Each point on the sphere of this visual representation of arbitrary frequency-bin qubit states corresponds to a unique quantum state, and the gray sections represent the measurement results. The zoomed-in view illustrates examples
A quantum internet is closer to reality, thanks to this switch When quantum computers become more powerful and widespread, they will need a robust quantum
Indiana 5G Zone Opens 5G Research and Commercialization Lab AT&T 5G and multi-access edge technologies used for new innovations in manufacturing, agriculture, and public safety.
Quantum model unlocks new approach to single-photon detection Engineering a qubit system close to the point of a quantum phase transition could make single photons
Purdue University Takes Great Stride in Quantum Science and Research. Research in quantum information science at Purdue University is taking great strides with the school’s new
A Purdue University’s research team has embarked on a task to combine quantum computing and analysis of big data sets. How big? 3 petabytes of data is collected every two seconds. The data is coming from the U.S. electrical grid. Monitoring the data – currents and voltages – enables the grid operators to make decisions which keep the grid stable. To analyze such a tremendous amount of data requires unique systems invoking unique algorithms.
Quantum material called samarium nickelate, suggestsa new avenue for research and potential applications in batteries, ‘smart windows’ and brain-inspired computers containing artificial synapses.
Australia, in collaboration with U.S.A.’s Purdue University, surged forward with controlling qubits individually on silicon chips. The ability to control qubits singly is seen paramount to moving ahead in making quantum computing a reality. Additional positive findings were error-reductions in the system due to the ability to control qubits individually when in proximity to each other. This brings quantum computing one step closer to complex computations involving entangled states.
Silicon-based qubits have spin-orbits which are manipulated with magnetic fields more readily than other means available. Designers from the University of Wisconsin-Madison created the experimental device, based on silicon. Research scientists from Purdue University and the Technological University of Delft conducted the experimentation. The spin-orbit strength was found to be dependent on magnetic fields from external sources coupled with the silicon surface material; where qubits reside as quantum dots.
