Bass

TBTS 1 very low sulfur content (/res basse teneur ... 

Amyx, Bass Whiting, (1960), Petroleum Reservoir Engineering - Physical Properties, McGraw-Hill... 

Chesnavich W J, Bass L, Su T and Bowers M T 1981 Multiple transition states in unimolecular reactions a transition state switching model. Application to C Hg" J. Chem. Rhys. 74 2228—46... 

Unlike catfish, tilapia, trout and salmon, that produce several hundred to several thousand eggs per female, many marine species produce large numbers of very small eggs. Hundreds of thousands to millions of eggs are produced by such species as haUbut, flounders, red dmm, striped bass, and shrimp. Catfish, salmon, and trout spawn once a year, while tilapia and some marine species spawn repeatedly if the proper environmental conditions are maintained (1). Red dmm, for example, spawn every few days for periods of several months when light and temperature and properly controlled (10). 

Environmental Impact of Ambient Ozone. Ozone can be toxic to plants, animals, and fish. The lethal dose, LD q, for albino mice is 3.8 ppmv for a 4-h exposure (156) the 96-h LC q for striped bass, channel catfish, and rainbow trout is 80, 30, and 9.3 ppb, respectively. Small, natural, and anthropogenic atmospheric ozone concentrations can increase the weathering and aging of materials such as plastics, paint, textiles, and mbber. For example, mbber is degraded by reaction of ozone with carbon—carbon double bonds of the mbber polymer, requiring the addition of aromatic amines as ozone scavengers (see Antioxidants Antiozonants). An ozone decomposing polymer (noXon) has been developed that destroys ozone in air or water (157). 

Intensive or extensive culture of aquatic animals requires chemicals that control disease, enhance the growth of cultured species, reduce handling trauma to organisms, improve water quality, disinfect water, and control aquatic vegetation, predaceous insects, or other nuisance organisms. The aquacultural chemical need for various species have been described for rainbow trout, Oncorhjnchus mjkiss (1) Adantic and Pacific salmon, Salmo and Oncorhjnchus sp. (2) channel catfish, Ictaluruspunctatus (3) striped bass, Morone saxatilis (4) milkfish, Chanos chanos (5) moUusks (6) penaeid (Penaeus sp.) shrimp (7) and a variety of other marine species (8). 

J. P. McCraren, The Hquaculture of Striped Bass Sea Grant PubHcation No. UM-SG-MAP-84-01, University of Maryland, College Park, Md., 1984. 

The energy laws of Bond, Kick, and Rittinger relate to grinding from some average feed size to some product size but do not take into account the behavior of different sizes of particles in the mill. Computer simulation, based on population-balance models [Bass, Z. Angew. Math. Phys., 5(4), 283 (1954)], traces the breakage of each size of particle as a function of grinding time. Furthermore, the simu-... 

The Schiff basses derived from salicylaldehydes polydentate ligands ai e known to form very stable complexes with transition metal ions [1]. 

Figure 4.29. Sample assembly for optical shock temperature measurements. The sample consists of a metal film deposited on a transparent substrate which serves as both an anvil and a transparent window through which thermal radiation is emitted. Rapid compression of gases and surface irregularities at the interface between the sample film and the driver produce very high temperatures in this region. The bottom portion of the figure illustrates the thermal distribution across through the assembly. (After Bass et al. (1987).)...

Figure 4.31. A comparison of the results from shock temperature measurements on Fe. Hatchured area for Fe melting is defined by the results of Bass et al. (1987), Williams et al. (1987), and the theoretical calculations of McQueen et al. (1970) predict that the shock temperatures of solid stainless steel are lower than for pure, solid iron, as observed.

Bass, J.D., Svendsen, B., and Ahrens, T.J., (1987), The Temperatures of Shock-Compressed Iron, in High Pressure Research in Mineral Physics (edited by Mang-hnani M. and Y. Syono), Terra Scientific, Tokyo, pp. 393-402. 

Strimaitis, D., Hoffnagle, G., and Bass, A., "On-Site Meteorological Instmmentation Requirements to Characterize Diffusion from Point Sources—Workshop Report," EPA-6(X)/9-81-020. U.S. Environmental Protection Agency, Research Triangle Park, NC, 1981. 

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