Green evolution

Nishio, J.N., Why are higher plants green Evolution of the higher plant photosynthetic pigment complement, Plant Cell Environ., 23, 539, 2000. 

Figure 7.3. The evolution of electronics a vacuum tube, a discrete transistor in its protective package, and a 150 nun (diameter) silicon wafer patterned w ith hundreds of integrated circuit chips. Each chip, about I enr in area, contains over one million transistors, 0..35 pm in size (courtesy M.L. Green, Bell Laboratories/Lucent Technologies).

The name Propagator, also known as a Greens function, arises from a time-dependent evolution of a given quantity. For two time-dependent operators P(t) and Q(f), a propagator may be defined as... 

Although, just as for Conway s Life rule, static displays simply cannot do justice to the dynamical patterns that (unerge in the course of a typical vant evolution, figures 11.8 and 11.9 show a few snapshot views. Note that, in both figures, the lattice initially contains only yfsllow food and a site is colored black whenever it contains either green food or a vant of either color. 

Heating the white reaction product to 140 C for one hour in vacuum caused a visible iodine evolution and approximately 40% weight loss. No further weight loss was observed up to 250°C. The gaseous products from the pyrolysis were not collected. The green product from pyrolysis analyzed Pu, 43 3% I, 50 2% C, 4.9 1%. The empirical formula PuI2C2H3 has the calculated composition Pu, 45.88% I, 48.75% C, 4.79%. 

Fig. 2. Effects of light intensity and quality, and cell concentration on the volumetric oxygen evolution rate by algal photosynthesis. Li t types and cell concentration used ( ) simulated daylight and 0.215 g L" (A) simulated daylight and 0.123 g L (A) red light and 0.123 g L" and (o) green light and 0.123 g V. ...

Nonequilibrium statistical mechanics Green-Kubo theory, 43-44 microstate transitions, 44-51 adiabatic evolution, 44—46 forward and reverse transitions, 47-51 stationary steady-state probability, 47 stochastic transition, 464-7 steady-state probability distribution, 39—43 Nonequilibrium thermodynamics second law of basic principles, 2-3 future research issues, 81-84 heat flow ... 

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