$1.6 million grant will use nanotechnology to fight prostate cancer

PUBLIC RELEASE DATE:

16-Jan-2014

Contact: A'ndrea Elyse Messer aem1@psu.edu 814-865-5544 Penn State

Nanotechnology for diagnosing and treating prostate cancer will be the focus of a five-year, $1.58 million grant by the National Institutes of Health to Penn State and the University of Texas Southwestern Medical Center.

Jian Yang, associate professor of biomedical engineering, and Jer-Tsong Hsieh, the Dr. John McConnell Distinguished Chair in Prostate Cancer Research at Texas, will be co-principal investigators.

As part of the effort, Penn State will receive about $651,000.

The research seeks to develop an alternative to chemotherapy, which Yang said causes significant side effects and is also ineffective on many patients who have developed drug resistance to conventional chemotherapy.

The team will aim to create a method to identify a prostate cancer specific drug, a genotoxin to avoid drug resistance. The researchers seek to develop a biodegradable and biocompatible nanoparticle capable of targeting and imaging the prostate cancers.

Yang said he hopes the team's experimental therapy study will lead to a more personalized medical approach to treating prostate cancer.

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$1.6 million grant will use nanotechnology to fight prostate cancer

Advancements in Nanotechnology to Drive the Market for Biomimetics, According to a New Trend Report Published by …

San Jose, California (PRWEB) January 16, 2014

Follow us on LinkedIn Biomimetics refers to the application of nature-based biological systems and methodologies for studying and designing high-tech sustainable solutions. Biomimetic technologies take inspiration from time-tested biological sciences, available in the natural world and subsequently transfer the technology to a diverse range of disciplines for benefiting humans in improving their health and quality of life. Biomimetics as a trans-disciplinary approach holds tremendous potential in addressing complex issues in various fields such as environmental science, nanotechnology, material science, material engineering, biology, physics, geology, biochemistry, and chemistry. Biomimetic strategies in regenerative medicine are expected to usher in lucrative opportunities for growth in the market. Currently there exists significant research interest in developing biomimetic materials such as biointeractive scaffolds for use in regenerative medicine.

The trend report titled Biomimetics announced by Global Industry Analysts Inc., is a focused research paper which provides cursory insights into the technology and corporate initiatives of key companies worldwide. Also covered are companies such as 3Bs Research Group, Applied Biomimetic A/S, Aquaporin Asia Pte. Ltd., BioMimetic Systems Inc., Biomimetics Technologies Inc., BioTomo Pty. Ltd., Chas A Blatchford & Sons Ltd., Forschungszentrum Jlich GmbH, Nikon Corporation, Sandia National Laboratories, and Wright Medical Group, Inc., among others.

For more details about this trend report, please visit http://www.strategyr.com/TrendReport.asp?code=146425

About Global Industry Analysts, Inc. Global Industry Analysts, Inc., (GIA) is a leading publisher of off-the-shelf market research. Founded in 1987, the company currently employs over 800 people worldwide. Annually, GIA publishes more than 1300 full-scale research reports and analyzes 40,000+ market and technology trends while monitoring more than 126,000 Companies worldwide. Serving over 9500 clients in 27 countries, GIA is recognized today, as one of the world's largest and reputed market research firms.

Global Industry Analysts, Inc. Telephone: 408-528-9966 Fax: 408-528-9977 Email: press(at)StrategyR(dot)com Web Site: http://www.StrategyR.com/

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Using Nanotechnology To Build Thinner, Stronger Condoms

Hugh Pickens DOT Com writes "Discovery Magazine reports that the Bill and Melinda Gates Foundation has granted $100,000 to Boston University School of Medicine (BUSM) and Boston Medical Center (BMC) to develop a nanoparticle coating for condoms that will make them more comfortable and stronger while simultaneously keeping them thin to preserve and increase sensation in order to make them more appealing to use. According to the Gates Foundation, in the time that condoms have been in use, not much has changed: '[Condoms] have undergone very little technological improvement in the past 50 years. The primary improvement has been the use of latex as the primary material and quality-control measures, which allow for quality testing of each individual condom. Material science and our understanding of neurobiology has undergone revolutionary transformation in the last decade, yet that knowledge has not been applied to improve the product attributes of one of the most ubiquitous and potentially underutilized products on earth.' The nanotechnology that the Boston doctors intend to use for their improved condoms will be superhydrophillic nanoparticles that coat the condom and trap water to make them more resilient and easier to use. 'We believe that by altering the mechanical forces experienced by the condom, we may ultimately be able to make a thinner condom which reduces friction, thereby reducing discomfort associated with friction increases pleasure, thereby increasing condom use and decreases rates of unwanted pregnancy and infection transmission.'"

