Spațiul Hilbert sintetic al electronilor liberi conduși de laser

Spațiul Hilbert sintetic al electronilor liberi conduși de laser

Guy Braiman, Ori Reinhardt, Chen Mechel, Omer Levi, and Ido Kaminer

Department of Electrical and Computer Engineering and Solid State Institute, Technion – Israel Institute of Technology, 32000 Haifa, Israel

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Abstract

Recent advances in laser interactions with coherent free electrons have enabled to shape the electron’s quantum state. Each electron becomes a superposition of energy levels on an infinite quantized ladder, shown to contain up to thousands of energy levels. We propose to utilize the quantum nature of such laser-driven free electrons as a “synthetic Hilbert space” in which we construct and control qudits (quantum digits). The question that motivates our work is what qudit states can be accessed using electron-laser interactions, and whether it is possible to implement any arbitrary quantum gate. We find how to encode and manipulate free-electron qudit states, focusing on dimensions which are powers of 2, where the qudit represents multiple qubits implemented on the same single electron – algebraically separated, but physically joined. As an example, we prove the possibility to fully control a 4-dimenisonal qudit, and reveal the steps required for full control over any arbitrary dimension. Our work enriches the range of applications of free electrons in microscopy and spectroscopy, offering a new platform for continuous-variable quantum information.

Various platforms for quantum information processing are being studied nowadays. In this work we propose a new platform for continuous-variable quantum information – free electrons. We propose to utilize the energy levels on the quantized ladder of a single laser-driven free electron as a “synthetic Hilbert space” in which we can construct and control qudits (quantum digits).

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