Category Archives: Funding

Intel Science Talent Search 2012 Awardees

Nithin Tumma, whose research could lead to less toxic and more effective breast cancer treatments, received the top award of $100,000 at the Intel Science Talent Search 2012, a program of Society for Science & the Public. Other finalists from across the U.S. took home additional awards totaling $530,000.

The Intel Science Talent Search, the nation’s oldest and most prestigious pre-college science and math competition, recognizes 40 high school seniors who are poised to be the next leaders in innovation and help solve some of the world’s greatest challenges.

Nithin Tumma, 17, of Fort Gratiot, Mich., won the top award of $100,000 from the Intel Foundation for his research, which could lead to more direct, targeted, effective and less toxic breast cancer treatments. He analyzed the molecular mechanisms in cancer cells and found that by inhibiting certain proteins, we may be able to slow the growth of cancer cells and decrease their malignancy. Nithin is first in his class, a varsity tennis player and a volunteer for the Port Huron Museum, where he started a restoration effort for historical and cultural landmarks.

Second place honors and $75,000 went to Andrey Sushko, 17, of Richland, Wash., for his development of a tiny motor, only 7 mm (almost 1/4 inch) in diameter, which uses the surface tension of water to turn its shaft. Born in Russia, Andrey worked from home to create his miniature motor, which could pave the way for other micro-robotic devices. Andrey, a long-time builder of small boats, recently filed for a Guinness World Record for the smallest radio-controlled sailing yacht.

Third place honors and $50,000 went to Mimi Yen, 17, of Brooklyn, N.Y., for her study of evolution and genetics, which focuses on microscopic worms, specifically looking at their sex habits and hermaphrodite tendencies. Mimi believes that through research such as hers, we may better understand the genes that contribute to behavioral variations in humans. Mimi was born in Honduras and is fluent in Cantonese. She plays French horn and volunteers to prepare and deliver meals to people with serious illnesses.

These finalists join the ranks of other notable Science Talent Search alumni who over the past 70 years have gone on to win seven Nobel Prizes, two Fields Medals, four National Medals of Science, 11 MacArthur Foundation Fellowships and even an Academy Award for Best Actress.

“We invest in America’s future when we recognize the innovative achievements of our nation’s brightest young minds,” said Intel President and CEO Paul Otellini. “Hands-on experience with math and science, such as that required of Intel Science Talent Search finalists, encourages young people to think critically, solve problems and understand the world around them. Rather than simply memorizing facts and formulas, or repeating experiments with known outcomes, this competition engages students in an exciting way and provides a deeper level of understanding in such important but challenging subjects.”

Related: Intel Science and Engineering Fair 2009 WebcastsGirls Sweep Top Honors at Siemens Competition in Math, Science and TechnologyIntel International Science and Engineering Fair Awards 2006

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Stand with Science – Late is Better than Never

The USA public has made very bad decisions in who to send to Washington DC to spend our money (and the money of our children and grandchildren). We have wasted hundreds of billions that could have been spent more wisely. I happen to think investing in science and engineering is important for a societies economic health. The problem the USA has is we have chosen to waste lots of money for decades, at some point you run out of money (yes the USA government doesn’t really, as they can print it, but essentially they do – in practical terms).

I would certainly eliminate tax breaks for trust fund babies and trust fund grandchildren (while your grandchildren are going to be left holding the bag for the spending those elected by us, the grandchildren of the rich often get huge trust funds with no taxes being paid at all). But most of the people we have elected want to give trust fund babies huge payoffs. I would cut much spending in government – spending 5% less in 2020 than we did this year would be fine with me. But we don’t elect people that support that. I would support not adding new extensions to tax cuts sold with false claims and again supported by those we continue to elect. I wouldn’t allow the financial industry subverting of markets. But again we elect people that do allow that. And when the bill comes due for letting them take tens and hundreds of millions in individual profits in the good years, we can either let the economy go into a depression (maybe) or spend hundreds of billions to trillions bailing out those institutions our politicians let threaten the economy.

It might not seem fair, but there are consequences to allowing our political system to waste huge amounts of money paying of special interests for decades. And investing in science and engineering has been a casualty and will likely continue to be. Eventually you run out of money, even for the stuff that matters. Trying to fight for politicians that will put the interests of the country ahead of their donors is not something you can do effectively only when your interests are directly threatened. At that point things may already be too bad to be saved.

