graduation [1]. Under this context students are expected to graduate withcertain skills in addition to the technical skills that are part of all Engineering curriculum [2].ABET (Accreditation Board for Engineering and Technology) stresses the importance of the skill"professionals" and the skills of "conscience" in addition to the development of technical skills toachieve excellence in the training of engineers [2]. In response to these needs there are manyexperiences related to the teaching of these skills. One of the most comprehensive studies islocated in the Shuman work [3]. Williams presents a systematic review of the literature on theexperiences of the teaching of these skills [1]. Other more specific work related to the ability tocommunicate
Teaching at Wesleyan University and the Excellence in Teaching Award at the Thayer School of Engineering, Petra has a strong interest in broadening access to high-quality higher education and pedagogical innovations that aid in providing equal opportunities to students from all backgrounds.Laura E. Ray (Senior Associate Dean of Faculty) Laura Ray is a Professor at the Thayer School of Engineering, Dartmouth College. Her research focuses on system dynamics, control theory, and signal processing with application to mobility of robots in unstructured terrain, machine intelligence, and sensor systems. With her students, she has developed and fielded a number of robots to support field science in Antarctica and Greenland. These
Security Technology: A New Field in Engineering Curriculum M. Nazrul Islam Department of Security Systems State University of New York – Farmingdale E-mail: islamn@farmingdale.edu AbstractSecurity of information as well as physical resources has become a crucial component inresearch and development. A significant amount of research interests and grants has beendedicated towards development of strong, efficient and robust security techniques and systemswhere both the academic institutions and industries have been involved actively. The
Security Technology: A New Field in Engineering Curriculum M. Nazrul Islam Department of Security Systems State University of New York – Farmingdale E-mail: islamn@farmingdale.edu AbstractSecurity of information as well as physical resources has become a crucial component inresearch and development. A significant amount of research interests and grants has beendedicated towards development of strong, efficient and robust security techniques and systemswhere both the academic institutions and industries have been involved actively. The
Session 1526 An Interdisciplinary Combined Research-Curriculum in Biomedical Optics Sohi Rastegar, Gerard L. Coté Texas A&M UniversityABSTRACTThe objective of this project sponsored by the NSF Combined Research-CurriculumDevelopment program is to develop, implement, and evaluate an interdisciplinarycurriculum in Biomedical Optics. The thrust of the new curriculum includes thedevelopment of four new courses based on research advances made within theBiomedical Engineering Program at Texas A&M University in collaboration withinternal and external medical centers
deals with product design,prototyping and modeling, production and process design, materials testing and characterization,process automation and robotics, and quality control. “Green Plastics Manufacturing Technology”(GPMT) is an emerging discipline that encompasses a range of activities, from the research anddevelopment of non-toxic, eco-friendly materials to the reduction of waste and pollution throughchanging patterns of production and consumption. The primary approach of the current project(DUE- 1044794) is to develop an instruction model and learning modules in the materials andmanufacturing curriculum for future workforce development in Green Plastics ManufacturingTechnology. The new learning modules developed by Process-Oriented Guided
, communications, etc. in the form of a course. Teaching these skills in isolation of theprofessional practice of engineering has been shown to be a less-than-ideal approach. In contrast,the Wallace H. Coulter Department of Biomedical Engineering at Georgia Tech and EmoryUniversity has chosen to develop an approach in which these skills are developed in the studentsthrough the use of problem-based learning (PBL) experiences infused throughout the curriculum.Separate problem-based learning courses are positioned in the first and second years. PBLexperiences are incorporated into instructional laboratories associated with third-year systemsphysiology and biomedical sensors courses. The curriculum culminates with a two-semestersenior design course sequence
learning, creativity and adaptation. Also the reportconceptualizes humanism as critical in facing global issues that require engineers to beembedded in the human and environmental contexts of their work.To implement this vision, the Faculty of Engineering at UGA is currently designing anddeveloping its Environmental Engineering curriculum. This integrative curriculum is intended toovercome engineering students’ commonly observed difficulties in developing innovative andhumanistic designs for local complex systems.15 In each of the semesters of their program,Environmental Engineering students will be required to take Synthesis and Design Studios with afocus on observation and modeling, management and communication, problem framing, andsynthesis. As
