Category Archives: Biotechnology

Biotechnology is a top-notch field of study that emerged into the scientific world as a result of revolutions in Biology, Chemistry, Informatics, and Engineering. It is considered to be an applied branch of Biology. Biotechnology helps out this old and respectable field of science keep up with the pace of time and remain competitive in the contemporary world.

With a Master in Biotechnology, students will study the use of living organisms and bioprocesses in technology, engineering, medicine, agriculture and results in all kinds of bioproducts, from genetically modified food to serious cutting-edge devices used to carry out gene therapy. Students in Master in Biotechnology programs may also explore bioinformatics, which is the application of statistics and computer science to the field of molecular biology. Bioinformatics is extremely important for contemporary biological and molecular researches because the data amount there grows by geometric progression and it is necessary to have adequate technology to process it. Bioinformatic methods are widely used for mapping and analyzing DNA and protein samples, as well as for the study of genetics and molecular modeling. Biotechnology and Bioinformatics do a great favour to traditional fields of study, refreshing them with new methods of research, which allows their drastic development, and you can make your contribution with a Master in Biotechnology degree.

Find out about various Master in Biotechnology programs by following the links below. Don't hesitate to send the "Request free information" form to come in contact with the relevant person at the school and get even more information about the specific Master in Biotechnology program you are interested in.

Continued here:

Best Master's Degrees in Biotechnology 2016

Category: Accounting Administrative, Support, and Clerical Advertising Aerospace and Defense Agriculture, Forestry, and Fishing Architecture Arts and Entertainment Automotive Aviation and Airlines Banking Biotechnology Clergy Construction and Installation Consulting Services Customer Services Education Energy and Utilities Engineering Entry Level Environment Executive and Management Facilities, Maintenance, and Repair Financial Services Fire, Law Enforcement, and Security Food, Beverage, and Tobacco Government Graphic Arts Healthcare -- Administrative Healthcare -- Nursing Healthcare -- Practitioners Healthcare -- Technicians Hotel, Gaming, Leisure, and Travel Human Resources Insurance Internet and New Media IT -- All IT -- Computers, Hardware IT -- Computers, Software IT -- Executive, Consulting IT -- Manager IT -- Networking Legal Services Library Services Logistics Manufacturing Marketing Materials Management Media -- Broadcast Media -- Print Military Mining Non-Profit and Social Services Personal Care and Service Pharmaceuticals Planning Printing and Publishing Public Relations Purchasing Real Estate Restaurant and Food Services Retail/Wholesale Sales Science and Research Skilled and Trades Sports and Recreation Telecommunications Training Transportation and Warehousing

Industry: ALL Aerospace & Defense Biotechnology Business Services Chemicals Construction Edu., Gov't. & Nonprofit Energy & Utilities Financial Services Healthcare Hospitality & Leisure Insurance Internet Media MFG Durable MFG Nondurable Pharmaceuticals Retail & Wholesale Software & Networking Telecom Transportation

Income Level: All $100,000+ $80,000 - $100,000 $50,000 - $80,000 $30,000 - $50,000 $10,000 - $30,000

Originally posted here:

Biotechnology Salaries - Salary.com

British Dictionary definitions for biotechnology Expand

/batknld/

(in industry) the technique of using microorganisms, such as bacteria, to perform chemical processing, such as waste recycling, or to produce other materials, such as beer and wine, cheese, antibiotics, and (using genetic engineering) hormones, vaccines, etc

Derived Forms

biotechnological (batknldkl) adjectivebiotechnologically, adverbbiotechnologist, noun

Word Origin and History for biotechnology Expand

also bio-technology, 1947, "use of machinery in relation to human needs;" 1972 in sense of "use of biological processes in industrial production," from bio- + technology.

biotechnology in Medicine Expand

biotechnology biotechnology (b'-tk-nl'-j) n.

