Abbreviated Electrodiagnostic Tests of Denervation

Amick, Lawrence D.

doi:10.1093/rheumatology/5.2.48

Cited by 4 publications

(3 citation statements)

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“…Like crystalline silicon, a-Si: H can be made positively or negatively conducting by doping with boron or phosphorus. Other inorganic photoreceptor materials applied in xerography are solvent-coated layers of zinc oxide [5,21] and cadmium sulfide [22,23] in an organic polymer binder.…”

Section: Photoreceptormentioning

confidence: 99%

Imaging Technology, 2. Copying and Nonimpact Printing Processes

Pai

Melnyk

Hann³

et al. 2011

Ullmann's Encyclopedia of Industrial Chemistry

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The article contains sections titled: 1. Office Copying and Printing 1.1. Electrophotography 1.1.1. Photoreceptor 1.1.2. Corotron Charging 1.1.3. Light Exposure 1.1.4. Image Development 1.1.5. Image Transfer and Fusing 1.1.6. Photoreceptor Cleaning and Erase 1.1.7. Other Electrophotographic Imaging Systems 1.2. Thermographic Printing 1.2.1. Thermal Print Transducers 1.2.2. Resistive Ribbon Technology 1.2.3. Imaging Materials and Mechanisms 1.2.4. Comparison of Thermal Technologies 1.3. Ink‐Jet Printing 1.3.1. Continuous Ink Jet 1.3.2. Impulse (Drop‐on‐Demand) Ink Jet 1.3.3. Ink‐Jet Nozzle Orifice 1.3.4. Ink‐Jet Inks 1.3.5. Colorants Used in Ink Jet Inks 1.3.6. Color Printing with Ink Jets 2. Technical Copying 2.1. Diazotyping 2.1.1. Photolysis 2.1.2. Coupling Reaction 2.1.3. Production of Diazotyping Material 2.1.4. Processing 2.2. Other Photochemical Systems 2.3. Silver Process 2.3.1. Black and White Copying Materials Based on Silver Diffusion Transfer Technology 2.3.2. Modern Lithographic Printing Applications 2.3.3. Color‐Copying Materials Based on Dye Diffusion Chemistry 3. Microfilms and Microfiches 3.1. Diazotyping 3.2. Vesicular Film

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Section: Photoreceptormentioning

confidence: 99%

Imaging Technology, 2. Copying and Nonimpact Printing Processes

Pai

Melnyk

Hann³

et al. 2011

Ullmann's Encyclopedia of Industrial Chemistry

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“…3 through Eqs. (8) and (9). The relation between ~ V" where V, is the floating potential, and (V--V+) is given by…”

Section: Acknowledgmentsmentioning

confidence: 99%

Planar Resonance Probe in a Free Molecular Arc-Heated Flowing Plasma

Bunyan

1970

Journal of Applied Physics

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A shift in the measured frequency position of the current minimum drawn by a resonance probe near the plasma frequency is shown to be caused by a difference in ion and electron directed velocities in a lowdensity arc-heated wind tunnel.In a uniform stationary plasma a resonance probe draws a minimum current at the plasma frequency if (v c /vp )2«1, where Vp is the plasma frequency and Vc is the electron-neutral collision frequency.l.2 However, in a free molecular flowing plasma in which the electron and ion directed velocities Vand V+ are not equal, the frequency position of the minimum current drawn to a planar probe is shifted even if (v c/vp )2«1 unless none of the directed particles impinge on the probe surface. The frequency shift in this case is given bywhere w= 211"v, Vm is the frequency at the mmlmum current, m is the electron mass, e is the electron charge, and Eo is the magnitude of the alternating electric field in the plasma. The derivation of (1) is based on impedance calculations and follows Ref. 1 from this journal closely. The plasma impedance can be written aswhere C p is the plasma capacitance and the specific impedance Z= flu. E is the dielectric constant and 1 f 1 = 1; u is the conductivity inwhere E= Eo exp(iwt) and the second term is the displacement current. The first term in Eq. (3) is based on the Langevin equation with no magnetic field, m{d[V-(t) J/dt} +mvc V-(t) = -eEo exp(iwt). (4) From Eq. (4) one obtains by integration V-(t) = -(elm) [1/ (vc+iw) JEo exp(iwt) +C, (5)

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“…2C6H6COOH + ZnO -> (C6HBCOO)2Zn + H20 (1) When the amount of benzoic acid is small, however, interstitial zinc atoms will be attacked first by the acid. C6H6COOH + Zn (interstitial) -C6HbCOO-+ Zn+(interstitial) + 0.5H2 (2) Evidence for the first reaction was given by the fact that benzoic acid-treated zinc oxide (in toluene) completely dissolved in diluted aqueous ammonium hy-droxide solution, whereas untreated zinc oxide did not. The difference in adsorption behavior between acid and acid anhydride is possibly responsible for the difference in the sensitizing behavior at the higher concentrations in Figures 2 and 3.…”

Section: Effect Of Organic Acid and Acid Anhydride On Photoconduction...mentioning

confidence: 99%