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Using Nanotechnology To Build Thinner, Stronger Condoms

Better Condoms through Nanotechnology

The Bill and Melinda Gates Foundation has proven of late to be a spur to developing nanotechnology-based solutions to some of the worlds problems, like a system for sterilizing medical equipment even in places where there is no electricity.

The foundation's latest Grand Challenge Exploration grants are aimed at improving the humble condom. The Gates Foundation granted $100 000 to the University of Manchester to develop a condom in November of last year, reportedly using graphene, that would lead to thinner yet stronger condoms.

With the University of Manchester becoming a hub for graphene research, it makes sense that any efforts to use graphene for the improvement of condoms would take place there. But the Gates Foundation apparently didnt want to limit the prospects of improving prophylactics to just graphene. Last week, it was announced that the Boston University School of Medicine (BUSM) and Boston Medical Center (BMC) have been awarded a $100 000 Grand Challenge grant to develop a better condom using nanotechnology.

"We are honored to be a recipient of a GCE grant project in order to examine this important public health issue," says Karen Buch MD, a third year radiology resident at BMC and Ducksoo Kim MD, professor of radiology at BUSM in a Boston Magazine article. "We look forward to using nanotechnology to create a condom that is both effective and does not diminish sensation, which could help convince more people to use condoms and potentially reduce the incidence of sexually transmitted infections."

The nanotechnology that the Boston doctors intend to use for their improved condoms will be superdhydrophillic nanoparticles that coat the condom and trap water to make them more resilient and easier to use.

"We believe that by altering the mechanical forces experienced by the condom, we may ultimately be able to make a thinner condom which reduces friction, thereby reducing discomfort associated with friction [and] increases pleasure, thereby increasing condom use and decreases rates of unwanted pregnancy and infection transmission," Kim says in a press release.

So it appears the race is now on. Will hydrophilic nanoparticles or graphene be the nanomaterial of the future for condoms? Maybe both.

Photo: iStockphoto

IEEE Spectrums nanotechnology blog, featuring news and analysis about the development, applications, and future of science and technology at the nanoscale.

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Better Condoms through Nanotechnology

New technology delivers vaccines without needles

Since the 1950s, doctors have been using the same painful method of injecting vaccines into the muscle.

Roughly 50 percent of children dont get vaccinated due to the fear of needles and the difficulties associated with administering inhaled versions. This has led to the increase in the flu epidemic that is present in this country every year.

One problem with injectable vaccines, other than being painful, is the possibility for contamination and HIV. But the bigger issue is that live vaccines must be refrigerated. This is a huge concern for a lot of poor countries as refrigeration is not available.

New discoveries in nanotechnology have lead to the development of a dime-sized Nanopatch which can administer the flu vaccine painlessly.

How does this work? The patch has thousands of vaccine-coated micro-projections that penetrate the outer layers of the skin with a quick release -- often just seconds -- once they come in contact with moisture within the skin. These micro-projections, while able to transfer the medication into the skin, do not go deep enough to reach the pain receptors, and dont need to be refrigerated.

Is this available now? The technology is currently being tested only on mice, but the studies look promising with a 90 percent success rate. Once approved at the pre-clinical level, the Nanopatch will move to clinical trials on humans and if they keep up the 90 percent success rate, it will be available to the public within 5 years or less.

What does this mean for the future? This doesnt stop with just the flu vaccine. The use of the Nanopatch could open the door to other forms of treatment for conditions like insulin-dependent diabetes, inflammatory diseases that require steroid injections and malnutrition. Research is also being developed using nanotechnology for Tuberculosis and Malaria vaccines.

