Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures | Paper Citation Record

Observation a0525d0f-ab62-4fd8-8f4d-e41184ba1945 · outbound

This paper cites Universal blind quantum computation.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Universal blind quantum computation

Reference 1

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Observation 20f98dce-b8fa-45af-ad10-b301bda1e18d · outbound

This paper cites Uncondition- ally verifiable blind quantum computation.Physical Re- view A, 96(1):012303, 2017.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Uncondition- ally verifiable blind quantum computation.Physical Re- view A, 96(1):012303, 2017

Reference 2

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Observation 8f1c1b72-a566-41b3-b242-0df3796a4ae7 · outbound

This paper cites Secure entangle- ment distillation for double-server blind quantum com- putation.Physical Review Letters, 111:020502, Jul 2013.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Secure entangle- ment distillation for double-server blind quantum com- putation.Physical Review Letters, 111:020502, Jul 2013

Reference 3

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Observation 5705387d-5f74-4d07-b72d-4547f572e6fa · outbound

This paper cites Deterministic entanglement distillation for secure double-server blind quantum com- putation.Scientific reports, 5(1):7815, 2015.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Deterministic entanglement distillation for secure double-server blind quantum com- putation.Scientific reports, 5(1):7815, 2015

Reference 4

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Observation e603aa73-a5ea-4a7d-ac47-771ab2f47dd1 · outbound

This paper cites Triple-server blind quantum computation using en- tanglement swapping.Physical Review A, 89(4):040302, 2014.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Triple-server blind quantum computation using en- tanglement swapping.Physical Review A, 89(4):040302, 2014

Reference 5

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Observation 46413e4f-27bb-485b-97a1-5700fdf5cef4 · outbound

This paper cites Verifiable blind quantum computation with identity authentication for multi-type clients.IEEE Transactions on Information Forensics and Security, 2023.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Verifiable blind quantum computation with identity authentication for multi-type clients.IEEE Transactions on Information Forensics and Security, 2023

Reference 6

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Observation f3836957-0236-4fe1-a29e-11e87dcd6c6c · outbound

This paper cites Multi-client distributed blind quantum computation with the qline architecture.Nature Communications, 14(1):7743, 2023.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Multi-client distributed blind quantum computation with the qline architecture.Nature Communications, 14(1):7743, 2023

Reference 7

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Observation abff4060-1b30-4f73-b5f1-1c6d136063b9 · outbound

This paper cites Bruzewicz, John Chiaverini, Robert McConnell, and Jeremy M.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Bruzewicz, John Chiaverini, Robert McConnell, and Jeremy M

Reference 8

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Observation 1a70322e-7388-41aa-a935-2cf8fef99f32 · outbound

This paper cites Doherty, Neil B.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Doherty, Neil B

Reference 9

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Observation fc53d3fc-e559-43e6-adbf-98a318d31002 · outbound

This paper cites Quantum computing with neutral atoms.Quantum, 4:327, 2020.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Quantum computing with neutral atoms.Quantum, 4:327, 2020

Reference 10

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Observation 1312e2c7-676f-4a19-932c-a788cde5500e · outbound

This paper cites Classical verification of quantum com- putations.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Classical verification of quantum com- putations

Reference 11

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Observation efb8af38-f2ef-43b4-a67b-bdf05f58322d · outbound

This paper cites Quantum homomor- phic encryption for circuits of low T-gate complexity.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Quantum homomor- phic encryption for circuits of low T-gate complexity

Reference 12

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Observation 5b7159d5-4cc8-4e64-9312-25cbac9f293e · outbound

This paper cites Qenclave-a practical so- lutionforsecurequantumcloudcomputing.npj Quantum Information, 8(1):128, 2022.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Qenclave-a practical so- lutionforsecurequantumcloudcomputing.npj Quantum Information, 8(1):128, 2022

Reference 13

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Observation ffcac20b-2e6a-4d24-8207-9c017b10f657 · outbound

This paper cites Aone-wayquan- tum computer.Physical Review Letters, 86(22):5188, 2001.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Aone-wayquan- tum computer.Physical Review Letters, 86(22):5188, 2001

Reference 14

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Observation 216f9638-095f-4dc1-95b0-4e010593562c · outbound

This paper cites Mul- tiparty entanglement in graph states.Physical Re- view A—Atomic, Molecular, and Optical Physics, 69(6):062311, 2004.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Mul- tiparty entanglement in graph states.Physical Re- view A—Atomic, Molecular, and Optical Physics, 69(6):062311, 2004

