as improved attitudes towards STEM areas and the building of confidence in conducting research 37. These instruments have been developed by an external evaluator and will be collected by PI.A summative evaluation will be conducted with the following instruments:• Career aspiration and design self-efficacy survey for undergraduate students: These surveys (modified, tested, and validated by Dr. Johannes Strobel) will be used to assess the long-term Page 26.670.5 impact of the curricula on student interest in bioengineering, and the impact on their career choices, and self-confidence in their engineering expertise.5
µE StudentsWe have developed a five course minor in microelectronics for non-µE science and engineeringstudents who desire exposure and experience to the exciting world of nanotechnology. Webelieve that this minor may do more to increase the number of women students with engineeringexperience at RIT by utilizing the large number already enrolled in the College of Scienceprograms, as opposed to separate recruitment strategies geared solely toward engineering. Thisprogram is designed to provide basic knowledge to students from other engineering and sciencedisciplines interested in a career in the semiconductor industry that include design, manufacture,equipment, chemicals, and software sectors. The minor consists of five courses: three core
Department of Kettering University has an enrollment of 1300students. The university offers one of the largest cooperative educational programs in thecountry, and strives to provide its students with top quality classroom instruction, state-of-the-artlaboratory facilities and career oriented work-experience in industry. The mission of the PlasticProduct Design Specialty (PPDS) is to prepare the student as an entry-level product or processengineer with the appropriate plastic specialty knowledge for the first five years of their careers. Page 15.655.2Students gain the basic skills to ≠ Be able to converse with chemists and material supplier
. Lack of self-efficacy then inturn results in problems with technical problem solving11. In line with this notion, womenpossess less self-efficacy than men which leads to lower self-assessment of their problem solvingskills and competence as future engineers12. The self efficacy of female students is related to theretention as freshmen and their persistence in engineering13,14. When entering into engineering,female students have less confidence in their ability to succeed in engineering15. Research hasshown that the level of self-efficacy affects career choice as it pertains to science education16, 17.ReflectionsExtended reflection facilitates the creation of complex, connected mental schema.Designingcreative learning experiences helps develop
willconsider as a future career. Student contact information will be kept and follow-up surveys willbe sent to past participants to find out what role, if any, the program had in helping the studentschoose a college and field of study. The incoming classes of UAB students will be checkedagainst the list of Materials Camp alumni to determine how many of the camp participants havechosen to enroll at UAB, how many enter STEM disciplines, and how many select MSE inparticular.As department budgets continue to tighten, continued funding of Materials Camp while keepingit free for participants will be a challenge. An important source of support for the 2012 campwill be the American Society of Materials Education Foundation, which generally funds onethird of
past the middle of the semester, there wasnot enough time to accomplish all three tasks, and none of the submitted designs met the full setof design criteria. If the project had been introduced early in the semester as a required part ofthe curriculum, the students earning an A or B for the course would have submitted designswhich would have been more likely to meet the criteria.Freshman design projects are necessarily a gamble; students are asked to design a structure ormachine before taking any mechanical design courses, so the results are often strong in conceptbut weak in technical soundness. Clearly, juniors or seniors would have developed betterdesigns. However, by exposing freshmen to a design problem early in their academic careers
Campus DEDP Campus Q14 2.29 2.21 4.00 3.84 1.71 1.63 Q15 2.43 2.63 4.07 4.21 1.64 1.58 Q16 2.14 2.58 3.93 3.84 1.79 1.26Comparison of On-campus and Distance End-of-Term Survey ResultsTable 7 shows the reasons students reported for enrolling in the course. Results add to more than100% because students were allowed to select as many reasons as desired. The largest categoryof responses for both the campus and distance cohorts was the applicability of the coursematerial to their career field. The second highest motivation reported for campus students was atie between course
meet challenges and successfully complete tasks[10]. It is important to studyself-efficacy in engineering as it has consistently been found to predict academic performance[11], [12] and career choice [13], [14]. Self-efficacy has been studied as both a task-specific setof beliefs (e.g., academic self-efficacy) [12], [15]–[19] or as a task-general set of beliefs (e.g.,generalized self-efficacy) [10], [20]. In this study, we chose to use Sherer et al’s generalized self-efficacy scale due to the open-ended nature of the mental health assignment used in the study.Additionally, some researchers suggest that improving generalized self-efficacy will alsoincrease task-specific self-efficacy [10], [21].According to Sherer et al, generalized self