Experts say that the patch could one day take the place of injectable vaccines completely, which will change the way patients will be treated and how medication will be delivered to the human body and save money, and lives, down the road.

Dr. David B. Samadi is the Chairman of the Department of Urology and Chief of Robotic Surgery at Lenox Hill Hospital in New York City. He is a board-certified urologist, specializing in the diagnosis and treatment of urological disease, with a focus on robotic prostate cancer treatments. Dr. Samadi joined Fox News Channel in 2009 as a medical contributor. To learn more please visit his websites RoboticOncology.com and SMART-surgery.com. Find Dr. Samadi on Facebook.

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New technology delivers vaccines without needles

Timothytrespas:MORGELLONS CONSPIRACY NANOTECHNOLOGY MK-ULTRA SLEEP DEPRIVED SMART DUST TI TESTIMONY – Video


Timothytrespas:MORGELLONS CONSPIRACY NANOTECHNOLOGY MK-ULTRA SLEEP DEPRIVED SMART DUST TI TESTIMONY
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Timothytrespas:MORGELLONS CONSPIRACY NANOTECHNOLOGY MK-ULTRA SLEEP DEPRIVED SMART DUST TI TESTIMONY - Video

Need for Intelligent Packaging Solutions to Drive Demand for Nanotechnology in Packaging, According to a New Trend …

San Jose, California (PRWEB) January 03, 2014

Follow us on LinkedIn Nanotechnology is emerging as a promising technology in the packaging industry, especially in the field of food packaging and food safety. Growing concerns over food safety issues and increased manufacturer focus on improving the shelf life of packaged foods is creating increased interest in the use of nanotechnology in food packaging. The market in the coming years is expected to benefit from the development of nano-coatings, surface biocides, bio-plastics, intelligent packaging nano-sensors, and carbon nanofibers, among others. Key benefits of nanotechnology based packaging solutions include lower product weight, superior heat and moisture resistance, longer shelf life, product traceability/tracking/monitoring, and continuous monitoring of product quality, freshness and wellness through the use of nanosensors.

The trend report titled Nanotechnology in Packaging announced by Global Industry Analysts Inc., is a focused research paper which provides cursory insights into the technology, its evolution, applications, future prospects, and corporate initiatives of key companies worldwide. The report in addition provides global market estimates and projections for Nanotechnology in Food & Beverage Packaging and Pharmaceutical Packaging in US dollars for years 2012 through 2017. A part of GIAs new series of short research briefs on emerging technologies, the report also offers coverage on key companies such as Amcor Ltd., Danaflex- Nano, Optocap Ltd., RUSNANO Group, and Tetra Pak International SA.

For more details about this trend report, please visit http://www.strategyr.com/TrendReport.asp?code=146072.

About Global Industry Analysts, Inc. Global Industry Analysts, Inc., (GIA) is a leading publisher of off-the-shelf market research. Founded in 1987, the company currently employs over 800 people worldwide. Annually, GIA publishes more than 1300 full-scale research reports and analyzes 40,000+ market and technology trends while monitoring more than 126,000 Companies worldwide. Serving over 9500 clients in 27 countries, GIA is recognized today, as one of the world's largest and reputed market research firms.

Global Industry Analysts, Inc. Telephone: 408-528-9966 Fax: 408-528-9977 Email: press(at)StrategyR(dot)com Web Site: http://www.StrategyR.com/

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BCC Research Publishes A New Report On Critical Materials In Global Nanotechnology Market

Wellesley, Mass (PRWEB) December 30, 2013

According to a new technical market research report Critical Materials in Global Nanotechnology Markets, from BCC Research (http://www.bccresearch.com), the global market for critical materials used in nanotechnology was valued at nearly $6.5 billion in 2012 and is expected to increase to $6.8 billion in 2013. BCC Research projects the market to grow to nearly $9.4 billion by 2018, and register a five-year compound annual growth rate of 6.5% from 2013 to 2018.

Critical materials are economically and/or strategically important raw materials that are at significant risk of supply disruptions due to resource limitations, political instability in producing areas, or political decisions by producer governments. Potential shortages of critical materials and related price increases can affect the nanotechnology industry in two ways, that is, by jeopardizing existing nanotechnology applications of these materials and by creating new opportunities for other nanotechnology applications.