Reference 15

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Observation 47c860b5-f409-4c40-9659-96ed49c719e5 · outbound

This paper cites Secure assisted quantum computa- tion.Quantum Information & Computation, 5(6):456– 466, 2005.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Secure assisted quantum computa- tion.Quantum Information & Computation, 5(6):456– 466, 2005

Reference 16

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Observation 2589c2d5-1b56-4ee9-8cbe-f80585d15dcc · outbound

This paper cites Verification of quantum computation: An overview of existing approaches.Theory of computing systems, 63(4):715–808, 2019.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Verification of quantum computation: An overview of existing approaches.Theory of computing systems, 63(4):715–808, 2019

Reference 17

Resolution: unresolved; no resolver link, observed 2026-07-11T04:21:01.555368Z

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Observation 2869be3a-6a1c-472b-a22f-e05238be0446 · outbound

This paper cites Verification for measurement- only blind quantum computing.Physical Review A, 89(6):060302(R), 2014.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Verification for measurement- only blind quantum computing.Physical Review A, 89(6):060302(R), 2014

Reference 18

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Observation 637d2fdc-9c61-4568-9179-225f7b28bd3f · outbound

This paper cites Verifiable measurement-only blind quantum computing with sta- bilizer testing.Physical review letters, 115(22):220502, 2015.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Verifiable measurement-only blind quantum computing with sta- bilizer testing.Physical review letters, 115(22):220502, 2015

Reference 19

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Observation efcbecb3-ee94-45bf-86e0-e64fc89371e4 · outbound

This paper cites Quantum field theory cannot provide faster-than-light communication.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Quantum field theory cannot provide faster-than-light communication

Reference 20

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Observation 1ed429b3-37cc-4563-8ea4-89a9d1fa8cab · outbound

This paper cites Single-click protocols for remote state preparation using weak coherent pulses.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Single-click protocols for remote state preparation using weak coherent pulses

Reference 21

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Observation 371959f4-18bb-4185-823c-8f427b3aff3d · outbound

This paper cites Efficient high-fidelity quantum computation using matter qubits and linear op- tics.Physical Review A—Atomic, Molecular, and Optical Physics, 71(6):060310, 2005.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Efficient high-fidelity quantum computation using matter qubits and linear op- tics.Physical Review A—Atomic, Molecular, and Optical Physics, 71(6):060310, 2005

Reference 22

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Observation dffbef5c-f43b-4e5b-83ee-6325b407a93d · outbound

This paper cites Measurement- based entanglement under conditions of extreme photon loss.Physical review letters, 101(13):130502, 2008.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Measurement- based entanglement under conditions of extreme photon loss.Physical review letters, 101(13):130502, 2008

Reference 23

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Observation 2fa4716b-eabb-46b5-978d-221ddf9aeabc · outbound

This paper cites Single photon ab- sorption by a single quantum emitter.Physical review letters, 100(9):093603, 2008.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Single photon ab- sorption by a single quantum emitter.Physical review letters, 100(9):093603, 2008

Reference 24

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Observation db77cde9-b0b6-4801-8e7b-d550fdb5a5c3 · outbound

This paper cites Analysis of deterministic swapping of photonic and atomic states through single-photon raman interaction.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Analysis of deterministic swapping of photonic and atomic states through single-photon raman interaction

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Observation 009b0091-349c-4bb5-a4bf-ede02c43d980 · outbound

This paper cites Scalable photonic quantum computation through cavity-assisted interactions.Phys- ical review letters, 92(12):127902, 2004.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Scalable photonic quantum computation through cavity-assisted interactions.Phys- ical review letters, 92(12):127902, 2004

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Observation b8dfadbd-2bd0-48ee-96a6-2990698ce293 · outbound

This paper cites Passive quantum interconnects: multiplexed remote entanglement generation with cavity-assisted photon scattering.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Passive quantum interconnects: multiplexed remote entanglement generation with cavity-assisted photon scattering

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Observation d450df59-a2ee-497d-b387-9c042d92fa3d · outbound

This paper cites Hardware requirements for trapped- ion-based verifiable blind quantum computing with a measurement-only client.Quantum Science and Tech- nology, 9(4):045031, 2024.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Hardware requirements for trapped- ion-based verifiable blind quantum computing with a measurement-only client.Quantum Science and Tech- nology, 9(4):045031, 2024