The use of microorganisms, such as bacteria or yeasts, or biological substances, such as enzymes, to perform specific industrial or manufacturing processes. Applications include production of certain drugs, synthetic hormones, and bulk foodstuffs.

The application of the principles of engineering and technology to the life sciences.

biotechnology in Science Expand

The use of a living organism to solve an engineering problem or perform an industrial task. Using bacteria that feed on hydrocarbons to clean up an oil spill is one example of biotechnology.

The use of biological substances or techniques to engineer or manufacture a product or substance, as when cells that produce antibodies are cloned in order to study their effects on cancer cells. See more at genetic engineering.

See more here:

Biotechnology | Define Biotechnology at Dictionary.com

Register for November 12 MS in Biotechnology, MS in Bioinformatics, and Certificate in Biotechnology Education Open House in Baltimore.

The Johns Hopkins MS in Biotechnology offers a comprehensive exploration of basic science, applied science, and lab science, with an industry focus. The program gives you a solid grounding in biochemistry, molecular biology, cell biology, genomics, and proteomics.

This 10-course degree program is thesis-optional, part-time, and can be completed fully online. Our curriculum will prepare you to engage in research, lead lab teams, make development and planning decisions, create and apply research modalities to large projects, and take the reins of management and marketing decisions.

Many students like the flexibility of the general degree; it allows them to tailor the coursework to meet their individual career goals. The program also offers five different concentrations: biodefense, bioinformatics, biotechnology enterprise, regulatory affairs, or drug discovery.

Onsite courses are taught during evenings or weekends at either the universitys Homewood Campus in Baltimore, MD or the Montgomery County Campus in Rockville, MD. Courses are also offered in our state-of-the-art lab.

Each year, students of the MS in Biotechnology have the opportunity to apply for a fellowship with the National Cancer Institute at NIH. This fellowship, which requires onsite research as well as onsite courses for the Molecular Targets and Drug Discovery Technologies concentration at the Montgomery Count Campus, awards students with a stipend while providing them with useful experience in the arena of cancer research. Learn more about this fellowship and apply here.

Note: We currently are not accepting applications to the online Master of Science in Biotechnology from students who reside in Kansas. Students should be aware of additional state-specific information for online programs.

Excerpt from:
Master of Science in Biotechnology | Advanced Academic ...

Biotechnology companies are saving on taxes by transferring patents on their lucrative and expensive drugs to foreign subsidiaries; tactic is not as advantageous as an inversion, but provides substantial tax benefit. MORE

Bioengineers for the first time create functional three-dimensional brain-like tissue, discovery that could eventually be used to study brain disease, injury and treatment; research is published in the journal PNAS, and is the latest example of biomedical engineering being used to make realistic models of organs such as the heart, lungs and liver. MORE

Michael Behar article examines growing field of bioelectronics, in which implants are thought to be able to communicate directly with the nervous system in order to try to fight wide variety of diseases; notes that GlaxoSmithKline runs newly formed Bioelectronics R & D Unit, which has partnerships with 26 independent research groups in six countries. MORE

Scientists at Scripps Research Institute create first living organism with artificial DNA, taking significant step toward altering the fundamental alphabet of life; accomplishment could lead to new antibiotics, vaccines and other products, though a lot more work needs to be done before this is practical; research, published online in journal Nature, is bound to raise safety concerns and questions about whether humans are playing God. MORE

Jeff Sommer Strategies column argues that while recent surge in Internet and biotech stock values may recall notorious bubble of 2000, overall Standard & Poor's 500-stock index remains far more tethered to reality than it was in that period. MORE

Harlem Biospace, new business incubator focused on biotechnology, will provide start-up lab space in renovated former confectionery research lab on West 127th Street in Harlem, near City College and Columbia University; incubator represents new investment in a neighborhood that has for decades struggled to restore its former economic and social vitality. MORE

Dr Shoukhrat Mitalipov has shaken field of genetics with development of process in which nucleus can be removed from one human egg and placed into another; procedure, intended to help women conceive children without passing on genetic defects in their cellular mitochondria, has drawn ire of bioethicists and scrutiny of federal regulators. MORE

