Conductivity of Highly Concentrated Aqueous Electrolyte Solutions: Ammonium Nitrate-Water System

84-8

Electrical Conductance of Molten Salts: Part IV - Mixtures of Lithium, Sodium & Potassium Nitrates with Magnesium Nitrate

447-44

Electrical Conductance in Molten Salts: Part VI - potassium Nitrate-Strontium Nitrate Mixtures

645-64

The Hard X-ray emission of the blazar PKS 2155--304

The synchrotron peak of the X-ray bright High Energy Peaked Blazar (HBL) PKS 2155$-$304 occurs in the UV-EUV region and hence its X-ray emission (0.6--10 keV) lies mostly in the falling part of the synchrotron hump. We aim to study the X-ray emission of PKS 2155$-$304 during different intensity states in 2009$-$2014 using XMM$-$Newton satellite. We studied the spectral curvature of all of the observations to provide crucial information on the energy distribution of the non-thermal particles. Most of the observations show curvature or deviation from a single power-law and can be well modeled by a log parabola model. In some of the observations, we find spectral flattening after 6 keV. In order to find the possible origin of the X-ray excess, we built the Multi-band Spectral Energy distribution (SED). We find that the X-ray excess in PKS 2155--304 is difficult to fit in the one zone model but, could be easily reconciled in the spine/layer jet structure. The hard X-ray excess can be explained by the inverse Comptonization of the synchrotron photons (from the layer) by the spine electrons.Comment: 14 pages, 7 Figures, Accepted for publication in Ap

Theoretical Standard e.m.f. for Formation Cells Containing a Single Solid or Fused Metal Sulphate as an Electrolyte

933-93

Electrical Conductance in Molten Salts: Part V- Mixtures of Lithium, Sodium, Potassium & Thallium Nitrates with Cadmium Nitrate

579-58

Chronopotentiometry with Programmed Current: Theoretical Study of an Electrode Process Complicated by a Catalytic Reaction

798-30

Heat Transfer for Laminar Flow Through Parallel Porous Disks

The problem of temperature distribution and heat transfer for laminar flow through two parallel porous disks, has been investigated when the flow is entirely due t injection or suction at the two disks. Viscous dissipation terms have been included in the energy equation and the uniform injection/suction velocities at the two disks, are assumed to be small. The boundaries are maintained at constant temperature. The variation of temperature and Nusselt numbers at the two disks, is shown graphically, for various of the injection/suction velocities