Linked bibliography for the SEP article "Quantum Computing" by Michael Cuffaro and Amit Hagar
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- Aaronson, S., 2013a, Quantum Computing Since Democritus, New York: Cambridge University Press. (Scholar)
- –––, 2013b, “Why Philosophers Should Care about Computational Complexity,” in B. J. Copeland, C. J. Posy, & O. Shagrir (eds.), Computability: Turing, Gödel, Church, and Beyond, pp. 261–327, Cambridge, MA: MIT Press. (Scholar)
- Adamyan, V. A., Calude, C. S., and Pavlov, B. S., 2004,
“Transcending the Limits of Turing Computability,” in
Quantum Information and Complexity, pp. 119–137. (Scholar)
- Adlam, Emily, 2023, “Is There Causation in Fundamental Physics? New Insights from Process Matrices and Quantum Causal Modelling,” Synthese, 201: 152. (Scholar)
- Adleman, L. M., 1994, “Molecular Computation of Solutions to
Combinatorial Problems,” Science, 266: 1021–1024.
(Scholar)
- Aharonov, D., 1999, “Quantum Computation,” in
Annual Reviews of Computational Physics VI, pp.
259–346, Singapore: World Scientific. (Scholar)
- Aharonov, D., and Ben-Or, M., 1997, “Fault-Tolerant
Computation with Constant Error,” in Proceedings of the
Twenty-Ninth ACM Symposium on the Theory of Computing, Vol. 176.
(Scholar)
- Aharonov, D., Jones, V., and Landau, Z., 2009, “A Polynomial
Quantum Algorithm for Approximating the Jones Polynomial,”
Algorithmica, 55: 395–421. (Scholar)
- Aharonov, Dorit, Gao, Xun, Landau, Zeph, Liu, Yunchao, and
Vazirani, Umesh, 2023, “A Polynomial-Time Classical Algorithm
for Noisy Random Circuit Sampling,” in Proceedings of the
55th Annual ACM Symposium on Theory of Computing, pp.
945–957, New York, NY, USA: Association for Computing Machinery.
(Scholar)
- Aharonov, D., Van Dam, W., Kempe, J., Landau, Z., Lloyd, S., and
Regev, O., 2008, “Adiabatic Quantum Computation Is Equivalent to
Standard Quantum Computation,” SIAM Review, 50:
755–787. (Scholar)
- Albash, T., and Lidar, D. A., 2018, “Adiabatic Quantum
Computation,” Reviews of Modern Physics, 90:
015002-1-01502-64. (Scholar)
- Alicki, R., Lidar, D., and Zinardi, P., 2006, “Internal
Consistency of Fault Tolerant Quantum Error Correction,”
Phys. Rev. A, 73: 052311. (Scholar)
- Alléaume, R., Branciard, C., Bouda, J., Debuisschert, T.,
Dianati, M., Gisin, N., … others, 2014, “Using Quantum
Key Distribution for Cryptographic Purposes: A Survey,”
Theoretical Computer Science, 560: 62–81. (Scholar)
- Allen, J. A., Barrett, J., Horsman, D. C., Lee, C. M., and
Spekkens, R. W., 2017, “Quantum Common Causes and Quantum Causal
Models,” Physical Review X, 7: 031021. (Scholar)
- Andréka, H., Madarász, J. X., Németi, I.,
Németi, P., and Székely, G., 2018, “Relativistic
Computation,” in Cuffaro & Fletcher (2018),
pp. 195–218. (Scholar)
- Arora, S., and Barak, B., 2009, Computational Complexity: A
Modern Approach, Cambridge: Cambridge University Press. (Scholar)
- Arute, F., Arya, K., Babbush, R., and coauthors, 2019,
“Quantum Supremacy Using a Programmable Superconducting
Processor,” Nature, 574: 505–510. (Scholar)
- Barenco, A., Bennett, C. H., Cleve, R., DiVincenzo, D. P.,
Margolus, N., Shor, P., … Weinfurter, H., 1995,
“Elementary Gates for Quantum Computation,” Phys. Rev.
