datashowing “double-digit” participation for the MBTI types ESTJ and ISTJ, which arose in threeseparate databases. These databases, which were derived from the literature cited in their paper,came from a substantial number of longitudinal studies conducted in both the U.S. and Canada.Many of the articles referred to background summary of this article address the uniqueness of theengineering students as a cohesive group. It is this uniqueness that is being explored using theStrengthsFinder assessment tool. Page 25.1180.4This article examines the connection between MBTI typing and StrengthsFinder signaturethemes, presents data showing a possible
. Since many concepts in fluids andheat transfer are difficult for students to grasp, we felt that an approach that substantially andmeaningfully extends simple classroom lecture and textbook work was needed. Theimplementation of this approach at WPI is the subject of this paper.1.1 ObjectivesThe objectives of the innovations reported here were to:• Bring the excitement of discovery into the engineering classroom by stressing real-time acquisition of data and student 'discovery' of fundamental concepts in non-traditional lectures, thus increasing students’ interest in the thermal/fluid sciences.• Allow students to understand relationships between physical phenomena and concurrently developed theory through non-traditional lectures
assessment systems. One possible explanation of this fact is that in thecountries where these systems were developed, the political and economic systems are quitestable, i.e., the external conditions of functioning of academic institutions do not change sorapidly.In this paper we propose a set of criteria that characterize the effectiveness of past activitiesaimed at adjusting to the changing environment and the preparation of an institution forcontinuous changes in the future. As this proposition is based on our experiences with therestructuring of the system of study at the Faculty of Electronics and Information Technology,Warsaw University of Technology, we start with a brief review of the latest changes in thissystem.Some of the proposed
introductory design activitiesexperienced as a freshman, and to develop enhanced design skills, readying students for seniordesign and eventual practice.New multi-media courseware, such as Bedford & Fowler’s Engineering Mechanics (1995)which incorporates Working Model simulations, utilizes prepared learning modules to simulatethe behavior or performance of bodies subjected to various forces and moments. While thesesimulations are $open-ended# they have little, if any, design content. Rather, what is needed, isan overall context, a firm foundation of how open-ended problems and simulations serve thewhole design process.This paper describes one dynamics example as prepared by Bedford & Fowler and a custommodule that models a bungee jumper. Then
Paper ID #41927Board 147/Innovative Advances: Triboelectric Nanogenerators Powering Pacemakers:A High School Student ReviewJoanna LiProf. Haifeng Wang, Penn State University Dr. Haifeng Wang has received degree of Doctor of Philosophy in Electrical Engineering (2014). Currently, he is an Assistant Professor at Penn State University ©American Society for Engineering Education, 2024 Review of Triboelectric Nanogenerators for Powering Pacemakers Joanna Li1. Haifeng Wang2Abstract Triboelectric nanogenerators were
Paper ID #44040Board 46: Integrating AI in Higher-Education Protocol for a Pilot Study with’SAMCares An Adaptive Learning Hub’Syed Hasib Akhter Faruqui, Sam Houston State University Assistant Professor, Department of Engineering TechnologyNazia Tasnim, University of Texas at AustinDr. Iftekhar Ibne Basith, Sam Houston State University Dr. Iftekhar Ibne Basith is an Associate Professor in the Department of Engineering Technology at Sam Houston State University, Huntsville, TX, USA. Dr. Basith has a Ph.D and Masters in Electrical and Computer Engineering from University of Windsor, ON,Dr. Suleiman M Obeidat, Texas A&M
conceptual designs. Please consider both the ways of capturing the light, and the structural variety of the concepts.Also included in the student packets was an information sheet that briefly summarized wayssolar energy could be converted to thermal energy (see Appendix). This was included to avoidproblems with a potential lack of technical knowledge about solar and thermal energy. Thewritten directions instructed students to generate as many concepts as they could, and to drawone concept per page and label aspects of their ideas.After concept generation, on a separate preformatted post-it© note, students wrote a shortdescription of each idea, and reported on the origin of the concept by answering the question,“Where did the idea come
. problem-based learning was not conducted into the final stage and it was not donecollaboratively), we suggest that integrating these two approaches as a pedagogical method canserve as a scaffolding framework for guiding students through the solution of a computationalproblem-solving task. Further studies will be conducted to test the efficacy of the proposedframework to not only guide students through their learning process, but also as a framework thatcan help instructors evaluate how students approach computational problem solving tasks.References:1. Henderson, P. B., Cortina, T. J., & Wing, J. M. (2007). Computational thinking. ACM SIGCSE Bulletin, 39(1), 195--196.2. Wing, J. M. (2009). Computational Thinking. Paper presented at
