Наукова робота

Наукова діяльність кафедри охоплює широкий спектр тем: від теоретичних досліджень в галузі квантової фізики до прикладних розробок в електроніці та енергетиці. Наші студенти активно беруть участь у наукових проєктах, презентують свої результати на конференціях і публікуються у міжнародних журналах.

Напрями наукової діяльності

  • Розробка високошвидкісного синтезатора для цифрових систем радіозв’язку
  • Застосування псевдовипадкових послідовностей для модуляції сигналів з метою покращення їх кореляційних властивостей
  • Статична і динамічна міцність машин, приладів та апаратури
  • Когерентна динаміка контактного тертя
  • Динамічна саморегуляція контактних трибосистем
  • Дослідження явищ переносу випромінювання в волокнистих теплоізоляціях із органічних і неорганічних волокон
  • Розвиток і застосування у релятивістській квантовій фізиці теоретико-групових методів
  • Дослідження та розробка електромеханічних перетворювачів електроенергії
  • Методи та засоби підвищення ефективності оброблення сигналів

Наукова робота студентів

Наші студенти беруть участь у науковій роботі кафедри і виступають з доповідями на щорічних студентських наукових конференціях ХНУ.

  • Святушенко Михайло. ЕТ-21-1.
    Вплив вищих гармонік на роботу асинхронних двигунів
  • Лучко Сергій. ЕМ-20-1.
    Вплив несинусоїдального режиму мережі на роботу силових трансформаторів.

Новини фізики з усього світу

  • Magnetized plasmas offer a new handle on nanomaterial design
    Imagine a cloud that shines like a neon sign, but instead of raindrops, it contains countless microscopic dust grains floating in midair. This is a dusty plasma, a bizarre state of matter found both in deep space and in the laboratory.
  • Mathematical model reveals why cracks sharpen during rapid rubber fracture
    A research group from the University of Osaka, Zen University, and the University of Tokyo has mathematically uncovered the mechanism that causes crack tips to sharpen during the rapid fracture of rubber.
  • Nonlocality-enabled photonic analogies unlock wormholes and multiple realities in optical systems
    Researchers have harnessed nonlocal artificial materials to create optical systems that emulate parallel spaces, wormholes, and multiple realities. A single material acts as two distinct optical media or devices simultaneously, allowing light to experience different properties based on entry boundaries. Demonstrations include invisible optical tunnels and coexisting optical devices, opening new avenues for compact, multifunctional […]
  • Exotic roto-crystals can break into individual fragments then reassemble themselves
    It sounds bizarre, but they exist: crystals made of rotating objects. Physicists from Aachen, Düsseldorf, Mainz and Wayne State (Detroit, U.S.) have jointly studied these exotic objects and their properties. They easily break into individual fragments, have odd grain boundaries and evidence defects that can be controlled in a targeted fashion.
  • This tiny laser could transform how we see and sense the world
    Researchers from NTNU and EPFL have unveiled a compact, low-cost laser that outperforms current models in speed, control, and precision. Built using microchip technology, it can be mass-produced for use in everything from Lidar navigation to gas detection. The design’s stability and easy frequency tuning could transform communication and sensing technologies.
  • Einstein’s overlooked idea could explain how the Universe really began
    Researchers have unveiled a new model for the universe’s birth that replaces cosmic inflation with gravitational waves as the driving force behind creation. Their simulations show that gravity and quantum mechanics may alone explain the structure of the cosmos. This elegant approach challenges traditional Big Bang interpretations and revives a century-old idea rooted in Einstein’s […]
  • Quantum crystals could spark the next tech revolution
    Auburn scientists have designed new materials that manipulate free electrons to unlock groundbreaking applications. These “Surface Immobilized Electrides” could power future quantum computers or transform chemical manufacturing. Stable, tunable, and scalable, they represent a leap beyond traditional electrides. The work bridges theory and potential real-world use.
  • Astronomers detect a cosmic “heartbeat” in pulsar signals
    Researchers analyzing pulsar data have found tantalizing hints of ultra-slow gravitational waves. A team from Hirosaki University suggests these signals might carry “beats” — patterns formed by overlapping waves from supermassive black holes. This subtle modulation could help scientists tell whether the waves stem from ancient cosmic inflation or nearby black hole binaries, potentially identifying […]
  • Physicists discover strange spinning crystals that behave like living matter
    Physicists have uncovered the fascinating world of “rotating crystals” — solids made of spinning particles that behave in strange, almost living ways. These odd materials can twist instead of stretch, shatter into fragments, and even reassemble themselves.
  • Physicists discover mysterious new type of time crystal
    Scientists at TU Wien have uncovered that quantum correlations can stabilize time crystals—structures that oscillate in time without an external driver. Contrary to previous assumptions, quantum fluctuations enhance rather than hinder their formation. Using a laser-trapped lattice, the team demonstrated self-organizing rhythmic behavior arising purely from particle interactions. The finding could revolutionize quantum technology design.
  • New simulation reveals how Earth’s magnetic field first sparked to life
    Geophysicists have modeled how Earth’s magnetic field could form even when its core was fully liquid. By removing the effects of viscosity in their simulation, they revealed a self-sustaining dynamo that mirrors today’s mechanism. The results illuminate Earth’s early history, life’s origins, and the magnetism of other planets. Plus, it could help forecast future changes […]
  • Black holes might hold the key to a 60-year cosmic mystery
    Scientists may have finally uncovered the mystery behind ultra-high-energy cosmic rays — the most powerful particles known in the universe. A team from NTNU suggests that colossal winds from supermassive black holes could be accelerating these particles to unimaginable speeds. These winds, moving at half the speed of light, might not only shape entire galaxies […]