High-pressure chemistry

Troe J 1978 Kinetic phenomena in gases at high pressure High Pressure Chemistry e6 H Keim (Amsterdam Reidei) pp 489-520... 

Drickamer H G and Frank C W 1973 Eiectronic Transitions and the High-Pressure Chemistry and Physics of Soiids (London Chapman and Hall)... 

Poiian A, Loubeyre P and Boccara N (eds) 1989 Simple Molecular Systems at Very High Density (New York Pienum) Winter R and Jonas J (eds) 1993 High Pressure Chemistry, Biochemistry and Materials Science (Dordrecht Kiuwer) Proceedings of the annuai conference of the European High Pressure Research Group, the most recent of which is ... 

R. van Eldik, ed.. Inorganic High Pressure Chemistry, Elsevier, Amsterdam, The Netherlands, 1986. High pressure coordination kinetics including solvent exchange, octahedral and four-coordinate substitution, electron transfer, photochemical, and bioinorganics are discussed. 

Drickamer HG, Frank CW (1973) Electronic transitions and the high pressure chemistry and physics of solids. Chapman and Hall, London... 

In 1918, Haber won the Nobel Prize in Chemistry for his method of making ammonia from its elements. Bosch won the same prize in 1931 for his development of high-pressure chemistry techniques. Ammonia is still the main source of nitrogen in fertilizers today. 

For general overview about the concept, see (a) L. F. Tietze, P. L Steck, High Pressure in Organic Synthesis. Influence on Selectivity, in High Pressure Chemistry, (Eds. R. van Eldik, F.-G. Klamer), Wiley-VCH, Weinheim 2002, pp. 239-283 (b)... 

For several years M. Delmotte et al. have designed a microwave reactor for high pressure chemistry [63]. The microwave applicator and reactor are identical in order to accommodate the mechanical constraints induced by high pressure within liquids. This is the main interest of this device. The metallic cylindrical pipe is simultaneously a waveguide and the reactor. The device is described by Fig. 1.15. 

W. J. le Noble (Ed.), Organic High Pressure Chemistry, Elsevier, Amsterdam, 1988. 

High Pressure Chemistry - Synthetic, Mechanistic, and Supercritical Applications , Eds. van Eldik, R. Klarner, F.-G. Wiley-VCH Weinheim, 2002. 

For my first volume as Editor, I have invited Professor Colin D. Hubbard (University of Erlangen-Niirnberg, Erlangen, Germany and University of New Hampshire, Durham, NH, USA) as co-editor. Professor Hubbard studied chemistry at the University of Sheffield, and obtained his PhD with Ralph G. Wilkins. Following post-doctoral work at MIT, Cornell University and University of California in Berkeley, he joined the academic staff of the University of New Hampshire, Durham, where he became Professor of Chemistry in 1979. His interests cover the areas of high-pressure chemistry, electron transfer reactions, proton tunnelling and enzyme catalysis. 

High pressure cell, two-window, 13 418 High pressure chemistry, 13 402-455 apparatus, techniques, and methods in, 13 410—436... 

Proportionality constant (k), in high pressure chemistry, 13 406 Proportional-only controller, 20 693 Proportional plus integral feedback controllers, 20 692... 

Heremans, K. (1978). In High Pressure Chemistry (H. Kelm, ed.), p. 467. Reidel Publ., Dordrecht, Netherlands. 

High-pressure chemistry, although only a section of high-pressure science, has also been greatly developed in the last few decades, and the purpose of the present work is to illustrate and discuss the basic effects produced by ultrahigh pressures on chemical reactions. A classification of the processes occurring in materials subjected to high pressure has been proposed by Drickamer [11] and is... 

From the high-pressure chemistry point of view, much more important is the possibility to heat, under controlled conditions, the compressed samples. Two main techniques are used for performing high-pressure and high-temperamre experiments the resistive heating and the laser heating. 

N. S. Isaacs, Liquid Phase High Pressure Chemistry, Wiley, Chichester, 1981. 

H. G. Drickamer, in High Pressure Chemistry, Biochemistry and Materials Science, R. Winter and J. Jonas, eds., Kluwer Academic Publishers, Dordrecht, 1993, pp. 67-77. 

Fig. 2.13 Effect of pressure on solvent exchange with M(H20) +, M = V, Mn, Fe, Co and Ni. Reprinted with permission from Y. Duccomun, A. E. Merbach, Inorganic High Pressure Chemistry. (R. van Eldik ed.). Elsevier, Amsterdam, 1986.

Fig. 4.1 Rate constants (s ) for water exchange of metal cations, measured directly by nmr or estimated from the rate constants for complex formation. Reproduced with permission from Y. Ducommun and A. E. Merbach in Inorganic High Pressure Chemistry (R. von Eldik Ed), Elsevier, Amsterdam, 1986. ---- nmr i-----1 complex formation...

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