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32 labs · 1 student voices
Other departments in School of Science ›Faculties at Nagoya University ›
Hiroshi Kontani, Professor
0 student voices
The Condensed Matter Theory Lab studies phenomena exhibited by electrons in metals, such as superconductivity, using theory based on quantum mechanics and statistical mechanics. Matter is made of countless electrons and atoms, and their quantum mechanical properties and infinite degrees of freedom give rise to unexpected physical phenomena (emergent phenomena). The lab focuses on topics such as superconductivity, quantum liquid crystals, kagome-lattice metals, Dirac electrons, field theory, and transport phenomena. Lab visits are welcome at any time.
Hiroshi Kohno, Professor
0 student voices
The Quantum Transport Theory Group (St Lab) theoretically studies the phenomena in which electricity flows through materials (transport phenomena). The lab works on spintronics, which aims to create new electronics by using both the spin and the charge of electrons. The lab also studies topological quantum phenomena, in which materials are classified by the topology of quantum states in solids. Using methods from quantum statistical mechanics and quantum field theory, the lab investigates these phenomena with microscopic theory.
TAMA Florence, Professor
0 student voices
The Computational Biophysics Lab (B Lab) studies how biomolecules such as proteins function, using computational methods together with physics and chemistry. Its goal is to reveal the structures and motions of biomolecular complexes, in which proteins and nucleic acids assemble together, and to understand how they work. The lab combines experimental data from methods such as X-ray crystallography and cryo-electron microscopy with computer simulations. The lab also studies how thermal energy flows through proteins and how energy is transferred in photosynthesis.
Toshiyuki Nakano, Associate Professor
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The Fundamental Particle Physics Lab (F Lab) studies elementary particles and the universe using nuclear emulsion, a photographic film on which elementary particles can be observed. The lab works on neutrino research, searches for unknown particles that are candidates for dark matter, and observations of cosmic gamma rays with a balloon-borne telescope. The lab independently develops both the photographic emulsion that serves as the material for nuclear emulsion and the microscopes that automatically read the recorded tracks. It is also advancing research that applies this technology to other fields, such as neutron measurement.
Toru Iijima, Professor
0 student voices
The High Energy Particle Physics Lab (N Lab) explores the ultimate nature of matter and the laws of nature through experiments using state-of-the-art particle accelerators. The lab works on the B-factory experiment at KEK, the LHC ATLAS experiment at CERN, and the muon g-2/EDM precision measurement experiment at J-PARC. Aiming to open up a new physics world beyond the Standard Model, the lab states that discovering new phenomena would let it approach open questions such as the identity of dark matter and the origin of the masses and generation structure of elementary particles. The detectors for the Belle and ATLAS experiments were also designed and built by the researchers themselves.
Hirohiko Shimizu, Professor
0 student voices
The Elementary Particle Properties Lab (Φ Lab) conducts experimental research in particle physics through precision measurement. Particle physics often deals with laws at spatial scales smaller than atoms, and the phenomena involved are high-energy phenomena far beyond the energies we experience in daily life. The lab therefore uses precision measurement to capture the tiny effects that high-energy phenomena produce in low-energy processes. The lab currently works mainly on research using low-energy neutrons, which have no electric charge.
Kunihiro Morishima, Associate Professor
0 student voices
The Cosmic Ray Imaging Lab researches and develops "cosmic ray imaging," which uses muons, elementary particles contained in cosmic rays, to see inside huge structures without destroying them. Muons decrease in number as they pass through an object, so by measuring the arrival directions of the muons that make it through, the lab can visualize differences in internal density, much like X-ray imaging. For detectors, the lab uses nuclear emulsion unique to Nagoya University, and develops technologies ranging from detector hardware development to analysis. Regardless of target or field, the lab takes on new research using cosmic ray imaging, including archaeological sites such as pyramids, nuclear reactors and blast furnaces, volcanoes, and social infrastructure.
Yoichi Tamura, Professor
0 student voices
The Astrophysics Lab centers on the interstellar medium, the origin of all celestial objects, and works to understand the formation and evolution of stars, galaxies, and other objects. Using millimeter and submillimeter radio observations, the lab aims to understand how stars and galaxies have formed and evolved over the 13.8-billion-year history of the universe. The lab has two research groups, one on galaxy formation in the early universe and one on star formation and molecular clouds in the Milky Way, and it approaches the physics of celestial object formation in diverse ways. The lab carries out a full chain of experimental and observational research that begins with technology development, and its website describes it as a distinctive lab that is unusual even by national standards.
Hidehiro Kaneda, Professor
0 student voices
The Infrared Group (Uir) of the Space Physics Lab develops instruments for infrared observation on satellites, balloons, and ground-based telescopes, and carries out astronomical observations. The universe contains countless solid particles called dust, which play an important role in the formation of organic matter, the formation of solid planets, and the evolution of galaxies. Through observation, the lab seeks to clarify how dust is produced and how it evolves, and to understand how today's rich universe was created. Graduate students are trained to gain experience in both analyzing data from currently active satellites and developing instruments for the next satellite.
Kazuhiro Nakazawa, Associate Professor
0 student voices
The Uxg Lab observes high-energy phenomena in the universe with X-rays and MeV gamma rays, and also works on detecting gravitational waves. Using satellites and rockets, the lab studies galaxy clusters, black holes, stellar flares, and more. The lab takes part in developing the XRISM satellite, which has the world's best X-ray spectroscopy capability, and the FOXSI rocket, and is also developing instruments for future observations. In its gravitational wave research, the lab aims to detect gravitational waves produced in the era of inflation, immediately after the birth of the universe.
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