A, 52: 3457–3467. (Scholar)
- Bassi, A., Adler, S. L., and Ippoliti, E., 2004, “Towards
Quantum Superpositions of a Mirror: Stochastic Collapse
Analysis,” Phys. Rev. Lett., 94: 030401. (Scholar)
- Bennett, C. H., Bernstein, E., Brassard, G., and Vazirani, U.,
1997, “Strengths and Weaknesses of Quantum Computing,”
SIAM Journal on Computing, 26: 1510–1523. (Scholar)
- Bensaude-Vincent, B., 2009, “The Chemists’ Style of
Thinking,” Berichte Zur Wissenschaftsgeschichte, 32:
365–378. (Scholar)
- Bernien, H., Schwartz, S., Keesling, A., Levine, H., Omran, A.,
Pichler, H., … others, 2017, “Probing Many-Body Dynamics
on a 51-Atom Quantum Simulator,” Nature, 551: 579.
(Scholar)
- Bernstein, E., and Vazirani, U., 1997, “Quantum Complexity
Theory,” SIAM Journal on Computing, 26:
1411–1473. (Scholar)
- Biham, E., Brassard, G., Kenigsberg, D., and Mor, T., 2004,
“Quantum Computing Without Entanglement,” Theoretical
Computer Science, 320: 15–33. (Scholar)
- Boolos, George S., Burgess, John P., and Jeffrey, Richard C.,
2007, Computability and Logic, 5th edition, Cambridge:
Cambridge University Press. (Scholar)
- Brown, B. J., and Roberts, S., 2020, “Universal
Fault-Tolerant Measurement-Based Quantum Computation,”
Physical Review Research, 2: 033305. (Scholar)
- Brown, Christopher Devlin, 2023, “Quantum Computation and
the Untenability of a ‘No Fundamental Mentality’
Constraint on Physicalism,” Synthese, 201: 10. (Scholar)
- Bub, J., 2006a, “Quantum Computation from a Quantum Logical Perspective.” (Scholar)
- –––, 2006b, “Quantum Information and
Computing,” in J. Butterfield & J. Earman (eds.),
Handbook of the Philosophy of Science, Philosophy of Physics, Part
A, pp. 555–660, Amsterdam: Elsevier. (Scholar)
- –––, 2010, “Quantum Computation: Where Does the Speed-up Come From?” in A. Bokulich & G. Jaeger (eds.), Philosophy of Quantum Information and Entanglement, pp. 231–246, Cambridge: Cambridge University Press. (Scholar)
- –––, 2016, Bananaworld, Quantum Mechanics
for Primates, Oxford: Oxford University Press. (Scholar)
- Bub, J., and Pitowsky, I., 2010, “Two Dogmas about Quantum Mechanics,” in Simon Saunders, Jonathan Barrett, Adrian Kent, & David Wallace (eds.), Many Worlds? Everett, Quantum Theory, and Reality, pp. 433–459, Oxford: Oxford University Press. (Scholar)
- Carnap, Rudolf, 1962, Logical Foundations of Probability,
2nd edition, Chicago: The University of Chicago Press. (Scholar)
- Chiribella, G., and Spekkens, R. W., 2016, Quantum Theory: Informational Foundations and Foils, Dordrecht: Springer. (Scholar)
- Cirac, J. I., and Zoller, P., 1995, “Quantum Computations
with Cold Trapped Ions,” Phys. Rev. Lett., 74:
4091–4094. (Scholar)
- Cobham, A., 1965, “The Intrinsic Computational Difficulty of Functions,” in Yehoshua Bar-Hillel (ed.), Logic, Methodology and Philosophy of Science: Proceedings of the 1964 International Congress, pp. 24–30, Amsterdam: North-Holland. (Scholar)
- Cook, S. A., 1971, “The Complexity of Theorem-Proving
Procedures,” in Proceedings of the Third Annual ACM
Symposium on Theory of Computing, pp. 151–158, New York:
ACM. (Scholar)
- Copeland, B. J., 2002, “Hypercomputation,” Minds and Machines, 12: 461–502. (Scholar)
- –––, 2011, “Do Accelerating Turing Machines Compute the Uncomputable?” Minds & Machines, 21: 221–239. (Scholar)
- –––, 2018, “Zuse’s Thesis,
Gandy’s Thesis, and Penrose’s Thesis,” in
Cuffaro & Fletcher (2018), pp. 39–59.
