Machine invention of quantum computing circuits by means
... here uses a simulator that runs on ordinary classical digital hardware. Such simulators are necessarily inefficient, in many cases they are exponentially costly in terms of time and space resources, but they allow us to determine how a quantum circuit would perform if it were implemented in real qua ...
... here uses a simulator that runs on ordinary classical digital hardware. Such simulators are necessarily inefficient, in many cases they are exponentially costly in terms of time and space resources, but they allow us to determine how a quantum circuit would perform if it were implemented in real qua ...
Quantum Phenomena in Condensed Phase
... the quantum system density matrix that incorporates ideas from both methods yet maintains the ease of implementation of linearized methods. The method is based on a time stepping procedure arising from a Trotter factorization, combining the forward and backward incremental propagators, and treating ...
... the quantum system density matrix that incorporates ideas from both methods yet maintains the ease of implementation of linearized methods. The method is based on a time stepping procedure arising from a Trotter factorization, combining the forward and backward incremental propagators, and treating ...
Geometry of entangled states, Bloch spheres and Hopf fibrations R´emy Mosseri
... x3 = sin 2 Vj (Q ) = 2 Re(αδ − βγ ) x4 = sin 2 Vk (Q ) = 2 Im(αδ − βγ ) with sin 2 = 2|q1 q2 |. Q is the normalized image of the h1 map (Q = Q/ |Q|), S(Q ) and Vi,j,k (Q ) are, respectively, the scalar and vectorial parts of Q (see appendix). We recalled above that the X, Y and Z Bloch sp ...
... x3 = sin 2 Vj (Q ) = 2 Re(αδ − βγ ) x4 = sin 2 Vk (Q ) = 2 Im(αδ − βγ ) with sin 2 = 2|q1 q2 |. Q is the normalized image of the h1 map (Q = Q/ |Q|), S(Q ) and Vi,j,k (Q ) are, respectively, the scalar and vectorial parts of Q (see appendix). We recalled above that the X, Y and Z Bloch sp ...
QUANTUM COMPUTING WITH SUPERCONDUCTORS I: ARCHITECTURES Michael R. Geller Andrew T. Sornborger
... The modern era of superconducting quantum computation began in 2002. That year, the group of Siyuan Han at the University of Kansas and the group of John Martinis, then at NIST Boulder and currently at UC Santa Barbara, independently showed that long-lived quantum states in a current-biassed JJ can ...
... The modern era of superconducting quantum computation began in 2002. That year, the group of Siyuan Han at the University of Kansas and the group of John Martinis, then at NIST Boulder and currently at UC Santa Barbara, independently showed that long-lived quantum states in a current-biassed JJ can ...
