Distributed Quantum Computing in Silicon

Fuente: arXiv
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Main Authors: Inc, Photonic, :, Afzal, Francis, Akhlaghi, Mohsen, Beale, Stefanie J., Bedroya, Olinka, Bell, Kristin, Bergeron, Laurent, Bonsma-Fisher, Kent, Bychkova, Polina, Chaisson, Zachary M. E., Chartrand, Camille, Clear, Chloe, Darcie, Adam, DeAbreu, Adam, DeLisle, Colby, Duncan, Lesley A., Smith, Chad Dundas, Dunn, John, Ebrahimi, Amir, Evetts, Nathan, Pinheiro, Daker Fernandes, Fuentes, Patricio, Georgiou, Tristen, Guha, Biswarup, Haenel, Rafael, Higginbottom, Daniel, Jackson, Daniel M., Jahed, Navid, Khorshidahmad, Amin, Shandilya, Prasoon K., Kurkjian, Alexander T. K., Lauk, Nikolai, Lee-Hone, Nicholas R., Lin, Eric, Litynskyy, Rostyslav, Lock, Duncan, Ma, Lisa, MacGilp, Iain, MacQuarrie, Evan R., Mar, Aaron, Khah, Alireza Marefat, Matiash, Alex, Meyer-Scott, Evan, Michaels, Cathryn P., Motira, Juliana, Noori, Narwan Kabir, Ospadov, Egor, Patel, Ekta, Patscheider, Alexander, Paulson, Danny, Petruk, Ariel, Ravindranath, Adarsh L., Reznychenko, Bogdan, Ruether, Myles, Ruscica, Jeremy, Saxena, Kunal, Schaller, Zachary, Seidlitz, Alex, Senger, John, Lee, Youn Seok, Sevoyan, Orbel, Simmons, Stephanie, Soykal, Oney, Stott, Leea, Tran, Quyen, Tserkis, Spyros, Ulhaq, Ata, Vine, Wyatt, Weeks, Russ, Wolfowicz, Gary, Yoneda, Isao
Format: Preprint
Published: 2024
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author Inc, Photonic
:
Afzal, Francis
Akhlaghi, Mohsen
Beale, Stefanie J.
Bedroya, Olinka
Bell, Kristin
Bergeron, Laurent
Bonsma-Fisher, Kent
Bychkova, Polina
Chaisson, Zachary M. E.
Chartrand, Camille
Clear, Chloe
Darcie, Adam
DeAbreu, Adam
DeLisle, Colby
Duncan, Lesley A.
Smith, Chad Dundas
Dunn, John
Ebrahimi, Amir
Evetts, Nathan
Pinheiro, Daker Fernandes
Fuentes, Patricio
Georgiou, Tristen
Guha, Biswarup
Haenel, Rafael
Higginbottom, Daniel
Jackson, Daniel M.
Jahed, Navid
Khorshidahmad, Amin
Shandilya, Prasoon K.
Kurkjian, Alexander T. K.
Lauk, Nikolai
Lee-Hone, Nicholas R.
Lin, Eric
Litynskyy, Rostyslav
Lock, Duncan
Ma, Lisa
MacGilp, Iain
MacQuarrie, Evan R.
Mar, Aaron
Khah, Alireza Marefat
Matiash, Alex
Meyer-Scott, Evan
Michaels, Cathryn P.
Motira, Juliana
Noori, Narwan Kabir
Ospadov, Egor
Patel, Ekta
Patscheider, Alexander
Paulson, Danny
Petruk, Ariel
Ravindranath, Adarsh L.
Reznychenko, Bogdan
Ruether, Myles
Ruscica, Jeremy
Saxena, Kunal
Schaller, Zachary
Seidlitz, Alex
Senger, John
Lee, Youn Seok
Sevoyan, Orbel
Simmons, Stephanie
Soykal, Oney
Stott, Leea
Tran, Quyen
Tserkis, Spyros
Ulhaq, Ata
Vine, Wyatt
Weeks, Russ
Wolfowicz, Gary
Yoneda, Isao
author_facet Inc, Photonic
:
Afzal, Francis
Akhlaghi, Mohsen
Beale, Stefanie J.
Bedroya, Olinka
Bell, Kristin
Bergeron, Laurent
Bonsma-Fisher, Kent
Bychkova, Polina
Chaisson, Zachary M. E.
Chartrand, Camille
Clear, Chloe
Darcie, Adam
DeAbreu, Adam
DeLisle, Colby
Duncan, Lesley A.
Smith, Chad Dundas
Dunn, John
Ebrahimi, Amir
Evetts, Nathan
Pinheiro, Daker Fernandes
Fuentes, Patricio
Georgiou, Tristen
Guha, Biswarup
Haenel, Rafael
Higginbottom, Daniel
Jackson, Daniel M.
Jahed, Navid
Khorshidahmad, Amin
Shandilya, Prasoon K.