I have been writing about the failed political system for quite awhile now. I wrote awhile back that Hillary Clinton’s idea to tripple the number of GRFP awards was something I thought was very smart economically. But even then I questioned if we could afford it, if we refused to do anything else different (just adding new spending isn’t what the country needed).

Even in the state the politicians we continue to elect (we elect the same people election after election – there is no confusion about what they will do) we can debate what to cut and for something we spend so little on as investing science and engineering we can even easily increase that spending and not have any real impact on cutting overall spending. But those we have elected don’t show much interest in investing in science and engineering overall.

The USA continues to invest a good deal in science and engineering. But the difference in focus today versus the 1960’s is dramatic. The USA will continue to do well in the realm of science. The advantages gained over decades leave us in a hugely beneficial position – and one that takes other countries decades to catch up to. Now some countries have been working on that for decades now, and are doing very well. China, hasn’t been at it quite as long but has been making amazingly fast progress (similar to the amazing economic story).

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Robot Prison Guards in South Korea

photo of robot prison guard

Robotic prison wardens to patrol South Korean prison

The one-month trial will cost 1bn won (£554,000) and is being sponsored by the South Korean government. It is the latest in a series of investments made by the state to develop its robotics industry.

The country’s Ministry of Knowledge Economy said in January that it had spent the equivalent of £415m on research in the sector between 2002 and 2010. It said the aim was to compete with other countries, such as Japan, which are also exploring the industry’s potential.

In October the ministry said the Korean robot market had recorded 75% growth over the past two years and was now worth about £1 billion…

The potential market for robotics is huge. Smart countries are investing in becoming the centers for excellence in that area. Japan and South Korea may well be in the lead. The USA, Germany and China also have strong communities.

Related: Robot Finds Lost Shoppers and Provides DirectionsThe Robotic Dog (2008 post)Soft Morphing Robot FutureHonda’s Robolegs Help People WalkRoachbot: Cockroach Controlled Robot

Eliminating NSF Program to Aid K-12 Science Education

Changing American science and engineering education

In exchange for funding for their graduate studies, Kahler and other fellows contribute to the science curriculum in local primary and secondary schools from kindergarten through grade 12. Kahler taught science at Rogers-Herr Middle School in Durham.

He also taught for two summers in India, and in Texas, as part of Duke TIP, the Talent Identification Program, which identifies academically gifted students and provides them with intellectually stimulating opportunities.

Through these teaching experiences in different locations and cultures, Kahler observed several factors that affect the quality of education in American schools. One important factor is the training of teachers. Unfortunately, teachers are sometimes expected to teach science without having received an adequate background in the subject.

STEM fellows helped to address this problem by contributing their expertise and by helping to increase the scientific literacy of students and their teachers.

Kahler says that NSF GK-12 has a strong, positive impact to change this because it simultaneously improves the educational experience of students in primary and secondary school and trains graduate students to communicate and teach effectively.

Unfortunately, the NSF GK-12 program is no longer in the NSF budget for 2012.

Sadly the USA is choosing to speed money on things that are likely much less worthwhile to our future economic well being. This has been a continuing trend for the last few decades so it is not a surprise that the USA is investing less and less in science and engineering education while other countries are adding substantially to their investments (China, Singapore, Korea, India…).

As I have stated before I think the USA is making a big mistake reducing the investment in science and engineering, especially when so many other countries have figured how how smart such investments are. The USA has enjoyed huge advantages economically from science and engineering leadership and will continue to. But the potential full economic advantages are being reduced by our decisions to turn away from science investment (in education and other ways).

Related: The Importance of Science EducationTop Countries for Science and Math Education: Finland, Hong Kong and KoreaEconomic Strength Through Technology Leadership

Bill Dietrich Gives Carnegie Mellon University $265 Million

Carnegie Mellon is one of the crown jewels of engineering in the USA. While we are busy squandering the economic gains gained through science and engineering investments in the 1950’s, 60’s and 70’s a few universities are continuing to provide huge economic benefit: MIT, Stanford, CalTech, Harvard, University of Wisconsin – Madison… Schools unfortunately seem to be wasting lots of money (on vanity projects and ever increasing administration, and huge pay to overpaid executives), but even so they provide much much more benefit than the costs. Funding from rich, successful businesspeople (Bill Dietrich was a steel executive) is now a huge reason these shiny lights of the American economy continue to shine. On Bill Dietrich’s donation:

This fund, which will become operational upon Dietrich’s passing, will serve as a catalyst for the university’s global initiatives and for its fusion of left-brain and right-brain thinking, such as studies connecting technology and the arts, as well as support future academic initiatives across the university, including undergraduate and graduate programs, scholarship, artistic creation and research.
The gift furthers the university’s ability to educate students in strong interdisciplinary problem-solving and supports the unique recipe for education offered by Carnegie Mellon’s seven schools and colleges, all of which are leaders in their fields.

