University Education In The Geosciences: Reflections on the past, the present, and the future – being a talk in three parts – John T. Snow The University.

Slides:



Advertisements
Similar presentations
National Academy of Engineering of the National Academies 1 Phase II: Educating the 2020 Engineer Phase II: Adapting Engineering Education to the New Century...
Advertisements

Indian Institute of Remote Sensing Indian Space Research Organisation Dehradun Challenges in Capacity Building in Remote Sensing & GIS P. S. Roy
Technology Management and Policy / RdN ROLE AND NATURE OF TECHNOLOGY POLICY MANAGEMENT IN ENGINEERING SCHOOLS  Dr. Richard de Neufville  Professor of.
Developing a Geoscience and Remote Sensing Laboratory as a Pathway to Earth SySTEM Education John D. Moore Einstein Fellow Emeritus President-Elect, National.
1 Comments on EC 2000: Why so much detail to tell us about EC 2000? Practices of Modern Engineering – Spring 2011 You learned where things (courses) fit.
Engineering Fundamentals and Problem Solving, 6e
Assessment of Undergraduate Programs Neeraj Mittal Department of Computer Science The University of Texas at Dallas.
1 Graduates’ Attributes : EMF, EUR-ACE and Federal Educational Standards Alexander I. Chuchalin, Chair of the RAEE Accreditation Board Graduates’ Attributes.
Core Competencies Student Focus Group, Nov. 20, 2008.
A workshop for STEM subjects on Sustainable Development The Higher Education Academy Session 3: STEM and ESD THE SUSTAINABLE PRACTITIONER.
The Leeds Curriculum Slides for Open Days. The Leeds Curriculum What can you expect from a Leeds degree? Exposure to research from day one: teaching informed.
Graduate Expectations. Critical Thinking & Life Management. IBT graduates are expected to: identify and demonstrate the essential employability skills.
Careers in CS & Engineering. CS & Engineering careers are not all this….
Engineering and Service-Learning: Improved Education, Improved Communities William Oakes EPICS Program Purdue University.
School of Business University of Bridgeport Admissions Presentation Robert Gilmore, Ph.D. Associate Dean School of Business.
Jeffrey S. Russell, P.E., Ph.D., F.ASCE Chair, Department of Civil & Environmental Engineering University of Wisconsin - Madison Preparing the Professional.
OPERATIONS and LOGISTICS MANAGEMENT
Year 11 Science What type of Science courses are available year 11? ATAR Courses: Examinable courses, which may be used towards a university entrance.
Program Improvement Committee Report Larry Caretto College Faculty Meeting December 3, 2004.
Meaning and Scope Chapter 1.
A Liberal Education Does Not Make You a Liberal or a Conservative, But It Can Help You Decide….. Prof. Jennifer Kinney Department of Sociology and Gerontology.
Connecting Geoscience Departments to the Future Where is our Research Going? A Perspective on the next 25 years Eric J. Barron.
The Influence of the University/College/Department Mission How your university and department’s missions influence your engineering degree requirements.
Day 1 Session 2/ Programme Objectives
21st Century Skills Initiatives
Interdisciplinary Business Education: Combining the Power of Inter-professional Collaboration with the Benefits of Student Engagement Alan Belasen, Ph.D.,
ABET’s coming to Rose! Your involvement Monday, Nov 5, 2012.
Atmospheric and Ocean Science Education: Reflections on the past, the present, and the future – being a talk in three parts – John T. Snow The University.
Outcomes-based Education at UC. Created, Implemented, Maintained and Assessed by Faculty (Supported by Everyone!)
LEFIS W2 Posgraduate Workshop 1 LEFIS, WG 2 Postgraduate studies Meeting, Rotterdam.
Designing and implementing of the NQF Tempus Project N° TEMPUS-2008-SE-SMHES ( )
