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Phillips

Everett and co-workers [141] describe an improved experimental procedure for obtaining FJ quantities. Some of their data are shown in Fig. XI-10. Note the negative region for n at the lower temperatures. More recent but similar data were obtained by Phillips and Wightman [142]. [Pg.407]

The first reliable energy band theories were based on a powerfiil approximation, call the pseudopotential approximation. Within this approximation, the all-electron potential corresponding to interaction of a valence electron with the iimer, core electrons and the nucleus is replaced by a pseudopotential. The pseudopotential reproduces only the properties of the outer electrons. There are rigorous theorems such as the Phillips-Kleinman cancellation theorem that can be used to justify the pseudopotential model [2, 3, 26]. The Phillips-Kleimnan cancellation theorem states that the orthogonality requirement of the valence states to the core states can be described by an effective repulsive... [Pg.108]

Phillips J C 1989 Physics of High-T Superconductors (Boston Aoademio)... [Pg.134]

Phillips J C 1973 Bands and Bonds in Semiconductors (New York Academic)... [Pg.136]

Cohen-Tannoud]i C N and Phillips W D 1990 New mechanisms for laser cooling Phys. Today 42 33-40... [Pg.281]

O Conner D V and Phillips D 1984 Time-Correlated Single Photon Counting (London Academic)... [Pg.1147]

Bin M, Gaidis M C, Zmuidzinas J and Phillips T G 1997 Quasi-optioal SIS mixers with normal tuning struotures IEEE Trans. Appl. Supercond. 7 3584-8... [Pg.1259]

Phillips T G and Keene J 1992 Submillimeter astronomy Proc. IEEE 80 1662-78... [Pg.1259]

Dharmasena G, Copeland K, Young J H, Lasell R A, Phillips T R, Parker G A and Keil M 1997 Angular dependence for v /-resolved states in F + H2 -> HF(v /) + H reactive scattering using a new atomic beam source J. Rhys. Chem. A101 6429—40... [Pg.2086]

Phillips W D 1998 Laser cooling and trapping of neutral atoms Rev. Mod. Rhys. 70 721... [Pg.2323]

Hagley E W, Deng L, Kozuma M, Wen J, Helmerson K, Rolston S L and Phillips W D 1999 A well-collimated quasi-continuous atom laser Sc/ence 283 1706... [Pg.2323]

Lett P D, Watts R N, Westbrook C I, Phillips W D, Gould P L and Metcalf H J 1988 Gbservation of atoms, laser-cooled belowthe Doppler limit Phys.Rev.Lett. 61 169-72... [Pg.2480]

Gould P L, Lett P D, Julienne P S, Phillips W D, Thorsheim H R and Weiner J 1988 Observation of assooiative ionization of ultraoold laser-trapped sodium atoms Phys.Rev.Lett. 60 788-91... [Pg.2480]

Migdall A L, Prodan J V, Phillips W D, Bergman T H and Metoalf H J 1985 First observation of magnetioally trapped neutral atoms Phys.Rev.Lett. 54 2596-9... [Pg.2480]

Lett P D, Jessen P S, Phillips W D, Rolston S L, Westbrook C I and Gould P L 1991 Laser modifioation of ultraoold oollisions expehment Phys.Rev.Lett. 67 2139-42... [Pg.2481]

Elamrani et al. 1996] Elamrani, S., Berry, M.B., Phillips Jr., G.N., McCammon, J.A. Study of Global Motions in Proteins by Weighted Masses Molecular Dynamics Adenylate Kinase as a Test Case. Proteins 25 (1996) 79-88 [Elcock et al. 1997] Elcock, A.H., Potter, M.J., McCammon, J.A. Application of Poisson-Boltzmann Solvation Forces to Macromolecular Simulations. In Computer Simulation of Biomoleeular Systems, Vol. 3, A.J. Wilkinson et al. eds., ESCOM Science Publishers B.V., Leiden... [Pg.76]

James C. Phillips, Robert Brunner, Aritomo Shinozaki, Milind Bhandarkar, Neal Krawetz, Attila Gursoy, Laxmikant Kale, Robert D. Skeel, and Klaus Schulten... [Pg.472]

Phillips, Brunner, ShinozaJki, Bhandarkar, Gursoy, Kale, Skeel, Schulten... [Pg.474]

The primary developers of NAMD 1 were M. Nelson, W. Humphrey, A. Gursoy, A. Dalke and R. Brunner. The primary developers of NAMD 2 were J. Phillips, A. Shinozaki, R. Brunner, N. Krawetz, M. Bhandarkar and A. Gursoy. NAMD development was performed at the National Institutes of Health Resource for Concurrent Biological Computing under the supervision of principal investigators L.V. Kale, R. Skeel, and K. Schulten. This work was... [Pg.480]

The fifth and final chapter, on Parallel Force Field Evaluation, takes account of the fact that the bulk of CPU time spent in MD simulations is required for evaluation of the force field. In the first paper, BOARD and his coworkers present a comparison of the performance of various parallel implementations of Ewald and multipole summations together with recommendations for their application. The second paper, by Phillips et AL., addresses the special problems associated with the design of parallel MD programs. Conflicting issues that shape the design of such codes are identified and the use of features such as multiple threads and message-driven execution is described. The final paper, by Okunbor Murty, compares three force decomposition techniques (the checkerboard partitioning method. [Pg.499]

