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Use of enzymes in industry
Enzymes for analytical uses
Use of enzymes in industry
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The Uses of Enzymes In Industry, Medicine and Analytical and Diagnostic Processes Enzymes are very precise protein molecules with a high specificity which are used to catalyse chemical reactions by lowering the activation energy required for the reaction to take place. It is these properties of being able to break down substances easily and bind specifically to certain chemicals that make enzymes very useful in many industries and practices throughout the world. In addition to this enzymes are not used up in experiments so products of processes are not contaminated with enzyme which could be a problem. This essay explains 3 uses of enzymes, in industry and food, diagnosing and analysing, and treating disease, explaining the function and advantages of enzyme use in each example. In industry enzymes are used for many processes such as brewing beer, baking bread, using pectinase to increase juice in fruit juice drinks and protease enzymes in washing detergents. Another example of the use of enzymes in industry is animal feeding. Many monogastric species such as poultry are fed food with enzymes added which break down substances in the food which the species body cannot digest. Many foodstuffs for farm animals such as wheat, rye, barley and oats contain non-starch polysaccharides (NSPs) which are an example of ANFs (anti-nutritional factors). They cannot be broken down by the monogastric species so the substance would build up in the body and cause digestive problems leading to other enzymes not being able to function properly. In addition to this NSPs are soluble and so can dissolve in the body but this increases viscosity in the g... ... middle of paper ... ...1. www.enzymes.co.uk, Enzyme Services & Consultancy, 1999. Sheehan, N & Cole, C J. (accessed 28/01/03) 2. www.aginfonet.com/aglibrary/content/feed_news/feed_notes.html, 2000. (accessed 28/01/03) 3. htttp://.xtramsn.co.nz/health, Microsoft Corporation, 2001. (accessed 28/01/03) 4. www.cc.nih.gov/drd/sp/t-theropy.html, National Institutes of Health, 2002. (accessed 28/01/03) 5. Toole, G and Toole, S. Understanding Biology for Advanced Level (3rd Ed), Stanley Thomas Publishing, 1995. (accessed 28/01/03) 6. Toole, G and Toole, S. Essential AS Biology, Nelson Thornes Ltd, 2002. (accessed 28/01/03) 7. Roberts, M, Reiss, M and Manger, G. Advanced Biology, Nelson Ltd, 2000 (accessed 28/01/03) 8. Biological Sciences Review, Volume 13, No.3, January 2001. 'Enzymes & Animal Feeds', Pg 21, Novo Nordish.
Living organisms undergo chemical reactions with the help of unique proteins known as enzymes. Enzymes significantly assist in these processes by accelerating the rate of reaction in order to maintain life in the organism. Without enzymes, an organism would not be able to survive as long, because its chemical reactions would be too slow to prolong life. The properties and functions of enzymes during chemical reactions can help analyze the activity of the specific enzyme catalase, which can be found in bovine liver and yeast. Our hypothesis regarding enzyme activity is that the aspects of biology and environmental factors contribute to the different enzyme activities between bovine liver and yeast.
Catalase is a common enzyme that is produced in all living organisms. All living organisms are made up of cells and within the cells, enzymes function to increase the rate of chemical reactions. Enzymes function to create the same reactions using a lower amount of energy. The reactions of catalase play an important role to life, for example, it breaks down hydrogen peroxide into oxygen and water. Our group developed an experiment to test the rate of reaction of catalase in whole carrots and pinto beans with various concentrations of hydrogen peroxide. Almost all enzymes are proteins and proteins are made up of amino acids. The areas within an enzyme speed up the chemical reactions which are known as the active sites, and are also where the
Enzymes are biological catalysts, which are proteins that help speed up chemical reactions. Enzymes use reactants, known as the substrates, and are converted into products. Through this chemical reaction, the enzyme itself is not consumed and can be used over and over again for future chemical reactions, but with the same substrate and product formed. Enzymes usually only convert specific substrates into products. Substrates bind to the region of an enzyme called the active site to form the enzyme/substrate complex. Then this becomes the enzyme/products complex, and then the products leave the enzyme. The activity of enzymes can be altered based on a couple of factors. Factors include pH, temperature and others. These factors, if they become
3 Leicht B. G., McAllister B.F. 2014. Foundations of Biology 1411, 2nd edition. Southlake, TX: Fountainhead Press. Pp 137, 163-168, 177-180,
Purpose: The purpose of this lab is to explore the different factors which effect enzyme activity and the rates of reaction, such as particle size and temperature.
== Amylase is an enzyme found in our bodies, which digest starch into
Audesirk, Teresa, Gerald Audesirk, and Bruce E. Byers. Biology: Life on Earth with Physiology. Upper Saddle River, NJ: Pearson Education, 2011. 268-69. Print.
Michener, William K. and Haeuber, Richard A., Bioscience. American Institute of Biological Science. Sep98. Vol. 48. Issue 9. p677.
The Advantages and Disadvantages of Using Enzymes in Medicine and Industry What is an enzyme? = == ==
middle of paper ... ... World Book Inc, 2000. Davis, Lloyd S. and John T Darby. Penguin Biology. San Diego: Academic Press, Inc., 1990.
... The Web. 4 Feb. 2014. Campbell, Neil A., and Jane B. Reece. Biology.
www.newton.dep.anl.gov/askasci/bio99/bio99395.htm. www.bmb.leeds.ac.uk/tpdg/hglobin.htm. Books: Title: Biology, Author: Indge/Rowland/Baker, Publisher: Hodder & Co. Stoughton Title: Human Biology, Author: G.D. Chalk/G.P.J. Baster, Publisher: E.
Without enzymes, reactions wouldn’t occur and living organisms would die. For instance, the enzyme in the stomach breaks down large molecules to smaller molecules to absorb nutrition faster. Researchers experimented with enzyme activity with a potato extract. Researchers will test enzyme activity by increasing and decreasing pH levels, lowering and increasing temperature, and substrate concentration effects. In the first experiment, researchers hypothesized whether different pH levels would change how much Benzoquinone are created and how will the enzymes function in neutral pH levels than higher and lower levels. Researchers used potato extract and different levels of pH to test their hypothesis. In addition, researchers questioned at what temperature does the greatest amount of potato extract enzyme activity take place in. Researchers then hypothesized that the results would indicate the greatest amount of potato enzyme activity level will take place in room temperature. In this experiment, researchers used potato extract and different temperature levels to test the hypothesis. Moreover, researchers wanted to test the color intensity scale and how specific catechol oxidase is for catechol. In this experiment, researchers used dH2O, catechol solution, hydroquinone, and potato extract. Lastly, researchers tested the substrate concentration and how it has an effect on enzyme activity. In this experiment researchers used different measurements of catechol and 1cm of potato extract. Researchers hypothesized that the increase o substrate would level out the enzyme activity
and the “ability of enzymes to catalyse specific chemical reactions at body temperature makes them useful tools in the commercial world,” (7). This is because less energy is required which means they are relatively cheap. Enzymes are used in medicine in a variety of ways. I will look at some of the main ways in which enzymes are used. The process of genetic engineering involves the use of many enzymes in cutting, modifying and joining the DNA.
Campbell, N. A. & J. B. Reece, 8th eds. (2008). Biology. San Francisco: Pearson Benjamin Cummings.