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MESH

In guided bone regeneration (GBR), barrier membranes are used to direct new bone growth in the defects by preventing [Pg.448]


The experimental conditions used to determine the CFPP do not exactly reflect those observed in vehicles the differences are due to the spaces in the filter mesh which are much larger in the laboratory filter, the back-pressure and the cooling rate. Also, research is continuing on procedures that are more representative of the actual behavior of diesel fuel in a vehicle and which correlate better with the temperature said to be operability , the threshold value for the Incident. In 1993, the CEN looked at two new methods, one called SFPP proposed by Exxon Chemicals (David et al., 1993), the other called AGELFI and recommended by Agip, Elf and Fina (Hamon et al., 1993). [Pg.215]

Impingement demister systems are designed to intercept liquid particles before the gas outlet. They are usually constructed from wire mesh or metal plates and liquid droplets impinge on the internal surfaces of the mist mats or plate labyrinth as the gas weaves through the system. The intercepted droplets coalesce and move downward under gravity into the liquid phase. The plate type devices or vane packs are used where the inlet stream is dirty as they are much less vulnerable to clogging than the mist mat. [Pg.245]

The calculation was carried out using the ANSYS F.E.M. code. The pressure vessel was meshed with a 4 nodes shell element. Fig. 18 shows a view of the results of calculation of the sum of principal stresses on the vessel surface represented on the undeformed shape. For the calculation it was assumed an internal pressure equal to 5 bar and the same mechanical characteristics for the test material. [Pg.413]

Darden T, York D and Pedersen L 1993 Particle mesh Ewald—an N.log(N) method for Ewald sums in large systems J. Chem. Phys. 98 10089-92... [Pg.2282]

Essmann U, Perera L, Berkowitz M L, Darden T, Lee H and Pedersen L G 1995 A smooth particle mesh Ewald method J. Chem. Phys. 103 8577-93... [Pg.2282]

Luty, B.A., Davis, M.E., Tironi, I.G., Van Gunsteren, W.F. A comparison of particle-particle particle-mesh and Ewald methods for calculating interactions in periodic molecular systems. Mol. Simul. 14 (1994) 11-20. [Pg.32]

U. Essmann, L. Perera, M. L. Berkowitz, T. Darden, H. Lee, and L. G. Pedersen. The smooth particle mesh ewald method. J. Chem. Phys., 103 8577, 1995. Brock A. Luty, Ilario G. Tironi, and Wilfried F. van Gunsteren. Lattice-sum methods for calculating electrostatic interactions in molecular simulations. J. Chem. Phys., 103 3014-3021, 1995. [Pg.96]

Brock A. Luty and Wilfried F. van Gunsteren. Calculating electrostatic interactions using the particle-particle particle-mesh method with nonperiodic long-range interactions. J. Phys. Chem., 100 2581-2587, 1996. [Pg.96]

There are three different algorithms for the calculation of the electrostatic forces in systems with periodic boundary conditions (a) the (optimized) Ewald method, which scales like (b) the Particle Mesh... [Pg.310]

One of the most efficient algorithms known for evaluating the Ewald sum is the Particle-mesh Ewald (PME) method of Darden et al. [8, 9]. The use of Ewald s trick of splitting the Coulomb sum into real space and Fourier space parts yields two distinct computational problems. The relative amount of work performed in real space vs Fourier space can be adjusted within certain limits via a free parameter in the method, but one is still left with two distinct calculations. PME performs the real-space calculation in the conventional manner, evaluating the complementary error function within a cutoff... [Pg.464]

A. Toukmaji and D. Paul and J. A. Board, Jr., Distributed Particle-Mesh Ewald A Parallel Ewald Summation Method, Proceedings, International Conference on Parallel and Distributed Processing Techniques and Applications (PDPTA 96), CSREA Press (1996), pp. 33-43. [Pg.470]

Figure2-116. Graphical representations of molecular surfaces of phenylalanine a) dots b) mesh or chicken-wire c) solid d) semi-transparent,... Figure2-116. Graphical representations of molecular surfaces of phenylalanine a) dots b) mesh or chicken-wire c) solid d) semi-transparent,...
Depending on the application, models of molecular surfaces arc used to express molecular orbitals, clcaronic densities, van dor Waals radii, or other forms of display. An important definition of a molecular surface was laid down by Richards [182] with the solvent-accessible envelope. Normally the representation is a cloud of points, reticules (meshes or chicken-wire), or solid envelopes. The transparency of solid surfaces may also be indicated (Figure 2-116). [Pg.125]