Dietrich’s gift, among the 10 largest in the United States, is believed to be the 14th largest gift to higher education worldwide.

Related: Board of Trustees gets new chairperson: Dietrich (July 2001 article)$400 Million More for Harvard and MITEconomic Strength Through Technology LeadershipStanford Gets $75 Million for Stem Cell CenterGreat Engineering Schools and Entrepreneurism

The Politics of Anti-Science

In the 1960’s the USA had an unrealistic view of how much studying and learning about science and engineering could do. Investing is science and engineering is an extremely wise economic (and cultural) endeavor but it isn’t going to solve all the problems that exist. Somehow today we find ourselves with a large number of politically powerful people we take strong anti-science positions. These tactics reduce funding and support for beneficial research and are short sited approaches to public administration. This is an unfortunate turn of events that is damaging the American economy and will have huge damages going forward.

Thankfully other countries have seen how wise investing in science and engineering is and have more than taken up the slack created by the anti-science community. Two favorite tactics of the anti-science leaders is to try and create confusion where there is none and to turn the focus away from serious matters and instead playing silly political games. The silly games will draw donors and voters so if they care about those things more than the country and the future of the country it is a sound tactic. The damage it causes the country however I would hope would limit the use of such tactics however that has not been the case recently.

‘Shrimp On A Treadmill’: The Politics Of ‘Silly’ Studies

Take the case of the “shrimp on a treadmill.” Burnett says the senator’s report linked that work to a half-million-dollar research grant. But that money actually went to a lot of different research that he and his colleagues did on this economically important seafood species.

The treadmills were just a small part of it, a way to measure how shrimp respond to changes in water quality. Burnett says the first treadmill was built by a colleague from scraps and was basically free, and the second was fancier and cost about $1,000. The senator’s report was misleading, says Burnett, “and it suggests that much money was spent on seeing how long a shrimp can run on a treadmill, which was totally out of context.”

John Hart, a Coburn spokesperson, said in an email that “our report never claimed all the money was spent on shrimp on a treadmill. The scientists doth protest too much. Receiving federal funds is a privilege, not a right. If they don’t want their funding scrutinized, don’t ask.”

What the politicians are doing is exactly what this spokesperson suggests – they are withdrawing from the anti-science culture created by some in Washington: they are moving their research to countries that support rather than attack science. That is a very bad thing for the USA. There are a number of very bad economic policies a government can take. Driving scientists and engineers into the arms of other countries is one of the worst.
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Google Invests $168 million in Largest Solar Tower Power Project

Google is investing in a new solar tower power project located in California that will generate 392 gross MW of clean, solar energy. That’s the equivalent of taking more than 90,000 cars off the road. Google has now invested $250 million in clean energy.

Investing in the world’s largest solar power tower plant

works by using a field of mirrors, called heliostats, to concentrate the sun’s rays onto a solar receiver on top of a tower. The solar receiver generates steam, which then spins a traditional turbine and generator to make electricity. Power towers are very efficient because all those mirrors focus a tremendous amount of solar energy onto a small area to produce steam at high pressure and temperature (up to 1000 degrees F).

Several large solar projects are in the works in the sunny Southwest (and around the globe), but Ivanpah will be the first solar power tower system of this scale. The Ivanpah Power Tower will be approximately 450 feet tall and will use 173,000 heliostats, each with two mirrors.

The Department of energy is also providing financing for this project. The project is 10 times larger than the largest solar photovoltaic project in California.