Food and Drug Administration's new proposal to purge artery-clogging trans fats from foods could ease marketing of genetically modified soybean, which has been manipulated to be free of trans fat; new beans, developed by Monsanto and DuPont Pioneer, could help image of biotechnology industry because they are among the first genetically modified crops with a trait that benefits consumers, as opposed to farmers. MORE

California Gov Jerry Brown vetoes bill that would have allowed biosimilar versions of biologic drugs to be substituted by pharmacists if Food and Drug Administration deemed them 'interchangeable' with the brand-name reference product. MORE

Hawaii has become hub for development of genetically engineered corn and other crops that are sold to farmers worldwide, and seeds are state's leading agricultural commodity; activists opposed to biotech crops have joined with residents who say corn farms expose them to dust and pesticides, and they are trying to drive companies away, or at least rein them in. MORE

Some farmers are noticing soil degradation after using glyphosate, while others argue that the herbicide, along with biotech crops, produces yields too profitable to give up; some critics warn that glyphosate may be producing herbicide-resistant 'superweeds'; issue is part of larger debate over long-term effects of biotech crops, which account for 90 percent of corn, soybeans and sugar beets grown in the United States. MORE

David Blech, who was once considered biotechnologys top gunslinger and was worth about $300 million, is about to begin a four-year prison term, having pleaded guilty to stock manipulation; Blech's downfall reflects maturation of biotechnology from get-rich-quick days to sophisticated, multibillion dollar industry. MORE

Researchers at laboratories around world are experimenting with bioprinting, process of using 3-D printing technology to assemble living tissue; while research has made great progress, there are still many formidable obstacles to overcome. MORE

Researchers at University of Illinois have used 3-D printer to make small hybrid 'biobots'--part part gel, part muscle cell--that can move on their own; research may someday lead to development of tiny devices that could travel within body, sensing toxins and delivering medication. MORE

Developers of biotechnology crops, facing increasing pressure to label genetically modified foods, begin campaign to gain support for products by promising openness; centerpiece of effort is Web site to answer questions posed by consumers about genetically engineered crops and will include safety data similar to that submitted to regulatory agencies. MORE

The rise of personalized medicine has spurred giant pharmaceutical companies to home in on small biotechnology firms. MORE

Physician and tissue engineer Mark Post is attempting to grow so-called in vitro meat, or cultured meat, in Netherlands laboratory through use of stem cells and techniques adapted from medical research for growing tissues and organs; arguments in favor of such technology include both animal welfare and environmental issues, but questions of cost, safety and taste remain. MORE

Group of hobbyists and entrepreneurs begin project to develop plants that glow, potentially leading way for trees that can replace electric streetlamps and potted flowers to read by; project, which will use sophisticated form of genetic engineering called synthetic biology, is unique in that it is not sponsored by corporate or academic interests, and may give rise to similar do-it-yourself ventures. MORE

Interview with Nick Goldman, British molecular biologist who led study that successfully stored digital information in synthetic DNA molecules and then recreated it without error; study, suggesting the possibility of a storage medium of immense scale and longevity, was published in journal Nature. MORE

Craig Venter, controversial scientist and the head of Synthetic Genomics Inc, is convinced that synthetic biology holds the key to solving many of the world's problems, and his company has been actively trying to find and use new microbes for wildly varied purposes. MORE

Obama administration will announce a broad plan to foster development of the nation's bioeconomy, including the use of renewable resources and biological manufacturing methods to replace harsher industrial methods. MORE

Firms are racing to cut the cost of sequencing the human genome, as hope rises for faster development of medical advances; promise is that low-cost gene sequencing will lead to a new era of personalized medicine, yielding new approaches for treat
ing cancers and other serious diseases. MORE