Reference 28

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Observation c32283cc-b5a2-43ba-9764-8097365f0ab3 · outbound

This paper cites Verification of Quantum Computations without Trusted Preparations or Measurements.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Verification of Quantum Computations without Trusted Preparations or Measurements

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Observation 110d64db-479a-4c6d-80e4-08d592c837dc · outbound

This paper cites Blind quantum computation where a user only performs single-qubit gates.Optics & Laser Technology, 142:107190, 2021.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Blind quantum computation where a user only performs single-qubit gates.Optics & Laser Technology, 142:107190, 2021

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Observation c4112d60-e76a-458e-b3a6-8fb8752db16c · outbound

This paper cites Blind quantum computation with a client performing different single- qubit gates.Chinese Physics B, 32(11):110302, 2023.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Blind quantum computation with a client performing different single- qubit gates.Chinese Physics B, 32(11):110302, 2023

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Observation 8530f4cf-5f9d-4544-be00-74b3db290474 · outbound

This paper cites Verification of many-qubit states.Phys.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Verification of many-qubit states.Phys

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Observation 6a852bdb-62ab-49c7-9a3a-d7ec6ddb4567 · outbound

This paper cites Verifying bqp computations on noisy devices with minimal overhead.PRX Quantum, 2(4):040302, 2021.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Verifying bqp computations on noisy devices with minimal overhead.PRX Quantum, 2(4):040302, 2021

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Observation 09efbf83-de38-4ab7-930d-5927ffd47210 · outbound

This paper cites Unifying quan- tum verification and error-detection: theory and tools for optimisations.Quantum Science and Technology, 9(3):035036, 2024.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Unifying quan- tum verification and error-detection: theory and tools for optimisations.Quantum Science and Technology, 9(3):035036, 2024

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Observation 4b3570f9-ab2a-4668-9096-7eec8585e7dc · outbound

This paper cites Composable security of del- egated quantum computation.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Composable security of del- egated quantum computation

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Observation f590068d-efb0-484c-a1f8-527009d44c16 · outbound

This paper cites Composably secure delegated quantum computation with weak coherent pulses.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Composably secure delegated quantum computation with weak coherent pulses

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Observation 56ddb233-7c77-4248-b0a6-18cd4a33c913 · outbound

This paper cites Asymmetric Quantum Secure Multi-Party Computation With Weak Clients Against Dishonest Majority.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Asymmetric Quantum Secure Multi-Party Computation With Weak Clients Against Dishonest Majority

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No event found in the named queried sources as of 2026-08-09T06:31:02.800959+00:00.

Observation 59a5589b-fb6c-499c-91dd-6af2d2114a0a · outbound

This paper cites Optimizing Resource Costs: A Practical Guide to Achieving Target Security in Verifiable Blind Quantum Computing.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Optimizing Resource Costs: A Practical Guide to Achieving Target Security in Verifiable Blind Quantum Computing

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Observation 70cc19fa-b661-4817-b2b3-856b4629a96d · outbound

This paper cites En- tanglement of trapped-ion qubits separated by 230 me- ters.Physical Review Letters, 130(5):050803, 2023.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures En- tanglement of trapped-ion qubits separated by 230 me- ters.Physical Review Letters, 130(5):050803, 2023

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Observation 3f79becf-6aed-4f69-bd37-2297bc9d1d35 · outbound

This paper cites The measurement calculus.Journal of the ACM (JACM), 54(2):8–es, 2007.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures The measurement calculus.Journal of the ACM (JACM), 54(2):8–es, 2007

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Observation b1d4dc26-a212-4283-a575-6ca6447d9bb3 · outbound

This paper cites John Wiley & Sons, 1995.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures John Wiley & Sons, 1995

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Observation 3608e7d2-46be-4ad4-9688-b6a9c4317727 · outbound

This paper cites Elucidatingreactionmech- anisms on quantum computers.Proceedings of the na- tional academy of sciences, 114(29):7555–7560, 2017.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Elucidatingreactionmech- anisms on quantum computers.Proceedings of the na- tional academy of sciences, 114(29):7555–7560, 2017

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Observation e45645bf-403e-4f48-8af8-23141664c353 · outbound

This paper cites Quan- tum strategies to overcome classical multiplexing limits.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Quan- tum strategies to overcome classical multiplexing limits

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Observation 4569c5aa-1e26-45bc-8640-dc413d4404a1 · outbound

This paper cites Time-resolvedtwo-photonquantuminterference.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Time-resolvedtwo-photonquantuminterference