Related: Google Investing Huge Sums in Renewable Energy and is HiringGoogle.org Invests $10 million in Geothermal EnergyGoogle’s Energy InterestsMolten Salt Solar Reactor Approved by CaliforniaSolar Tower Power GenerationFinding Huge Sources of Energy Without Increasing Carbon Dioxide Output

$60 Million in Grants for Undergraduate Science Education

The Howard Hughes Medical Institute (HHMI) is challenging colleges and universities to think creatively about how they educate future scientists, science teachers, and a scientifically-literate public. The Institute has invited 215 undergraduate-focused colleges and universities from across the country to apply for a total of $60 million in science education grants. I am very happy that HHMI continues to help provide support for science education.

Sadly USA government leaders (local and national) have chosen to cut the importance they place on science education over the last few decades we have coasted on the gains we made in the 1960s and 1970s. That is no way to succeed. Thankfully a few foundations, with HHMI probably leading the way, and some great schools have kept the USA in a leadership position, but that leadership shrinks each year. And at the primary and secondary school level the USA dropped far back in the pack decades ago for science eduction The top countries in primary and secondary science education are now Finland, Hong Kong and Korea.

Since 1988, the Howard Hughes Medical Institute has awarded $820 million to 264 colleges and universities to support science education. Those grants have generally been awarded through two separate but complementary efforts, one aimed at undergraduate-focused institutions and the other at research universities. HHMI support has enabled more than 80,000 students nationwide to work in research labs and developed programs that have helped 95,000 K-12 teachers learn how to teach science more effectively.

The new grants will range from $800,000 to $1.6 million over four years for individual institutions and up to $4.8 million over four years for those applying jointly.

Related: Science Courses for the Next Generation$60 Million for Science Teaching at Liberal Arts Colleges in 2008The Importance of Science EducationGenomics Course For College Freshman Supported by HHMI at 12 Universities$600 Million for Basic Biomedical ResearchScience and technology leadership

The biggest change in the new 2012 competition is the requirement that applicants focus on a single educational goal that unites their proposed science education program. In the past, HHMI’s grants have allowed applicants to submit projects in four categories: student research, faculty development, curriculum and laboratory development, and outreach. Although schools were not expected to put forward a program in every category, Asai notes the modular design of the grant competition often led schools to “check the boxes” rather than encouraging them to think strategically about how these activities can help them reach an overarching science education objective.
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Google Summer of Code is Accepting Application Now

Google Summer of Code 2011 is accepting applications. This is a great initiative I have highlighted previously: Google Summer of Code 2009, Google Summer of Code 2008. The deadline for applications is April 8th.

Google Summer of Code is a program that offers student developers stipends to write code for various open source projects. The program has brought together over 4,500 students with over 300 open source projects, to create millions of lines of code. Participants (including students and mentors) have represented over 85 countries. The program, which kicked off in 2005, is now in its seventh year.

Participating organizations include: R Project for Statistical Computing, Debian Project, WordPress and the Marine Biological Laboratory. (9 of the 175 participating organizations list Ruby as part of their project :-).

For 2010 the effort had a budget of $5,000,000 and accepted 1026 students partnering with 150 Open Source organizations. This year they plan on 1,150 – 1,200 student positions. For 2007 they had 6,200 applications and 7,000 in 2008. I don’t see any data on applicants for 2009.

As for the application it should include the following: your project proposal, why you’d like to execute on this particular project, and the reason you’re the best individual to do so. Your proposal should also include details of your academic, industry, and/or open source development experience, and other details as you see fit. An explanation of your development methodology is a good idea, as well.

Related: Engineering Majors Hold 8 of Top 10 Highest Paid MajorsHow To Become A Software Engineer/Programmerposts from my management blog on software development

Why Do People Invest Large Amounts of Time and Money?

According to Neil deGrasse Tyson the reasons people/societies take on huge expenditures (Great Wall of China, Manhattan project, Apollo space missions, Spanish ocean exploration, TVA, Egyptian pyramids, Cathedrals):

  1. defense/war
  2. economic return
  3. veneration to power

“The urge to discover is not there, I wish it were it is just not.” Many countries have figured out the economic benefits of large investments of science and engineering: China, Singapore, Korea… Europe and the USA are limiting such investments while continuing less useful spending. I think the results will be very obvious 20 years from now. It isn’t that the USA and Europe are not making such investments, they are, but at a much lower rate than probably is wise economically.

Related: Neil Degrasse Tyson: Scientifically Literate See a Different WorldVaccines Can’t Provide Miraculous Results if We Don’t Take ThemNanotechnology Investment as Strategic National Economic PolicyEconomic Strength Through Technology Leadership