1 / 18

Perspectives on Growing a Graduate Program in Computational Science

Perspectives on Growing a Graduate Program in Computational Science. CASC Meeting, Oct. 4, 2012 Terry Moore tmoore@icl.utk.edu , Innovative Computing Laboratory, University of Tennessee, Knoxville. Innovative Computing Laboratory. A Computational Science Program @ UTK.

cherie
Download Presentation

Perspectives on Growing a Graduate Program in Computational Science

An Image/Link below is provided (as is) to download presentation Download Policy: Content on the Website is provided to you AS IS for your information and personal use and may not be sold / licensed / shared on other websites without getting consent from its author. Content is provided to you AS IS for your information and personal use only. Download presentation by click this link. While downloading, if for some reason you are not able to download a presentation, the publisher may have deleted the file from their server. During download, if you can't get a presentation, the file might be deleted by the publisher.

E N D

Presentation Transcript


  1. Perspectives on Growing a Graduate Program in Computational Science CASC Meeting, Oct. 4, 2012 Terry Mooretmoore@icl.utk.edu, Innovative Computing Laboratory, University of Tennessee, Knoxville

  2. Innovative Computing Laboratory

  3. A Computational Science Program @ UTK Interdisciplinary Graduate Minor in Computational Science

  4. A simple conception of Computational Science

  5. Interdisciplinary Graduate Minor • Interdisciplinary • Digitalization and networking have encouraged interdisciplinary activities —— breaking down silos • Graduate • Each of the areas in the triangle has a core curriculum • But there is no core curriculum for Computational Science • Minor • Complementary knowledge/skill/expertise to main area of specialization • Goes on student’s transcript; part of the official record

  6. Mathematicsand Statistics Computer And Information Science Domain Sciences Requirements for Students • General Idea: Students have a “home” area for their major degree; IGMCS minor requires a combination of courses “outside of home.” • Masters Level: Requires 9 hours (3 courses) from IGMCS areaS. • 9 hours (3 courses) from the different areas. • Students must take at least 3 hours (1 course) from each of the 2 non-home areas • Doctoral level: Requires15 hours (5 courses) from the pools. • At least 15 hours (5 courses) must be taken outside the student’s home area. • Students must take at least 3 hours (1 course) from each of the 2 non-home areas

  7. Internship • Optional but strongly encouraged. • Students in the program can fulfill 3 hrs. of their requirement through an Internship with researchers outside the student’s major. • The internship may be taken offsite, e.g. ORNL, on campus (with a faculty member in another department), or in Industry. IGMCS students have interned at ORNL, Google, Microsoft & Intel. • Internships must have the approval of the IGMCS Program Committee.

  8. Machinery of our little slice oftheBureaucracy Advisor and Liaison coordinate to tailor/adapt plan for student Student form shows the tailored process works Plan is agreed to Students execute/Plans can change Results are approved All relevant parties sign off when plan is completed

  9. IGMCS Participating Departments

  10. Program Administration • IGMCS Program Committee (6 to 8 people) • Subset of the Program Faculty • 1-2 representatives from each of the colleges involved • Renewable 2 year terms • Responsible for oversight: program requirements, approving courses and department programs, student course selection, etc. • IGMCS Faculty Liaisons • Any faculty member, assistant professor or above in rank, nominated by department head and approved by program committee • Responsible for updating course lists, working with department faculty, student advising student research, serving on student committees • Administrative Support • A fraction of a person from the Center for Information Technology Research

  11. How it Started Chancellor says … Jack, I want a Computational Science Program! *Dec. 2004

  12. Problem 1: Computational Science is not well defined intellectually This side is well understood: “In every department of physical science there is only so much science, properly so-called, as there is mathematics.” ~Immanuel Kant CISE disciplines are new, evolving, disruptive to traditional academic structures Established and familiar disciplines; sometimes controversial where they are becoming computational

  13. Problem 2: Disciplines that are well defined have academic turf

  14. February 2005: Initial discussion with a few departments May 2005: Solicited input from departments on “Certificate in Computational Science” June 2005: Draft material sent to all interested parties October 2005: First campus organizing meeting for a UTK Computational Science program November 2005: Graduate Dean suggests modeling after Stat’s minor: Intercollegiate Graduate Minor in Statistics (IGMS) December 2005: Group meets and agrees on some initial version of the plan February 2006: Second Group meeting March 2006 Subcommittee formed to provide plan Plan circulated and agreed on Dean of Graduate School approves plan April 2006: “Buy in” from many parties May 2006: Curriculum Committee of the Graduate Council approval Fall 2006: Added to 2007 graduate catalogue; other departments join. January 2007: IGMCS enrolls its first students How it grew Step 1: Achieve common understanding Step 2: Find a model people already understand

  15. Some Current Stats • 30 students currently in the program • 2 new students: 1 PhD in CEE, 1 MS in INSC • 4 students received an IGMCS minor in summer 2012 • 3 PhD: Chemistry, Computer Science, Civil & Environmental Engineering, • 1 MS: Information Science • 26 total graduates: 17 PhD, 9 MS • Instrumental in 2 IGERT awards

  16. Problem 3: Constant turnover of the technological base • Everybody knows that computing power is increasing exponentially • It’s now obvious that the observational basis of science --- the data--- is revolutionizing as well • The collaborative infrastructure of science is clearly being revolutionized • What is the role of the University in the age of Khan academy?

  17. IGMCS life prospects • It currently lives on a minimum of resources • Volunteer efforts from IGMCS faculty participants • Fractional administrative support from CITR, i.e. Jack’s center • No core curriculum… but there could be, e.g. • Essentials of programming • “Software carpentry” • Managing the digital data life cycle • Domain X for non-domain X’ers • Considering a full-blown PhD program • Problem: Organizing for “Interdisciplnarity” means making the walls of the silos permeable

More Related