Central New Jersey, with its concentration of pharmaceutical giants and academic powerhouses has long had the potential to be a major center for life sciences business, but has never lived up to that potential; now, signs of a small revival are apparent; the number of biotechnology companies has grown to 335 from 10 in 1998; a 64,000-square-foot specialized office building leased to Elementis PLC is being built on spec in a new Woodmont Properties development called SciPark. MORE

Essay by Stanford University bioengineer Drew Endy discusses the outlook for biological computers that could operate at the cellular and even genetic level. MORE

Geron, the company conducting the world's first clinical trial of a therapy using human embryonic stem cells, says it is halting that trial and leaving the stem cell business entirely; company says its move does not reflect a lack of promise for the controversial field, but a refocusing of its limited resources. MORE

There are no additional abstracts to display.

Link:
Biotechnology - News - Times Topics - The New York Times

Simply put, biotechnology is a toolbox that solves problems.

Biotechnology leverages our understanding of the natural sciences to create novel solutions for many of our world problems. We use biotechnology to grow our food to feed our families. We use biotechnology to make medicines and vaccines to fight diseases. And we are now turning to biotechnology to find alternatives to fossil-based fuels for a cleaner, healthier planet.

We often think of biotechnology as a new area for exploration, but its rich history actually dates back to 8000 B.C when the domestication of crops and livestock made it possible for civilizations to prosper. The 17th century discovery of cells and later discoveries of proteins and genes had a tremendous impact on the evolution of biotechnology.

Biotechnology is grounded in the pure biological sciences of genetics, microbiology, animal cell cultures, molecular biology, embryology and cell biology. The discoveries of biotechnology are intimately entwined in the industry sectors for development in agricultural biotechnology, biofuels, biomanufacturing, human health, nanobiotechnology, regenerative medicine and vaccines.

The foundation of biotechnology is based in our understanding of cells, proteins and genes.

Biologists study the structure and functions of cellswhat cells do and how they do it. Biomedical researchers use their understanding of genes, cells and proteins to pinpoint the differences between diseased and healthy dells. Once they discover how diseased cells are altered, they can more easily develop new medical diagnostics, devices and therapies to treat diseases and chronic conditions.*

*Paraphrased from How Biology Drives Biotechnology; Amgen Scholarsthe Scientist.

Read more:
What is Biotechnology? | North Carolina Biotech Center

The biotechnology program at Ivy Tech is taught by instructors with real-world experience. Students will use state-of-the-art laboratories that are equipped with instrumentation, supplies and equipment for an effective hands-on laboratory experience.

Classes focus on teaching a variety of procedures necessary to execute laboratory projects assigned in the students chosen field. Students will spend a significant amount of class time working hands-on doing laboratory activities either by themselves or in small groups with the ability to have one-on-one time with the instructor.

The Biotechnology Program prepares students for careers in a variety of life science and manufacturing settings including research, quality control, pharmaceuticals, and medical devise manufacturing.

Graduates will have the foundation needed to transfer to earn a bachelors degree or move right in to local, high-paying jobs in the community, including with some of our industry partners like Dow Agroscience, Eli Lilly, Cook Pharmica, Midwest Compliance Laboratories, and more. These great partnerships lead to our graduates high job placement rate.

*According to a Battelle/Biotechnology Industry Organization (BIO) Report State Biosciences Jobs, Investments and Innovation 2014.

See more here:
Biotechnology - Ivy Tech Community College of Indiana

Chemists in biotechnology generally work in a laboratory setting in an industrial or academic environment. A single laboratory may be involved in 510 projects, and the scientists will have varying degrees of responsibility for each project. Teamwork is vital, and it is unusual to work alone on tasks. Most chemists in biotech positions say they work more than 40 hours a week, although they add that this is largely an individual choice and not necessarily required.