(Scholar)
- Costa, F., and Shrapnel, S., 2016, “Quantum Causal Modelling,” New Journal of Physics, 18: 063032. (Scholar)
- Cubitt, Toby S., Perez-Garcia, David, and Wolf, Michael M., 2015,
“Undecidability of the Spectral Gap,” Nature,
528: 207–211. (Scholar)
- Cuffaro, M. E., 2012, “Many Worlds, the Cluster-State Quantum Computer, and the Problem of the Preferred Basis,” Studies in History and Philosophy of Modern Physics, 43: 35–42. (Scholar)
- –––, 2015, “How-Possibly Explanations in (Quantum) Computer Science,” Philosophy of Science, 82: 737–748. (Scholar)
- –––, 2017, “On the Significance of the Gottesman-Knill Theorem,” The British Journal for the Philosophy of Science, 68: 91–121. (Scholar)
- –––, 2018a, “Reconsidering No-Go-Theorems from a Practical Perspective,” The British Journal for the Philosophy of Science, 69: 633–655. (Scholar)
- –––, 2018b, “Universality, Invariance, and the Foundations of Computational Complexity in the Light of the Quantum Computer,” in S. O. Hansson (ed.), Technology and Mathematics: Philosophical and Historical Investigations, pp. 253–282, Cham: Springer. (Scholar)
- –––, 2020, “Information Causality, the
Tsirelson Bound, and the ‘Being-Thus’ of Things,”
Studies in History and Philosophy of Modern Physics, 72:
266–277. (Scholar)
- –––, 2022, “The Philosophy of Quantum Computing,” in E. Miranda (ed.), Quantum Computing in the Arts and Humanities, pp. 107–152, Dordrecht: Springer. (Scholar)
- –––, 2023, “The Measurement Problem Is a Feature, Not a Bug – Schematising the Observer and the Concept of an Open System on an Informational, or (Neo-)Bohrian, Approach,” Entropy, 25: 1410. (Scholar)
- Cuffaro, M. E., and Fletcher, S. C. (eds.), 2018, Physical Perspectives on Computation, Computational Perspectives on Physics, Cambridge: Cambridge University Press. (Scholar)
- Dalla Chiara, Maria Luisa, Giuntini, Roberto, Leporini, Roberto, and Sergioli, Giuseppe, 2018, Quantum Computation and Logic: How Quantum Computers Have Inspired Logical Investigations, Cham: Springer. (Scholar)
- Davis, M., 1958, The Undecidable, New York: Dover. (Scholar)
- –––, 2003, “The Myth of
Hypercomputation,” in C. Teuscher (ed.), Alan Turing, Life
and Legacy of a Great Thinker, pp. 195–212, New York:
Springer. (Scholar)
- de Beaudrap, Niel, and Horsman, Dominic, 2020, “The ZX
Calculus Is a Language for Surface Code Lattice Surgery,”
Quantum, 4: 218. (Scholar)
- Deutsch, D., 1985, “Quantum Theory, the Church-Turing
Principle and the Universal Quantum Computer,” Proc. Roy.
Soc. Lond. A, 400: 97–117. (Scholar)
- –––, 1989, “Quantum Computational
Networks,” Proc. Roy. Soc. Lond. A, 425: 73–90.
(Scholar)
- –––, 1997, The Fabric of Reality, New York: Penguin. (Scholar)
- –––, 2013, “The Philosophy of Constructor
Theory,” Synthese, 190: 4331–4359. (Scholar)
- Deutsch, D., and Jozsa, R., 1992, “Rapid Solution of
Problems by Quantum Computation,” Proc. Roy. Soc. Lond.
A, 439: 553–558. (Scholar)
- Dewdney, A. K., 1984, “On the Spaghetti Computer and Other
Analog Gadgets for Problem Solving,” Scientific
American, 250: 19–26. (Scholar)
- DiVincenzo, D., 1995, “Two-Bit Gates Are Universal for
Quantum Computation,” Phys. Rev. A, 51:
1015–1022. (Scholar)
- –––, 2000, “The Physical Implementation of
Quantum Computation,” Fortschritte Der Physik, 48:
771–783. (Scholar)
- Dunlap, Lucas, 2022, “Is the Information-Theoretic Interpretation of Quantum Mechanics an Ontic Structural Realist View?” Studies in History and Philosophy of Science, 91: 41–48. (Scholar)
- Duwell, A., 2007, “The Many-Worlds Interpretation and Quantum Computation,” Philosophy of Science, 74: 1007–1018. (Scholar)
- –––, 2018, “How to Make Orthogonal
Positions Parallel: Revisiting the Quantum Parallelism Thesis,”
in Cuffaro & Fletcher (2018), pp. 83–102.