Environmental Engineering Curriculum Evolution and Future Directions James Kilduff and Sim Komisar Department of Civil and Environmental Engineering Colloquium.
Thomas A. Pressley July 11, National Defense Education Act of 1958.
Thomas College Name Major Expected date of graduation address
Higher education and professional work José-Ginés Mora Technical University of Valencia, Spain.
AIAA’s Publications Business Publications New Initiatives Subcommittee Wednesday, 9 January 2008 Rodger Williams.
The Engineering Body of Knowledge Joint Engineers Conference 07 November 2014 Helena, MT Robert A. Green, P.E., F. NSPE President National Society.
BUSINESS INFORMATICS descriptors presentation Vladimir Radevski, PhD Associated Professor Faculty of Contemporary Sciences and Technologies (CST) Linkoping.
Learning outcomes for BUSINESS INFORMATCIS Vladimir Radevski, PhD Associated Professor Faculty of Contemporary Sciences and Technologies (CST)
Integrated Defense Systems 1. 2 Greatest Needs: Engineers (Software, Avionics, Systems) Financial Analysts Current Critical Skills: Software Quality EngineerElectrical.
LITERACY FRAMEWORKS Kevin Kloesel College of Atmospheric and Geographic Sciences
Larry D. Roper Oregon State University. Context: American colleges and universities had the development of “the whole person” at the core of their missions.
Graduates for the 21 st Century - Perspective from Research Ian Diamond RCUK.
David Mogk Dept. of Earth Sciences Montana State University April 8, 2015 Webinar SAGE/GAGE FACILITIES SUPPORTING BROADER EDUCATIONAL IMPACTS: SOME CONTEXTS.
Teaching to the Standard in Science Education By: Jennifer Grzelak & Bonnie Middleton.
What is a 21st Century Learner?
On our way to the Bachelor College November 2011.
Student Learning Outcomes and Curriculum Design at Montana State University David Mogk Head, Dept. Earth Sciences June 28, 2013 InTeGrate Workshop on Geoscience.
P ROFESSIONALISM The term professionalism is defined as "1. professional character, spirit, or methods. 2. the standing, practice, or methods of a professional.
Copyright © 2014 by ABET Proposed Revisions to Criteria 3 and 5 Charles Hickman Managing Director, Society, Volunteer and Industry Relations AIAA Conference.
1 Embedding internationalisation, employability and inclusive education through graduate attributes: A case study of “A Global Outlook” Laura Dean David.
Preparing for ABET visit Prof. Dr. Lerzan Özkale Management Engineering Head of Department November 2010.
Inquiry in the National Science Education Standards: From Structured Exercises to Guided Learning Experiences to Open Ended Research John T. Snow College.
Accreditation of study programs at the Faculty of information technologies Tempus SMGR BE ESABIH EU standards for accreditation of study.
ABET ACREDITATION By: Elizabeth Rivera Oficina de Acreditación.
National Academy of Engineering of the National Academies 1 National Academy of Engineering Engineer of 2020 Project Wm. A. Wulf.
Defining 21st Century Skills: A Frameworks for Norfolk Public Schools NORFOLK BOARD OF EDUCATION Fall 2009.
Robert P. King Department of Applied Economics April 14, 2017
OUTCOME BASED EDUCATION
Day 1 Session 2/ Programme Objectives
STRATEGIC ACADEMIC UNIT “PEOPLE & TECHNOLOGIES”
Mechanical & Manufacturing Engineering Program
COLLEGE OF ENGINEERING GEORGIA TECH Academic Year
Project Learning Tree Project Learning Tree is an education program designed for teachers and others working with youth from pre-school through 12th grade.
AACSB’s Standard 9: Curriculum content
First-Stage Draft Plans for Gen Ed Revision
Meaning and Scope Chapter 1.
What are your Career Options?
Assessment and Accreditation
NextGen STEM Teacher Preparation in WA State
Presentation transcript:

University Education In The Geosciences: Reflections on the past, the present, and the future – being a talk in three parts – John T. Snow The University of Oklahoma Norman, Oklahoma USA EGS/AGU/EUG Joint Assembly – 9 Apr 03

Acknowledgements Don Johnson, Univ. of Wisconsin, who introduced me to Earth System Science in the 1980s Art Few, Rice University, who taught me the need for integrative thinking with respect to Earth System models Cathy Manduca and Dave Mogk, who introduced me to inquiry as way of learnig Faculty colleagues, who over the years debated with me on what a university degree is and it could (should) become

I. University Education In The Geosciences: The Past In The Beginning … In The Beginning … Reductionist Focus Reductionist Focus Related Developments Related Developments The Last Forty Years The Last Forty Years

In The Beginning … Natural philosophy in the late 1700s 3 3 Holistic; no formal disciplinary boundaries 3 3 Physical Geography is probably most direct descendent Geology: the early 1800s Meteorology: mid-1800s, but “modern” meteorology in the early 1900s Oceanography: mid-1800s, but “modern” oceanography in the mid-1900s

Reductionist Focus Focus narrowly on components of Earth System necessary to build the knowledge base  research driven Development of narrow subspecialties 3 3 Continued proliferation for last 100 years Loss of connection to the life sciences Loss of perspective of the whole: “Can’t see forest for the trees” POINT: Modern geoscience education, independent of particular discipline, has evolved to be largely reductionist in structure, with early specialization

Related Developments Association with the extractive industries 3 3 Mining – rose and fell, but still remembered 3 3 Fossil Fuels – the “energy business” Association with global military operations 3 3 Cold War Rise of the “environmental movement” 3 3 Politics 3 3 “Soft” science Global population  6B + “rising expectations” Tools and Techniques Tools and Techniques 3 Computational capabilities; GIS 3 Observing platforms; GPS POINT: Sets the context for present and future

The Last 40 Years View from space  Again seeing Earth as whole View from space  Again seeing Earth as whole Knowledge base has reached stage where again need to consider Earth as an integrated system  Earth System Science; such a perspective required to address: Knowledge base has reached stage where again need to consider Earth as an integrated system  Earth System Science; such a perspective required to address: 3 Environmental Quality 3 Water Issues 3 Climate Change Bio-geoscience  formal reconnection to the life sciences Bio-geoscience  formal reconnection to the life sciences 3 Life an integral part of the Earth System Scientific foundation for sustainability Scientific foundation for sustainability

II. University Education In The Geosciences: The Present Entering the Golden Age? A More Demanding Customer Base Symptoms of Problems New Demands on Geosciences Education

Entering the Golden Age? Knowledge base has grown to where we can now begin to understand the Earth as an integrated system 3 3 Biogeochemical cycles 3 3 Climate and climate change New tools and techniques promise unprecedented opportunities to explore the Earth on a wide range of scales 3 3 Now able to “see” phenomena in ways impossible only a few years ago 3 3 Continued push toward “big science” POINT: Ready to make major advances in understanding and in predictive capabilities

A More Demanding Customer Base Geosciences relies on the support of society – government, industry 3 3 Shrinking discretionary budgets 3 3 Accountability Utilitarian Perspective  Applications to Decision- Making 3 3 Support to decision makers in government and industry 3 3 Establishment of a global society sustainable in long term Industry does little training anymore POINT: Lawyers, accountants, populist politicians are in charge of the future!

Symptoms of Problems Declining pool of high quality applicants for graduate study (competition from IT, Business, Law, Medicine) In the educational process itself: lack of diversity/high degree of commonality in programs (“cookie cutter”); little experimentation in format, content, program integration, or teaching techniques; rigid, slow to adapt to new knowledge, changing job market  we continue to teach much as we were taught

New Demands on Geosciences Education Substantive education in disciplinary science area necessary, but not sufficient for personal success as a geoscientist Mastery of wider range of technical tools 3 3 GPS, GIS; MIS for applications Soft Skills 3 3 Communications in all forms 3 3 Business, Political Sense Life-long learning, personal re-invention several times during a career POINT: Educational programs should be flexible, adaptable to prepare graduates for a rapidly evolving professional environment

III. University Education In The Geosciences: The Future Recruiting the Next Generation of Geoscientists 3 3 Positives 3 3 Negatives Twin Challenges to Tomorrow’s Geoscientists One Way Forward Goals for the Pre -Professional Degree 1, 2, 3 Goals for the Professional Degree 1, 2 Goals for the Research Degree Closing Challenges

Recruiting The Next Generation of Geoscientists - Positives Inherent natural interest in the Earth, atmospheric phenomena, the sea, and the environment Some students born to be geoscientists! Combination of science/high technology with the out-of-doors Environmental concerns

