Category Archives: Economics

Posts exploring the economic impacts of science and engineering. The value of strong science and engineering practice has many benefits to the economy – directly and indirectly. Many countries are focusing their future economic plans on advancing their scientific, engineering and technology communities and creating environments that support scientists and engineers.

Offering Residency to Foreign Engineers and Scientists

Rep. Lofgren wants residency for foreign engineers

Foreign-born engineering, science, and math students in the United States should be automatically granted legal residency when they get a job in this country, said California Congresswoman Zoe Lofgren.

Lofgren, a Democrat, spoke to an audience Friday at the Joint Venture: Silicon Valley conference about threats to innovation in the area. She said that about 56 percent of the Ph.D. candidates at the finest schools in the United States are immigrants, and because of the government’s current immigration policy, many of those people leave the country.

I support such legislation. I also think it is only one, of many measure to take to encourage science and engineering excellence (which will in turn help the economy). I have no doubt that other countries are going to be successful establishing their own global centers of excellence and attract scientists and engineers from around the world: including from the USA. The Curious Cat Science and Engineering Blog now includes a tag cloud on the right side of our home page, tags for this post include: government and economy.

Related: Brain Drain Benefits to the USA Less Than They Could Beeconomic benefits of science and engineering excellenceUSA Losing Brain Drain Benefits

High School Students in USA, China and India

2 million minutes is a documentary film looking at education in USA, China and India. The producers offer a blog, What Should America Do?, which is interesting.

this blog offers deeper insights into education in China, India and the United States, and the challenge America faces. Now you can join a dialog about what governments, communities and families should and are doing to best prepare US students for satisfying careers in the 21st century.

U.S. Students Can’t Compete in High-Tech World

The film follows two students from Carmel High School in Indianapolis, as well as two students from India and two from China. The premise is that they all have roughly 2 million minutes in high school to build their intellectual foundation and prepare for college and a career.

Twenty months in the making, “2 Million Minutes” highlights the pressures and priorities of these students and their families. Ultimately, it provides insight into the changing nature of competition in a technology-based global economy.

“As a high-tech entrepreneur and venture capitalist for the past 25 years,” Compton said,” I can tell you the people who have reaped the greatest economic rewards in the past two decades have been those with the most rigorous and thorough understanding of technology — and thus a solid foundation in math and science — and who have an ability to solve problems and possess entrepreneurial skill.”

I strongly agree with the economic benefits from strong science and engineering education and the personal benefit of science and technology expertise (one small example: S&P 500 CEOs – Again Engineering Graduates Lead).

See some of our previous posts on similar matters: The Importance of Science EducationUSA Teens 29th in ScienceScientific IlliteracyFun k-12 Science and Engineering LearningDiplomacy and Science ExcellenceLego Learning

The Economic Consequences of Investing in Science Education

My comments on: National Association of High School Principals Takes Exception to Two Million Minutes

Thanks for saying what has to be said. I have talked on similar themes on my blog for awhile now. The USA is definitely losing its relative position as the clear leader for science and engineering excellence.

The debate now whether we are willing to invest more today to slow the decline or whether we are willing to risk the economic future where our centers of science and engineering excellence are eclipsed quickly.

There is a long lag time that has allowed us to coast for the last 30 or so years. The reality is that most Americans suffer under the illusion we are in the same position we were in 1970’s. We are not and it is obvious to me that the economic impacts are starting to have dramatic effects now and it will only increase.

It might be more pleasant to explain why the USA is fine the way it is but that is a mistake. For more on my thoughts see two categories of the Curious Cat Science and Engineering Blog: Economics and primary science education and 2 posts: The Future is Engineering and the Political Impact of Global Technology Excellence.

Grand Challenges for Engineering

Here are the Grand Challenges for engineering as determined by a committee of the National Academy of Engineering:

* Make solar energy economical
* Provide energy from fusion
* Develop carbon sequestration methods
* Manage the nitrogen cycle
* Provide access to clean water
* Restore and improve urban infrastructure
* Advance health informatics
* Engineer better medicines
* Reverse-engineer the brain
* Prevent nuclear terror
* Secure cyberspace
* Enhance virtual reality
* Advance personalized learning
* Engineer the tools of scientific discovery

Committee members included: J. Craig Venter, President, The J. Craig Venter Institute; Dean Kamen, Founder and President, DEKA Research and Development Corp; Raymond Kurzweil, Chairman and Chief Executive Officer, Kurzweil Technologies, Inc and Larry Page, Co-Founder and President of Products, Google, Inc.

The web site (which by the way fails to even display the text on many pages without javascript – phb design) goes into more details on each challenge and will chronicle the ideas the public shares based on the challenges.

