Publish Your Research Online
Get Recognition - International Audience
Request for an Author Account | Login | Submit Article
|HOME||FAQ||TOP AUTHORS||FORUMS||PUBLISH ARTICLE|
Environmental Biotechnology: Role and ScopeBY: Dilruba Peya | Category: Environmental-Biotechnology | Submitted: 2013-03-15 11:50:25
Article Summary: "While pharmaceutical biotechnology signifies the stunning end of market, environmental uses are particularly more in Cinderella mould. The causes for this are quite obvious. The prospect of a treatment for the many conditions and diseases presently assured by gene therapy and several biotech-oriented medical miracles can possibl.."
While pharmaceutical biotechnology signifies the stunning end of market, environmental uses are particularly more in Cinderella mould. The causes for this are quite obvious. The prospect of a treatment for the many conditions and diseases presently assured by gene therapy and several biotech-oriented medical miracles can possibly touch all of us. Our lives may, quite accurately, be altered.
Environmental biotechnology deal with much less dramatic matters and, though their significance, albeit different, may be each bit as great, direct relevance of these is far less readily welcomed by the mass population. Cleaning up pollution and dealing reasonably with garbage is, of course, in everyone's best concerns, but for the majority of people, this is basically addressing an issue that they would fairly have not existed in first place. Even for the industry, though the advantages may be visible on the balance paper, the likes of pollution control or waste matter treatment are more of an unavoidable obligation than a principal objective in themselves. Generally, such activities are typically sponsored on a distinctly limited fund and have conventionally been observed as an essential inconvenience. This is in no means proposed to be disparaging to the industry; it simply signifies commercial truth.
In various respects, there is a reasonable fit between this belief and the goals of environmental biotechnology. The media circus adjacent the grand queries of our time, it is simple to forget which not all sorts of biotechnology involve genetic modification, xenotransplantation, cloning or the use of stem cells. Some of the probably most valuable applications of biological engineering technology, and that may touch the lives of most people, however ultimately, involve much easier approaches. Less showy and radical, certainly, but dominant tools, just are equivalent.
Environmental biotechnology is basically rooted in garbage, in its different guises, usually being concerned with remediation of pollution caused by earlier use, the control of pollution or the impact removal of present activity. Thus, the main goals of this subject are the production of products in environmentally sustainable ways, which permit for the minimization of dangerous gaseous, liquids or solids wastes or clean-up of the residual consequences of earlier human activity.
The methods by which it may be attained are basically two-fold. Environmental biotechnologists may optimize or enhance situations for existing biological processes to make their activities occur more efficiently or faster, or they resort to several form of variation to produce the preferred result. The diversity of organisms that may play a role in environmental uses of biotechnology is great, varying from microbes to big trees and all are used on single of the same three basic bases - accept, alter or acclimatize. For the most cases, it is the previous approach, accepting and making utilize of surviving species in their unmodified, natural form, which predominates.
There are three main points for the interventions of environmental biotechnology, namely in the manufacturing method, pollution control or waste management.
According to the range of businesses to that environmental biotechnology has possible relevance is nearly limitless. One branch where this is most noticeable is regarding to waste. All commercial activities produce waste of one type or another and for various, a percentage of what is generated is biodegradable.
With dumping costs increasing steadily all over the world, dealing with garbage constitutes gradually higher role to expenditures. Thus, there is an obvious incentive for all industries to recognize potentially cost-cutting approaches to garbage and make use of these where possible. Changes in law all over the US, the Europe and elsewhere, have combined to run these problems higher up the political schedule and biological processes of waste treatment have achieved far greater approval as a result. For these industries with mostly high biowaste generation, the diverse available treatment method biotechnologies can propose considerable savings. Industries can profit from the uses of total organisms or isolated biological components.
Compared with traditional chemical processes, enzymes and microbes typically work at lower pressures and temperatures. The lower energy requirements this makes leads to compact expenditures, but also has obvious benefits in conditions of both the workplace and environmental safety.
Moreover, biotechnology can be of additional commercial importance by converting economical organic feedstock into high price products or, as enzymatic reactions are further highly particular than their chemical corresponding items, by deriving ultimate materials of high relative purity. Manufacturing companies generate effluents or wastewaters, much of that contains biodegradable pollutants, in varying extents. Though conventional permitted discharges to watercourses or sewer may be enough for some, other industries, mainly those with highly concentrated or recalcitrant effluents, have found important benefits to be achieved from using biological treatment processes themselves on site.
Although careful process control and monitoring are necessary, biotechnology stands as a mostly cost-effective way of reducing the contamination potential of effluent, leading to developed public dealings, compliance with environmental law and scientific cost-savings to the business.
About Author / Additional Info:
Comments on this article: (0 comments so far)
• Transgenic Plants and Safety of Human Health
• Plant Breeding Scope, Objectives and History
• Genetics of Male Pattern Baldness
• Medicinal Uses of Cassia Auriculata
Latest Articles in "Environmental-Biotechnology" category:
• Advantages and Disadvantages of Biofuels
• Phytoremediation For Heavy Metals
• Biotechnology For a Clean Environment
• Methods of Wastewater Treatment
• Steps Involved in Nitrogen Cycle
• Biotechnology and Environment Protection
• Greenhouse Effect - Importance and Types
• Biological Degradation of Xenobiotics
• Phytoremediation - Greener Approach to Control Pollution
• Impact of Waste Management
• Waste Water Treatment Steps: Primary, Secondary and Tertiary Treatment
• Bioremediation - A Weapon to Tackle Oil Spills
• Phytoremediation - Use of green plants to remove pollutants
• The History of Botany | Botanists in Philippines
• Bioremediation by Cold Tolerant Microbes
• Cold Adaptation by Microorganisms
• Succession Stages of Xerosere
• The Climax Concept - Theories and Categories
• Succession Stages of Hydrosere
Important Disclaimer: All articles on this website are for general information only and is not a professional or experts advice. We do not own any responsibility for correctness or authenticity of the information presented in this article, or any loss or injury resulting from it. We do not endorse these articles, we are neither affiliated with the authors of these articles nor responsible for their content. Please see our disclaimer section for complete terms.
Copyright © 2010 biotecharticles.com - Do not copy articles from this website.
ARTICLE CATEGORIES :
| Disclaimer/Privacy/TOS | Submission Guidelines | Contact Us