Since its establishment at the beginning of the 20th century, quantum mechanics has rapidly become one of the fundamental pillars of modern physics and has driven the First Quantum Revolution, giving rise to transformative technologies such as nuclear energy, semiconductors, lasers, nuclear magnetic resonance, superconductivity, and the Global Positioning System (GPS). These technologies have fundamentally changed the way people live and have profoundly reshaped modern society.
Since the 1990s, significant advances in quantum control technologies have enabled scientists to actively and precisely manipulate the quantum behavior of microscopic particles such as photons and atoms. This has made it possible to encode, transmit, and process information using quantum states, giving rise to the emerging field of Quantum Information Science. The rapid development of quantum technologies represented by quantum information science marks the emergence of the Second Quantum Revolution.
Quantum Information Science is an interdisciplinary field at the intersection of physical sciences, information science, and related disciplines. It encompasses areas such as quantum communication, quantum computing, and quantum precision measurement, with tremendous potential to enhance the security of information transmission, accelerate computation, and improve measurement precision. The development of quantum technologies therefore carries not only profound scientific significance but also far-reaching strategic importance. As a potentially disruptive technological innovation capable of transforming and reshaping traditional technological systems, quantum technology is expected to play a leading role in the next wave of scientific and technological revolution and industrial transformation. Accelerating the development of quantum technologies is of great importance for promoting high-quality economic and social development, securing a leading position in international competition in quantum technology, safeguarding national security, and strengthening a country's overall scientific and technological capabilities and international competitiveness.
The Quantum Information Science major is an interdisciplinary undergraduate program established in response to the development of emerging strategic industries and belongs to the discipline category of Physics. Building on the Physics program's long-standing academic tradition, strong track record in talent development, and significant research achievements in quantum technologies, the School of Physics at Hubei University was among the early institutions in China approved to establish an undergraduate program in Quantum Information Science.
The program is committed to cultivating high-caliber, innovative and outstanding talents with firm political convictions, a strong humanistic background, and sound scientific literacy. Students are expected to acquire a solid foundation in the fundamental theories, methods, and experimental techniques of quantum communication, quantum computing, and quantum precision measurement, while developing scientific thinking and research capabilities. The program also emphasizes well-rounded personal development, physical well-being, teamwork, innovation, social responsibility, and a broad international perspective. Graduates are well prepared to pursue careers in teaching, scientific research, technology development, and management in quantum information science and related fields.
Major Courses
Core and specialized courses include General Physics, Atomic Physics, Theoretical Mechanics, Thermodynamics and Statistical Physics, Electrodynamics, Quantum Mechanics, Solid-State Physics, Quantum Computing and Quantum Information, Quantum Communication and Cryptography, Quantum Precision Measurement, and other related courses.
