Learning Quantum
  • Project Scope and Purpose
  • Getting Started
    • Need to Know
    • Resources
  • Linear Algebra
    • Linear Algebra Summary
      • Math References
    • Basics
    • Vector Relationships
    • Span, Basis and Spaces
    • Transformations
  • Physics
    • Physics Summary
      • Physics References
    • Classical Mechanics
    • Quantum Mechanics
  • Qubits
    • Qubits Summary
      • Qubit References
    • Classical Bits
    • Quantum Bits
    • Multi-Qubit Systems
  • Quantum Circuits
    • Quantum Circuit Summary
      • Quantum Circuit References
    • Classical Models of Computation
    • Quantum Information
    • Single Qubit Gates
    • Multi-Qubit Gates
  • IBMQ
    • IBMQ Summary
    • Getting Access to IBM Quantum
    • IBMQ Tools
    • Using Quantum Gates - The Circuit Composer
  • Qiskit
    • Qiskit Overview
    • Installing Qiskit
    • Parts of a Qiskit Program
    • Writing a Qiskit Program
  • Supplementary
  • Quantum Safe Algorithms
Powered by GitBook
On this page
  • Classical vs. Quantum Mechanics
  • Material
  • Review Material
  • New Material
  • Resources
  • Additional Info & Problem Sets Summary

Was this helpful?

  1. Physics

Physics Summary

PreviousTransformationsNextPhysics References

Last updated 5 years ago

Was this helpful?

Classical vs. Quantum Mechanics

To a certain extent, we have an intuitive understanding of classical mechanics. Objects in the real world are affected by forces - measurable amounts of energy used to do some work.

We understand that in order to pick up a chair, it takes more work than picking up a pen. It's clearly that things that weigh more (or posses more mass) take more energy to move. The exact nature of these relationships can and have been quantified.

The way that very, very, very small things act isn't like this at all - and it's not intuitive. It is, in fact, super weird. In this chapter we'll cover a basic understanding of exactly how and why it's so weird.

Material

In this section we'll cover the idea of forces, physical relationships, and basic quantum concepts.

Review Material

  • Mass

  • Position

  • Force

  • Newtons 2nd Law

New Material

  • nnn-dimensional space

  • Complex numbers

  • Quantum vectors

  • Superposition

  • The wave function

  • Hamiltonian

  • Schrodinger Equation

Resources

Additional Info & Problem Sets Summary

Below is a list of all of the extra detail & problem sets included in this section of the tutorial:

Classical Mechanics
More on the difference between weight and mass
An introduction to Newton's First Law
More information about position vs. time graphs and how they're use
A detailed summary of Newton's Second Law
Problems for Newton's Second Law
Quantum Mechanics
An introduction to imaginary numbers
An explanation of complex numbers
More information about quantum vectors
An overview of how probability works
An explanation of what the wave function is