(Scholar)
- –––, 2020, “Understanding Quantum Phenomena and Quantum Theories,” Studies in History and Philosophy of Modern Physics, 72: 278–291. (Scholar)
- –––, 2021, Physics and Computation, Cambridge: Cambridge University Press. (Scholar)
- Edmonds, J., 1965, “Paths, Trees, and Flowers,”
Canadian Journal of Mathematics, 17: 449–467. (Scholar)
- Farhi, E., Goldstone, J., Gutmann, S., Lapan, J., Lundgren, A.,
and Preda, D., 2001, “A Quantum Adiabatic Evolution Algorithm
Applied to Random Instances of an NP-Complete Problem,”
Science, 292: 472–475. (Scholar)
- Felline, L., 2016, “It’s a Matter of Principle:
Scientific Explanation in Information‐theoretic Reconstructions
of Quantum Theory,” Dialectica, 70: 549–575.
(Scholar)
- –––, 2020, “The Measurement Problem and
Two Dogmas about Quantum Mechanics,” in M. Hemmo & O.
Shenker (eds.), Quantum, Probability, Logic: Itamar
Pitowsky’s Work and Influence, pp. 285–304, Cham:
Springer. (Scholar)
- Feynman, R. P., 1982, “Simulating Physics with Computers,” International Journal of Theoretical Physics, 21: 467–488. (Scholar)
- Fodor, J., 1974, “Special Sciences,” Synthese, 2: 97–115. (Scholar)
- Fodor, J., and Pylyshyn, Z., 1988, “Connectionism and Cognitive Architecture, a Critical Analysis,” Cognition, 28: 3–71. (Scholar)
- Fortnow, L., 1994, “The Role of Relativization in Complexity
Theory,” Bulletin of the European Association for
Theoretical Computer Science, 52: 229–244. (Scholar)
- –––, 2003, “One Complexity
Theorist’s View of Quantum Computing,” Theoretical
Computer Science, 292: 597–610. (Scholar)
- Freedman, M. H., 1998, “P/NP and the Quantum Field
Computer,” Proc. Natl. Acad. Sci., 95: 98–101.
(Scholar)
- Freedman, M. H., Kitaev, A., and Wang, Z., 2002, “Simulation
of Topological Field Theories by Quantum Computers,”
Communications in Mathematical Physics, 227: 587–603.
(Scholar)
- Fuchs, Christopher A., 2002, “Quantum Mechanics as Quantum
Information (and Only a Little More).” (Scholar)
- Gandy, R., 1980, “Church’s Thesis and Principles for
Mechanisms,” in J. Barwise, H. J. Keisler, & K. Kunen
(eds.), The Kleene Symposium, pp. 123–148, Amsterdam:
Elsevier. (Scholar)
- Garey, M. R., and Johnson, D. S., 1979, Computers and
Intractability: A Guide to the Theory of NP-Completeness, New
York: WH Freeman. (Scholar)
- Geroch, R., 2009, Perspectives in Computation, Cambridge:
Cambridge University Press. (Scholar)
- Giblin, P., 1993, Primes and Programming, Cambridge:
Cambridge University Press. (Scholar)
- Gottesman, D., and Chuang, I., 1999, “Demonstrating the
Viability of Universal Quantum Computation Using Teleportation and
Single-Qubit Operations,” Nature, 402: 390–393.
