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Delves into the rigidity of negatively curved manifolds and the interplay between curvature and symmetry.

Explores different types of noise in devices and circuits, including interference noise, inherent noise, and random signals.

Explores statistical physics concepts in isolated systems, focusing on entropy and disorder.

Covers entropy, its definition, and its implications in thermodynamics.

Covers energy minimization models in biological systems, focusing on equilibrium and the roles of entropy and hydrophobicity.

Covers the basics of information theory, focusing on Shannon's setting and channel transmission.

Explores electronic, thermomechanical, and amplifier noise, calibration of amplitude, frequency tracking, and system limits.

Explores thermodynamic transformations of ideal gases, heat capacity, entropy, and adiabatic processes.

Explores gas properties, pressure, ideal and real gases, energy in reactions, and gas laws.

Explores the thermodynamic identity, entropy-temperature relationship, and pressure definition, illustrating key principles with practical examples.

Explores quantifying information based on probability, entropy, and constraints in communication systems.

Explores noise in electronics, covering average power, signal-to-noise ratio, deterministic and random signals, and noise amplification.

Explores statistical entropy and disorder in isolated systems, including kinetic gases and calorimetric coefficients.

Explores electrical metrology, covering random variables, noise sources, and their impact on electronic devices.

Explores environmental legislation, pollution control, noise regulations, and construction impact on the environment.

Explores phase transitions in thermodynamics, focusing on stability criteria and real-world applications.

Covers microstates, macrostates, entropy, and density of states in statistical mechanics.

Explores scaling and renormalization in statistical mechanics, emphasizing critical points and invariant properties.