Most biotechnologists today began their careers working for small, innovative biotech companies that were founded by scientists. However, as the field has developed, many major drug companies added or acquired biotech divisions. Chemical companies with large agricultural chemical businesses also have substantial biotech labs. Biotech companies are generally located near universities. The industry began in a few major areas such as San Francisco and Boston (the traditional homes of biotech firms), Chicago, Denver/Boulder, San Diego, Seattle, and Research Triangle Park, NC, but there are now biotech companies all across the country.

See the rest here:
Biotechnology - American Chemical Society

Professionals in biotechnology come up with answers to a host of humanity's problemsfrom Ebola to failing crops. With a bachelor's degree in biotechnology from University of Maryland University College, you can become a part of the solution.

For this program, you are required to have already gained technical and scientific knowledge of biotechnology through transferred credit and direct experience in the field.

The major combines laboratory skills and applied coursework with a biotechnology internship experience and upper-level study and helps prepare you to enter the pharmaceutical, agricultural, or biomedical research industries and organizations as a laboratory technician, quality control technician, assay analyst, chemical technician, or bioinformatician.

In your courses, you'll study biological and chemical sciences, biotechniques, bioinstrumentation, bioinformatics, microbiology, molecular biology, and cell biology.

Through your coursework, you will learn how to

In past projects, students have had the opportunity to

Our curriculum is designed with input from employers, industry experts, and scholars. You'll learn theories combined with real-world applications and practical skills you can apply on the job right away.

Arts and Humanities Classes | 6 Credits

Classes must be from different disciplines.

Technological Transformations (3 Credits, HIST 125)

A 3-credit class in ARTH or HIST

Introduction to Humanities (3 Credits, HUMN 100)

A 3-credit class in ARTH, ARTT, ASTD, ENGL, GRCO, HIST, HUMN, MUSC, PHIL, THET, dance, literature, or foreign language

Behavioral and Social Science Classes | 6 Credits

Classes must be from different disciplines.

Economics in the Information Age (3 Credits, ECON 103)

Technology in Contemporary Society (3 Credits, BEHS 103)

Biological and Physical Sciences Classes | 7 Credits

Introduction to Biology (4 Credits, BIOL 103)

Introduction to Physical Science (3 Credits, NSCI 100)

Computing Classes | 6 Credits

Overall Bachelor's Degree Requirements

In addition to the general education requirements and the major, minor, and elective requirements, the overall requirements listed below apply to all bachelor's degrees.

Double majors: You can earn a dual major upon completion of all requirements for both majors, including the required minimum number of credits for each major and all related requirements for both majors. The same class cannot be used to fulfill requirements for more than one major. Certain restrictions (including use of credit and acceptable combinations of majors) apply for double majors. You cannot major in two programs with excessive overlap of required coursework. Contact an admissions counselor before selecting a double major.

Second bachelor's degree: To earn a second bachelor's degree, you must complete at least 30 credits through UMUC after completing the first degree. The combined credit in both degrees must add up to at least 150 credits. You must complete all requirements for the major. All prerequisites apply. If any of these requirements were satisfied in the previous degree, the remainder necessary to complete the minimum 30 credits of new classes should be satisfied with classes related to your major. Contact an admissions counselor before pursuing a second bachelor's degree.

Electives: Electives can be taken in any academic discipline. No more than 21 credits can consist of vocational or technical credit. Pass/fail credit, up to a maximum of 18 credits, can be applied toward electives only.

Lower-level coursework must be taken as part of an appropriate degree program at an approved community college or other institution. Coursework does not have to be completed prior to admission, but it must be completed prior to graduation. Transfer coursework must include 4 credits in general microbiology with a lab, 4 credits in general genetics with a lab, and 7 credits in biotechnology applications and techniques with a lab. Additional required related science coursework (17 credits) may be applied anywhere in the bachelor's degree.

The BTPS is only available to students who have completed the required lower-level coursework for the major either within an Associate of Applied Science degree at a community college with which UMUC has an articulation agreement or within another appropriate transfer program. Students should consult an admissions counselor before selecting the BTPS.

See the original post here:
Bachelor's Degree in Biotechnology | UMUC