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What are the differences in the use of the time-dependent Schrodinger equation and the time-independent Schrodinger equation?
The time-independent Schr
What is more general between Schrodinger time independent or time dependent wave equation?
The time-independent Schrödinger equation is more general as it describes the stationary states of a quantum system, while the time-dependent Schrödinger equation describes the time evolution of the wave function. The time-independent equation can be derived from the time-dependent equation in specific situations.
What is the proof of the Schrdinger equation?
The proof of the Schrdinger equation involves using mathematical principles and techniques to derive the equation that describes the behavior of quantum systems. It is a fundamental equation in quantum mechanics that describes how the wave function of a system evolves over time. The proof typically involves applying the principles of quantum mechanics, such as the Hamiltonian operator and the wave function, to derive the time-dependent Schrdinger equation.
How did Erwin Schrodinger achieve quantum mechanics?
Erwin Schrodinger developed a wave equation, known as the Schrodinger equation, that describes how the quantum state of a physical system changes over time. This equation is a fundamental tool in quantum mechanics, providing a mathematical framework for predicting the behavior of particles at the quantum level. Schrodinger's work was crucial in the development of quantum mechanics as a coherent and successful theory.
Derive the equation for average value of DC?
The equation for the average over time T is integral 0 to T of I.dt
What are the applications of time dependent Schrodingers equation?
The time-dependent Schrödinger equation is used to describe how wave functions evolve over time in quantum mechanics. It is foundational in understanding the time evolution of quantum systems, such as predicting the behavior of particles in a potential well, modeling quantum tunneling phenomena, and simulating quantum systems under time-varying external fields. It is essential in fields such as quantum chemistry, solid-state physics, and quantum computing.
Derive schrodinger wave equation?
That's really too complicated for a short answer, of a few paragraphs, here. YouTube has some introductory videos about the topic, for example, from a "Dr PhysicsA"; a search on YouTube for "Dr Physics Schrödinger Wave Equation" will let you find them.
The atom of Erwin Schrodinger and Louis de B oglie?
Erwin Schrodinger is known for his Schrodinger equation, which describes how the wave function of a physical system changes over time. Louis de Broglie proposed the concept of wave-particle duality, suggesting that particles like electrons can exhibit wave-like properties. Both of these contributions were instrumental in the development of quantum mechanics.
How do you derive the 3rd equation of motion?
The third equation of motion can be derived by integrating the equation of acceleration with respect to time. Starting with ( a = dv/dt ), integrating both sides with respect to time will give ( v = u + at ), where ( v ) is the final velocity, ( u ) is the initial velocity, ( a ) is the acceleration, and ( t ) is the time taken.
How did Schrodinger and De Broglie change Bohr's model of an atom?
Neils Bohr made the ASSUMPTION that electrons could only exist in discrete energy levels when the electrostatic field of a nucleus -- he made no attempt to show WHY this was so. Louis de Broglie postulated that electron movement could be described as a wave, with the wavelength being equal to Planck's Constant divided by the electron's momentum. Starting with this postulate, one can derive that the only permitted radial orbits of an electron are those with a circumference equal to a multiple of these wavelengths. Erwin Schrodinger devised a mathematical formula for which one could derive these energy levels -- and a lot more. As such, Schrodinger's Equation was more fundamental to our understanding of sub-atomic reality. Schrondinger viewed his wave function (more precisely, the product of the wave function) as the charge density of a smeared-out electron. Although you didn't ask, it was Max Born who showed that the wave-function product was, instead, the probability of finding a point-like electron at a specific place and time.
Using the time independent schrodinger equation find the relation for the coservation of probability?
The conservation of probability in quantum mechanics is a consequence of the time-independent Schrödinger equation. For a normalized wavefunction Ψ(x), the conservation of probability is guaranteed by the fact that the total probability density, |Ψ(x)|^2, remains constant over time according to the continuity equation ∇·j = -∂ρ/∂t, where j is the probability current density and ρ is the probability density.
How do you show that a wave function is a solution to the time- independent Schrodinger equation for a simple harmonic oscillator?
To show that a wave function is a solution to the time-independent Schrödinger equation for a simple harmonic oscillator, you substitute the wave function into the Schrödinger equation and simplify. This will involve applying the Hamiltonian operator to the wave function and confirming that it equals a constant times the wave function.