Related: Grainger Challenge Prize for SustainabilityCivil Engineering ChallengesWater and Electricity for AllExtreme Engineering

China’s Technology Savvy Leadership

China’s Sci-Tech Savvy Leadership by Jocelyn Ford

Until last year, the top nine members of China’s politburo were ALL trained engineers! And guess what? The Communist Party made innovation and global leadership in science and technology national goals.

Ancient China is famous for its early scientific advances, some of which predated western developments by centuries. Its inventions include paper, printing, gunpowder and the compass.

Leadership does matter, but so does the system. It seems to me it should take a lot longer for China to build a sci-tech friendly system than for the U.S. to bring in sci-tech friendly leadership. That’s where you come in Ira & co.

If I may make one final comment: in my ideal world, borders shouldn’t matter. Victory by the best system, with the best leaders, will hopefully be a victory for all earthlings.

CHINA’S POLITBURO (2007): Decline of the engineer. Last fall China introduced a new top lineup that included two law graduates, as well as an economist, and graduates in history, journalism, management and business administration.

I agree that the increase in science and engineering investment around the globe is a positive development. But the USA faces loses that it has enjoyed due to past technology leadership.

China benefits greatly from such scientific knowledge at the highest level of government. The top 9 leaders in China are know as the “Politburo Standing Committee,” the new additions in 2007 were:

Xi Jinping, 54, studied chemical engineering at the Qinghua University and later earned a doctorate in law.

Li Keqiang, 52, obtained MA and doctorate of Economics after attending the on-the-job postgraduate program on Economics at the School of Economics of Peking University.

He Guoqiang, 63, B.S. Beijing Institute of Chemical Engineering.

Zhou Yongkang, 64 “Graduated from the Exploration Department, Beijing Petroleum Institute, majoring in geophysical exploration. With a university education. Senior engineer with a rank equivalent to professor. ” Funny, I don’t remember any U.S. politician exalting their experience as “equivalent to a professor.”

They joined the nine-member echelon with the five remaining members of the previous standing committee, namely Hu Jintao, Wu Bangguo, Wen Jiabao, Jia Qinglin and Li Changchun.

Related: Science Investment, Diplomacy and EconomicsAsia: Rising Stars of Science and EngineeringChina’s Engineering Innovation PlanOnce Again Engineering Graduates Lead Ranks of S&P 500 CEOsAuthors of Scientific Articles by CountryBest Research University Rankings (2007)

Rainforests

John Hunter in Costa Rica

Facts about Rainforests by The Nature Conservancy

  • Covering less than 2 percent of the Earth’s total surface area, the world’s rainforests are home to 50 percent of the Earth’s plants and animals.
  • Seventy percent of the plants identified by the U.S. National Cancer Institute as useful in the treatment of cancer are found only in rainforests.
  • Less than one percent of the tropical rainforest species have been analyzed for their medicinal value.
  • Originally, 6 million square miles of tropical rainforest existed worldwide. But as a result of deforestation, only 2.6 million square miles remain.
  • At the current rate of tropical forest loss, 5-10 percent of tropical rainforest species will be lost per decade.
  • Every second, a slice of rainforest the size of a football field is mowed down. That’s 86,400 football fields of rainforest per day, or over 31 million football fields of rainforest each year.

Photo of John Hunter in Costa Rican rain forest, by Justin Hunter.

Related: Incredible Insects10 Science Facts You Should KnowCurious Cat Hoh Rain Forest Photo Essay

SelFISHing

Until All the Fish Are Gone

Scientists have been warning for years that overfishing is degrading the health of the oceans and destroying the fish species on which much of humanity depends for jobs and food. Even so, it would be hard to frame the problem more dramatically than two recent articles in The Times detailing the disastrous environmental, economic and human consequences of often illegal industrial fishing.

Sharon LaFraniere showed how mechanized fishing fleets from the European Union and nations like China and Russia – usually with the complicity of local governments – have nearly picked clean the oceans off Senegal and other northwest African countries. This has ruined coastal economies and added to the surge of suddenly unemployed migrants who brave the high seas in wooden boats seeking a new life in Europe, where they are often not welcome.

The second article, by Elisabeth Rosenthal, focused on Europe’s insatiable appetite for fish – it is now the world’s largest consumer. Having overfished its own waters of popular species like tuna, swordfish and cod, Europe now imports 60 percent of what it consumes. Of that, up to half is contraband, fish caught and shipped in violation of government quotas and treaties.