In periodic boimdary conditions, one possible way to avoid truncation of electrostatic interaction is to apply the so-called Particle Mesh Ewald (PME) method, which follows the Ewald summation method of calculating the electrostatic energy for a number of charges [27]. It was first devised by Ewald in 1921 to study the energetics of ionic crystals [28]. PME has been widely used for highly polar or charged systems. York and Darden applied the PME method already in 1994 to simulate a crystal of the bovine pancreatic trypsin inhibitor (BPTI) by molecular dynamics [29]. [Pg.369]

They compared the PME method with equivalent simulations based on a 9 A residue-based cutoflF and found that for PME the averaged RMS deviations of the nonhydrogen atoms from the X-ray structure were considerably smaller than in the non-PME case. Also, the atomic fluctuations calculated from the PME dynamics simulation were in close agreement with those derived from the crystallographic temperature factors. In the case of DNA, which is highly charged, the application of PME electrostatics leads to more stable dynamics trajectories with geometries closer to experimental data [30]. A theoretical and numerical comparison of various particle mesh routines has been published by Desemo and Holm [31]. [Pg.369]

Cheatham T E III, J L Miller, T Fox, T A Darden and P A Kollman 1995. Molecular Dynamics Simulations on Solvated Biomolecular Systems The Particle Mesh Ewald Method Leads to Stable Trajectories of DNA, RNA and Proteins. Journal of the American Chemical Society 117 4193-4194. [Pg.365]

Darden T A, L Perera, L Li and L Pedersen 1999. New Tricks for Modelers from the Crystallography Toolkit The Particle Mesh Ewald Algorithm and Its Use in Nucleic Acid Simulations. Structure with Folding and Design 7 R55-R60. [Pg.365]

Desemo M and C Holm 1998a. How to Mesh Up Ewald Sums. I. A Theoretical and Numerical Comparison of Various Particle Mesh Routines. Journal of Chemical Physics 109 7678-7693. [Pg.365]

Luty B A, M E David, I G Tironi and W F van Gunsteren 1994. A Comparison of Particle-Particle, Particle-Mesh and Ewald Methods for Calculating Electrostatics Interactions in Periodic Molecular Systems. Molecular Simulation 14 11-20. [Pg.365]


See other pages where MESH is mentioned: [Pg.47]    [Pg.69]    [Pg.310]    [Pg.214]    [Pg.140]    [Pg.141]    [Pg.271]    [Pg.304]    [Pg.471]    [Pg.2256]    [Pg.2816]    [Pg.12]    [Pg.13]    [Pg.32]    [Pg.178]    [Pg.184]    [Pg.299]    [Pg.311]    [Pg.464]    [Pg.465]    [Pg.485]    [Pg.486]    [Pg.352]    [Pg.353]    [Pg.353]    [Pg.14]    [Pg.17]    [Pg.19]   
See also in sourсe #XX -- [ Pg.232 ]




