What's in the schrodinger wave equation?

In summary, the equation represents a wave of probability that travels through a certain orbital. It is not easy to solve this equation, and it requires a lot of mathematical knowledge.
  • #1
Saitama
4,243
93
I have just completed Atomic Structure from my textbook. In that a Schrodinger Wave Equation is mentioned and after that it is written that it is not in the scope of this book to solve this equation. I want to know what is so hard in the schrodinger wave equation that it is not of my level?
 
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  • #2
I wondered the same thing also when I took high school chemistry and, again, in college when I took introductory physics course.

The reason why these books state this is because the Schrodinger Equation is a partial differential equation.Thus it takes several semesters of calculus, multivariable calculus, linear algebra, differential equations, and partial differential equations. Then as you take quantum mechanics and learn about the Schrodinger equation you're exposed to even more mathematics (spherical coordinates, group theory, Hermite polynomials, and so forth).

In addition, a number of physics courses are very helpful in understanding the derivation of the Schrodinger equation itself(especially classical mechanics).

In other words, if you saw the equation it wouldn't make that much sense understanding it mathematically. Also the equation takes on many different forms according to the system it is defining.

1242266_f496.jpg


However, there are books that discuss the nature and give you a great flavor of what the Schrodinger Equation encapsulates (Quantum: A Guide For The Perplexed Jim Al-Khalili).
 
  • #3
czelaya said:
I wondered the same thing also when I took high school chemistry and, again, in college when I took introductory physics course.

The reason why these books state this is because the Schrodinger Equation is a partial differential equation.Thus it takes several semesters of calculus, multivariable calculus, linear algebra, differential equations, and partial differential equations. Then as you take quantum mechanics and learn about the Schrodinger equation you're exposed to even more mathematics (spherical coordinates, group theory, Hermite polynomials, and so forth).

In addition, a number of physics courses are very helpful in understanding the derivation of the Schrodinger equation itself(especially classical mechanics).

In other words, if you saw the equation it wouldn't make that much sense understanding it mathematically. Also the equation takes on many different forms according to the system it is defining.

1242266_f496.jpg


However, there are books that discuss the nature and give you a great flavor of what the Schrodinger Equation encapsulates (Quantum: A Guide For The Perplexed Jim Al-Khalili).

That seems to be a lot of mathematics. I think i should not go there .
75px-Puzzled.svg.png


There was a question once asked by my teacher on the schrodinger wave equation. The schrodinger wave question for hydrogen atom was given and we were asked to find out the minimum and maximum radial distance of node from the nucleus. We were able to solve it.
But in my class, there's an extra-ordinary student, teacher asked her that which orbital does this Schrodinger wave equation represents and she was not able to answer it? But i am interested to know how we can determine which orbital does the equation represent. Here's the equation which was given in the question:-

[tex]\psi(radial)=\frac{1}{16\sqrt{4}}(\frac{Z}{a_0})^{\frac{3}{2}}[(\sigma-1)(\sigma^2-8\sigma+12)]e^{\frac{-\sigma}{2}}[/tex]

where a0 and Z are constants in which the answer can be expressed and [itex]\sigma=\frac{2Zr}{a_0}[/itex].
 

FAQ: What's in the schrodinger wave equation?

What is the Schrodinger wave equation?

The Schrodinger wave equation is a mathematical equation that describes how the quantum state of a physical system changes over time. It is a fundamental equation in quantum mechanics and is used to calculate the probability of finding a particle in a particular position at a particular time.

Why is the Schrodinger wave equation important?

The Schrodinger wave equation is important because it allows us to make predictions about the behavior of quantum systems. It has been successfully used to explain and predict the behavior of particles at the atomic and subatomic level, and has played a crucial role in the development of modern technology, such as transistors and lasers.

What are the main components of the Schrodinger wave equation?

The Schrodinger wave equation consists of two main components: the Hamiltonian operator and the wave function. The Hamiltonian operator represents the total energy of the system, while the wave function describes the quantum state of the system at a particular time.

How is the Schrodinger wave equation derived?

The Schrodinger wave equation was developed by Austrian physicist Erwin Schrodinger in 1925. He based his equation on the de Broglie hypothesis, which states that particles can also exhibit wave-like behavior. Schrodinger combined this idea with the principles of classical mechanics to develop his famous equation.

Can the Schrodinger wave equation be solved exactly?

In most cases, the Schrodinger wave equation cannot be solved exactly. However, there are a few simple systems, such as the particle in a box, where the equation can be solved exactly. In more complex systems, numerical methods are used to approximate the solution.

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