Mr. President, I rise today to introduce the Protecting America's Competitive Edge (PACE) Act that will enable us to build on our existing strengths to help secure America's continued economic…
Mr. President, I rise today to introduce the Protecting America's Competitive Edge (PACE) Act that will enable us to build on our existing strengths to help secure America's continued economic prosperity in the twenty-first century.
I want to gratefully acknowledge at the outset that I am introducing this legislation with Senator Domenici, Senator Alexander, Senator Mikulski, and others. This measure is the product of our combined best efforts from both sides of the aisle, and our sole focus has been only on what is in the best interests of the Nation as a whole.
For the last 200 years, our investments in science and technology, both public and private, have driven our economic growth and improved the quality of life in America. They have generated new knowledge and new industries, created new jobs, ensured economic and national security, reduced pollution and increased energy efficiency, provided better and safer transportation, improved medical care, and increased living standards for the American people.
America's scientists and engineers through their unmatched vitality, creativity, and curiosity have helped us not only imagine but invent the future. In large measure, their contributions have made this new century before us so full of promise--molded by science, shaped by technology, and powered by knowledge.
One of the bedrock policies of our Nation's economic security must be to sustain our investments in science and technology. Today there is no dispute that science, and the technology that flows from it, is duly recognized as the piston that drives the economic engine that enriches the quality of our lives.
Yet today our preeminence is precarious.
Numerous thoughtful leaders in government, industry, and academia who are concerned about sustaining U.S. leadership across the frontiers of scientific knowledge are expressing growing uneasiness over troubling trends regarding the Nation's future prosperity. They warn we are slipping in our world leadership role in science and engineering, and losing sight of the importance of long-term investments in creating the conditions of prosperity.
Other nations are coming up fast behind us on the scientific track and are pouring resources into their scientific and technological infrastructure. There is the distinct possibility that U.S. competitiveness in key high-tech areas will fall behind the major Pacific Rim countries of India, China, Taiwan, and South Korea.
Moreover, the focus of our fundamental R&D has shifted away from the physical sciences, mathematics, and engineering--the critical areas of R&D most closely correlated with innovation and economic growth.
Many of our foremost research programs that have been curtailed or cut back in recent years have been the cornerstone for much of our economic progress and spurred the creation of high paying jobs. Budget increases have been disproportionately concentrated primarily in two departments--Defense and Homeland Security--leaving other vital R&D agencies with very modest increases, or with an increase for some agencies offset by flat funding, or cuts in others.
In the name of national security, we have been building a swaying tower of insecurity.
We are on the brink of a new industrial and commercial world order. The reality of the twenty-first century global economy is that China, India, and other nations once considered economic backwaters have discovered how to build strong economies around very sophisticated technology.
On the Pacific Rim, China has increased spending on colleges and universities almost tenfold in the last decade, and is doubling the proportion of GDP invested in that same period on R&D to promote competitiveness and growth. India is raising its funding of science agencies by 27 percent, and Japan is increasing its investments in life science by 32 percent, while South Korea is upgrading research spending by 8.5 percent.
As our share of the world's technical graduate workforce slips, European and Asian universities are churning out ever greater numbers of workers in scientific fields. And while young Americans may shy away from technical careers because they perceive better opportunities in other high-level occupations, there are still sufficient rewards to attract ever-increasing numbers of foreign graduate students eager to pursue science and engineering degrees.
All of these signs, granted, are a cause for concern. Yet none of them, however, is a cause for panic. To state the facts frankly is not to despair about the future, nor is it to indict the past. Our task today is not to fix the blame for yesterday, but to set the proper and prudent course for tomorrow.
These revolutionary changes in the global marketplace for highly skilled technical workers are dislodging the long-standing dominance of the U.S. scientific enterprise.
That is causing our comparative advantage in high tech production to suffer and, despite the extraordinary power and resilience of our economy, signals a lengthy and difficult period of adjustment for American industry, its workforce, and ultimately our strong middle class standard of living which makes this country great.
It also flags a pivotal moment in American history--a time of national peril, as well as a time of national opportunity.
What should we do about these international challenges? We have absolutely no choice but to emphasize what we do best in this coming rivalry. Our most important strengths have always been education and innovation. Our can-do spirit of commercializing technological innovation has always been America's core competence. We do it far better than anyone else--we have done it before, and we can continue to excel at it.
Last May, Senator Lamar Alexander and I asked the National Academy of Sciences to conduct a study to identify ``specific steps our government should take to ensure the preeminence of America's scientific and technological enterprise to enable us to successfully compete, prosper, and be secure in the global community of the 21st century.''
The Academy assembled an extraordinarily distinguished panel of America's best scientific minds, including three Nobel Prize winners, business executives, and university leaders and reported their findings back to us in October in a sobering report entitled, Rising Above the Gathering Storm.
The National Academy's report proposes four broad recommendations: 1. Increase America's talent pool by vastly improving K-12 science and mathematics education; 2. sustain and strengthen the Nation's traditional commitment to long-term basic research; 3. make the United States the most attractive setting in which to study and perform research; and 4. ensure that the United States is the premier place in the world to innovate.
