trigger Dead-time Measurements]]
: Summary of LeCroy HDO6104 Trigger Dead-time Measurements.

== [[/2018|2018]] ==

; [[/2018/Nov16-18|16th–18th November 2018]]
: Experimental measurements at Heidelberg using range calorimeter and Helium beam.
: Single PMT module tests to provide data for HIT pCT reconstruction.

; [[/2018/Oct25-6|25th-26th October 2018]]
: Experimental measurements at Birmingham using fast treatment plan verification test setup.
: Improved setup from [[/2018/Feb21|21st February 2018]] with PRaVDA module trigger output.

; [[/2018/Aug16|16th August 2018]]
: Experimental measurements with range calorimeter using Carbon beam at MedAustron.
: Range measurements from 120 to 184.5 MeV/u.

; [[/2018/Mar23|23rd March 2018]]
: Single module calorimeter measurements to support TUWien proton CT tracker.

; [[/2018/Mar22|22nd March 2018]]
: Experimental measurements with range calorimeter from 62 to 252 MeV.
: Precision range measurements from 62 to 100 MeV.

; [[/2018/Mar8-9|8th-9th March 2018]]
: First experimental measurements of the plastic scintillator range calorimeter.
: Measurements at 28 and 36 MeV using ISDI sensor and Nikon DSLR.

; [[/2018/Feb21|21st February 2018]]
: Experimental measurements at Birmingham using fast treatment plan verification test setup.

; [[/2018/FebScintSheets|Measurements of 2 and 3 mm scintillator sheets]]
: Thickness measurements of 2 mm and 3 mm thick scintillator sheets from Nuvia.

; [[/2018/JanMarPlans|Plan of Action for January–March 2018]]
: Plan of action for range calorimeter assembly and experimental tests from January to March 2018.

== [[/2017|2017]] ==

; [[/2017/September7|7th September 2017]]
: Tests of Nuvia scintillator stacks with PRaVDA CMOS pixel sensors (PRIAPUS) at the Birmingham Cyclotron with a 28 MeV beam.
; [[/2017/Aug10-31|10th August 2017]]
: Tests of Nuvia scintillator stacks with PRaVDA CMOS pixel sensors (PRIAPUS).
; [[/2017/Mar1-3|1st-3rd March 2017]]
: Measurements at MedAustron with longer scintillator and 252MeV beam.
: Give short explanation of the purpose and results.

== [[/2016|2016]] ==

; [[/2016/Nov24-25|24th-25th November 2016]]
: Give short explanation of the purpose and results.
; [[/2016/Aug2-3|2nd-3rd August 2016]]
: Energy-to-range calibration measurements with a calibration wheel used by physicists at Clatterbridge with detector module comprising a 2" PMT and new PS-based scintillator.
: Data cross-checking measurements taken with the wheel to that taken with PMMA blocks of equivalent thickness at the same location, and further upstream at the modulator box.
: Measured total dose delivered to the new PS-based scintillator for radiation damage and hardness considerations.
: Recorded waveform data with new LeCroy HDO6104 oscilloscope.
: Made neutron measurements with the large 8" PMT hexagonal block module.

== [[/2015|2015]] ==

; [[/2015/Dec21-22|21st-22nd December 2015]]
: Give short explanation of the purpose and results.
; [[/2015/Jul8-9|8th-9th July 2015]]
: Give short explanation of the purpose and results.

== [[/2014|2014]] ==

; [[/2014/Dec8-9|8th-9th December 2014]]
: Give short explanation of the purpose and results.

== [[/2013|2013]] ==

; [[/2013/Dec9-10|9th-10th December 2013]]
: Give short explanation of the purpose and results.