Publication Date
| In 2024 | 27 |
| Since 2023 | 59 |
| Since 2020 (last 5 years) | 164 |
| Since 2015 (last 10 years) | 313 |
| Since 2005 (last 20 years) | 614 |
Descriptor
| Chemical Engineering | 1110 |
| Engineering Education | 561 |
| Higher Education | 469 |
| College Science | 324 |
| Teaching Methods | 271 |
| Chemistry | 253 |
| Science Education | 252 |
| Science Instruction | 245 |
| Foreign Countries | 179 |
| Undergraduate Students | 168 |
| Scientific Concepts | 136 |
| More ▼ | |
Source
Author
Publication Type
Education Level
Audience
| Practitioners | 218 |
| Teachers | 155 |
| Students | 27 |
| Researchers | 26 |
| Administrators | 13 |
| Policymakers | 10 |
| Counselors | 1 |
Location
| South Africa | 22 |
| Spain | 17 |
| Australia | 14 |
| Canada | 11 |
| New Jersey | 8 |
| North Carolina | 7 |
| Pennsylvania | 7 |
| Finland | 6 |
| Michigan | 6 |
| United Kingdom | 6 |
| Alabama | 5 |
| More ▼ | |
Laws, Policies, & Programs
| Morrill Act 1862 | 1 |
| Smith Hughes Act | 1 |
Assessments and Surveys
| Approaches to Studying… | 1 |
| Inventory of Learning… | 1 |
| Learning Style Inventory | 1 |
| Myers Briggs Type Indicator | 1 |
| Study Process Questionnaire | 1 |
What Works Clearinghouse Rating
Peer reviewedCallis, James B.; And Others – Analytical Chemistry, 1987
Discusses process analytical chemistry as a discipline designed to supply quantitative and qualitative information about a chemical process. Encourages academic institutions to examine this field for employment opportunities for students. Describes the five areas of process analytical chemistry, including off-line, at-line, on-line, in-line, and…
Descriptors: Chemical Analysis, Chemical Engineering, Chemical Industry, Chemical Reactions
Peer reviewedLewandowski, Gordon A.; Tomkins, Reginald P. T. – Journal of Chemical Education, 1987
Describes a 16-week course on fundamentals of chemical engineering offered to high school science teachers by the New Jersey Institute of Technology. Discusses the course structure, including the topics addressed. Provides two material balance problems in the appendices. (TW)
Descriptors: Chemical Engineering, Chemistry, College Science, Course Content
Peer reviewedBartholomew, Calvin H. – Chemical Engineering Education, 1987
Describes the development of the Advanced Combustion Engineering Research Center (ACERC), which is a cooperative project of Brigham Young University, the University of Utah, and 25 governmental and industrial research laboratories. Discusses the research objectives, the academic program, the industrial relations and technology transfer program,…
Descriptors: Chemical Engineering, College Science, Engineering Education, Government School Relationship
Felder, Richard M.; And Others – 1994
Many are aware that factors other than academic talent help to determine a student's success or failure in school A 4-year longitudinal study including 87 men and 34 women at North Carolina State University examines gender differences in students' academic performance, persistence in chemical engineering, and attitudes toward their education and…
Descriptors: Academic Achievement, Attitudes, Chemical Engineering, Classroom Research
Peer reviewedVenkatasubramanian, V. – Chemical Engineering Education, 1986
Describes a course on artificial intelligence (AI) in process engineering taught at Columbia University to chemical engineering students, using an AI methodology known as Knowledge-Based Expert Systems (KBES). Provides a description of the course, the lecture topics, and a synopsis of some of the student projects. (TW)
Descriptors: Artificial Intelligence, Chemical Engineering, College Science, Computer Uses in Education
Case, Jennifer; Jawitz, Jeff – Journal of Research in Science Teaching, 2004
It has been proposed that situated cognition theory, in which learning is conceptualized as induction into a community of practice through the activity of legitimate peripheral participation, offers an appropriate theoretical perspective for examining issues of gender in science education. This study critically engages with this proposal by means…
Descriptors: Student Experience, Focus Groups, Chemical Engineering, Gender Issues
Peer reviewedMiller, William M.; Petrich, Mark A. – Chemical Engineering Education, 1991