(Scholar)
- Grover, L. K., 1996, “A Fast Quantum Mechanical Algorithm
for Database Search,” in Proceedings of the Twenty-Eighth
Annual ACM Symposium on Theory of Computing, pp. 212–219,
New York, NY, USA: Association for Computing Machinery. (Scholar)
- Hagar, A., 2003, “A Philosopher Looks at Quantum Information Theory,” Philosophy of Science, 70: 752–775. (Scholar)
- –––, 2007, “Quantum Algorithms: Philosophical Lessons,” Minds & Machines, 17: 233–247. (Scholar)
- –––, 2009, “Active Fault-Tolerant Quantum Error Correction: The Curse of the Open System,” Philosophy of Science, 76: 506–535. (Scholar)
- –––, 2016, “Ed Fredkin and the Physics of Information: An Inside Story of an Outsider Scientist,” Information and Culture, 51: 419–443. (Scholar)
- Hagar, A., and Hemmo, M., 2006, “Explaining the Unobserved: Why Quantum Mechanics Ain’t Only about Information,” Foundations of Physics, 36: 1295–1324. (Scholar)
- Hagar, A., and Korolev, A., 2007, “Quantum Hypercomputation – Hype or Computation?” Philosophy of Science, 74: 347–363. (Scholar)
- Hangleiter, D., Carolan, J., and Thébault, K. P. Y., 2022, Analogue Quantum Simulation: A New Instrument for Scientific Understanding, Cham: Springer. (Scholar)
- Hartmanis, J., and Stearns, R. E., 1965, “On the
Computational Complexity of Algorithms,” Transactions of the
American Mathematical Society, 117: 285–306. (Scholar)
- Hausman, D. M., and Woodward, J., 1999, “Independence, Invariance, and the Causal Markov Condition,” The British Journal for the Philosophy of Science, 50: 521–583. (Scholar)
- Henderson, L., 2020, “Quantum Reaxiomatisations and Information-Theoretic Interpretations of Quantum Theory,” Studies in History and Philosophy of Modern Physics, 72: 292–300. (Scholar)
- Hermann, G., 2017, “Natural-Philosophical Foundations of
Quantum Mechanics (1935),” in E. Crull & G. Bacciagaluppi
(eds.), E. Crull (trans.), Grete Hermann: Between Physics and
Philosophy, pp. 239–278, Dordrecht: Springer. (Scholar)
- Hewitt-Horsman, C., 2009, “An Introduction to Many Worlds in Quantum Computation,” Foundations of Physics, 39: 869–902. (Scholar)
- Hogarth, M., 1994, “Non-Turing Computers and Non-Turing Computability,” in PSA: Proceedings of the Biennial Meeting of the Philosophy of Science Association, pp. 126–138, Philosophy of Science Association. (Scholar)
- Holevo, A. S., 1973, “Bounds for the Quantity of Information
Transmitted by a Quantum Communication Channel,” Problemy
Peredachi Informatsii, 9: 3–11. English translation in
Problems of Information Transmission 9: 177–183, 1973. (Scholar)
- Horsman, C., Fowler, A. G., Devitt, S., and Van Meter, R., 2012,
“Surface Code Quantum Computing by Lattice Surgery,”
New Journal of Physics, 14: 123011. (Scholar)
- Howard, M., Wallman, J., Veitch, V., and Emerson, J., 2014,
“Contextuality Supplies the ‘Magic’ for Quantum
Computation,” Nature, 510: 351–355. (Scholar)
- Ingarden, R. S., 1976, “Quantum Information Theory,”
Rep. Math. Phys., 10: 43–72. (Scholar)
- Janas, Michael, Cuffaro, Michael E., and Janssen, Michel, 2022, Understanding Quantum Raffles: Quantum Mechanics on an Informational Approach: Structure and Interpretation, Cham: Springer-Verlag. (Scholar)
- Johnson, M., Amin, M., Gildert, S.others, 2011, “Quantum
Annealing with Manufactured Spins,” Nature, 473:
194–198. (Scholar)
- Jozsa, R., 1997, “Entanglement and Quantum
Computation,” in S. A. Huggett, L. J. Mason, K. P. Tod, S. T.