Formation of acetaldehyde and metallic Pd by passing ethylene into an aqueous solution of PdCl2 was reported by Phillips in 1894 15] and used for the quantitative analysis of Pd(II)[16], The reaction was highlighted after the industrial process for acetaldehyde production from ethylene based on this reaetion had been developed[l,17,18]. The Wacker process (or reaction) involves the three unit reactions shown. The unique feature in the Wacker process is the invention of the in situ redox system of PdCl2-CuCl2. [Pg.22]


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1-hexene Phillips process

Abelson, Phillip

Active Phillips catalyst

Anderson, Phillip

Basic Chemistry of Phillips Catalysts

Characterization of Polyethylene Produced with the Phillips Catalyst

Chevron Phillips

Chevron Phillips Chemical

Chevron Phillips Chemical Company

Chevron Phillips Chemical Marlex

Chevron Phillips Chemical Ryton

Chromium catalyst, Phillips supported

Chromium catalyst, Phillips supported active sites

Chromium catalyst, Phillips supported modifiers

Chromium catalyst, Phillips supported reduction

Chromium loading, Phillips catalyst

Conoco-Phillips reactor

Coordination polymerization Phillips catalysts

Early History of the Phillips Catalyst

Ethylene Phillips trimerization catalyst

Generalized Phillips-Kleinman Pseudopotential

Generations of Phillips catalysts

Glass, Phillip

Improvements to the Phillips Catalyst

Induction period, Phillips catalysts

Ionicity Phillips

Kenyon-Phillips cycle

Marlex 6003, Phillips

Marlex 6003, Phillips irradiation

Melt crystallization Phillips process

Metathesis Phillips catalyst

Metathesis Phillips process

Metathesis Phillips triolefin process

Molecular models, Phillips chromium

Molecular models, Phillips chromium catalyst

Neohexene via Phillips Triolefin Process

Operation of the Phillips Pilot Plant Pipe-Loop Reactor

PHILLIPS Terms Links

PHILLIPS, G. O., Radiation Chemistry

Panofsky-Phillips equations

Phillip L. Blevin

Phillip, Arthur

Phillips 2 Alkanes

Phillips 66 incident

Phillips Butadiene rubber

Phillips Catalyst Systems

Phillips Chemical Company

Phillips Christopher

Phillips Cr/silica catalyst

Phillips Dilatation

Phillips Duphar

Phillips Esters

Phillips Halides

Phillips Insoluble

Phillips Oxides

Phillips Particle Form Process

Phillips Pasadena

Phillips Petroleum

Phillips Petroleum Company

Phillips Petroleum oxide catalyst

Phillips Phenolic

Phillips Philprene

Phillips Phosgene

Phillips Phosphoric acid

Phillips Phosphorylation

Phillips Photosynthesis

Phillips Phthalate

Phillips Physical properties

Phillips Pilot PlantVertical Pipe-Loop Reactor Design

Phillips Plant part

Phillips Plasma

Phillips Plastic

Phillips Plasticizer

Phillips Soluble

Phillips Sulfides

Phillips Trichloride

Phillips Triolefin Process

Phillips Triolefin Process alkene metathesis

Phillips Trivalent

Phillips accident

Phillips catalysis

Phillips catalyst

Phillips catalyst, polyolefin manufacture

Phillips catalysts industrial processes

Phillips catalysts, activation

Phillips catalysts, activation molecular models

Phillips chromium catalysts

Phillips chromium catalysts ethylene polymerization

Phillips chromium/silica polymerization catalyst

Phillips equation

Phillips explosion

Phillips head screwdriver

Phillips initiator

Phillips laboratory

Phillips method

Phillips olefin disproportionations

Phillips optimized cascade process

Phillips polyethylene catalysts catalyst activation

Phillips polyethylene catalysts development

Phillips polyethylene catalysts discovery

Phillips polyethylene catalysts operation

Phillips polymers

Phillips process

Phillips process discovery

Phillips reaction

Phillips screwdriver

Phillips, David

Phillips, Derek

Phillips, Frank

Phillips, G. O., Photochemistry of Carbohydrates

Phillips, G. O„ Photochemistry

Phillips, Graham

Phillips, John

Phillips, Leslie

Phillips, Mike

Phillips, Norman

Phillips, Peregrine

Phillips, Raymond

Phillips, Stephen

Phillips, William

Phillips-Kleinman Pseudopotential

Phillips-Kleinman approach

Phillips-Kleinman approximation

Phillips-Kleinman method

Phillips-Kleinman operator

Phillips-Kleinman transformation

Phillips-Reaktion

Phillips-Twomey method

Phillips’ STAR process

Poly Phillips process

Polyethylene Phillips catalysts

Polyethylene Phillips petroleum

Polyethylene patent, Phillips catalyst

Polymerisation Phillips process

Polymerisation with Phillips Catalysts

Polymerization Phillips catalyst

Polyphenylene Sulfides—Phillips Chemical

Preparation of the Phillips Catalyst

Review Articles for the Phillips Catalyst

Sharp, Phillip

Silica surface, Phillips catalyst activity

Spectroscopic investigations, Phillips

Sulphuric acid Phillips

The Phillips 66 Incident Tragedy in Pasadena, Texas

The Phillips process

The Phillips triolefin process

Unique Features of the Phillips Catalyst

Various Resins and Metals—Phillips Chemical

Walter, Phillipe

Ziegler-Natta, Phillips, and Vanadium Catalysts

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