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John H. Selby1, Carlo Maria Scandolo2,3, and Bob Coecke4

1ICTQT, Đại học Gdańsk, Wita Stwosza 63, 80-308 Gdańsk, Ba Lan
2Department of Mathematics & Statistics, University of Calgary, Canada
3Institute for Quantum Science and Technology, University of Calgary, Canada
4Công ty TNHH điện toán lượng tử Cambridge

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Tóm tắt

A reconstruction of quantum theory refers to both a mathematical and a conceptual paradigm that allows one to derive the usual formulation of quantum theory from a set of primitive assumptions. The motivation for doing so is a discomfort with the usual formulation of quantum theory, a discomfort that started with its originator John von Neumann.

We present a reconstruction of finite-dimensional quantum theory where all of the postulates are stated in diagrammatic terms, making them intuitive. Equivalently, they are stated in category-theoretic terms, making them mathematically appealing. Again equivalently, they are stated in process-theoretic terms, establishing that the conceptual backbone of quantum theory concerns the manner in which systems and processes compose.

Aside from the diagrammatic form, the key novel aspect of this reconstruction is the introduction of a new postulate, symmetric purification. Unlike the ordinary purification postulate, symmetric purification applies equally well to classical theory as well as quantum theory. Therefore we first reconstruct the full process theoretic description of quantum theory, consisting of composite classical-quantum systems and their interactions, before restricting ourselves to just the ‘fully quantum’ systems as the final step.

We propose two novel alternative manners of doing so, ‘no-leaking’ (roughly that information gain causes disturbance) and ‘purity of cups’ (roughly the existence of entangled states). Interestingly, these turn out to be equivalent in any process theory with cups & caps. Additionally, we show how the standard purification postulate can be seen as an immediate consequence of the symmetric purification postulate and purity of cups.

Other tangential results concern the specific frameworks of generalised probabilistic theories (GPTs) and process theories (a.k.a. CQM). Firstly, we provide a diagrammatic presentation of GPTs, which, henceforth, can be subsumed under process theories. Secondly, we argue that the ‘sharp dagger’ is indeed the right choice of a dagger structure as this sharpness is vital to the reconstruction.

Since the early days of quantum theory there has been dissatisfaction with its mathematical foundations. The axioms with which it is expressed are purely abstract statements, and their bizarre implications for the physical world are only discovered by carefully analysing their consequences for particular physical scenarios. This is in stark contrast to the postulates of relativity, which are physically meaningful statements, therefore making their consequences much more readily understood. Over the years there have been many endeavours to find a more compelling axiomatisation of quantum theory. Our work follows in this tradition by proposing an alternative axiomatisation based on the structures of categorical quantum mechanics, using a diagrammatic language known as process theories. The key upshot to the diagrammatic nature of the work is that it makes its axioms intuitive and their physical meaning much more transparent.

► Dữ liệu BibTeX

► Tài liệu tham khảo

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Trích dẫn

[1] Jamie Sikora and John Selby, “Simple proof of the impossibility of bit commitment in generalized probabilistic theories using cone programming”, Đánh giá vật lý A 97 4, 042302 (2018).

[2] Ciarán M. Lee and John H. Selby, “A no-go theorem for theories that decohere to quantum mechanics”, Kỷ yếu của Hiệp hội Hoàng gia Luân Đôn Series A 474 2214, 20170732 (2018).

[3] Marius Krumm and Markus P. Müller, “Quantum computation is the unique reversible circuit model for which bits are balls”, npj Thông tin lượng tử 5, 7 (2019).

[4] Carlo Maria Scandolo, Roberto Salazar, Jarosław K. Korbicz, and Paweł Horodecki, “The origin of objectivity in all fundamental causal theories”, arXiv: 1805.12126.

[5] John van de Wetering, “An effect-theoretic reconstruction of quantum theory”, arXiv: 1801.05798.

[6] David Schmid, John H. Selby, Matthew F. Pusey và Robert W. Spekkens, “Một định lý cấu trúc cho các mô hình bản thể luận tổng quát-phi ngữ cảnh”, arXiv: 2005.07161.

[7] Alexandru Gheorghiu and Chris Heunen, “Ontological models for quantum theory as functors”, arXiv: 1905.09055.

[8] John van de Wetering, “Sequential product spaces are Jordan algebras”, Tạp chí Toán Lý 60 6, 062201 (2019).

[9] Sean Tull, “Categorical Operational Physics”, arXiv: 1902.00343.

[10] Alexander Wilce, “Conjugates, Filters and Quantum Mechanics”, arXiv: 1206.2897.

[11] John Burniston, Michael Grabowecky, Carlo Maria Scandolo, Giulio Chiribella và Gilad Gour, “Các điều kiện cần và đủ để đo các kênh lượng tử”, Kỷ yếu của Hiệp hội Hoàng gia Luân Đôn Series A 476 2236, 20190832 (2020).

[12] Carlo Maria Scandolo, “Information-theoretic foundations of thermodynamics in general probabilistic theories”, arXiv: 1901.08054.

[13] Sean Tull, “A Categorical Reconstruction of Quantum Theory”, arXiv: 1804.02265.