First and foremost, we need to fix our math and science education system from kindergarten through high school. We should establish a merit-based, 4 year undergraduate scholarship program to annually recruit 10,000 students per year to careers teaching math and science who then commit to working for at least 4 years in K-12 public schools.
Using incentives and scholarships, our aim should be to quadruple the number of America students enrolled in advanced math and science courses to four and a half million by 2010.
A U.S. high school student has about a 70 percent chance of being taught English by a teacher with an English degree, but only a 40 percent chance of being taught chemistry by a teacher with a degree in chemistry. And the situation is worse for middle school students: 70 percent of them are taught math by a teacher lacking a certificate or major in math.
It takes many years to educate a citizen. There are no short term solutions
to this problem, and workforce issues rarely respond to quick fixes and often span generations.
That is why there is such a sense of urgency to recruit thousands of new math and science teachers in the years ahead through the award of competitive scholarships. Additionally, we must strengthen 250,000 current teachers' math and science teaching skills with enhanced training and education by leveraging the expertise of the world's best physicists, mathematicians, and engineers to help provide that training.
This legislation will also provide greater opportunities for students to take advanced math and science classes by increasing the number of students who enroll in Advanced Placement and International Baccalaureate science and math courses.
Second, we must steadily increase our investment by 10 percent each year for the next 7 years in long-term basic research, with special attention devoted to the physical sciences, engineering, mathematics, and information sciences.
The Federal Government supports a majority of the Nation's basic research and nearly 60 percent of the R&D is performed in U.S. universities. At the same time, this investment at universities and colleges plays a key role in educating the next generation of scientists and engineers and a technically skilled workforce. We ought to provide 200 new research grants annually--worth $500,000 each payable over 5 years--to the Nation's most outstanding early-career researchers.
Additionally, we should consider creating a revolutionary agency in the Energy Department modeled on the highly successful Defense Advanced Research Projects Agency to sponsor research to meet the Nation's long- term energy challenges that industry by itself cannot or will not support.
Just as Olympic-caliber athletes need the finest equipment and training protocols to triumph in their events, so do scientists, engineers and their students need the most modern research instruments and facilities with the best capabilities, the farthest reach, and the finest accuracy and resolution. To enable us to push beyond the frontiers of our current knowledge, we should create a centralized research infrastructure fund of $500 million annually over the next 5 years to ensure we have the equipment necessary for breakthrough scientific discoveries.
Third, we must increase the number of U.S. citizens earning science, engineering, and math degrees. We must redouble our efforts to encourage gifted young American men and women to pursue these high tech disciplines which require so much from them and which have so much to offer all of our people. We can do so by providing annually 25,000 competitive undergraduate scholarships in physical sciences, engineering, and mathematics, and fund 5,000 new portable graduate fellowships in those fields.
Equally important, we need a global recruitment strategy to attract the best and brightest to learn and live in America as part of our high tech workforce. Our visa, immigration and export control policies desperately need reform. Delays and difficulties in obtaining visas to the U.S. are contributing to a declining in-flow of scientific talent.
We need to ensure the best and brightest come here, stay here, and obtain legal residency after college to contribute to our national economy instead of being forced back to their home countries to compete against us.
Finally, we need to be able to assure investors that the U.S. is the preferred site for investments in new or expanded businesses that create the best jobs and provide the best services.
To spur U.S.-based research and experimentation to meet global competition, we need to modernize the patent system, realign our tax policies to encourage long-term investments in innovation, and ensure the Nation meets the goal of affordable broadband Internet access by 2007.
Our patent laws must also be reformed by moving to a first-to-file instead of a first-to-invent, thus bringing us into line with the rest of the world while reducing expensive litigation. Infrastructure planning grants and loan guarantees could also ensure that U.S. science parks are competitive with those throughout Asia.
Additionally, we should eliminate uncertainty by doubling the R&D tax credit and making it permanent. Studies document that this tax credit encourages as much R&D spending as it costs in foregone revenue--and perhaps even twice that amount over the long haul.
We face a competitive challenge of historic proportions today due to several new factors: The growing number of countries with advanced skills, multinational corporations placing their R&D centers, fueled by high education and low labor costs, wherever the profits are the greatest, and virtually every service being electronically communicable.
It will be difficult to ever match our populous economic competitors in the quantity of their scientists and engineers. Ours is an even tougher task: to stay far ahead in the quality of our research and to keep pioneering scientific fields so cutting edge that others, for the most part, cannot duplicate them.
We can readily meet this challenge and enjoy a prosperous future, even though these investments in education and research require incurring costs now for benefits later.
The PACE Act will sustain our vibrant science and technology sector and with it our well-being, health, environment, and security.
It will encourage education at home and attract talented scientists and engineers from abroad, as well as nurture a business environment that transforms new knowledge into new opportunities for creating high quality jobs and reaching shared goals.
The passage of this farsighted public investment program will ensure that the United States is stronger, smarter, and leads the world in scientific and technological innovation in the twenty-first century.