Tsou, & N. M. J. Woodhouse (eds.), The Geometric
Universe, pp. Ch. 27, Oxford: Oxford University Press. (Scholar)
- Kieu, T. D., 2002, “Quantum Hypercomputability,”
Minds and Machines, 12: 541–561. (Scholar)
- –––, 2004, “A Reformulation of
Hilbert’s Tenth Problem Through Quantum Mechanics,”
Proc. Royal Soc. A, 460: 1535–1545. (Scholar)
- Koberinski, Adam, and Müller, Markus P., 2018, “Quantum
Theory as a Principle Theory: Insights from an Information Theoretic
Reconstruction,” in Cuffaro & Fletcher (2018),
pp. 257–280. (Scholar)
- Ladyman, J., 2018, “Intension in the Physics of Computation: Lessons from the Debate about Landauer’s Principle,” in Cuffaro & Fletcher (2018), pp. 219–239. (Scholar)
- Lahtinen, Ville, and Pachos, Jiannis K., 2017, “A Short
Introduction to Topological Quantum Computation,” SciPost
Physics, 3: 021. (Scholar)
- Lau, Jonathan Wei Zhong, Lim, Kian Hwee, Shrotriya, Harshank, and
Kwek, Leong Chuan, 2022, “NISQ Computing: Where Are We and Where
Do We Go?” Association of Asia Pacific Physical Societies
Bulletin, 32: 27. (Scholar)
- Leung, D. W., 2004, “Quantum Computation by
Measurements,” International Journal of Quantum
Information, 2: 33–43. (Scholar)
- Levin, L., 2003, “Polynomial Time and Extravagant Models,” Problems of Information Transmission, 39: 2594–2597. (Scholar)
- –––, 1999, “Good Dynamics Versus Bad
Kinematics: Is Entanglement Needed for Quantum Computation?”
Phys. Rev. Lett., 87: 047901. (Scholar)
- Lipton, R., 1995, “Using DNA to Solve NP-Complete
Problems,” Science, 268: 542–545. (Scholar)
- Lorenz, Robin, 2022, “Quantum Causal Models: The Merits of
the Spirit of Reichenbach’s Principle for Understanding Quantum
Causal Structure,” Synthese, 200: 424. (Scholar)
- Lupacchini, Rossella, 2018, “Church’s Thesis,
Turing’s Limits, and Deutsch’s Principle,” in
Cuffaro & Fletcher (2018), op. cit., pp. 60–82. (Scholar)
- Maley, Corey J., 2023, “Analogue Computation and Representation,” The British Journal for the Philosophy of Science, 74: 739–769. (Scholar)
- Manin, Y., 1980, Computable and Uncomputable, Moscow:
Sovetskoye Radio. (Scholar)
- Marletto, Chiara, 2022, “The Information-Theoretic
Foundation of Thermodynamic Work Extraction,” Journal of
Physics Communications, 6: 055012. (Scholar)
- Marletto, Chiara, Vedral, Vlatko, Knoll, Laura T., Piacentini,
Fabrizio, Bernardi, Ettore, Rebufello, Enrico, … Genovese,
Marco, 2022, “Emergence of Constructor-Based Irreversibility in
Quantum Systems: Theory and Experiment,” Physical Review
Letters, 128: 080401. (Scholar)
- Martín-López, Enrique, Laing, Anthony, Lawson,
Thomas, Alvarez, Roberto, Zhou, Xiao-Qi, and O’Brien, Jeremy L.,
2012, “Experimental Realization of Shor’s Quantum
Factoring Algorithm Using Qubit Recycling,” Nature
Photonics, 6: 773–776. (Scholar)
- Mermin, David N., 2007, Quantum Computer Science: An
Introduction, Cambridge University Press. (Scholar)
- Messiah, A., 1961, Quantum Mechanics Vol. II, New York:
Interscience Publishers. (Scholar)
- Moore, C., 1990, “Unpredictability and Undecidability in
Dynamical Systems,” Phys. Rev. Lett., 64:
2354–2357. (Scholar)
- Myers, J., 1997, “Can a Universal Quantum Computer Be Fully
Quantum?” Phys. Rev. Lett., 78: 1823–1824. (Scholar)
- Myrvold, W. C., 2011, “Statistical Mechanics and Thermodynamics: A Maxwellian View,” Studies in History and Philosophy of Modern Physics, 42: 237–243. (Scholar)
- –––, 2016, “Lessons of Bell’s
Theorem: Nonlocality, Yes; Action at a Distance, Not
Necessarily,” in Mary Bell & Shan Gao (eds.), Quantum
Nonlocality and Reality: 50 Years of Bell’s Theorem, pp.
238–260, Cambridge: Cambridge University Press. (Scholar)
- –––, 2010, “From Physics to Information Theory and Back,” in Alisa Bokulich & Gregg Jaeger (eds.), Philosophy of Quantum Information and Entanglement, pp. 181–207, Cambridge: Cambridge University Press. (Scholar)
- Nielsen, M., 2003, “Quantum Computation by Measurement and
Quantum Memory,” Phys. Lett. A, 308: 96–100.
