'Fermi dirac' presentation slideshows

ECEE 302: Electronic Devices

7 October 2002. ECEE 302: Electronic Devices. Lecture 3. Physical Foundations of Solid State Physics, Semi-Conductor Energy Bands, and Charge Carriers. Outline (1 of 2). Atomic Bonding in Solids ionic covalent Energy Bands in a Solid Formation Band Theory of Solids

960 views • 52 slides

ECEE 302: Electronic Devices

7 October 2002. ECEE 302: Electronic Devices. Lecture 3. Physical Foundations of Solid State Physics, Semi-Conductor Energy Bands, and Charge Carriers. Outline (1 of 2). Atomic Bonding in Solids ionic covalent Energy Bands in a Solid Formation Band Theory of Solids

660 views • 52 slides

Lecture 6.0

Lecture 6.0. Properties of Dielectrics. Capacitors On chip On Circuit Board Insulators Transistor gate Interconnects. Materials Oxides SiO 2 Boro-Silicate Glass Nitrides BN polymers. Dielectric use in Silicon Chips. Importance of Dielectrics to Silicon Chips. Size of devices

412 views • 31 slides

Lecture 6.0

Lecture 6.0. Properties of Dielectrics. Capacitors On chip On Circuit Board Insulators Transistor gate Interconnects. Materials Oxides SiO 2 Boro-Silicate Glass Nitrides BN polymers. Dielectric use in Silicon Chips. Importance of Dielectrics to Silicon Chips. Size of devices

323 views • 31 slides

Statistical properties of nuclei: beyond the mean field

Statistical properties of nuclei: beyond the mean field. Yoram Alhassid (Yale University). Introduction Beyond the mean field: correlations via fluctuations The static path approximation (SPA) The shell model Monte Carlo (SMMC) approach. Partition functions and level densities in SMMC.

397 views • 26 slides

Last Time

Last Time. Debye Approximation. Free electron model. Fermi Surface. Fermi-Dirac Distribution Function. Density of states in 3D. Today. Heat Capacity. Electrons. Phonons. Measuring the occupied density of states Effective Mass Electrical Conductivity Thermal Conductivity

497 views • 26 slides

Lecture 5.0

365 views • 25 slides

Lecture 5.0

344 views • 25 slides

Lecture 5.0

257 views • 25 slides

Classical and Quantum Gases

Classical and Quantum Gases. Fundamental Ideas Density of States Internal Energy Fermi-Dirac and Bose-Einstein Statistics Chemical potential Quantum concentration. Density of States. Derived by considering the gas particles as wave-like and confined in a certain volume, V.

428 views • 21 slides

Study QGP in different Centrality

Study QGP in different Centrality. Most Central events ( highest multiplicity ) , e.g. top 5% central, i.e. 5% of the events with largest multiplicity. Mid Central events. Most Peripheral events. From most central to most peripheral event, the collision is more like a p+p collisions.

254 views • 15 slides

Quantum Statistics:Applications

Quantum Statistics:Applications. Determine P(E) = D(E) x n(E) probability(E) = density of states x prob. per state electron in Hydrogen atom. What is the relative probaility to be in the n=1 vs n=2 level? D=2 for n=1 D=8 for n=2

441 views • 7 slides