cohesive energy

cohesive energy

[kō′hē·siv ′en·ər·jē]
(solid-state physics)
The difference between the energy per atom of a system of free atoms at rest far apart from each other, and the energy of the solid.
References in periodicals archive ?
And while the tracks' melodies tend to occasionally go 'round in circles ('Forever' and the moody 'Dangerous'), it's hard not to notice the alluring harmonies and the cohesive energy that drive their edgy likability.
Therefore, it would be very important to examine the size variation of the cohesive energy of the Si dots, and the possibility of evaluating the cohesive energy of the infinite crystal.
The solubility parameter can be calculated as the square root of the cohesive energy [density.
It also rated highly for its flexible work practices; providing friendly work environments with facilities that support employees mental and physical well-being; and its collaborative, cohesive energy towards achieving and exceeding results.
Although this was not the first time a gas dispute between Russia and Ukraine caused fear amongst the European community about the strategic safety of their energy supplies, it became a lynchpin in the European project to push a cohesive energy security policy.
The variation of Density, Viscosity, Velocity, adiabatic compressibility (Pad), intermodular free length (Lf), relaxation time (X), free volume (Vf), internal pressure (ni), acoustical impedance (Z),constant (W), ultrasonic attenuation ([alpha]/f2), Rao's constant (R), molar volume (Vm), and cohesive energy (CE) of pyrimidine derivatives at 313 K in different concentrations are shown in Figures 1 to 13.
The agglomeration phenomenon was attributed to high cohesive energy of the acid-treated CNTs.
MUMBAI: India needs a more cohesive energy policy and stringent grid management to avoid a recurrence of the power outages that hit hundreds of millions of people this week, the chief executive of Reliance Infrastructure Ltd.
Flanagan said the intent of the committee was to draft a cohesive energy plan.
The information obtained from solvent swelling can be used to characterize cross-linked structures, to determine solubility parameters (square root of cohesive energy density), molecular weights between cross-links or cross-link densities of fossil fuels with cross-linked macromolecular structures.
They carefully explain methods of measuring properties of nanostructures, including spectroscopy, properties of individual nanoparticles, the chemistry of nanostructures, characteristics of polymer and biological nanostructures, cohesive energy, vibration and electronic properties, quantum wells (as well as wires and dots), carbon nanostructures, bulk nanostructured materials, mechanical properties, magnetism, nanoelectronics, spintronics, molecular electronics and photonics.
The extent of equilibrium swell of a rubber in a certain solvent depends on the difference in the cohesive energy densities of the rubber and the solvent (ref.