Канал: IIT Energy Materials Group

Practical application of radiolysis to flow battery charging

Practical application of radiolysis to flow battery charging

Coin Cell Assembly

Coin Cell Assembly

Electrode Casting

Electrode Casting

12.02 Multiple qubit systems

12.02 Multiple qubit systems

12.01 Single qubits

12.01 Single qubits

11.07 Berry's phase

11.07 Berry's phase

11.06 The adiabatic approximation

11.06 The adiabatic approximation

11.05 Lifetimes & selection rules

11.05 Lifetimes & selection rules

11.04 The Einstein A & B coefficients

11.04 The Einstein A & B coefficients

11.03 Stimulated emission

11.03 Stimulated emission

11.02 Sinusoidal perturbation

11.02 Sinusoidal perturbation

11.01 Time dependent perturbation theory

11.01 Time dependent perturbation theory

10.05 The Born approximation

10.05 The Born approximation

10.04 The integral Schrödinger equation

10.04 The integral Schrödinger equation

10.03 Phase shift analysis

10.03 Phase shift analysis

10.02 Partial wave analysis

10.02 Partial wave analysis

10.01 Generalized quantum scattering

10.01 Generalized quantum scattering

9.03 WKB at the turning point

9.03 WKB at the turning point

9.02 The WKB solution for the non-classical region

9.02 The WKB solution for the non-classical region

9.01 The WKB method

9.01 The WKB method

8.05 The hydrogen molecule

8.05 The hydrogen molecule

8.04 The hydrogen molecule ion

8.04 The hydrogen molecule ion

8.03 An improved helium energy

8.03 An improved helium energy

8.02 The helium atom energy

8.02 The helium atom energy

8.01 The variational method

8.01 The variational method

7.06 The intermediate field Zeeman effect

7.06 The intermediate field Zeeman effect

7.07 The hyperfine interaction

7.07 The hyperfine interaction

7.05 The Zeeman effect for weak and strong fields

7.05 The Zeeman effect for weak and strong fields

7.03 The hydrogen relativistic correction

7.03 The hydrogen relativistic correction

7.04 The hydrogen spin-orbit correction

7.04 The hydrogen spin-orbit correction

7.02 Degenerate perturbation theory

7.02 Degenerate perturbation theory

7.01 Perturbation theory basics

7.01 Perturbation theory basics

6.04 Degeneracy & selection rules

6.04 Degeneracy & selection rules

6.05 Time translation & energy conservation

6.05 Time translation & energy conservation

6.03 Rotational symmetry

6.03 Rotational symmetry

6.02 Parity & selection rules

6.02 Parity & selection rules

6.01 Translational symmetry & conservation of momentum

6.01 Translational symmetry & conservation of momentum

5.07 The Dirac comb & band theory

5.07 The Dirac comb & band theory

5.06 Band theory & the Bloch function

5.06 Band theory & the Bloch function

5.05 Free electron gas

5.05 Free electron gas

5.04 The periodic table

5.04 The periodic table

5.02 Exchange forces

5.02 Exchange forces

5.03 The helium atom

5.03 The helium atom

5.01 Identical particles

5.01 Identical particles

4.19 The Aharonov-Bohm effect

4.19 The Aharonov-Bohm effect

4.18 Vector potential effects

4.18 Vector potential effects

4.17 Lorenz forces in quantum mechanics

4.17 Lorenz forces in quantum mechanics

4.16 Example of Clebsch-Gordan coefficient calculation

4.16 Example of Clebsch-Gordan coefficient calculation

4.15 Addition of angular momenta

4.15 Addition of angular momenta

4.14 Adding spins

4.14 Adding spins

4.13 Electron in a magnetic field

4.13 Electron in a magnetic field

4.12 Alternate spin bases

4.12 Alternate spin bases

4.11 Intrinsic angular momentum

4.11 Intrinsic angular momentum

4.10 Angular momentum: Part 3

4.10 Angular momentum: Part 3

4.09 Angular momentum: Part 2

4.09 Angular momentum: Part 2

4.08 Angular momentum: Part 1

4.08 Angular momentum: Part 1

4.07 The hydrogen atom: Part 3

4.07 The hydrogen atom: Part 3

4.06 The hydrogen atom: Part 2

4.06 The hydrogen atom: Part 2

4.05 The hydrogen atom: Part 1

4.05 The hydrogen atom: Part 1

4.04 The 3D radial equation

4.04 The 3D radial equation

4.03 Solution of the 3D angular equations

4.03 Solution of the 3D angular equations

4.02 Separation of variables in 3D

4.02 Separation of variables in 3D

4.01 The 3D Schrödinger Equation

4.01 The 3D Schrödinger Equation

3.06 Dirac notation

3.06 Dirac notation

3.05 Representations of Hilbert space

3.05 Representations of Hilbert space

3.01 Hilbert spaces

3.01 Hilbert spaces

3.02 Hermitian operators

3.02 Hermitian operators

3.03 The statistical interpretation & EPR paradox

3.03 The statistical interpretation & EPR paradox

3.04 The generalized uncertainty principle

3.04 The generalized uncertainty principle

2.13 Scattering from a finite square well

2.13 Scattering from a finite square well

2.12 Free particle scattering from a delta function

2.12 Free particle scattering from a delta function

2.11 Bound states of the finite square well

2.11 Bound states of the finite square well

2.10 The delta function potential well

2.10 The delta function potential well

2.09 Solution to the free particle Hamiltonian

2.09 Solution to the free particle Hamiltonian

2.08 Completing the analytic solution to the harmonic ocsillator

2.08 Completing the analytic solution to the harmonic ocsillator

2.07 The analytic solution to the harmonic oscillator

2.07 The analytic solution to the harmonic oscillator

2.06 Properties of the harmonic oscillator solution

2.06 Properties of the harmonic oscillator solution

2.05 The algebraic solution to the harmonic oscillator

2.05 The algebraic solution to the harmonic oscillator

2.04 The quantum harmonic oscillator

2.04 The quantum harmonic oscillator

2.03 Properties of the wavefunction

2.03 Properties of the wavefunction

2.02 The 1-D infinite square well

2.02 The 1-D infinite square well

2.01 The time independent Schrödinger equation

2.01 The time independent Schrödinger equation

1.04 Quantum mechanical operators

1.04 Quantum mechanical operators

1.03 Normalization and the uncertainty principle

1.03 Normalization and the uncertainty principle

1.02 The quantum mechanical wavefunction

1.02 The quantum mechanical wavefunction

1.01 The Schrödinger equation

1.01 The Schrödinger equation

0.01 A short review of modern physics

0.01 A short review of modern physics

Online EXAFS School: Calculating transmission edge jumps

Online EXAFS School: Calculating transmission edge jumps

Online EXAFS School: How to write a General User Proposal

Online EXAFS School: How to write a General User Proposal

In Situ Characterization of Battery Materials Using X-ray Absorption Spectroscopy

In Situ Characterization of Battery Materials Using X-ray Absorption Spectroscopy

Regional Bridge Contest Chicago 2018

Regional Bridge Contest Chicago 2018

Crystal lattice templating and galvanic coupling in Ni(OH)2/Co(OH)2 core/shell battery cathode

Crystal lattice templating and galvanic coupling in Ni(OH)2/Co(OH)2 core/shell battery cathode

Structural Studies of Li-Rich, Mn-Ni-Fe Composite Oxide Cathode

Structural Studies of Li-Rich, Mn-Ni-Fe Composite Oxide Cathode