Technology-Enabled Content in Engineering Science Curriculum Eugene Rutz, Virginia Elkins, Joyce Pittman, Max Rabiee, and Richard Miller University of CincinnatiAbstractEngineering technology technical courses often have both lecture and accompanying laboratorysessions. The laboratory assignments reinforce the understanding of the topics studied during thelecture sessions. A planning grant was awarded from the National Science Foundation throughtheir Bridges for Engineering Education Program to develop technology-enabled content inengineering science courses. Content was developed to appeal to a variety of learning styles andto support student-centered learning. This paper will describe the
– particularly engineering students – need a background in innovation processes, as wellas real-world connections and experiences, to help develop their innovation instincts.The College of Engineering (CoE) in collaboration with the Walton College of Business(WCOB) at the University of Arkansas is addressing these needs by developing a scalable,repeatable, applied innovation curriculum through a multi-discipline, multi-college academicinnovation track. Starting as freshmen, engineering students will be partnered with businessstudents to focus on innovation principles and processes, while incorporating classroom contentwith hands-on experiences and internships to focus on new product development. Students fromboth colleges learn why innovation matters
Education, 2007 The Current Generation of Integrated Engineering Curriculum - Assessment After Two Years of ImplementationAbstractIn September of 2004 our university adopted the Multidisciplinary Engineering FoundationSpiral Curriculum as the basis for disciplinary engineering programs in Chemical, Civil,Electrical, Mechanical and General Engineering. The curriculum includes a sequence of firstand second year engineering courses, matched closely with the development of students’mathematical sophistication and analytical capabilities and integrated with course work in thesciences. Students develop a conceptual understanding of engineering basics in this series ofcourses which stress practical applications of these principles.The
Paper ID #34660Creating a Communications Curriculum for the Modern EngineerDr. Geoffrey Recktenwald, Michigan State University Geoff Recktenwald is a member of the teaching faculty in the Department of Mechanical Engineering at Michigan State University. Geoff holds a PhD in Theoretical and Applied Mechanics from Cornell University and Bachelor degrees in Mechanical Engineering and Physics from Cedarville University. His research interests are focused on best practices for student learning and student success. He is currently developing and researching SMART assessment, a modified mastery learning pedagogy for problem
, etc.This paper will analyze which competence domains, a curriculum towards sustainablemanufacturing should have and how a certificate program in “Sustainable Manufacturing” can beaccomplished. This curriculum design is based on the experience of creating and teaching newgraduate level courses “Sustainable Manufacturing” at Texas Tech University and “EnergyEfficiency and Industrial Sustainability” at University of Wisconsin Milwaukee. All segments ofsociety must be educated to understand, environmental, economic and social connections withinmanufacturing systems engineering to facilitate sustainability. The innovations in technology andmanagement play a fundamental role in solving the global challenge in economic development,while simultaneously
.Carolyn Parker, George Washington University Carolyn Parker is an Assistant Professor and lead faculty member to the Secondary Education Program in the Graduate School of Education and Human Development at the George Washington University. She holds a BS in Biology, MA in Teaching and PhD in Curriculum Instruction and Science Education. Dr. Parker’s research interests are in the achievement of women and underrepresented groups in science/technology.John Raczek, University of Maryland John W. Raczek is a Web Developer in the Office of Medical Education at the University of Maryland School of Medicine. His work focuses on developing software systems for education with an emphasis on
aerospace students are working on structural design and release mechanisms to eject multiple satellites from one launch vehicle. The NASA contract specifically encourages the participation of undergraduate students in the development of the satellite. Nanosat students have benefited from the informal curriculum represented by the design records, hardware prototypes, software, and the recovered payload of the SPECTRE teams. These provide starting Figure 4. points for the new designs, practical lessons about system integration, Mechanical layout PCB layout and
