Quantum computer: revolutionary insights into the secrets of nature!
Quantum computer: revolutionary insights into the secrets of nature!
Technische Universität München, Deutschland - On June 4, 2025, scientists from the Technical University of Munich (TUM) took an important step in the field of quantum informatics in cooperation with Princeton University and Google Quantum Ai. Their research shows how quantum computers can be used to simulate basic physical processes. Ordinary supercomputers are often overwhelmed when it comes to calculating and checking the fundamental powers of nature. The use of quantum computers opens up new possibilities here.
These quantum computers are able to simulate processes directly, which makes it an important tool in quantum informatics. The results of the study published in the journal Nature show the behavior of so -called strings and thus create the basis for deeper insights into particle physics, quantum materials and the nature of space and time.
quantum algorithms and their applications
In parallel to these developments, a team under the direction of Jeanette Lorenz works on adapting algorithms for quantum computers. Your project Quast examines how to deal with the hardware errors of qubits. A software stack is developed that structures and optimizes all components for the development and operation of quantum computers. Particular attention is paid to industrial optimization problems for which there are no perfect solutions.It shows that different hardware, such as super-conducting qubits or ion traps, each offer specific advantages and disadvantages for certain applications. These technologies can be used, for example, to optimize electricity networks or to solve complex combination problems. Companies, such as in the automotive industry, now have the option of developing quantum -based solutions themselves without having to deal with their own quantum experts.
machine learning and quantum computing
Another promising area are quantum algorithms for machine learning that are researched by an interdisciplinary team. These algorithms offer the possibility of classifying data more efficiently, generate new data and operating insurmountable learning. However, many error -corrected quBITs are required for the desired quantum advantage, which is only possible to a limited extent due to the current noisy quantum processors.
The AI4QT project pursues the goal of developing algorithms for machine learning based on the special requirements of quantum sensors. A symbiosis of quantum mechanical conditions and machine learning is sought. In addition, protocols and libraries are developed to optimize the skills of the quantum hardware and to further promote the practical applications of machine learning.
The developments in quantum computing show great potential, both in fundamental research and in practical industrial applications. Both working on quantum mechanical models as well as the adaptation and optimization of algorithms are crucial to reconcile the technology with the needs of industry and thus further promote science.
For more detailed information on the basis of research, the reporting of tum , while the developments in the field of quante software and industrial applications at Fraunhofer . Additional insights into the connection of quantum computing and mechanical learning can be found on quantentechnologien.de
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