Design, Construction, and Testing of the APOLLO ATCA Blades for Use at the HL-LHC

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Main Authors: Akpinar, Alp, Blaizot, Aymeric, Cholak, Serhii, de Castro, Gianfranco, Demiragli, Zeynep, Duquette, Alec, Fulcher, Jonathan Richard, Gastler, Dan, Hahn, Kristian, Hazen, Eric Shearer, Jeon, Si Hyun, Kotamnives, Peace, Madorsky, Alexander, Monk, David, Noorudhin, Sheena, Oshiro, Michael, Rohlf, James, Strohman, Charles Ralph, Tsai, Emily Minyun, Wittich, Peter, Yuan, Siqi, Zou, Rui
Format: Preprint
Published: 2025
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author Akpinar, Alp
Blaizot, Aymeric
Cholak, Serhii
de Castro, Gianfranco
Demiragli, Zeynep
Duquette, Alec
Fulcher, Jonathan Richard
Gastler, Dan
Hahn, Kristian
Hazen, Eric Shearer
Jeon, Si Hyun
Kotamnives, Peace
Madorsky, Alexander
Monk, David
Noorudhin, Sheena
Oshiro, Michael
Rohlf, James
Strohman, Charles Ralph
Tsai, Emily Minyun
Wittich, Peter
Yuan, Siqi
Zou, Rui
author_facet Akpinar, Alp
Blaizot, Aymeric
Cholak, Serhii
de Castro, Gianfranco
Demiragli, Zeynep
Duquette, Alec
Fulcher, Jonathan Richard
Gastler, Dan
Hahn, Kristian
Hazen, Eric Shearer
Jeon, Si Hyun
Kotamnives, Peace
Madorsky, Alexander
Monk, David
Noorudhin, Sheena
Oshiro, Michael
Rohlf, James
Strohman, Charles Ralph
Tsai, Emily Minyun
Wittich, Peter
Yuan, Siqi
Zou, Rui
contents The Apollo Advanced Telecommunications Computing Architecture (ATCA) platform is an open-source design consisting of a generic "Service Module" (SM) and a customizable "Command Module" (CM), allowing for cost-effective use in applications such as the readout of the inner tracker and the Level-1 track trigger for the CMS Phase-II upgrade at the HL-LHC. The SM integrates an intelligent IPMC, robust power entry and conditioning systems, a powerful system-on-module computer, and flexible clock and communication infrastructure. The CM is designed around two Xilinx Ultrascale+ FPGAs and high-density, high-bandwidth optical transceivers capable of 25 Gb/s. Crates of Apollo blades are currently being tested at Boston University, Cornell University, and CERN.
format Preprint
id arxiv_https___arxiv_org_abs_2501_03702
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Design, Construction, and Testing of the APOLLO ATCA Blades for Use at the HL-LHC
Akpinar, Alp
Blaizot, Aymeric
Cholak, Serhii
de Castro, Gianfranco
Demiragli, Zeynep
Duquette, Alec
Fulcher, Jonathan Richard
Gastler, Dan
Hahn, Kristian
Hazen, Eric Shearer
Jeon, Si Hyun
Kotamnives, Peace
Madorsky, Alexander
Monk, David
Noorudhin, Sheena
Oshiro, Michael
Rohlf, James
Strohman, Charles Ralph
Tsai, Emily Minyun
Wittich, Peter
Yuan, Siqi
Zou, Rui
High Energy Physics - Experiment
Instrumentation and Detectors
The Apollo Advanced Telecommunications Computing Architecture (ATCA) platform is an open-source design consisting of a generic "Service Module" (SM) and a customizable "Command Module" (CM), allowing for cost-effective use in applications such as the readout of the inner tracker and the Level-1 track trigger for the CMS Phase-II upgrade at the HL-LHC. The SM integrates an intelligent IPMC, robust power entry and conditioning systems, a powerful system-on-module computer, and flexible clock and communication infrastructure. The CM is designed around two Xilinx Ultrascale+ FPGAs and high-density, high-bandwidth optical transceivers capable of 25 Gb/s. Crates of Apollo blades are currently being tested at Boston University, Cornell University, and CERN.
title Design, Construction, and Testing of the APOLLO ATCA Blades for Use at the HL-LHC
topic High Energy Physics - Experiment
Instrumentation and Detectors
url https://arxiv.org/abs/2501.03702