Proposed Revisions to Criteria 3 and 5

Slides:



Advertisements
Similar presentations
As presented to the Global Colloquium on Engineering Education Deborah Wolfe, P.Eng. October 2008 The Canadian Process for Incorporating Outcomes Assessment.
Advertisements

Assessment of Undergraduate Programs Neeraj Mittal Department of Computer Science The University of Texas at Dallas.
ABET-ASAC Accreditation Workshop ABET Criteria and Outcomes Assessment
© Copyright CSAB 2013 Future Directions for the Computing Accreditation Criteria Report from CAC and CSAB Joint Criteria Committee Gayle Yaverbaum Barbara.
1 A pupil from whom nothing is ever demanded which he cannot do, never does all he can. John Stuart Mill.
1 UCSC Computer Engineering Objectives, Outcomes, & Feedback Tracy Larrabee Joel Ferguson Richard Hughey.
Computer Science Department Program Improvement Plan December 3, 2004.
Computer Science Accreditation/Assessment Issues Bolek Mikolajczak UMass Dartmouth, CIS Department Chair IT Forum, Framingham, MA January 10, 2006.
What You Need to Know About ABET Accreditation
ABET Engineering Criteria 2000 To maintain ABET accreditation, Engineering Departments must demonstrate that all of their graduates have the following.
Program Improvement Committee Report Larry Caretto College Faculty Meeting December 3, 2004.
DIPOL Quality Practice in Training at İstanbul Technical University Maritime Faculty Dr.Banu Tansel.
ABET Accreditation Board for Engineering and Technology
Capstone Design Project (CDP) Civil Engineering Department First Semester 1431/1432 H 10/14/20091 King Saud University, Civil Engineering Department.
Assessment College of Engineering A Key for Accreditation February 11, 2009.
Accreditation Board for Engineering and Technology - is a non governmental organization that accredits post secondary educational organizations in : 1)
ABET Accreditation Status CISE IAB MeeertingJanuary 24, CEN program fully ABET-accredited (in 2006) until 2012: no concerns, no weaknesses, no deficiencies.
ABET Accreditation (Based on the presentations by Dr. Raman Unnikrishnan and W. J. Wilson) Assoc. Prof. Zeki BAYRAM EMU Computer Engineering Dept. 14 January.
CHEN Program Assessment Advisory Board Meeting June 3 rd, 2012.
OUTCOME BASED LEARNING- CONTINUES IMPROVEMENT. Motivation  PEC??  Continues Improvement.
OBE Briefing.
ABET’s coming to Rose! Your involvement Monday, Nov 5, 2012.
CHEMICAL ENGINEERING PROGRAM CHEN Program Assessment Advisory Board Meeting May 21, 2013.
AL-QADISIYIA UNIVERSITY COLLEGE OF ENGINEERING SELF ASSESSMENT REPORT Submitted by SAR committee.
Overview of the Department’s ABET Criterion 3 Assessment Process.
معايير ABET المعتمدة لكليات الهندسة للحصول على الاعتمادية الدولية
1 Department of Electrical and Computer Engineering MDR (18 th -27 th November 2013) -MDR Deliverables clearly defined? -Individual team member MDR deliverables.
 Introduction Introduction  Contents of the report Contents of the report  Assessment : Objectives OutcomesObjectivesOutcomes  The data :
Criteria for Accrediting Engineering Programs Effective for Evaluations during the Accreditation Cycle.
ABET 2000 Preparation: the Final Stretch Carnegie Institute of Technology Department Heads Retreat July 29, 1999.
EENG 4910/4990 Engineering Design Murali Varanasi September 02, 2009.
1 A pupil from whom nothing is ever demanded which he cannot do, never does all he can. John Stuart Mill.