The United States and other advanced economies depend on the continued availability of various critical materials to ensure their economic prosperity and in some cases their national security. Strategies for ensuring the continued availability of these critical materials include stockpiling, developing new domestic supplies, or substitution.

The potential impacts of most critical materials on the nanotechnology industry are more than offset by the opportunities for substituting other nanotechnology applications that use less or none at all of the respective critical materials. The chief long-term exception is the platinum group metals, whose very large market as environmental and energy catalysts would be difficult to replace with any nanotechnology application now on the market.

This technical market report from BCC Research provides an overview of 12 critical materials or classes of materials with economically significant nanotechnology applications, including antimony, barium, gallium, indium, magnesium, biobium, platnium group metals, rare earths, rhenium, tantalum, tellurium, and tungsten. For each of these materials, the report contains an assessment of critical material supply/demand situation, price trends, and risk of disruption; applications in which nanotechnology can contribute to reducing/avoiding consumption of critical materials; technology assessment/market leaders; and the impact on the market for various nanotechnologies.

This report also examines, quantifies, and forecasts the growth of the market and offers guidance to interested parties. It includes analyses of global market trends, with data from 2012, estimates for 2013, and projections of CAGRs for the period, 2013 to 2018. Comprehensive company profiles of major players in the industry are also provided.

The report is intended for entrepreneurs, investors, venture capitalists and other readers concerned with future trends in the nanotechnology market. Other readers who will find the report particularly valuable include executives of companies that are consumers of critical materials and officials of government agencies concerned with ensuring the continued supply of these materials. In the United States, these agencies include the Departments of Defense, Energy and Homeland Security, the U.S. Environmental Protection Agency, the U.S. Geological Survey, and the U.S. Trade Representative. The reports findings and conclusions will also be of interest to the broader nanotechnology community.

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BCC Research Publishes A New Report On Critical Materials In Global Nanotechnology Market

PHL researchers looking into developing abaca for nanotechnology

Local textile researchers are looking into adapting the centuries-old abaca industry to cater to the needs of the much younger but also more high-tech nanotechnology industry.

In a forum held in Quezon City this month, scientists from the Philippine Textile Research Institute (PTRI) and Forest Products Research and Development Institute (FPRDI) of the Department of Science and Technology (DOST) disclosed they have begun studying the potential applications for abaca in nanotechnology.

The abaca fiber was found to be two times stronger than glass fibers and steel, and is now currently being used to reinforce automobile dashboards and furniture.

According to the Bureau of Agricultural Statistics, 85 percent of the abaca in the world comes from the Philippines, particularly from the Bicol and Eastern Visayas regions.

Erlinda Mari of FPRDI said during the forum that one of the agency's major projects is processing the nanocrystalline cellulose (CNC) of abaca fiber to produce high-end products.

Mari also said, We at FPRDI are excited (for this project). I want this program to succeed before I retire.

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PHL researchers looking into developing abaca for nanotechnology

Nanotechnology education – Wikipedia, the free encyclopedia

Nanotechnology education is being offered by many universities around the world.[1] Nanotechnology education involves a multidisciplinary natural science education with courses in nanotechnology, physics, chemistry, math and molecular biology. The first program involving nanotechnology was offered by the University of Toronto's Engineering Science program; where nanotechnology could be taken as an option.

Here is a list of universities offering nanotechnology education, and the degrees offered in nanotechnology, Bachelor of Science in Nanotechnology, Master of Science in Nanotechnology, and PhD in Nanotechnology. This list is not complete.

A list of the Masters programs is kept by the UK based Institute of Nanotechnology in their Nano, Enabling, and Advanced Technologies (NEAT) Post-graduate Course Directory.[32]

[39]

Important:

In addition to several tertiary programs, nanotechnology is being taught as part of science studies at high schools. The Journal of Nanoeducation provides articles on K-12 initiatives.

in2nano is a high school outreach program in Egypt aiming to increase scientific literacy and prepare students for the sweeping changes of nanotechnology.

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Nanotechnology education - Wikipedia, the free encyclopedia