Quantum Information Processing Via Hamiltonian Inverse Quantum Engineering

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Alan C. Santos
Alan C. Santos
α Universidade Federal Fluminense Universidade Federal Fluminense

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Quantum Information Processing Via Hamiltonian  Inverse Quantum Engineering

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Abstract

In this paper we discuss how we can design Hamiltonians to implement quantum algorithms, in particular we focus in Deutsch and Grover algorithms. As main result of this paper, we show how Hamiltonian inverse quantum engineering method allow us to obtain feasible and time-independent Hamiltonians for implementing such algorithms. From our approach for the Deutsch algorithm, different from others techniques, we can provide an alternative approach for implementing such algorithm where no auxiliary qubit and additional resources are required. In addition, by using a single quantum evolution, the Grover algorithm can be achieved with high probability 1 -𝜖𝜖 2 , where 𝜖𝜖 is a very small arbitrary parameter.

References

41 Cites in Article
  1. M Demirplak,S Rice (2003). Unknown Title.
  2. M Demirplak,S Rice (2005). Unknown Title.
  3. M Berry (2009). Transitionless quantum driving.
  4. Lian-Ao Wu,Jing Sun,Ji-Yu Zhong (1993). A new approach to calculating the Berry phase.
  5. Alan Santos (2018). Quantum gates by inverse engineering of a Hamiltonian.
  6. Z.-T Liang (2016). Unknown Title.
  7. Y.-H Kang (2016). Unknown Title.
  8. Shuoming An,Dingshun Lv,Adolfo Del Campo,Kihwan Kim (2016). Shortcuts to adiabaticity by counterdiabatic driving for trapped-ion displacement in phase space.
  9. Yu-Shan Lu,Jian-Lin Li,Chien-Te Wu (2013). Lu <i>et al.</i> Reply:.
  10. Jun Jing,Lian-Ao Wu,Marcelo Sarandy,J Muga (2013). Inverse engineering control in open quantum systems.
  11. A Ruschhaupt,Xi Chen,D Alonso,J Muga (2012). Optimally robust shortcuts to population inversion in two-level quantum systems.
  12. S Wu,X Huang,H Li,X Yi (2017). Adiabatic evolution of decoherence-free subspaces and its shortcuts.
  13. Alan Santos,Marcelo Sarandy (2015). Superadiabatic Controlled Evolutions and Universal Quantum Computation.
  14. Ivan Coulamy,Alan Santos,Itay Hen,Marcelo Sarandy (2016). Energetic Cost of Superadiabatic Quantum Computation.
  15. Alan Santos,Raphael Silva,Marcelo Sarandy (2016). Shortcut to adiabatic gate teleportation.
  16. Alan Santos,Marcelo Sarandy (2018). Generalized shortcuts to adiabaticity and enhanced robustness against decoherence.
  17. Ken Funo,Jing-Ning Zhang,Cyril Chatou,Kihwan Kim,Masahito Ueda,Adolfo Del Campo (2017). Universal Work Fluctuations During Shortcuts to Adiabaticity by Counterdiabatic Driving.
  18. A Del Campo,J Goold,M Paternostro (2014). Unknown Title.
  19. Yuanjian Zheng,Steve Campbell,Gabriele De Chiara,Dario Poletti (2016). Cost of counterdiabatic driving and work output.
  20. Obinna Abah,Eric Lutz (2017). Energy efficient quantum machines.
  21. E Torrontegui,A Ruschhaupt,D Guéry-Odelin,J Muga (2013). Simulation of quantum collinear chemical reactions with ultracold atoms.
  22. Ye-Hong Chen,Zhi-Cheng Shi,Jie Song,Yan Xia,Shi-Biao Zheng (2018). Unknown Title.
  23. Ye-Hong Chen,Zhi-Cheng Shi,Jie Song,Yan Xia (2018). Unknown Title.
  24. Bi-Hua Huang,Yi-Hao Kang,Ye-Hong Chen,Qi-Cheng Wu,Jie Song,Yan Xia (2017). Fast quantum state engineering via universal SU(2) transformation.
  25. Ye-Hong Chen,Bi-Hua Huang,Jie Song,Yan Xia (2016). Unknown Title.
  26. J Sakurai (1993). Modern Quantum Mechanics.
  27. N Zettili (2009). Quantum Mechanics: Concepts and Applications.
  28. Mark Bason,Matthieu Viteau,Nicola Malossi,Paul Huillery,Ennio Arimondo,Donatella Ciampini,Rosario Fazio,Vittorio Giovannetti,Riccardo Mannella,Oliver Morsch (2012). High-fidelity quantum driving.
  29. M Johnson (2011). Unknown Title.
  30. R Harris (2010). Unknown Title.
  31. T Orlando,J Mooij,Lin Tian,Caspar Van Der Wal,L Levitov,Seth Lloyd,J Mazo (1999). Superconducting persistent-current qubit.
  32. J.-M Cui (2016). Unknown Title.
  33. Michael Nielsen,Isaac Chuang (2011). Quantum Computation and Quantum Information.
  34. David Collins,K Kim,W Holton (1998). Deutsch-Jozsa algorithm as a test of quantum computation.
  35. L Grover (1996). A fast quantum mechanical algorithm for database search.
  36. Lov Grover (1997). Quantum Mechanics Helps in Searching for a Needle in a Haystack.
  37. S Oh,S Kais (2014). Unknown Title.
  38. F.-G Li (2018). Unknown Title.
  39. J You,F Nori (2005). Unknown Title.
  40. D Deutsch (1985). Anniversary: Tuesday, April 30, 1889.
  41. M Sarandy,D Lidar (2005). Adiabatic Quantum Computation in Open Systems.

Funding

No external funding was declared for this work.

Conflict of Interest

The authors declare no conflict of interest.

Ethical Approval

No ethics committee approval was required for this article type.

Data Availability

Not applicable for this article.

How to Cite This Article

Alan C. Santos. 2018. \u201cQuantum Information Processing Via Hamiltonian Inverse Quantum Engineering\u201d. Global Journal of Science Frontier Research - F: Mathematics & Decision GJSFR-F Volume 18 (GJSFR Volume 18 Issue F3): .

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Journal Specifications

Crossref Journal DOI 10.17406/GJSFR

Print ISSN 0975-5896

e-ISSN 2249-4626

Keywords
Classification
GJSFR-F Classification: MSC 2010: 03G12
Version of record

v1.2

Issue date

April 23, 2018

Language
en
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Published Article

In this paper we discuss how we can design Hamiltonians to implement quantum algorithms, in particular we focus in Deutsch and Grover algorithms. As main result of this paper, we show how Hamiltonian inverse quantum engineering method allow us to obtain feasible and time-independent Hamiltonians for implementing such algorithms. From our approach for the Deutsch algorithm, different from others techniques, we can provide an alternative approach for implementing such algorithm where no auxiliary qubit and additional resources are required. In addition, by using a single quantum evolution, the Grover algorithm can be achieved with high probability 1 -𝜖𝜖 2 , where 𝜖𝜖 is a very small arbitrary parameter.

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Quantum Information Processing Via Hamiltonian Inverse Quantum Engineering

Alan C. Santos
Alan C. Santos Universidade Federal Fluminense

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