Applied Physics (APY)

Section Information

Applied Physics focuses on the practical application of physical principles to develop technologies, solve engineering problems, and advance scientific innovation. It bridges fundamental physics with real-world systems in areas such as materials, electronics, photonics, energy, medicine, and environmental technologies.

Modern applied physics research includes condensed matter physics, optics and photonics, nanotechnology, semiconductor devices, quantum technologies, instrumentation, electromechanical systems, and computational modeling. Advances in fabrication, measurement, simulation, and device engineering continue to expand practical uses of physical science.

This section publishes research articles, experimental studies, simulations, reviews, and case reports addressing applied physical principles, device development, measurement methods, material–property relationships, and emerging applications across scientific and industrial fields.

Scope

Condensed Matter and Materials Physics
- Electronic, magnetic, thermal, and mechanical properties of materials
- Nanostructures, thin films, and low-dimensional systems
- Phase transitions, defects, and material behavior
- Applications in electronics, sensing, and advanced materials
Optics, Photonics, and Laser Physics
- Optical materials, waveguides, and photonic devices
- Laser systems, nonlinear optics, and spectroscopy
- Imaging technologies, optical sensors, and communication systems
- Integrated photonics and light–matter interactions
Semiconductors and Electronic Devices
- Device physics of transistors, diodes, and integrated circuits
- Material growth, doping, and nanofabrication techniques
- Power electronics, microelectronics, and optoelectronics
- Modeling and characterization of semiconductor behavior
Nanotechnology and Nanoscale Physics
- Nanoscale materials, quantum dots, and nanostructures
- Nanoelectronics, nanophotonics, and nanosensors
- Quantum confinement, surface effects, and emerging technologies
- Fabrication, patterning, and advanced characterization
Applied Quantum Physics
- Quantum information, communication, and computing
- Quantum materials, superconductivity, and photonic quantum systems
- Qubits, coherence control, and cryogenic instrumentation
- Applications in sensing, security, and computation
Plasma Physics and Energy Applications
- Low- and high-temperature plasmas and plasma–surface interactions
- Fusion science, plasma diagnostics, and confinement methods
- Industrial plasma processes such as coating and etching
- Plasma applications in energy, environment, and medicine
Applied Mechanics and Acoustics
- Wave propagation, vibration, and acoustic materials
- Mechanical systems, stress analysis, and fluid interactions
- Ultrasound technologies, noise control, and sensing
- Modeling and simulation of dynamic physical systems
Instrumentation, Measurement, and Computational Physics
- Precision measurement tools and experimental techniques
- Sensor development, automation, and data acquisition
- Numerical modeling, simulation, and high-performance computing
- In situ, operando, and advanced diagnostic methods