Recruiting The Next Generation of Geoscientists - Negatives Declining interest generally in science as a career choice  “Not where the action is” 3 3 Limited financial rewards/not competitive 3 3 Lack of prestige/status Negative image due to association with extractive industries, energy business 3 3 Perceived as part of the environmental problem, not part of the solution Lack of visibility; isolated in the ivory tower 3 3 Too academic, not customer-oriented 3 3 Perceived as irrelevant POINT: Must compete vigorously for “best and brightest”

Twin Challenges to Tomorrow’s Geoscientists Development of integrated understandings of Earth processes that combine measurements from optimally designed three-dimensional multi-scale observing systems with numerical simulations/prediction models Provision of customized diagnostic and prognostic information that meets users’ needs for improved decision-making information on an operational basis  knowledge/technology transfer POINT: Tomorrow’s educational programs must prepare graduates to respond to these challenges

One Way Forward Pre-Professional Degree  Bachelor's – emphasis on fundamentals of mathematics, physics, chemistry, life sciences as applied to the Earth as a whole; disciplinary area of secondary concern The Professional Degree  Master’s –emphasis on depth in a disciplinary area in preparation for a career in industry or government The Research Degree  PhD – emphasis on discovery; breadth as well as depth; professionalism

Pre-Professional Degree Professional Degree Research Degree POINT: The Master’s completely separate from the PhD

Goals for the Pre-Professional Degree 1 Know the basic physical, chemical, and life science principles that govern the functioning of the Earth System (what scientists have come to know -- “facts”, theories, models -- about Earth processes as reflected in observable events ) 3 3 Quantitative as well as qualitative appreciation of the natural world and the events that occur within it 3 3 Interconnections of Earth’s major subsystems 3 3 Earth history: Evolution over long time   Origin, composition, and structure

Goals for the Pre-Professional Degree 2 Understand that science is a systematic method for exploring the natural world (how scientists have come to know what they know - processes, methods) 3 3 Development of scientific “habits of mind” (  critical thinking, arguing from data, mathematical and reasoning skills, and problem solving experiences) POINT: For the pre-professional student, the geosciences should appear to be seamless and quantitative, focused on “How the World Works”

Goals for the Pre-Professional Degree 3 Able to apply knowledge and understanding to the solution of novel problems 3 3 Uses a suite of appropriate “technology” – IT, GIS, GPS, visualization – in problem solving 3 3 Accesses relevant parts of the accumulated body of knowledge about the natural world 3 3 Recognizes, quantifies uncertainties and risks POINT: Foundation for further study, life-long learning

Goals for the Professional Degree 1 Depth  Specialist knowledge, understandings, and skills 3 3 GIS, RS, GPS tools as appropriate to the disciplinary area 3 3 Ethics  risk; societal impacts (good and bad) Case study based, team-oriented 3 3 Context: how disciplinary knowledge fits with that of other geoscientists, engineers 3 3 Integration: how to apply disciplinary knowledge to solve complex problems

Goals for the Professional Degree 2 Technical project  content + writing, presentation skills 22 to 24 months Opportunities for industry involvement  internships, tailored projects POINT: Employment oriented; flexible skills package

Goals for the Research Degree Fundamental -- make an original contribution to the knowledge base Professional Development – ethics; humankind as part of an integrated environment ; environmental economics  prepared to play a leadership role in developing a sustainability society in a world of rapid changes

Closing Challenges Resolve the dichotomy that often exists between many faculty members’ professional interests and student desires and/or expectations Development of an entrepreneurial spirit with regard to geosciences education, breaking with traditions of last 100 years 3 3 Bold and innovative in both structure and content 3 3 Recognize that in a pre-professional program, excitement as well as content must be communicated; emphasize critical thinking and problem solving skills 3 3 Re-orient the Professional Degree to serve the needs of the work place Compete successfully to bring “best and brightest” in to the geosciences

John T. Snow Dean, College of Geosciences The University of Oklahoma Sarkeys Energy Center, Suite E. Boyd Street Norman, Oklahoma USA Telephone: FAX: