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STEM@theTech-Preso

Realtor at Better Homes and Gardens Real Estate | Mason-McDuffie
19 de Feb de 2015
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Más de Carlos F. Camargo, Ph.D. - Realtor, CalBRE #01988431(20)

STEM@theTech-Preso

  1. GRANT & COOPERATIVE AGREEMENTS POSITIONING STRATEGY 2008-12 Carlos F. Camargo, PhD Director of Foundations Relations & Development August 2008 Shelter from the Gathering Storm: Mapping Needs, Aligning Programs, Inspiring Youth
  2. Mission Statement The Tech Museum of Innovation is an educational resource established to engage people of all ages and backgrounds in exploring and experiencing technologies affecting their lives, and to inspire the young to become innovators in the technologies of the future.
  3. The Tech Museum Envisions …
  4. •  Long term commitment •  Maintaining focus •  Capacity building •  Sustainability •  Leveraging resources •  Credibility with stakeholders •  Evaluation and benchmarking of results Educational programming @ The Tech Strategies advancing the support of STEM education and free-choice learning at all levels, K-16.
  5. Underserved Populations Title 1 K-12 students Women & Minorities Seniors Rural & Urban Core Supporting STEM STEM Promotion/Advocacy IN-reach via 2nd Classroom STEM Afterschool Programs Teacher Prof Dev Experiential Learning Standards-based Labs Field Trip Services Self-Guided & Web-based Lifelong learning tools In-reach Strategies Integrated Development Community-Based Partnerships Program Innovation & IN-reach ENVIRONMENT-CHOICES PriorityPriority Needs Mapping: The Tech’s Commitment to STEM GRANT STRATEGY & POSITIONING ALIGNED FOR INREACH
  6. Regional Outcomes •  Aids students in the mastery of essential mathematics and science concepts; •  Motivates students to pursue STEM-related careers; •  Provides students with real-world tasks and hands-on learning opportunities that encourage career exploration; •  Provides teachers, parents and caregivers with guidelines and resource curriculum materials; and •  Provides teachers, parents and caregivers with assessment strategies and rubrics
  7. Tech Museum STEM Program Outcomes
  8. Overview of presentation •  Origins of STEM Concerns •  A Different Take on the Data •  The Deeper Concerns About STEM
  9. STEM Education As we think about the big picture of STEM education, we might ask ourselves… 1.  What are the drivers? 2.  What is the context? 3.  What are the issues?
  10. The Drivers 1.  The global, knowledge based economy 2.  The recognition that STEM fields underpin modern life and our standard of living 3.  The need for all students to be STEM literate and the need for STEM experts 4.  The need to build a skilled workforce of problem solvers, innovators and inventors 5.  The need for life long learning
  11. The Context 1.  There are too few students who are choosing to study math and science beyond the compulsory school years 2.  This impacts the pool of generic and specialized skills available
  12. The Issues: Industry and Academia sound alarms •  “Regrettably, the American K-12 system is failing to provide the math and science skills necessary for kids to compete in the 21st century workforce, and the U.S. higher education system cannot produce enough scientists and engineers to support the growth of the high-tech industry that is so crucial to economic prosperity.” –  “Losing the Competitive Advantage?,” AeA •  “Participants expressed concern that a weakening of science and technology in the United States would inevitably degrade its social and economic conditions and in particular erode the ability of its citizens to compete for high-quality jobs.” –  “Rising Above the Gathering Storm,” The National Academy of Sciences, the National Academy of Engineering, and the Institute of Medicine of the National Academies
  13. 1. U.S. lags internationally in K-12 math/science literacy (i.e., test scores) TIMMS is a test of math and science literacy given to K-12 students in the U.S. and other countries."
  14. 2. U.S. lags internationally in STEM postsecondary degree production SOURCE: Tapping Americaʼs Potential, 2005" 50! 100! 150! 200! 250! 300! 350! 0! China
 (2003)! Japan
 (2004)! U.S.
 (2003)! S. Korea (2002)! “China is graduating more than four times as many engineers as the United States”" - Tapping Americaʼs Potential (2005)"
  15. 3. Trends over time seen as evidence of falling supply, rising demand Fewer graduates … •  Between 1984 and 2007 the number of bachelor’s degrees conferred rose 43 percent while the total number of bachelor’s of engineering degrees dropped 15 percent. –  National Science Foundation More jobs … •  Between 2002 and 2012, the number of jobs in scientific and technical occupations in California will increase 25-33 percent.
  16. Scary Trends in Supply & Demand … “By 2015, if current trends continue, more than 90 percent of all scientists and engineers in the world will be living in Asia.”
  17. … Lead to Desperate Measures The U.S. must “double the number of STEM graduates with bachelor’s degrees by 2015.”
  18. How the TECH MUSEUM Defines “STEM” Follows California Office of Higher Education definition -- by Classification of Instructional Program (CIP) Codes •  01 Agriculture, Agricultural Operations and Related Sciences 11 Computer and Informational Sciences and Support Services 14 Engineering 15 Engineering Technologies/Technicians 26 Biological and Biomedical Sciences 27 Mathematics and Statistics 40 Physical Sciences 41 Science Technologies, Technicians NOTE: All data we present for the remainder of the presentation reflects California data, but patterns are same when you look at national data
  19. Overview of presentation •  Origins of STEM Concerns •  A Different View of the Data •  The Deeper Concerns About STEM
  20. Job growth is projected to be faster for STEM than for non-STEM jobs. But … SOURCE: DEED LMI, 2004-2014 Occupational Employment Projections" STEM = Computer, Agricultural, Life and Physical Scientists, Engineers, Science and Engineering Technicians" Ten-year growth rate. 10-year rate of growth!
  21. … not all STEM-related occupations are growing at above-average rates SOURCE: DEED LMI 2004-2014 Occupational Employment Projections" 10-year rate of growth!
  22. And, even though it’s faster- growing, STEM accounts for relatively few job openings SOURCE: DEED LMI 2004-2014 Occupational Employment Projections"
  23. Most STEM-related Job Openings Will Be in IT and Engineering, Not Science SOURCE: DEED LMI 2004-2014 Occupational Employment Projections"
  24. Except for IT, Projections Show Supply of Graduates Outpacing Demand Source: Degrees awarded—IPEDS, National Center for Education Statistics" Projected Openings—DEED-LMI, 2004-2014 Occupational Employment Projections
  25. National Data Shows Similar Deterriorating Pattern “Although I know you routinely are told by corporate lobbyists that their R&D is being globalized in part due to shortages of scientists and engineers in the U.S., no one who has studied this matter with an open mind has been able to find any objective data of such general shortages." -- Michael S. Teitelbaum,VP of Alfred P. Sloan Foundation, testifying before Congress on Nov. 7, 2007 Analysis of the flow of students up through the S&E pipeline, when it reaches the labor market, suggests the education system produces qualified graduates far in excess of demand: S&E occupations make up only about one-twentieth of all workers, and each year there are more than three times as many S&E four-year college graduates as S&E job openings. -- Urban Institute, October 2007 http://www.urban.org/publications/411562.html
  26. So What Are the Deeper Issues? •  Not all STEM is equal – current data do predict significant workforce shortage in IT •  It is believed that supply of STEM-prepared students will drive job creation in U.S. • a “supply side” strategy
  27. Overview of presentation •  Origins of STEM Concerns •  A Different View of the Data •  The Deeper Concerns About STEM
  28. “Supply-side” strategy Fields of math and science are “strategically critical” “Losing America’s Competitive Advantage” (2007), AeA •  “As countries catch up to the United States in science and engineering and as they diffuse technology to promote innovation and enhance competitiveness, the possibility that the next breakthrough technologies will be born abroad is ever more likely.” •  “As more countries liberalize capital markets, lower tariffs and other trade barriers, and pursue less interventionist regulatory policies, the tipping point in choosing where to locate the next cluster of innovation will be the education and skill level of the workforce.”
  29. So What Are the Deeper Issues? •  Not all STEM is equal – current data do predict significant workforce shortage in IT •  It is believed that supply of STEM-prepared students will drive job creation in U.S. –  a “supply side” strategy •  Achievement gaps remain
  30. Achievement Gaps Remain (U.S. data) SOURCE: College Board 2006, cited in Urban Institute Report"
  31. So What Are the Deeper Issues? •  Not all STEM is equal – current data do predict significant workforce shortage in IT •  It is believed that supply of STEM-prepared students will drive job creation in U.S. –  a “supply side” strategy •  Achievement gaps remain •  STEM literacy is important for student success
  32. SOURCE: biotechwork.org (67%) SF Bay Area “Biotech” Employment
  33. Analyze STEM-related Occupations   Goal: Learn to what degree non-STEM occupations require math and science competency   Used data from O*NET Resource Center http://www.onetonline.org
  34. Definitions of the Criteria Used > Using O*NET we identified occupations that require higher education > Included Job Zone >2 •  Job Zone 5 –  A bachelor’s degree is the minimum formal education required, but many require graduate degree •  Job Zone 4 –  Most, but not all, require a bachelor’s degree •  Job Zone 3 –  Most require training in vocational schools, related on-the- job training, or an associate’s degree
  35. Definitions of the Criteria Used Then we analyzed occupations based on the level of math or science competency needed •  High Math = –  Level >4, and –  Importance >3 •  High Science = –  Level >2, and –  Importance >3 SOURCE: http://www.onetcenter.org/ questionnaires.html
  36. Majority of Occupations Requiring STEM competency are not “STEM jobs” 81 of 208 High Math Occupations are STEM 64 of 137 High Science Occupations are STEM
  37. Based on DEED-LMI 2004-2014 Employment This Relationship Is More Pronounced When You Look at Number of Jobs
  38. Rate of Growth of STEM Jobs Projected To Outpace Non-STEM Jobs Avg. for all occupations Based on DEED-LMI 2004-2014 Employment
  39. But STEM Jobs Account for Small Number of Projected Job Openings Based on DEED-LMI 2004-2014 Employment
  40. STEM Literacy Is Important •  Highest level of math taken in high school is better predictor of bachelor’s degree attainment than socioeconomic status is. –  Clifford Adelman, US Department of Education, February 2006 •  In 2003, about 5 million workers were in occupations formally defined as science and engineering (S&E). However, today, 13 million said they needed at least a bachelor's degree level of knowledge in S&E fields to do their jobs. –  National Science Foundation, Science and Engineering Indicators, 2008 •  “We need to get our kids excited about STEM classes because the economic currency of the 21st century is math and science knowledge.” –  Jack O’Connell, Superintendent of Public Instruction, CDE, November 2007
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