(Scholar)
- Nielsen, M. A., and Chuang, I. L., 2010, Quantum Computation
and Quantum Information 10th anniversary., Cambridge: Cambridge
University Press. (Scholar)
- Nielsen, M. A., and Dawson, C. M., 2005, “Fault-Tolerant
Quantum Computation with Cluster States,” Physical Review
A, 71: 042323. (Scholar)
- Pan, Feng, Chen, Keyang, and Zhang, Pan, 2022, “Solving the
Sampling Problem of the Sycamore Quantum Circuits,” Physical
Review Letters, 129: 090502. (Scholar)
- Papayannopoulos, Philippos, 2020, “Computing and Modelling: Analog Vs. Analogue,” Studies in History and Philosophy of Science, 83: 103–120. (Scholar)
- –––, 2023, “On Algorithms, Effective Procedures, and Their Definitions,” Philosophia Mathematica, 31: 291–329. (Scholar)
- Pearle, P., 1997, “True Collapse and False Collapse,”
in D. H. Feng & B. L. Hu (eds.), Quantum Classical
Correspondence: Proceedings of the 4th Drexel Symposium on Quantum
Nonintegrability, Philadelphia, PA, USA, September 8–11,
1994, pp. 51–68, Cambridge: International Press. (Scholar)
- Pitowsky, I., 1990, “The Physical Church Thesis and Physical Computational Complexity,” Iyyun: The Jerusalem Philosophical Quarterly, 39: 81–99. (Scholar)
- –––, 1996, “Laplace’s Demon Consults
an Oracle: The Computational Complexity of Prediction,”
Studies in History and Philosophy of Modern Physics, 27:
161–180. (Scholar)
- –––, 2002, “Quantum Speed-up of Computations,” Philosophy of Science, 69: S168–S177. (Scholar)
- Pitowsky, I., and Shagrir, O., 2003, “Physical Hypercomputation and the Church-Turing Thesis,” Minds and Machines, 13: 87–101. (Scholar)
- Poplavskii, R. P., 1975, “Thermodynamical Models of
Information Processing (in Russian),” Uspekhi Fizicheskikh
Nauk, 115: 465–501. (Scholar)
- Pour-el, M., and Richards, I., 1981, “The Wave Equation with
Computable Initial Data Such That Its Unique Solution Is Not
Computable,” Advances in Mathematics, 29:
215–239. (Scholar)
- Preskill, J., 2018, “Quantum Computing in the NISQ Era and
Beyond,” Quantum, 2: 79. (Scholar)
- Pylyshyn, Z., 1984, Computation and Cognition: Toward a Foundation for Cognitive Science, Cambridge: MIT Press. (Scholar)
- Rabin, M., 1976, “Probabilistic Algorithms,” in J.
Traub (ed.), Algorithms and Complexity: New Directions and Recent
Results, pp. 23–39, New York: Academic Press. (Scholar)
- Raussendorf, R., and Briegel, H. J., 2002, “Computational
Model Underlying the One-Way Quantum Computer,” Quantum
Information and Computation, 2: 443–486. (Scholar)
- Raussendorf, R., Browne, D. E., and Briegel, H. J., 2003,
“Measurement-Based Quantum Computation on Cluster States,”
Physical Review A, 68: 022312. (Scholar)
- Raussendorf, R., Harrington, J., and Goyal, K., 2008,
“Topological Fault-Tolerance in Cluster State Quantum
Computation,” New Journal of Physics, 9: 1–24.
(Scholar)
- Reichardt, B. W., 2004, “The Quantum Adiabatic Optimization
Algorithm and Local Minima,” in Proceedings of the
Thirty-Sixth Annual ACM Symposium on Theory of Computing, pp.
502–510. (Scholar)
- Rivest, R. L., Shamir, A., and Adleman, L., 1978, “A Method
for Obtaining Digital Signatures and Public-Key Cryptosystems,”
Communications of the ACM, 21: 120–126. (Scholar)
- Schlick, M., 1961, “Causality in Contemporary Physics I
(1931),” The British Journal for the Philosophy of
Science, 12: 177–193. (Scholar)
- –––, 1962, “Causality in Contemporary
Physics II (1931),” The British Journal for the Philosophy
of Science, 12: 281–298. (Scholar)
- Schmitz, Timothy, 2023, “On Epistemically Useful Physical
Computation,” Philosophy of Science, 90: 974–984.
