Lectures related to Ultra high frequency

Explores transduction and downmixing in micro/nanomechanical devices, focusing on noise sources and signal processing.

Covers the basics of plasma physics, focusing on magnetic confinement and field effects on particles.

Explores the importance of space-based loT for businesses and the challenges and technologies involved.

Explores thin-film damping in microsystems and squeeze film damping simulations.

Explores the radiation impedance of a piston on a screen using COMSOL Multiphysics, focusing on resistance, mass, and impedance expressions.

Explores high-frequency RF device applications, soft magnets behavior, and spectral analysis.

Explores cellular networks modeling, including hexagonal cells, fading effects, frequency planning, and network capacity.

Explores frequency bands for IoT devices and the importance of energy consumption analysis in data transmission decisions.

Explores the properties of microwaves, their interaction with the atmosphere, and heating mechanisms.

Covers Proportional Derivative (PD) Control, feedback interpretation, and derivative action implementation in circuits.

Explores conductors at high frequencies, emphasizing skin effect and signal transmission.

Explores the theory of distributed circuits in electromagnetism and the importance of considering time delays in various engineering applications.

Explains the Zigbee standard for IoT, including network topologies and PHY parameters.

Delves into eddy currents, their origins, and practical applications in braking systems and energy losses in conductors.

Covers antennas, bandpass filters, and nonreciprocal devices in modern technologies.

Explores the universal feature of intraday price formation using deep learning techniques for forecasting price changes based on order flow history.

Explores Bluetooth technology, covering types, applications, power consumption, frequency bands, modulation, and coexistence with Wi-Fi.

Explores the emission of electromagnetic waves by accelerated charges and the generation of ultra high frequency waves.

Covers the design principles and key parameters for NMOS amplifiers, focusing on transconductance and gain optimization.

Explores extrinsic noise sources and artefacts in biomedical instrumentation, along with noise reduction techniques and impedance matching.