A group of scientists in the EME laboratory at the United
States Ministry of Energy has developed computational quantum algorithms that
are capable of effectively and highly precise modeling of static and dynamic
properties of quantum systems. Algorithms are valuable tools to obtain a
greater vision of physics and chemistry of complex materials and are
specifically designed to work on existing and closed quantum computers.
Scientist Yun-Xin Yao and his research partners in AMES
laboratories use the power of advanced computers to accelerate the discovery in
the physics of a condensed substance, simulating an incredibly complex quantum
mechanics and how they change over ultra fast temporary scales.
High-performance current computers can simulate the properties of small and
very simple quantum systems, but larger or more complex systems will quickly
expand the number of calculations that the computer must be performed to
achieve an accurate model that slows down the rhythm not only the calculation,
but also the opening.
"This is a real task, given the current early stage of
existing quantum computing," Yao said, "but it is also a very
promising possibility, since these calculations suppress classic computer
systems or too much time to ensure timely answers."
New algorithms use the possibilities of existing quantum
features of computers, creating an adaptive computer, and then adapting the
number and variety of "educated categories", the computer should do
to describe with the lowest state and the evolution of the quantum mechanics of
the system failure algorithms, which makes them capable of modeling An even
large systems with accuracy with current quantum "noisy" (fragile and
inclined to errors), as well as its iterations close to the future.
"Excellent modeling, rotation and molecular systems is
only the first part of the target," said Yao, "We see in the appendix
that it is used to solve problems of complex material sciences. With the
capabilities of these two procedures, we can direct experimenters in their
efforts to control the properties of materials, such as magnetism,
superconductivity, chemical reactions, and photography conversion.
"Our long-term goal is to achieve a" quantum
advantage "for materials: use quantum calculations to achieve
opportunities that cannot be achieved on any supercomputer today," said
the laboratory of AMES Peter Orth laboratory
This topic is discussed even more in two documents: (1)
"Adaptive variate quantum modeling dynamics", authorized Y.-X. Yao,
N. Gomez, F. Zhang, C.-Z. Van, K.-M. Ho, T. Idekola and P. P. ort; and
published in PRX Quantum; (2) "The non-profit evolution of the primary
evolution of the current adaptive variation for the preparation of the MERRO
state" authorized by N. Gomes, A. Mukherjee, F. Zhang, T. Idekol, C.-Z.
Van, K.-M. Ho, P. P. Orth, A.-X. Yao; Adopted in advanced quantum technologies.
The AMES laboratory is the energy department of the National
Scientific Laboratory Energy Guided by State University of Iowa. The AMES
laboratory creates innovative materials, technologies and energy solutions. We
use our experience, unique opportunities and interdisciplinary joint
cooperation to solve global problems.
The AMES laboratory is supported by the scientific
activities of the United States Ministry of Energy. The scientific office is
the largest supporter of basic research in the field of physical sciences of
the United States and is working to solve some of the most pressing tasks of
our time.