A class in which students learn about the roles that chemical engineers play in a variety of industries is described. Outlines from the first two class offerings and discussions of the use of guest speakers, videos, plant visits, student projects, and grading are included. (KR)
Descriptors: Career Awareness, Chemical Engineering, Chemistry, College Science
Peer reviewedPesmazoglu, Stephanos – European Journal of Education, 1994
Forces inhibiting change in Greek university education are examined, and trends in university curriculum development are analyzed, using four disciplines as examples: chemical engineering; physics; economics; and history. The extent of influence of government populism and state patronage on the university curriculum is explored. (MSE)
Descriptors: Change Strategies, Chemical Engineering, College Curriculum, Comparative Analysis
Jones, Lyle V., Ed.; And Others – 1982
The quality of doctoral-level chemical engineering (N=79), civil engineering (N=74), electrical engineering (N=91), and mechanical engineering (N=82) programs at United States universities was assessed, using 16 measures. These measures focused on variables related to: (1) program size; (2) characteristics of graduates; (3) reputational factors…
Descriptors: Academic Libraries, Chemical Engineering, Civil Engineering, College Faculty
Sharma, Ramesh C., Ed.; Mishra, Sanjaya, Ed. – Information Science Publishing, 2007
"Cases on Global E-Learning Practices: Successes and Pitfalls" looks into global practices of e-learning, examining the successes and failures of e-learning professionals. It provides a judicious mix of practical experiences and research in the form of case studies. Written by experts from all over the globe, this book shows how to…
Descriptors: Electronic Learning, Global Approach, Case Studies, Educational Strategies
Ohio State Univ., Columbus. Center on Education and Training for Employment. – 1994
This document contains 16 units to consider for use in a tech prep competency profile for the occupation of plastics technician. All the units listed will not necessarily apply to every situation or tech prep consortium, nor will all the competencies within each unit be appropriate. Several units appear within each specific occupation and would…
Descriptors: Articulation (Education), Chemical Engineering, Competence, Competency Based Education
Peer reviewedWoods, Donald R. – New Directions for Teaching and Learning, 1996
Two McMaster University (Canada) chemical engineering courses enrolling 30-50 students incorporate problem-based learning (PBL). Issues addressed in implementation included overcoming faculty and student resistance, integrating PBL methods within a predominantly conventional curriculum, developing PBL problems and objectives, and using tutorless…
Descriptors: Achievement Gains, Alumni, Chemical Engineering, Classroom Techniques
Thorley, Lin, Ed.; Gregory, Roy, Ed. – 1994
The 26 papers in this collection from a British conference first provide an overview of group-based learning in higher education, offer a range of examples, and identify issues and trends. Chapters include: (1) "Introduction" (Roy Gregory and Lin Thorley); (2) "An Overview from Higher Education" (Diana M. R. Tribe); (3)…
Descriptors: Accounting, Administrator Education, Aerospace Technology, Business Administration Education
Garrett Park Press, MD. – 1987
This directory of financial aid sources for minority students majoring in engineering or scientific fields includes the following types of information: (1) summary and description of the field, including college enrollment statistics, degrees awarded, demand for graduates (including salary ranges), and definitions of major fields; (2) directory of…
Descriptors: Agricultural Engineering, American Indians, Architectural Education, Biological Sciences
Walton, C. John, Ed. – Bureau of Education, Department of the Interior, 1925
This is the fourth part of a 5-part survey of land-grant college education. Other parts are: (1) History and Educational Objectives of Land-Grant College Education; (2) The Liberal Arts and Sciences and Miscellaneous Subjects in Land-Grant Colleges (3) Agricultural Education in Land-Grant Colleges (including agricultural engineering)(4); and Home…
Descriptors: Educational Environment, Curriculum, Educational Trends, Educational Change

Direct link