Supporting ABET Assessment and Continuous Improvement for Engineering Programs William E. Kelly Professor of Civil Engineering The Catholic University.
Cross Cutting Initiatives - Education William E. Kelly Professor of Civil Engineering The Catholic University of America.
ABET is Coming! What I need to know about ABET, but was afraid to ask.
CEN ABET Mini- Retreat March 4, CEN ABET Mini-Retreat Agenda: –State of the Assessments –Discussion on loop closings. –CSE Program Objectives/Outcomes.
Department of Electrical and Computer Engineering MDR Report.
B - 1 October 2004 Eric Guilbeau, PhD  Department Chair, ASU, has overseen 4 visits to ASU (2 BME, 1 ChE, 1 Mat’ls Eng)  Lead 1 PEV visit (Bioengineering)
Copyright © 2011 by ABET, Inc. and TMS 1 December 2, 2008 ABET Update UMC Meeting April 6, 2015 San Francisco, CA Chester J. Van Tyne
Copyright © 2014 by ABET Proposed Revisions to Criteria 3 and 5 Charles Hickman Managing Director, Society, Volunteer and Industry Relations AIAA Conference.
HU113_Assignment31 HU113: Technical Report Writing Prof. Abdelsamie Moet Teaching Assistant: Mrs. Rana El-Gohary Fall 2012/13 Pharos University in Alexandria.
CEN Faculty MeetingMarch 31, ABET Accreditation Brief history. –1980’s: faculty qualifications sufficed. –1990s: quality of courses, materials, and.
Engineering Standards in Capstone Design William E. Kelly Department of Civil Engineering The Catholic University of America Washington, DC ASEE.
Gateway Engineering Education Coalition Background on ABET Overview of ABET EC 2000 Structure Engineering Accreditation and ABET EC2000 – Part I.
CISE IAB MeetingOctober 15, ABET Accreditation Brief history. –1980’s: faculty qualifications sufficed. –1990s: quality of courses, materials, and.
Preparing for ABET visit Prof. Dr. Lerzan Özkale Management Engineering Head of Department November 2010.
1 Assessment of Undergraduate Programs Neeraj Mittal Department of Computer Science The University of Texas at Dallas (UTD) January 22, 2016.
University of Utah Program Goals and Objectives Program Goals and Objectives Constituents U of U, COE, ASCE, IAB Constituents U of U, COE, ASCE, IAB Strategic.
Slide 1 ANSI Annual Conference 2002 Breaking Down Border: Business, Standards and Trade Engineering Overview presented by William E. Kelly Professor Catholic.
Engineering programs must demonstrate that their graduates have the following: Accreditation Board for Engineering and Technology (ABET) ETP 2005.
ABET ACREDITATION By: Elizabeth Rivera Oficina de Acreditación.
Funded by a grant from the National Science Foundation. Any opinions, findings, conclusions or recommendations expressed are those of the authors and do.
ABET Accreditation College of IT and Computer Engineering
AAC ABET Subcommittee Report for 2016
Continuous Program Improvement
Accreditation and Curriculum Development
OUTCOME BASED EDUCATION
Day 1 Session 2/ Programme Objectives
Accreditation Board for Engineering and Technology
Class Agenda Capstone Design Project Process 10 min
2012 Capstone Design Conference Amin Karim, DeVry University
Neeraj Mittal September 29, 2017
Senior Design Module Last revised 8/26/2018
Department of Computer Science The University of Texas at Dallas
Information Technology (IT)
Development of ABET Syllabus
Lebanese International University (LIU)
Assessment and Accreditation
CE 220 Professionalism A pupil from whom nothing is ever demanded which he cannot do, never does all he can. John Stuart Mill.
ZZULI ABET Workshop Assessment and Continuous Improvement
Presentation transcript:

Proposed Revisions to Criteria 3 and 5 Charles Hickman Managing Director, Society, Volunteer and Industry Relations AIAA Conference January 6, 2015

Charge to the C3 Task Force (2009) Develop a systematic process to assess, evaluate, and recommend improvements of Criterion 3. The process should define and involve the constituents of Criterion 3. The process should explore potential metrics that may be used to assess and evaluate the effects of Criterion 3 on the quality of engineering education. The goals should consider the definition of engineering in a global context and encourage innovation and differentiation in engineering education and the engineering profession, rather than conformity

Notes ~ 75 potential additions to the Outcomes were identified by the Task Force This work began prior to Harmonization which moved the assessment activities from C3 to C4 It became clear that the Outcomes should be developed in concert with Curricular Requirements (C5)

Categories of Outcomes Technical: the specialized skills that are required by a practitioner in the discipline. Business: the skills required to function within a larger enterprise. Communication: the skills to convey information effectively using a variety of methods, and media. Professionalism: the personal and professional conduct and qualities expected for a practicing engineer. Individual – Skills such as creativity, leadership, innovation, and practical ingenuity are desirable qualities that can be emphasized to the degree that meets a program’s mission.

Initial Findings The continuing substantial number of shortcomings on Criterion 3 should not be ignored, and the underlying causes of these continuing shortcomings should be identified. Some outcomes have proven difficult to assess in a useful and repeatable manner Ability to function on multidisciplinary teams Understanding of professional and ethical responsibility Impact of engineering solutions in a global, economic, environmental and societal context Recognition and ability to engage in life-long learning Knowledge of contemporary issues .

Initial Findings (continued) With very few exceptions, programs have chosen to adopt and assess only the required a-k criteria, with little evidence of innovation involving student outcomes Academic constituents continue to report inconsistent application and interpretation of the criteria by program evaluators. Several constituencies regularly propose enlargement of the existing criteria, with substantial arguments

Guiding Goal Develop a set of Outcomes that are applicable across all engineering programs, that are necessary for professional practice, and the accomplishment of which can be evaluated to some reasonable degree within the engineering curriculum

Draft Outcomes (Criterion 3) The program must have documented student outcomes that prepare graduates to enter the engineering profession. Student outcomes are outcomes (1) through (6) plus any additional outcomes that may be articulated by the program. 1. An ability to use the principles of science and mathematics to identify, formulate and solve engineering problems. 2. An ability to apply both analysis and synthesis in the engineering design process, resulting in designs that meet constraints and specifications. Constraints and specifications include societal, economic, environmental, and other factors as appropriate to the design. 3. An ability to develop and conduct appropriate experimentation and testing procedures, and to analyze and draw conclusions from data. 4. An ability to communicate effectively with a range of audiences through various media. 5. An ability to demonstrate ethical principles in an engineering context. 6. An ability to establish goals, plan tasks, meet deadlines, manage risk and uncertainty, and function effectively on teams.

Comments on Current Draft “Identify and formulate engineering problems” is important to include in the outcomes The list of constraints in the engineering design outcome may be too prescriptive or limiting “Modern engineering tools” is important to include in C3 or C5 Criterion 5 should be reviewed in a comprehensive sense. Allowance of Outcomes in program criteria should be considered A number of members feel that “multidisciplinary” is important to include, perhaps in C5

Draft Criterion 5 The curriculum requirements specify subject areas appropriate to engineering but do not prescribe specific courses. The curriculum must support attainment of the student outcomes and must include:  (a) one year of a combination of college level mathematics and basic sciences (some with experimental experience) appropriate to the program. Basic sciences are defined as biological, chemical, and physical sciences.

Draft Criterion 5 (continued) b) one and one-half years of engineering topics, consisting of engineering sciences and engineering design appropriate to the program and incorporating modern engineering tools. The engineering sciences have their roots in mathematics and basic sciences but carry knowledge further toward creative application. These studies provide a bridge between mathematics and basic sciences on the one hand and engineering practice on the other. Engineering design is the process of devising a system, component, or process to meet desired needs within constraints such as sustainability, ethics, health and safety, and manufacturability. It is a decision-making process (often iterative), in which the basic sciences, mathematics, and the engineering sciences are applied to convert resources optimally to meet these stated needs.

Draft Criterion 5 (continued) c) a general education component that complements the technical content of the curriculum and is consistent with the program educational objectives.  Students must be prepared for engineering practice through a curriculum culminating in a major design experience based on the knowledge and skills acquired in earlier course work and incorporating appropriate engineering standards and multiple constraints. One year is the lesser of 32 semester hours (or equivalent) or one-fourth of the total credits required for graduation.

The Process Discussion draft presented by the Criteria Committee to EAC in July, 2014 July, 2014-May, 2015: solicit input from societies, deans, faculty, industry reps and advisory councils. Edit draft criteria as appropriate July, 2015: First reading action at EAC Earliest date for visits: 2017-18 Possible phase-in period for institutions

Direct Comments and Questions Maryanne Weiss Senior Director of Accreditation, ABET mweiss@abet.org 410-347-7730