I have mentioned the very serious problem of over-fishing the oceans:

The measured effects today should be enough for sensible people to realise the tragedy of the commons applies to fishing and obviously governments need to regulate the fishing to assure that fishing is sustainable. This is a serious problem exacerbated by scientific and economic illiteracy. The obvious scientific and economic solution is regulation. Determining the best regulation is tricky (and political and scientific and economic) but obviously regulation (and enforcement) is the answer.

Sadly this selfish consuming now and passing the problem to those who follow is common lately: Tax Our Children and Grandchildren Instead of Us. Remember when parents actually wanted to leave the world better off for children? What a quaint old idea.

Related: South Pacific to Stop Bottom-trawlingAltered Oceans: the Crisis at SeaOverfishing

Invest in Science for a Strong Economy

From a consistent voice in favor of scientific investment comes a call to invest in basic scientific research. Craig Barrett, Chairman of the Board at Intel, pens opinion piece – Flagging Economy Needs Science Investments

Legislation in the form of the America Competes Act was passed in the House and Senate in 2007, and it appeared the United States was finally going to move forward after years of neglect to increase investment in math, science and basic research. All parties agreed that our competitiveness in the 21st century was at stake and we needed to act.

So much for political will.

The recent budget deal between Republicans and Democrats effectively flat-funds or cuts funding for key science agencies. Excluding “earmarks,” the Department of Energy funding for fiscal year 2008 is up only 2.6 percent, thus losing ground to inflation. The National Science Foundation is up 2.5 percent, with the same result. The National Institute of Standards and Technology is up 11 percent, however the labs where research happens only get 2.3 percent, again losing ground to inflation.

What are they thinking? When will they wake up? It may already be too late; but I genuinely think the citizenry of this country wants the United States to compete. If only our elected leaders weren’t holding us back.

It is a shame that the leaders are doing such a bad job. I wrote about their failures recently in the Curious Cat Investing and Economic Blog, Politicians Again Raising Taxes On Your Children. But we keep electing people that think the way to improve the economy is to borrow some more money (and science and engineering investments seem very far down on their lists of what to spend money on) for someone to pay back in the future. So while our leaders are disappointing, society at large is getting what they ask for.
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Country H-index Rank for Science Publications

The SCImago Journal and Country Rank provides journal and country scientific indicators developed from the information contained in the Scopus database. As stated in previous posts these types of rankings have limitations but they are also interesting (such as the best research universities 2007). The table shows the top 6 countries by h-index and then some others I chose to list.

Country h-index % of World
Population
% of World GDP total Cites % Top 500 Schools
USA

793     4.6%   27.4% 43,436,526 33%
United Kingdom

465  0.9  4.9 9,895,817 8
Germany

408  1.3  6.0  8,377,298 8
France

376  0.9  4.6  5,795,531 4
Japan

372  2.0  9.0 7,167,200 6
Canada

370  0.5  2.6 4,728,874 4
Additional countries of interest
20) China

161  20.1  5.5  1,629,993 3
20) South Korea

161    .7  1.8  1,018,532 2
24) Brazil

148  2.9  2.2 752,658 1
25) India

146  17.0  1.9 994.561 .4

Read more about the h-index (Hirsh index). Country population and GDP data taken World Development Indicators 2007, by the World Bank.

via: Stat freaks, are you ready to play with the SCImago Journal & Country Rank?

Related: Worldwide Science and Engineering Doctoral Degree DataViews on Evolution by CountryScience and Engineering Doctoral Degrees WorldwideTop 10 Manufacturing Countries 2006USA Teens 29th in ScienceRanking Universities WorldwideDiplomacy, Science Research and Economics

The Role of Science in Economy

Role of Science in Economy by Suh Nam-pyo, president of the Korea Advanced Institute of Science and Technology:

Over the past 30 years, Korea, led by the Ministry of Science and Technology (MOST), has established a strong base fostering innovation in science and technology, leading to impressive industrial and economic development.

organizations that can deal with both science and technology such as the Massachusetts Institute of Technology (MIT), IBM research laboratories and NASA’s Jet Propulsion Laboratory (JPL) have had a major impact on the economy as well as on science and technology.

National Laboratories should not compete with these industrial firms in these areas where industry is active. National Laboratories should rather work on more advanced technologies that industry will need in the future but not working at this time. As scientific fields advance and as technologies become sophisticated, new ideas are often synthesized at the interface between various disciplines of science and technology. This means that highly monolithic, single disciplinary research laboratories will not likely generate new exciting ideas.

Korea must follow the example of the U.S. in developing its research universities. By doing so, it too can create a new industrial base through research and technological innovation.

Good article making many of points I have posted about often relating to science, technology and economic success.

Related: Economic Benefits of Engineering ExcellenceHow to Build a World Class Technology EconomyBest Research University Rankings (Korea not in top 100 here)