Concept

Reversible computing

Related lectures (28)

Irreversible and Reversible Circuit Theorems

Covers the proofs of Irreversible and Reversible circuit theorems, focusing on gates and the issue of irreversibility and reversibility.

Quantum Circuits: Classic Circuits

Explores classic circuits in quantum computing, including Boolean functions and reversible gates.

Quantum Information: Basics and Applications

Covers quantum information basics, Toffoli gates, quantum parallelism, and Grover's algorithm for database search.

Ideal Gas Laws

Explores ideal gas laws, entropy, internal energy, and specific heat capacities, emphasizing Mayer's relations and adiabatic reversible processes.

Input State Preparation and Output Measurement

Covers input state preparation, output measurement, digital quantum computing paradigm, Pauli rotations, C-Z gates, and Solovay-Kitaev theorem.

The Paradigm of Digital Quantum Computation

Introduces the paradigm of digital quantum computation, discussing quantum bits, gates, error correction, and efficiency.

Quantum Gates: C-NOT and Toffoli

Covers the principles behind quantum gates, focusing on the C-NOT and Toffoli gates.

The Paradigm of Digital Quantum Computing

Covers quantum gates, error correction, XOR operations, reversible computation, unitary matrices, quantum circuits, controlled operations, and Bell states.

Untitled

Second Principle: Thermodynamic Systems and Entropy Analysis

Covers the second principle of thermodynamics, focusing on entropy and reversible processes in thermodynamic systems.

Spin-Wave Computing: Philipp Pirro Lecture

Explores spin-wave computing, magnonic nanostructures, and wave-based computing applications, emphasizing low-power, nonlinear computing potential.

Maximum Efficiency Theorem

Explains the second law of thermodynamics and the maximum efficiency theorem.

First Principle of Thermodynamics

Explains the conservation of energy in thermodynamic systems during heat and work exchange processes.

Quantum Computing: Fundamentals and Applications

Covers the fundamentals of quantum computing, including qubit realization, scalable quantum computers, quantum communication, and quantum algorithms.

Quantum Computing Fundamentals

Covers the basics of quantum computing, including qubits, gates, and measurement processes.

Entropy: Second Law of Thermodynamics

Discusses reversible and irreversible transformations based on entropy as a state function.

Efficiency and Yield

Explores efficiency and yield in the Carnot cycle, including thermal machines and engine cycles, with practical exercises on temperature calculations.

Hybrid Quantum Classical Algorithms: Introduction

Introduces hybrid quantum-classical algorithms, discussing the integration of quantum and classical computing techniques.

Quantum Information and Computation

Covers quantum information, computation, advantages, challenges, error correction, and quantum algorithms.

Quantum Computing Paradigm

Introduces the paradigm of digital quantum computing, covering qubits, quantum logic gates, state preparation, and error correction.