Dive into the world of quantum mechanics with Dr. N. Shanmugam as he explains the role of operators, their significance in quantum mechanics, and how they are used to determine physical quantities through expectation values. Explore concepts such as the Hamiltonian operator, time-independent Schrodi

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Quantum mechanics reveals that all systems possess discrete energy levels, determined by solving the Schrödinger equation where the Hamiltonian operator represents total energy. In a particle-in-a-box scenario, potential energy is infinite outside the box. The Schrödinger equation simplifies to a

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This research delves into the electronic excitation in semiconductor nanoparticles, focusing on real-space quasiparticle perspectives. It explores treating electron correlation using explicit operators, leading to faster algorithms while calculating optical gap and exciton binding energies. Various

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Perturbation theory is a powerful tool in solving complex physical and mathematical problems approximately by adjusting solutions from a related problem with known solutions. This theory allows for more accurate approximate solutions by treating the difference as a small perturbation. An example inv

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Explore the concepts of radiation, matter, fields, Hamiltonian, and more in classical mechanics with a focus on velocity-dependent potentials and conservative systems. Dive into the detailed discussions on gauge theory, Coulomb gauge, magnetic fields, and Hamiltonian operators within the framework o

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This content provides insights into the basics of damping rings in linear colliders, covering topics such as ring equations of motion, betatron motion, emittance, transverse coupling, dispersion, and momentum compaction factor. It delves into the equations of motion governing particle behavior in el

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Exploring nuclear shapes at the critical point of the U(5)-SU(3) nuclear shape phase transition using Bohr Hamiltonian with a sextic oscillator potential. The study investigates the transition from a spherical vibrator (U(5)) to a prolate rotor (SU(3)), providing insights into the Interacting Boson

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Exploring fixed point collisions and tensorial order parameters in Luttinger semimetals and various field theories, such as chiral symmetry breaking in QED and Interacting O(N) field theory. The research delves into the condensed matter motivation behind quadratic band touching and the Luttinger Ham

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To find a polynomial-time many-one reduction from a known NP-hard decision problem A to a target problem B, ensure that the reduction maps inputs correctly such that the output for A is 'yes' if and only if the output for B is 'yes.' An example is demonstrated using Subgraph Isomorphism and Hamilton

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Explore the treatment of Coulomb interaction in a many-particle Hamiltonian, where careful integration is crucial due to divergence issues. Learn about solving the Coulomb Hamiltonian with Slater integrals and expanding the operator on spherical harmonics for analytical solutions. Discover the signi

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Dive into the intricate world of Coulomb repulsion and Slater integrals, essential concepts in quantum physics. Explore the challenges posed by the diverging Coulomb integral and the complex calculations required to evaluate these interactions. Discover how Slater integrals play a crucial role in cr

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Research conducted at the University of West Georgia focused on uniquely bipancyclic graphs, defined as bipartite graphs with exactly one cycle of specific lengths determined by the order. Uniquely bipancyclic graphs have special properties, including having a Hamiltonian cycle and a specific order

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Exploring the divide-and-conquer approach to solving problems like finding the minimum distance between points on an xy-plane, and understanding concepts such as Gray Code and Hamiltonian Cycles in algorithm design. Dive into lexicographic permutations, efficient calculations, and examples seen in c

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Lecture 9 on the extensions of Hamiltonian formalism covers topics such as the Virial theorem, canonical transformations, and the Hamilton-Jacobi formalism. It delves into proofs and examples related to the Virial theorem, including applications to the harmonic oscillator and circular orbits in grav

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Chirping Alfvén modes in Tokamak equilibria exhibit frequency variation, allowing for maximizing power extraction from fast particles. Investigation of a chirping mode with Hamiltonian-Mapping and analysis of relevant phase-space slices reveal insights into the dynamics, resonance, and density grad

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This comprehensive study covers P, NP, NP-Hard, NP-Complete Problems, and Amortized Analysis, including examples and concepts like Reduction, Vertex Cover, Max-Clique, 3-SAT, and Hamiltonian Cycle. It delves into Polynomial versus Non-Polynomial problems, outlining the difficulties and unsolvability

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The research delves into solving quantum optimal control problems with versatile system parameters through robust and analytical approaches. It explores optimizing figures of merit in quantum systems with varying Hamiltonian and pulse parameters, showcasing solutions for single-qubit and two-qubit s

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This course provides a detailed introduction to Lagrangian and Hamiltonian Mechanics, covering topics such as the nature of physics, differentiation, calculus of variation, coordinate systems, and getting ready for Lagrangian Mechanics. It explores the relationship between math and physics, utilizin

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