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Observation 175fd174-8229-4cea-b679-fd43c446c8cd · outbound

This paper cites Directphotoniccouplingofasemiconductor quantum dot and a trapped ion.Physical review letters, 114(12):123001, 2015.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Directphotoniccouplingofasemiconductor quantum dot and a trapped ion.Physical review letters, 114(12):123001, 2015

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Resolution: unresolved; no resolver link, observed 2026-07-11T04:21:01.555368Z

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Observation 39038e4f-9e11-4171-9c8c-b1eaff70243e · outbound

This paper cites Resonance absorption by nuclear magnetic mo- ments in a solid.Physical review, 69(1-2):37, 1946.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Resonance absorption by nuclear magnetic mo- ments in a solid.Physical review, 69(1-2):37, 1946

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Resolution: unresolved; no resolver link, observed 2026-07-11T04:21:01.555368Z

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Observation 5672ba8e-1a38-4270-9fb8-608ef184045f · outbound

This paper cites Veri- fiable blind quantum computing with trapped ions and single photons.Physical Review Letters, 132(15):150604, 2024.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Veri- fiable blind quantum computing with trapped ions and single photons.Physical Review Letters, 132(15):150604, 2024

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Resolution: unresolved; no resolver link, observed 2026-07-11T04:21:01.555368Z

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Observation d1c5dc98-60dc-44c4-801d-a32e5ea7469a · outbound

This paper cites Classical homomorphic encryption for quantum circuits.SIAM Journal on Computing, 52(6):FOCS18–189, 2020.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Classical homomorphic encryption for quantum circuits.SIAM Journal on Computing, 52(6):FOCS18–189, 2020

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Observation 065beaf3-6f9b-41ae-b527-6d89b8db3c64 · outbound

This paper cites Computationally-secure and composable remote state preparation.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Computationally-secure and composable remote state preparation

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Observation 461441a0-b9d4-4c5d-b05a-01168dfcb8f3 · outbound

This paper cites Tools for the analysis of quantum protocols requiring state generation within a time window.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Tools for the analysis of quantum protocols requiring state generation within a time window

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Resolution: verified exact; local_arxiv, observed 2026-07-11T04:27:50.716819Z

Source-reported events for the cited work

No event found in the named queried sources as of 2026-08-09T06:31:02.800959+00:00.

Observation 7ca57d52-a7f2-4ec2-ae72-8941637b117f · outbound

This paper cites Exact rate analysis for quantum repeaters with imperfect memories and entanglement swapping as soon as possible.Physical Review Research, 5(2):023086, 2023.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Exact rate analysis for quantum repeaters with imperfect memories and entanglement swapping as soon as possible.Physical Review Research, 5(2):023086, 2023

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Observation c9643383-fae0-47fb-ae50-75bf7cae6009 · outbound

This paper cites For the graph state generation problem the events are the times at which graph states are successfully delivered, or at which a cutoff condition is violated.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures For the graph state generation problem the events are the times at which graph states are successfully delivered, or at which a cutoff condition is violated

Reference 52

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Observation b463df4a-907c-444b-b300-059847ef9a9e · outbound

This paper cites an unresolved cited work.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures Unresolved cited work

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Observation 1a799bd9-a111-4c0d-bd4b-a3dbc3d9619e · outbound

This paper cites We consider a brickwork graph with nr rows andn c columns for a total ofn=n rnc qubits.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures We consider a brickwork graph with nr rows andn c columns for a total ofn=n rnc qubits

Reference 54

Resolution: unresolved; no resolver link, observed 2026-07-11T04:21:01.555368Z

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Observation a29f7807-3c66-4b0b-85b0-230edfd4bace · outbound

This paper cites The reduction in dependencies is achieved by usingcolumnwise cutoffin which the cutoffs are on the number of attempts per column.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures The reduction in dependencies is achieved by usingcolumnwise cutoffin which the cutoffs are on the number of attempts per column

Reference 55

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Observation 3fa8ad87-00d2-47bf-9196-8f2a244d7781 · outbound

This paper cites This gives the brickwork with columnwise cutoffs the same structure as a linear graph with qubitwise cutoffs.

Verifiable blind quantum computing: Comparative analysis and design considerations for client architectures This gives the brickwork with columnwise cutoffs the same structure as a linear graph with qubitwise cutoffs

Reference 56

Resolution: unresolved; no resolver link, observed 2026-07-11T04:21:01.555368Z

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