Slide 1
... V(x, y, z) be the velocity vector at a point (x, y, z). ◦ Then, V assigns a vector to each point (x, y, z) in a certain domain E (the interior of the pipe). ◦ So, V is a vector field on 3 called a velocity field. ...
... V(x, y, z) be the velocity vector at a point (x, y, z). ◦ Then, V assigns a vector to each point (x, y, z) in a certain domain E (the interior of the pipe). ◦ So, V is a vector field on 3 called a velocity field. ...
SpectraMax M Series Multi-Mode Microplate Readers | Molecular
... filters to optimize detection levels and background. The optical systems use two scanning monochromators so the user can determine optimal excitation and emission settings, resulting in assay performance similar to that of dedicated single-mode readers. ...
... filters to optimize detection levels and background. The optical systems use two scanning monochromators so the user can determine optimal excitation and emission settings, resulting in assay performance similar to that of dedicated single-mode readers. ...
pptx
... • Electric potential: work needed to bring +1C from infinity; units = V • Electric potential uniquely defined for every point in space -- independent of path! • Electric potential is a scalar -- add contributions from individual point charges • We calculated the electric potential produced: – by a s ...
... • Electric potential: work needed to bring +1C from infinity; units = V • Electric potential uniquely defined for every point in space -- independent of path! • Electric potential is a scalar -- add contributions from individual point charges • We calculated the electric potential produced: – by a s ...
Day 4: Dielectrics & Their Molecular Description
... • When the dielectric is inserted, the electric field between the plates causes the molecules of the insulator to become polarized • Some of the electric field lines do not pass thru the dielectric but rather end on the induced charges on the surface of the dielectric ...
... • When the dielectric is inserted, the electric field between the plates causes the molecules of the insulator to become polarized • Some of the electric field lines do not pass thru the dielectric but rather end on the induced charges on the surface of the dielectric ...
Dual Nature of Matter and Radiation
... The work function of nickel is 5eV. When light of wavelength 2000A0 falls on ...
... The work function of nickel is 5eV. When light of wavelength 2000A0 falls on ...
Optical Properties of Thin Transparent Conducting Oxide Films on
... Both p- and n-type regions are charge neutral. An electron-hole pair created in either region may be split by the electric field in the depletion region and lead to a photocurrent[2]. directions by the depletion region electric field. If the absorber is p-type, the electron from the electronhole pai ...
... Both p- and n-type regions are charge neutral. An electron-hole pair created in either region may be split by the electric field in the depletion region and lead to a photocurrent[2]. directions by the depletion region electric field. If the absorber is p-type, the electron from the electronhole pai ...
An Induced Electric Dipole
... A dipole is held motionless in a uniform electric field. For the situation below, when the dipole is released, which of the following describes the subsequent motion? A. The dipole moves to the right. B. The dipole moves to the left. C. The dipole rotates clockwise. D. The dipole rotates counter ...
... A dipole is held motionless in a uniform electric field. For the situation below, when the dipole is released, which of the following describes the subsequent motion? A. The dipole moves to the right. B. The dipole moves to the left. C. The dipole rotates clockwise. D. The dipole rotates counter ...
in chiral mean
... uuddc* pentaquark mass is NOT MQ + mc –ms like in QM but rather MQ + mc + M, i.e. 3000 – 3200 MeV, 200-300 MeV above QM The point is that neither c* nor qqqq can be „hidden“ in a chiral excitation ...
... uuddc* pentaquark mass is NOT MQ + mc –ms like in QM but rather MQ + mc + M, i.e. 3000 – 3200 MeV, 200-300 MeV above QM The point is that neither c* nor qqqq can be „hidden“ in a chiral excitation ...
Photophysics of Organic Molecules in Solution
... molecule is ionized (oxidized). For molecules with positive electron affinity, it is also possible to add an electron (reduction). When only non-relativistic electrostatic energy terms are included in the potential energy part of the Hamiltonian operator contained in the Schrödinger equation, the re ...
... molecule is ionized (oxidized). For molecules with positive electron affinity, it is also possible to add an electron (reduction). When only non-relativistic electrostatic energy terms are included in the potential energy part of the Hamiltonian operator contained in the Schrödinger equation, the re ...
Engineering Physics-01.p65
... Newton’s rings are formed due to interference between the waves reflected from the top and bottom surfaces of the air film formed between the plates. The formation of Newton’s rings can be explained with the help of the Fig. 1.12c. AB is a monochromatic ray of light, which falls on the system. A par ...
... Newton’s rings are formed due to interference between the waves reflected from the top and bottom surfaces of the air film formed between the plates. The formation of Newton’s rings can be explained with the help of the Fig. 1.12c. AB is a monochromatic ray of light, which falls on the system. A par ...
Ch-27
... As red light shines on a piece of metal, no electrons are released. When the red light is slowly changed to shorter-wavelength light (basically progressing through the rainbow), nothing happens until yellow light shines on the metal, at which point electrons are released from the metal. If this meta ...
... As red light shines on a piece of metal, no electrons are released. When the red light is slowly changed to shorter-wavelength light (basically progressing through the rainbow), nothing happens until yellow light shines on the metal, at which point electrons are released from the metal. If this meta ...
Circular dichroism
Circular dichroism (CD) is dichroism involving circularly polarized light, i.e., the differential absorption of left- and right-handed light. Left-hand circular (LHC) and right-hand circular (RHC) polarized light represent two possible spin angular momentum states for a photon, and so circular dichroism is also referred to as dichroism for spin angular momentum. This phenomenon was discovered by Jean-Baptiste Biot, Augustin Fresnel, and Aimé Cotton in the first half of the 19th century. It is exhibited in the absorption bands of optically active chiral molecules. CD spectroscopy has a wide range of applications in many different fields. Most notably, UV CD is used to investigate the secondary structure of proteins. UV/Vis CD is used to investigate charge-transfer transitions. Near-infrared CD is used to investigate geometric and electronic structure by probing metal d→d transitions. Vibrational circular dichroism, which uses light from the infrared energy region, is used for structural studies of small organic molecules, and most recently proteins and DNA.