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Adaptive mesh

Adaptive mesh refinement

Adaptive mesh selection

Adaptive meshing

Anode titanium mesh

Ansys Mesh

Aperture distribution, sieve mesh

Automated meshing software

Automatic mesh generation

Basic (MESH) Equations of Rigorous Distillation

Classifiers vari-mesh

Common methods of mesh generation

Computational mesh partitioning

Computer finite-element mesh

Computer finite-element mesh operation

Corner mesh voltage

Darco 20-40 mesh activated carbon

Deentrainment wire mesh pads

Degradation removal from gas by mesh screen

Demisting mesh

Distillation MESH equations

Dutch micro-mesh sieve plate

Electrode close meshed

Electrode large meshed

Entanglements, mesh size

Entity Meshing

Equilibrium stage model MESH equations

Erosion control meshes

Eulerian mesh

Ewald particle mesh

Example 4-5 Wire Mesh Entrainment Separator

Fe mesh

Fibrin mesh, formation

Fibrous meshes

Filter media woven wire mesh

Fine Mesh Dutch Twill meshes

Finite element analysis geometrical meshing

Finite element method mesh refinement

Finite element methods meshes

Finite-element mesh

Fixed mesh

Flow field design mesh designs

Gas - liquid segregation mesh pads

Gas-liquid separators deentrainers, wire mesh

Gear mesh frequency

Geometry Discretisation and Mesh Generation

Granular activated carbon mesh size

Grid meshes

Herman-Skillman radial mesh

Hot extraction wire mesh filter method

Impingement separators Knitted wire mesh

Independent mesh method

Influence of Mesh Size

Insect mesh

K-point mesh

Large meshed membranes

MESH (Material balance, Equilibrium

MESH (Material balance, Equilibrium equations

MESH (Material balance, Equilibrium. Summation

MESH equations

MESH equations and variables

MeSH terms

Membranes nylon mesh

Membranes, close meshed

Membranes, close meshed thick

Mesh Diamond

Mesh analysis

Mesh and Tetrahedra

Mesh basket

Mesh diagrams

Mesh dynode

Mesh extraction algorithms

Mesh generation

Mesh generation scheme

Mesh heat exchangers

Mesh material

Mesh mesophases

Mesh microcontactor

Mesh microreactor

Mesh pad

Mesh pads allowable velocity

Mesh pads configurations

Mesh pads design velocity

Mesh pads pressure drop

Mesh phases

Mesh points

Mesh prostheses

Mesh range

Mesh reactor

Mesh refinement

Mesh refinement - h- and p-versions of the finite element method

Mesh screen coupons

Mesh size

Mesh size defined

Mesh size distribution

Mesh structure

Mesh structures, surfactants

Mesh superposition

Mesh superposition technique

Mesh support, advantages

Mesh types

Mesh voltage

Mesh, Leather, or Canvas Gloves

Mesh, Reinforcing

Mesh-based electric field

Mesh-on-Lead

Mesh-work

Meshing

Metal meshes

Micro mesh sieve analysis

Micromachined meshes

Midplane mesh

Modification of the Monkhorst-Pack Special-points Meshes

Moving mesh method

Moving meshes

Multicomponent distillation MESH equations

Nanofiber mesh

Negative electrode mesh

Ni mesh

Nickel mesh

Nickel wire meshes

Nitinol mesh

Open-weave meshes

Overlayer unit mesh

Particle Mesh Ewald algorithm

Particle Mesh Ewald method

Particle mesh

Particle mesh Ewald electrostatics

Particle mesh Ewald simulation

Particle-mesh Ewald approach

Particle-mesh Ewald summation

Particle-mesh methods

Particles mesh size

Particles particle mesh method

Periodic finite element mesh

Plain Dutch meshes

Plain Square meshes

Plastic coated metal meshes

Plastic meshes

Polymer mesh

Polysulphone fiber mesh

Porous poly meshes

Positive mesh electrode

Pressure drop wire mesh pads

Processing meshes

Protective mesh

Protein assemblies in bacteria a mesh phase

Pt mesh

Rectangular mesh

Reinforcing wire mesh

Rhombohedral mesh phases

Screen mesh

Screen mesh count

Screen mesh warp direction

Screening mesh size

Screens and meshes

Screens mesh size, effect

Self-expanding metal mesh stent

Semi-dilute solutions mesh size

Semidilute solutions mesh size

Separator wire mesh mist eliminator

Separators wire mesh

Separators, gas-liquid wire mesh

Sieves mesh number

Sieves mesh size

Silk cloth meshes

Sintered wire mesh

Sliding Mesh Model

Sliding mesh

Sliding mesh approach

Smooth particle mesh Ewald

Smoothed particle mesh Ewald

Solution of the MESH Equations

Solving the Mesh Equations

Spatial Meshes

Square mesh

Stainless steel mesh

Strut, Mesh, and Ribbon Phases

Surface mesh

Surgical Mesh

Tantalum wire mesh

Temporal Mesh

Tetrahedral mesh modeling

Textile mesh

The Efficiency Coefficient of a Separator with Mesh Orifices

The MESH Equations

The Moving Deforming Mesh (MDM) Technique

Thick film technology screen meshes

Thomas-Fermi mesh

Ti mesh

Twilled Square meshes

Tyler mesh size

Types of Wire-Mesh Structured Packings

Unit mesh

Vapor-liquid separators Wire mesh

Variational integration mesh

Vibration mesh nebulizers

Volume mesh

Wire Mesh Pad Deentrainers

Wire mesh

Wire mesh deentrainers

Wire mesh deentrainers calculation example

Wire mesh deentrainers disengaging space

Wire mesh deentrainers k-values

Wire mesh deentrainers key dimensions

Wire mesh deentrainers pressure drop

Wire mesh drawings

Wire mesh method/technique

Wire mesh mist eliminator

Wire-Mesh Reactors

Wire-mesh packings

Woven wire mesh

Woven wire mesh dimensions

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