work differ from this type of tablet-basedinstruction. Pencasts provide a replayable presentation of handwritten solutions toproblems along with spoken explanation. Students can control the replay and view thematerial at their own pace. By contrast, the tablet-based lecture software is intended forreal-time interaction in the classroom.Oviatt et al.8 investigate the impact different digital pen-based interfaces have on astudent’s ability to solve geometry problems. The interfaces studied include anAnoto-based digital stylus and paper interface,9 a pen tablet interface, and a graphicaltablet interface. This work suggests that “as the interfaces departed more from familiarwork practice..., students would experience greater cognitive load such
promotion that suggest a lack of support forinnovations.The project discussed in this paper investigates the characteristics of faculty members whosuccessfully adopt engineering education innovations and studies the impact of their workingenvironment on their decision to adopt. Additionally, the project investigates characteristics offaculty members who do not adopt engineering education innovations and whether that decisionwas affected by perceptions of their working environment.This paper describes the identification of current barriers to the adoption of innovations inengineering education using a 360° approach. Perspectives include that of self, colleagues,students, experts in education innovation (such as the director of a center for teaching
StudyAbstractThis paper documents design strategies using Grasshopper and Rhino 3D as an instructional toolfor conceptual design. It discusses the underlying concepts of generative design and includesexamples using Grasshopper with Rhino 3D for both massing and for basic structural layouts. Italso discusses the necessary skill set, beyond that associated with the operation of the underlyingCAD applications, required for students to utilize these applications. It then proposes aframework for incorporating generative design into CAD courses utilizing a 2-D to 3-D sequenceof instructional activities.Part 1: IntroductionThe digital revolution and its associated discourse is increasingly influencing all of the designfields, particularly architecture [1]. In his
AC 2011-1476: CONNECTING STUDENT EXPERIENCES WITH CON-CEPTS AND PRINCIPLES OF FLUID MECHANICSSandra Shaw Courter, University of Wisconsin, Madison Sandra Shaw Courter is PI for the ”Aligning Educational Experiences with Ways of Knowing Engineering (AWAKEN): How People Learn” project. She is Professor Emeritus in the Department of Engineering Professional Development and Wendt Commons: Teaching and Learning Services. Her area of research is engineering education including assessment of student learning. She taught technical communication courses to undergraduate engineering students and currently consults with faculty and teaching assistants. She earned her Ph.D. in educational administration at UW-Madison.Lauren
Department. Eachdepartment, through individual faculty efforts, had begun to offer courses specializing in someaspect of electronic imaging. Each course, on its own, provided a real but limited service tostudents. The need for a harmonized, multi-disciplinary curriculum became self evident to thefaculty members working in the Center for Electronic Imaging Systems. The ensuing discussionsresulted in a very aggressive proposal combining current research efforts with a series of fivenew and six enhanced courses. The new curriculum would provide students with an opportunityto earn Bachelors or Masters degree in the discipline of their choice and a strong concentration inone of three areas of electronic imaging. This paper relates how the proposal was
SEEM TO MATTERABSTRACTIn this paper we explore engineering student gains in confidence in professional andinterpersonal skills and intrinsic psychological motivation to study engineering. These twofactors were selected because they have been shown in other work from the Academic PathwaysStudy (APS) sponsored by the Center for the Advancement of Engineering Education (CAEE) tobe directly related to post-graduation plans and to several dimensions of the undergraduateexperience. We focus on students with positive confidence and/or motivation gains during theirfirst two years of college, and show that these students are distinct from those with negative orno gains in terms of persistence in the engineering profession, confidence in math and
