what are the best unit operations & reactor design books for a Chemical engineering Bsc student?
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For unit ops, McCabe, Smith, And Harriott is a good book.  It talks about everything from sizing mixing tanks to distillation column design to pumps and piping.  We used MS&H for probably 3-4 different classes as an undergrad.  On the reactions side, I liked the Fogler book.
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go to inorganic industral chemistry book
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Try the following :\n\nLarsen & Tubro\nBechtel Engineering\nBharat Heavy Eelectrcal Engineering & its branches\nSNC Lavalin\nFoster & Wheeler\nMW Kellog etc.\nEnerpac
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International Directory of Chemical Engineering URLs\nhttp://www.ciw.uni-karlsruhe.de/chem-eng.html
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I got my Ch.E. this last May and I remember having trouble with Heat and Mass Transfer.  I was lucky enough to have a REALLY good professor who could teach anything to anyone!  The book we used was Incropera & Dewitt "Fundementals of Heat and Mass Transfer".  I thought it was a pretty good book.  You may be able to find it around.\n\nYou could also try getting help from upperclassmen.  At the school I went to (Minnesota Duluth) there was a lot of cooperation between students.\n\nI don't think there are any websites that would clearly and thoroughly explain this subject to you.  An entire semester ins't even enough to fully understand it!
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http://www.chembio.uoguelph.ca/educmat/Chm258/enzplots.htm\n\nsee if that site helps any.  If not.  I can give you a very confused book answer from my Biochemical Calculations text.  It might be hard to explain online though, sorry.  The text I use (as a graduate student--biotechnology) is Biochemical Calculation 2nd Ed. by Irwin H. Segel, it's a great book.
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http://www.bbc.co.uk/schools/gcsebitesize/chemistry/chemicalreactions/0acidsbasesrev2.shtml
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Chemical engineering is the application of science, in particular chemistry, physics and mathematics, to the process of converting raw materials or chemicals into more useful or valuable forms.\n\nChemical Engineering largely involves the design and maintenance of chemical processes for large-scale manufacture. Chemical engineers in this branch are usually employed under the title of process engineer. Following is an example that illustrates the process engineering part of chemical engineering:\n\n    The difference between chemical engineering and chemistry can be illustrated by considering the example of producing orange juice. A chemist working in the laboratory investigates and discovers a multitude of pathways to extract the juice of an orange. The simplest mechanism found is to cut the orange in half and squeeze the orange using a manual juicer. A more complicated approach found is to peel and then crush the orange and collect the juice. A company then commissions a chemical engineer to design a plant to manufacture several thousand tons of orange juice per year. The chemical engineer investigates all the available methods for making orange juice and evaluates them according to their economical viability. Even though the manual juicing method is simple, it is not economical to employ thousands of people to manually juice oranges. Thus another, cheaper method is used (possibly the 'peel and crush' technique). The easiest method of manufacture on a laboratory bench will not necessarily be the most economical method for a manufacturing plant.\n\nChemical engineers are aiming for the most economical process. This means that the entire production chain must be planned and controlled for costs. A chemical engineer can both simplify and complify "showcase" reactions for an economic advantage. Using a higher pressure or temperature makes several reactions easier; ammonia, for example, is simply produced from its component elements in a high-pressure reactor. On the other hand, reactions with a low yield can be recycled continuously, which would be complex, arduous work if done by hand in the laboratory. It is not unusual to build 6-, or even 12-step evaporators to reuse the vaporization energy for an economic advantage. In contrast, a laboratory chemists evaporate samples in a single step, wasting the energy.\n\nThe individual processes used by chemical engineers (eg. distillation or filtration) are called unit operations and consist of chemical reaction, mass-, heat- and momentum- transfer operations. Unit operations are grouped together in various configurations for the purpose of chemical synthesis and/or chemical separation. Some processes are a combination of intertwined transport and separation unit operations, (e.g. reactive distillation).\n\nThree primary physical laws underlying chemical engineering design are Conservation of mass, Conservation of momentum and Conservation of energy. The movement of mass and energy around a chemical process are evaluated using Mass balances and energy balances which apply these laws to whole plants, unit operations or discrete parts of equipment. In doing so, Chemical Engineers use principles of thermodynamics, reaction kinetics and transport phenomena. The task of performing these balances is now aided by process simulators, which are complex software models (such as Pro II and Hysys) that can solve mass and energy balances and usually have built-in modules to simulate a variety of common unit operations.\n\nThe modern discipline of chemical engineering encompasses much more than just process engineering. Chemical engineers are now engaged in the development and production of a diverse range of products, as well as in commodity and specialty chemicals. These products include high performance materials needed for aerospace, automotive, biomedical, electronic, environmental and military applications. Examples include ultra-strong fibers, fabrics, adhesives and composite
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There's a couple that I consider necessary for survival.  One is:\n\nRollinson, H., 1993, Using Geochemical Data: Evaluation, Presentation, Interpretation; Pearson/Prentice Hall\n\nIt's a geochemistry book, but a PRACTICAL one.  It helped me get through my undergrad, and I'm using it again right now!\n\nThe "bible" for mineralogy is:\n\nNesse, W.D., 1991, Introduction to Optical Mineralogy, Second Edition; Oxford University Press\n\nIt's pretty much the standard, and still the best.  There are a couple different edtions.  I prefer the 2nd one to the third edtion.\n\nAlso, for petrography, get your hands on all the mineral atlases you can.  They are indespensible.\n\nWatch out though - buying geology references books can be addictive!  Have fun :)
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try this one\n\nValve Selection Handbook, Fifth Edition : Engineering Fundamentals for Selecting the Right Valve Design for Every Industrial Flow Application (Hardcover)\nby Peter Smith, R. W. Zappe \n\nhttp://www.amazon.com/gp/product/0750677171/sr=8-2/qid=1149712777/ref=sr_1_2/102-7470698-5004951?%5Fencoding=UTF8
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Order from amizon.com a college level general chemistry study guide, used ones are usually cheap.\n\nA really well written one is by Kenneth W. Watkins:\n\nStudy Guide to accompany \n\nRaymond Chang Chemistry Fifth edition.
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Refer with 10th class chemistry book.
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yeah you can try out pearson's Mcmurry fay's CD.\nor morrison boyd organic chemistry (book)\nOr wiley organic chemistry.
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Check those out :\n\nhttp://www.cpgec.ufrgs.br/norie/iglc10/papers/62-O'BrienEtAl.pdf\n\nhttp://www.ce.berkeley.edu/~tommelein/CEMworkshop/OBrien.pdf
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http://lab.lpicn.org/pub/books/
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http://www.iupac.org/index_to.html\nIs a pretty handy resource.\nhttp://www.che.ufl.edu/www-che/\nI seem to recall being very useful as well.\nLet me know if these help.
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Consider ordering a Chemistry magazine from your local University or nearby University. ChemCorner usually has lots of information about current research etc.