(Scholar)
- Shor, P., 1995, “Scheme for Reducing Decoherence in Quantum
Computer Memory,” Phys. Rev. A., 52: 2493–2496.
(Scholar)
- –––, 1994, “Algorithms for Quantum Computation: Discrete Logarithms and Factoring,” Foundations of Computer Science, 1994 Proceedings., 35th Annual Symposium on, 124–134. (Scholar)
- Shor, P., and DiVincenzo, D., 1996, “Fault Tolerant Error
Correction with Efficient Quantum Codes,” Phys. Rev.
Lett., 77: 3260–3263. (Scholar)
- Shrapnel, S., 2017, “Discovering Quantum Causal
Models,” The British Journal for the Philosophy of
Science, 70: 1–25. (Scholar)
- Sieg, W., and Byrnes, J., 1999, “An Abstract Model for Parallel Computations,” The Monist, 82: 150–164. (Scholar)
- Simon, D. R., 1994, “On the Power of Quantum
Computation,” in 1994 Proceedings of the 35th Annual
Symposium on Foundations of Computer Science, pp. 116–123,
Los Alamitos, CA: IEEE Press. (Scholar)
- Skosana, Unathi, and Tame, Mark, 2021, “Demonstration of
Shor’s Factoring Algorithm for N = 21 on IBM Quantum
Processors,” Scientific Reports, 11: 16599. (Scholar)
- Spekkens, R. W., 2007, “Evidence for the Epistemic View of Quantum States: A Toy Theory,” Phys. Rev. A, 75: 032110. (Scholar)
- Sprevak, Mark, 2022, “Not All Computational Methods Are Effective Methods,” Philosophies, 7: 113. (Scholar)
- Steane, A. M., 1996, “Multiple Particle Interference and
Quantum Error Correction,” Proc. Roy. Soc. Lond. A,
452: 2551–2577. (Scholar)
- –––, 2003, “A Quantum Computer Only Needs One Universe,” Studies in History and Philosophy of Modern Physics, 34: 469–478. (Scholar)
- Tabakin, F., 2017, “Model Dynamics for Quantum
Computing,” Annals of Physics, 383: 33–78. (Scholar)
- Tacchino, F., Chiesa, A., Carretta, S., and Gerace, D., 2020,
“Quantum Computers as Universal Quantum Simulators: State-of-Art
and Perspectives,” Advanced Quantum Technologies, 3:
1900052. (Scholar)
- Timpson, C. G., 2013, Quantum Information Theory & the
Foundations of Quantum Mechanics, Oxford: Oxford University
Press. (Scholar)
- Turing, A. M., 1936, “On Computable Numbers, with an Application to the Entscheidungsproblem,” Proceedings of the London Mathematical Society. Second Series, s2–42: 230–265. (Scholar)
- Unruh, W. G., 1995, “Maintaining Coherence in Quantum
Computers,” Phys. Rev. A, 51: 992–997. (Scholar)
- Van Meter, R., and Horsman, C., 2013, “A Blueprint for
Building a Quantum Computer,” Communications of the
ACM, 56: 16–25. (Scholar)
- Vergis, A., Steiglitz, K., and Dickinson, B., 1986, “The
Complexity of Analog Computation,” Mathematics and Computers
in Simulation, 28: 91–113. (Scholar)
- Vidal, G., 2003, “Efficient Classical Simulation of Slightly
Entangled Quantum Computations,” Phys. Rev. Lett., 91:
147902. (Scholar)
- Wallace, D., 2012, The Emergent Multiverse, Oxford: Oxford University Press. (Scholar)
- –––, 2014, “Thermodynamics as Control Theory,” Entropy, 16: 699–725. (Scholar)
- Wiesner, S., 1983, “Conjugate Coding,” Sigact
News, 18: 78–88. (Scholar)
- Witten, E., 1989, “Quantum Field Theory and the Jones
Polynomial,” Comm. Math. Phys., 121: 351–399.
(Scholar)
- Wolfram, S., 1985, “Undecidability and Intractability in
Theoretical Physics,” Phys. Rev. Lett., 54: 735. (Scholar)
- Woodward, J., 2007, “Causation with a Human Face,” in H. Price & R. Corry (eds.), Causation, Physics, and the Constitution of Reality: Russell’s Republic Revisited, Oxford: Oxford University Press. (Scholar)