program,the topic was presented to teachers during a week-long workshop in the summers of 2008 and2009. In 2008, the presentation was of a general nature and intended as a very basic introduction,while in 2009, a more extensive unit was presented encompassing both design and projectmanagement. This paper provides information on the current efforts to introduce engineeringtopics at the high school level and where HSE fits into this landscape. It describes the HighSchool Enterprise program and how secondary students and teachers are exposed to engineeringdesign. Some examples of student-project work from the 2008/2009 academic year that conveyhow students engage in the design process are included. Finally, the lessons learned to-date andhow those
focusing on pharmaceutical aspects of science andengineering. Previous teams have focused on the production of problems for students ranging ineducational level from late middle school to the second year of a baccalaureate degree. Theteams this semester have been focused solely on the revision of old problems and production ofnew problems for students of introductory chemical engineering courses, usually taught duringthe freshman or sophomore year.This paper presents the problems developed during this semester for use in these courses. Theformatting, layout, style and focus of the problems are based on those of Felder and Rousseau’sElementary Principles of Chemical Processes1, a widely-used textbook for these types ofcourses. Courses taught with a
to integrate service-learning into its first-year courses. This paper describes the current status of these efforts as wemove to institutionalize the service-learning component and is a follow up to the initial paper24which described the program and presented the results of the first year. A companion paper25presents qualitative data from student participants from the 2003 academic year. This paperseeks to share lessons learned and the rationale behind the decisions we made and also to providean example of service-learning that has yielded positive results with first-year engineeringstudents.Purdue University’s First-Year Engineering Program Purdue University’s Department of Engineering Education has responsibility for all ofthe
Session 2115 AIM for Better Student Learning: Using Instant Messaging to Facilitate Improved Instructor-Student Communication Dr. J. Ledlie Klosky, COL Stephen J. Ressler, CPT Jared Erickson United States Military AcademyIntroductionThis paper describes an experiment in which the instructors in two different undergraduateengineering mechanics courses used America Online Instant Messenger (AIM) as the principalmeans of communication with their students outside the classroom. Following a brief summaryof current trends in instant messaging, we
topics covered, adescription of the resource materials developed for use by the workshop participants in theirrespective classrooms, and follow-up school visits by ISU College of Engineering student-faculty teams. We conclude the paper with our thoughts on future extensions and improvementsin this program.Motivation for the project:It has been nationally recognized, and well documented, that the United States is facing alooming shortage of citizen engineers and scientists in the coming decades.1 Since the SecondWorld War, the US has relied on “technological innovation” in preserving our preeminent standin the world economy, and in ensuring our own security. The basis for this technologicalsuperiority has been our ability to train and retain
paper presents an ongoing study that is at the intersection of three thrust areas – culture,information and collaboration technology, and distributed, cross-disciplinary project-basedteamwork and learning. The focus is on the relationship between multi-cultural dimensionsand communication channels in a rich multi-modal collaboration and information technologyenvironment deployed in a cross-disciplinary, geographically distributed teamwork courseorganized by the PBL Lab, at Stanford. The study focuses on the cultural dimensions thatcharacterize distributed Architecture, Engineering, Construction (A/E/C) cross-cultural teamswork together to design a building using collaborative technologies. We aim to answerseveral questions.· What are key
have proficiency in the basic languages of math and science in order toaffect the physical world. Engineers must understand phenomena on an elemental levelas they seek to pilot the laws of nature. Consider that -- the laws of nature are based onuniversal principles of order, organization, and efficiency – all basic tenets of design.Design mediates between tangible and intangible forces. It fuses the immediacy of thephysical world with the illusiveness of beauty. Design is driven by a museful urge tocreate; and, it is tempered by the physical limitations of the material world. In this paper,we explore design theory and design process in the context of art as a means to structurecreative processing into engineering curricula. Our perspective is
Paper ID #9500Saliency-Based CBIR System for Exploring Lunar Surface ImageryProf. Kien A. Hua, University of Central Florida Kien A. Hua received the BS degree in computer science and the MS and PhD degrees in electrical en- gineering, all from the University of Illinois at Urbana-Champaign. He is currently a professor in the School of Electrical Engineering and Computer Science, and is the Director of the Data Systems Lab at the University of Central Florida. His research interests include image and video retrieval, medical imag- ing, network and wireless communications, sensor computing, location-based services, and