Session 1313 A Project-Based, Spiral Curriculum for Chemical Engineering William M. Clark, David DiBiasio, and Anthony G. Dixon Chemical Engineering Department, Worcester Polytechnic Institute AbstractWe developed a project-based, spiral curriculum for the chemical engineering sophomoreyear. The spiral curriculum is a complete restructuring of the traditional curriculum, andemphasizes repetition and integration of topics with increasing complexity throughout theyear. It is designed to increase motivation for learning and retention of basic skills andconcepts. The new curriculum features multimedia
Session 2464 A Research Driven Multidisciplinary Curriculum in Sensor Materials Sheikh A. Akbar and Prabir K. Dutta Center for Industrial Sensors and Measurements (CISM) The Ohio State University 291 Watts Hall, 2041 College Road Columbus, OH 43210, USAAbstract The multidisciplinary research at the NSF Center for Industrial Sensors and Measurement(CISM) at The Ohio State University (OSU) has led to the development of an innovativecurriculum. The new multidisciplinary industry-oriented curriculum is currently being
1.5 years ago. On May 14, 2010, “Mobiletechnology pilot status and reporting” was presented by the leading author in the “College ofEngineering, Architecture and Physical Sciences (CEAPS) Workshop: Curriculum Development:Sustainable Development, Concepts for a New Administration, Curriculum and Technology.”The presentation reviewed the benefits of using mobile technologies, evaluated advantages anddisadvantages of iPhone versus Motorola Droid, developed a preliminary mobile phoneapplication interface for the College (Figure 1a), developed a general interface for a mechanicalengineering course (Figure 1b), and discussed the issues and challenges. Table 1 summarizes themain advantages and disadvantages of using iPhone and Android based on
continually revising their engineering curriculum and programs in aneffort to produce the highest quality practicing engineers. Both the nature of the job of anengineer and the marketplace have changed dramatically through the years. Today’s engineerworks in a highly competitive and global marketplace. Additionally, they are required to havefar more than just good technical skills. They must also have good communication, leadershipand business skills. Many innovative programs have been developed to better prepare studentsfor the changing global economy and for the new demands being placed on engineers. Onepedagogical technique that has been found to enhance the educational experience ofundergraduate engineering students is service-learning. Service
information of these eventscan be found on the "Workshop/E-Conference" page.Due to crucial role that standards play across all industries, it is essential to incorporate educationon standards into curricula of engineering and engineering technology majors. The experientiallearning and industrial experience is important to make the curriculum relatable and engaging.The outcomes of this pilot project would provide guidance for educators to develop curriculumthat involves industry. Additive manufacturing and robotics are fundamental curriculumcomponents for Manufacturing Engineering, Mechanical Engineering, Electrical Engineering,Materials Science and Engineering, and Industrial Design, instructors of these majors can adoptthese course materials
efforts must define strategies forreleasing new versions of the system, how those versions will be deployed, and how runningsystems will be upgraded. As with concurrent development, component-based designs provideassistance by partitioning the system. But system engineering must formulate a plan for thesystem’s lifecycle.3 Curriculum modificationThis section defines course modification made to an existing embedded devices course offeredeach spring in the Division of Computing Studies at Arizona State University’s PolytechnicCampus. The first offering began in spring 2002 and the modifications were implemented inspring 2004 and 2005. Those modifications drove several faculty discussions involving thehardware and embedded program offerings
type of assessment can help identify gaps in the curriculum, allowing us to be more deliberate about how we develop students’ communication skills.1 IntroductionWriting is an important skill for science, technology, engineering, and mathematics (STEM)professionals, as evidenced by its inclusion in accreditation criteria and reports from the NationalAcademies (e.g. [1, 2, 3]). Communication is an important engineering competency, alongsideproblem solving and teamwork [4]. Anecdotal reports from employers continue to suggest thatSTEM curricula need to do more to develop core competency in communication, and engineeringgraduates report similar needs [5, 6]. Communication skills are one of the four primary skill setsphysics majors need to
