Air-transfer production method for large-area picosecond photodetectors

Angelico, Evan; Elagin, A.; Frisch, H.; Spieglan, E.; Adams, Bernhard W.; Foley, Michael R.; Minot, Michael J.

doi:10.1063/5.0008606

Cited by 7 publications

(12 citation statements)

References 18 publications

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“…The system described above is a proof-of-principle solution. However, the development of an optimized industrial batch process for bringing volume up and cost down for wide-spread use in particle physics, medical imaging, and nuclear security remains a task for commercialization [46].…”

Section: Closing Commentmentioning

confidence: 99%

“…Tile 31 is a ceramic capacitively-coupled Generation-II LAPPD that was fabricated using the batch production process described in Chapter 2 and Reference [46]. A 3% Cs-Sb pho- Because Tile 31 has about a factor of 8 lower quantum efficiency than typical LAPPDs, the number of Cherenkov photons produced for detecting particles was increased by coupling an 8 mm quartz radiator to the front window.…”

Section: Signals From Tile 31mentioning

confidence: 99%

“…The largest contributor to σ L comes from the variation in transit times of electrons inside of the MCP pores during amplification [30,31,32]. In addition to the construction of the LAPPD TOF system, a prototype batch fabrication process for LAPPDs was developed as described in Chapter 2 and Reference [46]. Unfortunately, the electronics for the PMT-based TOF detectors cannot be operated as of the year 2020, as they were configured and operated by an expert, Anatoly Ronzhin, who has sadly passed away [129,140].…”

Section: Coincident Particle Eventsmentioning

confidence: 99%

“…This appendix goes into more detail on the specific steps taken during the fabrication procedure of ceramic bodied capacitively-coupled LAPPDs using the batch production method described in Chapter 2 and Reference [46]. It is intended as a reference for those who are designing the next-iteration batch-production system, or attempting to replicate elements of the fabrication procedure.…”

Section: Appendix D Assembly Procedures For Generation-ii Lappdsmentioning

confidence: 99%

“…It is intended as a reference for those who are designing the next-iteration batch-production system, or attempting to replicate elements of the fabrication procedure. The terminology of this chapter assumes that the reader has read Chapter 2 or Reference [46].…”

Section: Appendix D Assembly Procedures For Generation-ii Lappdsmentioning

confidence: 99%

See 4 more Smart Citations

Development of Large-Area MCP-PMT photo-detectors for a Precision Time-of-Flight System at the Fermilab Test Beam Facility

Angelico¹

2020

Self Cite

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Section: Closing Commentmentioning

confidence: 99%

Section: Signals From Tile 31mentioning

confidence: 99%

Section: Coincident Particle Eventsmentioning

confidence: 99%

Section: Appendix D Assembly Procedures For Generation-ii Lappdsmentioning

confidence: 99%

Section: Appendix D Assembly Procedures For Generation-ii Lappdsmentioning

confidence: 99%

See 3 more Smart Citations

Development of Large-Area MCP-PMT photo-detectors for a Precision Time-of-Flight System at the Fermilab Test Beam Facility

Angelico¹

2020

Self Cite

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The United States Department of Energy and National Institutes of Health Collaboration: Medical Care Advances via Discovery in Physical Sciences

et al. 2023

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Over several months, representatives from the U.S. Department of Energy (DOE) Office of Science and National Institutes of Health (NIH) had a number of meetings that lead to the conclusion that innovations in the Nation's health care could be realized by more directed interactions between NIH and DOE. It became clear that the expertise amassed and instrumentation advances developed at the DOE physical science laboratories to enable cutting-edge research in particle physics could also feed innovation in medical healthcare.To meet their scientific mission, the DOE laboratories created advances in such technologies as particle beam generation, radioisotope production, high-energy particle detection and imaging, superconducting particle accelerators, superconducting magnets, cryogenics, high-speed electronics, artificial intelligence, and big data.

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Next frontiers in particle physics detectors: INSTR2020 summary and a look into the future

Titov¹

2020

J. Inst.

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The physics goals of high luminosity particle accelerators, from LHC to HL-LHC and to the next generation of lepton colliders, have set quite stringent constraints on the future needs at the Instrumentation Frontier. Many technologies are reaching their sensitivity limit and new approaches need to be developed to overcome the currently irreducible technological challenges. The detrimental effect of the material budget and power consumption represents a very serious concern for a high-precision silicon vertex and tracking detectors. One of the most promising areas is CMOS sensors offering low mass and potentially radiation-hard technology for the future proton-proton and electron-positron colliders, intensity frontier and heavy-ion experiments. MPGDs have become a well-established technique in the fertile field of gaseous detectors; these will remain the primary choice whenever the large-area coverage with low material budget is required. Vacuum tube technology is inherently fast and new developments include advances in microchannel plates for photomultipliers with a potential for a picosecondtime resolution in large systems. Several novel concepts of picosecond-timing detectors will have numerous powerful applications in particle identification, pile-up rejection and event reconstruction, and serve numerous scientific goals. The story of modern calorimetry is a textbook example of physics research driving the development of an experimental method. Silicon photomultipliers have seen a rapid progress in the last decade, becoming the standard solution for scintillator-based devices. The integration of advanced electronics and data transmission functionalities plays an increasingly important role and needs to be addressed. Bringing the modern algorithmic advances from the field of machine learning from offline applications to online operations and trigger systems is another major challenge. The timescales spanned by future projects in particle physics, ranging from few years to many decades, constitute a challenge in itself, in addition to the complexity and diversity of the required accelerator and detector R&D. This paper summarizes advances and recent trends in the instrumentation techniques for particle physics experiments, largely based on the presentations given at the International Conference "Instrumentation for Colliding Beam Physics" (INSTR-20), held at BINP Novosibirsk, Russia, from 24 to

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Air-transfer production method for large-area picosecond photodetectors

Cited by 7 publications

References 18 publications

Development of Large-Area MCP-PMT photo-detectors for a Precision Time-of-Flight System at the Fermilab Test Beam Facility

Development of Large-Area MCP-PMT photo-detectors for a Precision Time-of-Flight System at the Fermilab Test Beam Facility

The United States Department of Energy and National Institutes of Health Collaboration: Medical Care Advances via Discovery in Physical Sciences

Next frontiers in particle physics detectors: INSTR2020 summary and a look into the future

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