Paper ID #10382Use of Concept Maps to Assess Student Sustainability KnowledgeDr. Mary Katherine Watson, The Citadel, The Military College of South Carolina Dr. Mary Katherine Watson is currently an Assistant Professor of Civil and Environmental Engineering at The Citadel. Prior to joining the faculty at The Citadel, Dr. Watson earned her PhD in Civil and Environmental Engineering from The Georgia Institute of Technology. She also has BS and MS degrees in Biosystems Engineering from Clemson University. Dr. Watson’s research interests are in the areas of engineering education and biological waste treatment. Specifically, she
Paper ID #5867Pre-service Teachers’ Modeling as a Way of Thinking in Engineering DesignDr. Matthew D. Lammi, North Carolina State University Dr. Lammi is an assistant professor in the Department of STEM Education.Dr. Cameron Denson, North Carolina State University Page 23.972.1 c American Society for Engineering Education, 2013 Pre-service Teachers' Modeling as a Way of Thinking in Engineering Design Matthew D. Lammi, Cameron D. Denson North
Paper ID #42546Implementing Collaborative Online Lab Experiences to Facilitate Active LearningDr. Gleb Tcheslavski, Lamar University Dr. Tcheslavski received his engineer-developer degree in Electronic Engineering from Bauman Moscow State Technical University and his Ph.D. in Electrical Engineering from Virginia Tech in Blacksburg, Virginia. At VT, he was a member of the Digital Signal Processing Research Lab. After graduation, he worked as a Post-Doctoral Fellow at University of Houston involved in Biomedical Image Acquisition and Processing. Currently, he serves as an Associate Professor in the Phillip M. Drayer Department
Paper ID #41550Pull, Twist, and Break: Helping Engineering Students Visualize MaterialFailuresBrandon Clumpner, United States Military AcademyDr. Kevin Francis McMullen, United States Military Academy Kevin McMullen is an Assistant Professor in the Department of Civil and Mechanical Engineering at the United States Military Academy, West Point, NY. He received his B.S. and Ph.D. in Civil Engineering from the University of Connecticut. His research interest areas include bridge engineering, protective structures, and engineering education.Elizabeth Bristow, United States Military Academy ©American
Paper ID #41853Board 71:Work in Progress: Creation of Teaching Materials to Support Identificationof Authentic Needs that Inform Engineering-Design ProjectsDr. Ann Saterbak, Duke University Ann Saterbak is Professor of the Practice in the Biomedical Department and Director of First-Year Engineering at Duke University. Saterbak is the lead author of the textbook, Bioengineering Fundamentals.Eric Stephen Richardson, Duke UniversityHarris Solomon, Duke University ©American Society for Engineering Education, 2024 WORK IN PROGRESS: Creation of Teaching Materials to Support
Paper ID #42439Board 73: AI Skills-based Assessment Tool for Identifying Partial and Full-Masterywithin Large Engineering ClassroomsMr. Amirreza Mehrabi, Purdue University I am Amirreza Mehrabi, a Ph.D. student in Engineering Education at Purdue University, West Lafayette. Now I am working in computer adaptive testing (CAT) enhancement with AI and analyzing big data with machine learning (ML) under Prof. J. W. Morphew at the ENE department. My master’s was in engineering education at UNESCO chair on Engineering Education at the University of Tehran. I pursue Human adaptation to technology and modeling human behavior(with
andorganizational role. The paper will include results from a survey taken during the TilfordDiversity Storytelling project, provide examples and strategies for using stories, and include areview of literature to show how storytelling can be an effective mode of communication.Storytelling in Organizations TodayIn an age of ever new technologies to enhance classroom teaching, the “sage on the stage” maybe making a comeback through the power of stories and the technique of storytelling.Once thought to be mostly for children, or for library programs, storytelling is now appliedwidely in the business and corporate world by management and human relations departments foremployee training, knowledge transfer, and cultural change and in academic settings by
Solving Beam Deflection Problems using a Tradition Approach Joseph J. Rencis/Hartley T. Grandin, Jr. University of Arkansas/Worcester Polytechnic InstituteAbstract This paper presents a new approach to solving beam deflection problems. The approachinvolves the direct application of derived force-deformation formulas, a procedure commonlyused with axial and torsion bar problems. This direct application of derived force-deformationformulas, referred to by the authors as Method of Segments, is extended to beam deflectionanalysis in order to provide a solution procedure for beams that is consistent in philosophy andapplication with