Paper ID #13636Digital Sandbox (Arduino Programmers Kit) - Curriculum ExchangeMr. Brian Huang, Sparkfun Electronics Brian Huang is an Education Engineer for SparkFun Electronics, a cutting edge open-source hardware and electronics education company. Brian started his career in engineering with wireless transport tech- nologies for ADC Telecommunications in Minneapolis, MN. While working at ADC, Brian volunteered at the Science Museum of Minnesota and quickly discovered a passion for teaching and working with students - especially in an environment that fostered and supported the ”wow” factor associated with in- quiry
from students indicates that thesehands-on experiences were fun and beneficial for them.IntroductionIn engineering design courses, students have an opportunity to consider an open-ended problemand develop an original design to address the need. In fact, design and development “is whatmost distinguishes engineering from science, which concerns itself principally withunderstanding the world as it is”. 1 As a result, many programs have emphasized design in anumber of ways, for example by incorporating design courses for first year students andthroughout their curriculum.2-3 In recent years, many papers at the ASEE conference have beendevoted to presentations on this topic, including an entire session in 2009.4-9At the University of North Carolina
Northern University’s TJ Smull College of Engineering, students take afirst-year engineering sequence: Foundations of Design 1 (ENGR 1041) and Foundations ofDesign 2 (ENGR 1051). Both courses are hands-on, project and team based courses with units oncrucial aspects of engineering design (e.g., test plan development, data collection and analysis,ideation, and more). Broader impacts of engineering design and decision-making is also a focusof the class, and the vehicle through which LCA has been introduced into the curriculum. In creating the LCA module, the research team, consisting of a faculty member and threeundergraduate research students, examined previous course inclusion of broader impacts. Wefound and/or created examples and
courses for engineering students and leads study-abroad trips for students. c American Society for Engineering Education, 2018 Integration of Global Competencies in the Engineering CurriculumKeywords: curriculum, study abroad, globalIntroductionThe need for developing global competency in engineering students has received considerableattention over the past several years and a number of high-profile reports [1] [2] have highlightedthis need. A variety of programs have emerged to address this need ranging from namedprograms like Purdue’s Global Engineering Programs [3], college programs focused on theEngineering Grand Challenges (see for example [4]), at least one “global competence certificate”program [5
.”5 Universities are beginning torespond by creating educational programs to address the design needs of service enterprises,mostly at the graduate level.6,7 This paper describes the development at Michigan Tech of thefirst undergraduate degree program to address the unique engineering needs of the service Page 12.65.2economy.The process used to design the curriculum relied heavily on service industry professionals. Agroup of professionals participated in a Delphi Study in order to define the characteristics of aService Systems Engineering program. With these results, a Curriculum Planning Workshopwas held to bring together service industry
to the development of solid models, andadditional concepts are needed which are unique to solid modeling but unnecessary inconventional CAD. It is hypothesized or assumed by many that the use of solid modeling willenhance students’ visualization skills. If this is so, then which topics should be presented to thestudents first in order to enhance their learning and improve visualization skills? This has beenthe subject of much debate within the EDG community. This study looks at the development of asolid modeling based CAD course and compares the outcomes derived from varying the order ofpresentation of the content.IntroductionEngineering design graphics educators began to introduce solid modeling to the curriculum inthe early 1990s (eg. Barr
Session 1566 IMPACT OF ALUMNI FEEDBACK ON THE CURRICULUM Nashwan Younis Associate Professor of Mechanical Engineering Department of Engineering Indiana University-Purdue University Fort Wayne Fort Wayne, IN 46805-1499AbstractThis paper deals with the implementation of the criteria for accrediting engineering programs. Inparticular it discusses the use of an alumni survey as an assessment tool for the development andimprovement of a mechanical engineering program. Examples of using the
skills. ● Training has to be a systematic process [7]. The PAC project has followed a defined sequence of steps that starts with a needs analysis which help in the setting of concrete objectives at general and specific levels, and ends with a global evaluation. 3. Description of Performance-centered Adaptive Curriculum for Employment NeedsProject The aim of the PAC project is to develop adaptive to business and employment needscurriculum on master degree level, applying performance support systems concept andprinciples for education in performance-centered content management learning system. The PAC workflow model is based on recent research on design and development ofperformance support learning and is in line with