A) David Meyer B) John Watrous C) Reinhard Werner D) Craig Lent
A) They fail to simulate classical gas dispersion B) They are only compatible with CMOS technology C) They cannot simulate quantum circuits D) They allow superluminal signalling
A) As a large quantum circuit repeating across time and space B) As a purely classical simulation on quantum dots C) As an infinite series of independent classical bits D) As a single static quantum gate
A) Developing CMOS technology B) Replacing classical computation with quantum dots C) Standardizing superluminal signalling D) Simulating quantum lattice gases
A) John Watrous and Wim van Dam B) Asif Shakeel and Peter Love C) Doug Tougaw and Craig Lent D) Pablo Arrighi and Vincent Nesme
A) Fermionic cellular automata B) Quantum lattice gas automata C) CMOS technology D) Vacuum electromagnetic fields
A) Tougaw and Lent perform classical cellular automata B) Tougaw and Lent use only fermionic cells C) Tougaw and Lent are superluminal D) Tougaw and Lent do not use quantum dots
A) Weyl QCA B) CMOS-based QCA C) Lattice gas QCA D) Dirac QCA
A) The dynamics and statistics of the electromagnetic field in vacuum B) The behavior of CMOS circuits C) The stability of the free Dirac vacuum D) The dispersion of classical gases
A) Defining a stable free Dirac vacuum B) Integrating with CMOS technology C) Calculating low-momentum regimes D) Defining superluminal signalling
A) Asif Shakeel and Peter Love B) Susanne Richter and Reinhard Werner C) Doug Tougaw and Craig Lent D) John Watrous and Huong LêThanh
A) Higher thermal output B) Simplified programming languages C) Ultra-low power consumption D) Increased CMOS voltage
A) Locality B) Universality C) Homogeneity D) Reversibility
A) David Deutsch B) Richard Feynman C) Gerhard Grössing D) John von Neumann
A) David Deutsch B) Gerhard Grössing C) John von Neumann D) Richard Feynman
A) Molecular or atomic scale B) Millimeter scale C) Centimeter scale D) Microscopic scale
A) Cells B) Bits C) Nodes D) Units |