what is organinc growth  / inorganic growth  in banking field?
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in all the organisations, organic growth is growth thru growing business over the existing one. inorganic growth is by taking over another company and becoming bigger organisation by adding its business to own business.
1005644
Theoretically one can grow as big monocryistals as he have material...\nBut I am not sure that it is possible in practice...\n\nand besides, it would cost too much, and today, no one really needs such a big Crystal (they use big ones in lasers, but not 30ft. ones).\n\nyou can have some molecular physics book to see the technology, which is based on a principle, that in certain circumstances the atoms of Crystal get oriented, and if you have those circumstances (temperature, humidity, pressure etc.) you will have  a monocrystals
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What is an organigram?
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future looks promising for the banking sector.
876010
all kinds of organi materials
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Try Wikipedia.org...Qualitative inorganic analysis. I was just there.
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Bob Langer and his colleague Joseph Vacanti pioneered this process- growing human tissues in the lab. Back in 1987\n\nit was done at the laboratory of University of Massachusetts .
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You may visit the website of ICICI Bank for NRI Banking, the link of which is given below:\nhttp://icicibank.com/Pfsuser/icicibank/ibank-nri/nrinewversion/home_nri.htm
1050315
It depends on what sort of microorganisms you wish to grow.  If you'd like protists, just go to any local pond, take a sample of the water and you'll have an instant microcosm.  If you're specifically interested in bacteria or fungi- all you really need to do is leave out some moist, fatty nutrient-rich substance (like milk) and soon enough mold spores (mold is a fungus, by the way) in the air will settle and grow, as will bacteria.  (It's important to note that there is no such thing as "spontaneous generation" - These microorganisms will grow from air-borne spores or spores that are already present in the container / within the substance you grow them.  They don't just simply generate from nothing.)
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concentric diversification - adding new, but related products or services\nconglomerate diversification - adding new, unrelated products or services\nhorizontal diversification - adding new, unrelated products for present customers
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small number of large banks. now a days automation is given importance. hence state bank of india is contemplating to merge with associated banks. like that several banks are planning merge.hence small number of large banks are preferred.
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You have lots of BPOs coming up in India with financial sector, You have like accounts payable, accounts receivable, transaction process, collections, Analysis. And the minimum qualification is Graduation and not post graduation
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Crystal growth can occur at about any speed, but if you want a regular single crystal, the slower it grows the less likely are defects. Sudden growth leads to snowflake-like dendrition. Certain minerals like e.g. diamond require some time and extreme conditions to crystallize.\n\nWindows for IR purposes can be either defined minerals or glasses. While glasses are formed by undercooling melts, for some mixtures that might take longer.
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"Watch Your Money Grow!"
490037
I am working on this problem without knowing if you even still need this info. But it is interesting. It seems the most important inorganic nutrient is sunlight!\n\nHere's a quote:\n\nAutotrophs absorb sunlight energy and transfer inorganic mineral nutrients into organic molecules. The autotrophs of the marine environment include algae and flowering plants and in the deep sea are chemosynthetic bacteria that harness inorganic chemical energy to build organic matter...AUTOTROPHIC NUTRITION..supply food molecules to organisms that can't absorb sunlight.\n\nfrom:http://darter.ocps.net/classroom/klenk/Ecology.htm\n\nHere's another link relative to the subject, I think:\nhttp://pubmedcentral.com/articlerender.fcgi?artid=18283\n\nThe oceanic distribution of cadmium follows closely that of major algal nutrients such as phosphate. The reasons for this “nutrient-like” distribution are unclear, however, because cadmium is not generally believed to have a biological function. Herein, we provide evidence of a biological role for Cd in the marine diatom Thalassiosira weissflogii under conditions of low zinc, typical of the marine environment. Addition of Cd to Zn-limited cultures enhances the growth rate of T. weissflogii, particularly at low pCO2. This increase in growth rate is reflected in increased levels of cellular carbonic anhydrase (CA) activity, although the levels of TWCA1, the major intracellular Zn-requiring isoform of CA in T. weissflogii, remain low. 109Cd label comigrates with a protein band that shows CA activity and is distinct from TWCA1 on native PAGE of radiolabeled T. weissflogii cell lysates. The levels of the Cd protein are modulated by CO2 in a manner that is consistent with a role for this enzyme in carbon acquisition. Purification of the CA-active fraction leads to the isolation of a Cd-containing protein of 43 kDa. It is now clear that T. weissflogii expresses a Cd-specific CA, which, particularly under conditions of Zn limitation, can replace the Zn enzyme TWCA1 in its carbon-concentrating mechanism.\n\nMarine microorganisms are largely responsible for the cycling, and therefore the distribution, of many nutrients in the sea, and it is the availability of these nutrients that, in turn, controls oceanic primary production. This relationship is as true of essential trace elements as it is of major nutrients. In oceanic systems, the water column distribution of many biologically important trace metals is thus similar to that of the major nutrients: phosphate, nitrate, and silicate. At the surface, where photosynthetic activity depletes algal nutrients, such metals are present at extremely low concentrations, presumably as the result of biological uptake. Like those of major nutrients, these metal concentrations increase at depth because of decomposition of organic matter and remineralization.\n\nZinc, which has many known biological functions (1), is a good example of a metal that follows this type of nutrient-like profile. Cadmium, however, which is generally thought to be universally deleterious to living organisms, also has a nutrient-like profile (2); its concentration is so well correlated to that of phosphate that the accumulation of Cd in the fossilized tests of marine invertebrates is used as a measure of past nutrient concentrations in the sea (3). In the absence of a demonstrated biological function for Cd, it has been widely thought that abiotic processes, such as adsorption onto organic particles, modulate the distribution of this metal. Recently, it has been proposed that the depletion of Cd from surface seawater is caused by its use by marine phytoplankton (4). Under conditions of Zn limitation, Cd enhances the growth rate of some marine phytoplankton in culture (4–6), and it thus seems that Cd may replace Zn in some essential biochemical function.\n\nIn Thalassiosira weissflogii, the enzyme carbonic anhydrase (CA) constitutes a major use of cellular Zn (7), and the expression of TWC
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Growth and change in their bodies
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http://kidshealth.org/parent/growth/growing/childs_growth.html\n\nthis page has all you know about baby growth. good luck.\n=)