Kurkjian, Alexander T. K.
Lauk, Nikolai
Lee-Hone, Nicholas R.
Lin, Eric
Litynskyy, Rostyslav
Lock, Duncan
Ma, Lisa
MacGilp, Iain
MacQuarrie, Evan R.
Mar, Aaron
Khah, Alireza Marefat
Matiash, Alex
Meyer-Scott, Evan
Michaels, Cathryn P.
Motira, Juliana
Noori, Narwan Kabir
Ospadov, Egor
Patel, Ekta
Patscheider, Alexander
Paulson, Danny
Petruk, Ariel
Ravindranath, Adarsh L.
Reznychenko, Bogdan
Ruether, Myles
Ruscica, Jeremy
Saxena, Kunal
Schaller, Zachary
Seidlitz, Alex
Senger, John
Lee, Youn Seok
Sevoyan, Orbel
Simmons, Stephanie
Soykal, Oney
Stott, Leea
Tran, Quyen
Tserkis, Spyros
Ulhaq, Ata
Vine, Wyatt
Weeks, Russ
Wolfowicz, Gary
Yoneda, Isao
contents Commercially impactful quantum algorithms such as quantum chemistry and Shor's algorithm require a number of qubits and gates far beyond the capacity of any existing quantum processor. Distributed architectures, which scale horizontally by networking modules, provide a route to commercial utility and will eventually surpass the capability of any single quantum computing module. Such processors consume remote entanglement distributed between modules to realize distributed quantum logic. Networked quantum computers will therefore require the capability to rapidly distribute high fidelity entanglement between modules. Here we present preliminary demonstrations of some key distributed quantum computing protocols on silicon T centres in isotopically-enriched silicon. We demonstrate the distribution of entanglement between modules and consume it to apply a teleported gate sequence, establishing a proof-of-concept for T centres as a distributed quantum computing and networking platform.
format Preprint
id arxiv_https___arxiv_org_abs_2406_01704
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Distributed Quantum Computing in Silicon
Inc, Photonic
:
Afzal, Francis
Akhlaghi, Mohsen
Beale, Stefanie J.
Bedroya, Olinka
Bell, Kristin
Bergeron, Laurent
Bonsma-Fisher, Kent
Bychkova, Polina
Chaisson, Zachary M. E.
Chartrand, Camille
Clear, Chloe
Darcie, Adam
DeAbreu, Adam
DeLisle, Colby
Duncan, Lesley A.
Smith, Chad Dundas
Dunn, John
Ebrahimi, Amir
Evetts, Nathan
Pinheiro, Daker Fernandes
Fuentes, Patricio
Georgiou, Tristen
Guha, Biswarup
Haenel, Rafael
Higginbottom, Daniel
Jackson, Daniel M.
Jahed, Navid
Khorshidahmad, Amin
Shandilya, Prasoon K.
Kurkjian, Alexander T. K.
Lauk, Nikolai
Lee-Hone, Nicholas R.
Lin, Eric
Litynskyy, Rostyslav
Lock, Duncan
Ma, Lisa
MacGilp, Iain
MacQuarrie, Evan R.
Mar, Aaron
Khah, Alireza Marefat
Matiash, Alex
Meyer-Scott, Evan
Michaels, Cathryn P.
Motira, Juliana
Noori, Narwan Kabir
Ospadov, Egor
Patel, Ekta
Patscheider, Alexander
Paulson, Danny
Petruk, Ariel
Ravindranath, Adarsh L.
Reznychenko, Bogdan
Ruether, Myles
Ruscica, Jeremy
Saxena, Kunal
Schaller, Zachary
Seidlitz, Alex
Senger, John
Lee, Youn Seok
Sevoyan, Orbel
Simmons, Stephanie
Soykal, Oney
Stott, Leea
Tran, Quyen
Tserkis, Spyros
Ulhaq, Ata
Vine, Wyatt
Weeks, Russ
Wolfowicz, Gary
Yoneda, Isao
Quantum Physics
Commercially impactful quantum algorithms such as quantum chemistry and Shor's algorithm require a number of qubits and gates far beyond the capacity of any existing quantum processor. Distributed architectures, which scale horizontally by networking modules, provide a route to commercial utility and will eventually surpass the capability of any single quantum computing module. Such processors consume remote entanglement distributed between modules to realize distributed quantum logic. Networked quantum computers will therefore require the capability to rapidly distribute high fidelity entanglement between modules. Here we present preliminary demonstrations of some key distributed quantum computing protocols on silicon T centres in isotopically-enriched silicon. We demonstrate the distribution of entanglement between modules and consume it to apply a teleported gate sequence, establishing a proof-of-concept for T centres as a distributed quantum computing and networking platform.
title Distributed Quantum Computing in Silicon
topic Quantum Physics
url https://arxiv.org/abs/2406.01704