[14] Gerd Niestegge, “A simple and quantum-mechanically motivated characterization of the formally real Jordan algebras”, Kỷ yếu của Hiệp hội Hoàng gia Luân Đôn Series A 476 2233, 20190604 (2020).

[15] David Schmid, John H. Selby, and Robert W. Spekkens, “Unscrambling the omelette of causation and inference: The framework of causal-inferential theories”, arXiv: 2009.03297.

[16] Thomas D. Galley, Flaminia Giacomini, và John H. Selby, "Một định lý không đi đến bản chất của trường hấp dẫn ngoài lý thuyết lượng tử", arXiv: 2012.01441.

[17] Kerstin Beer, Dmytro Bondarenko, Alexander Hahn, Maria Kalabakov, Nicole Knust, Laura Niermann, Tobias J. Osborne, Christin Schridde, Stefan Seckmeyer, Deniz E. Stiegemann, and Ramona Wolf, “From categories to anyons: a travelogue”, arXiv: 1811.06670.

[18] Ana Belén Sainz, Matty J. Hoban, Paul Skrzypczyk, and Leandro Aolita, “Bipartite Postquantum Steering in Generalized Scenarios”, Thư đánh giá vật lý 125 5, 050404 (2020).

[19] Arthur J. Parzygnat, “Inverses, disintegrations, and Bayesian inversion in quantum Markov categories”, arXiv: 2001.08375.

[20] Agung Budiyono, “Quantum mechanics as a calculus for estimation under epistemic restriction”, Đánh giá vật lý A 100 6, 062102 (2019).

[21] Andrea Di Biagio, Pietro Donà, and Carlo Rovelli, “Quantum information and the arrow of time”, arXiv: 2010.05734.

[22] Markus P. Mueller, “Probabilistic Theories and Reconstructions of Quantum Theory (Les Houches 2019 lecture notes)”, arXiv: 2011.01286.

[23] Arthur J. Parzygnat, “Stinespring’s construction as an adjunction”, arXiv: 1807.02533.

[24] Ding Jia, “Quantum theories from principles without assuming a definite causal structure”, Đánh giá vật lý A 98 3, 032112 (2018).

[25] John H. Selby and Jamie Sikora, “How to make unforgeable money in generalised probabilistic theories”, arXiv: 1803.10279.

[26] Kenji Nakahira, “Derivation of quantum theory with superselection rules”, Đánh giá vật lý A 101 2, 022104 (2020).

[27] Arthur J. Parzygnat and Benjamin P. Russo, “A non-commutative Bayes’ theorem”, arXiv: 2005.03886.

[28] Łukasz Czekaj, Ana Belén Sainz, John Selby, and Michał Horodecki, “Correlations constrained by composite measurements”, arXiv: 2009.04994.

[29] Jacques Pienaar, “Quantum causal models via QBism: the short version”, arXiv: 1807.03843.

[30] John H. Selby và Ciarán M. Lee, "Các lý thuyết nguồn lực tổng hợp về sự gắn kết", arXiv: 1911.04513.

[31] Augustin Vanrietvelde, Hlér Kristjánsson, and Jonathan Barrett, “Routed quantum circuits”, arXiv: 2011.08120.

[32] Bob Coecke, Dominic Horsman, Aleks Kissinger và Quanlong Wang, “Sinh viên tốt nghiệp cơ học lượng tử Kindergarden (… hoặc cách tôi học cách ngừng dán LEGO lại với nhau và yêu thích phép tính ZX)”, arXiv: 2102.10984.

[33] Sean Tull, “Deriving Dagger Compactness”, arXiv: 1907.05172.

[34] Stefano Gogioso, Dan Marsden, and Bob Coecke, “Symmetric Monoidal Structure with Local Character is a Property”, arXiv: 1805.12088.

[35] Abraham Westerbaan, Bas Westerbaan, and John van de Wetering, “Pure Maps between Euclidean Jordan Algebras”, arXiv: 1805.11496.

[36] John van de Wetering, “Lý thuyết lượng tử từ các nguyên tắc, Phần mềm lượng tử từ các sơ đồ”, arXiv: 2101.03608.

[37] Paulo J. Cavalcanti, John H. Selby, Jamie Sikora, Thomas D. Galley, and Ana Belén Sainz, “Witworld: A generalised probabilistic theory featuring post-quantum steering”, arXiv: 2102.06581.

[38] Lucien Hardy, “Time Symmetry in Operational Theories”, arXiv: 2104.00071.

Các trích dẫn trên là từ SAO / NASA ADS (cập nhật lần cuối thành công 2021 / 04-28 10:57:15). Danh sách có thể không đầy đủ vì không phải tất cả các nhà xuất bản đều cung cấp dữ liệu trích dẫn phù hợp và đầy đủ.

Không thể tìm nạp Crossref trích dẫn bởi dữ liệu trong lần thử cuối cùng 2021 / 04-28 10:57:14: Không thể tìm nạp dữ liệu được trích dẫn cho 10.22331 / q-2021 / 04-28-445 từ Crossref. Điều này là bình thường nếu DOI đã được đăng ký gần đây.

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