. Page 12.704.1© American Society for Engineering Education, 2007 Exciting Students about Materials Science & Engineering: a project-based, service-learning museum design courseAbstractA new course was developed for Materials Engineering students to design, create, andinstall interactive, educational displays on Materials Science & Engineering for a sciencemuseum at a local K-6 charter school. The course grew out of an ASM Foundation grant“to excite young people in materials, science, and engineering careers,” and the challengewas put forth to Cal Poly students. A formal design sequence was applied to give thestudents the opportunity to learn about the design process, project management, andteamwork. User profiles were created for
2012, Dr. Lord spent a sabbatical at Southeast University in Nanjing, China teaching and doing research.Prof. Michelle M. Camacho, University of San Diego Michelle M. Camacho is Professor of Sociology at the University of San Diego. She began her career at UC San Diego in 1999 as a postdoctoral fellow at the Center for US Mexican Studies, and later as a UC Faculty Fellow in Ethnic Studies. In 2015-16, she returned to UC San Diego as a fellow of the American Council on Education. As a bilingual/bicultural Latina, Camacho has 30 years of experience in higher ed- ucation advocating for underrepresented groups and first generation college students. For over a decade, her work on institutional transformation has received
and therefore is potentially very useful in careers of the students post graduation. Specific lab activities were developed to help students learn the program. In the firstthree years of the curriculum development (2013 - 2015), an introductory SW lab utilizedtutorials native to SW. Students completed the tutorials in a computer lab with help from theinstructors and teaching assistants (TAs), and then they practiced their new skills by creating apart according to the information provided in an ASTM standard. In 2016, a new SWIntroductory Lab was developed specially to teach the student the key tools and features that theyneed for labs and the design project. The students were also instructed to learn on their own withresources such as
appropriatedefinition is that a portfolio is a collection of evidence that is gathered together to show aperson’s learning journey over time and to demonstrate their abilities. This is the approach takenin the work developed in the materials science and engineering subjects to understanding andimplementing engineering concepts9. When extending the definition to the graduate experience,the portfolio is considered as a way of documenting all aspects of professional and personalgrowth when progressing through university and their career. However, not all portfolios are thesame. Recent work done in developing portfolio concepts for mathematics education, definedthree types of portfolios: showcase (which focused on the student's best and most representativework
served to showstudents that individuals out in the “real world” are actually doing something exciting and aremaking a difference. The talks offered exposure to additional career paths and inspired manystudents. Sometimes the seminars were part of a class, but all the talks were open to the publicand were well attended.ANALYSIS: employing “systems thinking”Some students (and faculty) might feel uncomfortable at first about veering into what wetraditionally consider the “social sciences” in an engineering class, but students rightly demandfor relevance in what they learn. So far, the response has been very positive. Students generallyhave an interest in making a difference in the world, and they are motivated by the thought thattheir knowledge and
teacher’s ability to intuit solid state chemistry concepts from other knowledge. It is alsopossible that teachers who decide to pursue professional development in this area are influencedby prior exposure to the material (for example, by teachers in their district who teach materialsscience or workshops attended earlier in their career). Table 3: Descriptive Statistics comparing the baseline content knowledge of teachers in control group and treatment group.Parametric and nonparametric analyses confirmed that the control group of teachers was significantly less knowledgeable about materials science. This was true both when the treatment group included all teachers and only new teachers.Dependent Variable: Pre-camp Number of Items Correct
questions were multiple choice or true/false related to specific technicalinformation covered over the course of the semester. Three additional questions were includedon the pre- and posttest related to students’ perceptions about their understanding of the conceptsand their comfort in discussing course material with their peers or instructors.In addition, a survey was administered at the end of the semester regarding student’s generalopinion of the flipped course format and their perceptions of the value of various aspects of thecourse on their learning as well as the perceive value of the course for their careers. Studentswere encouraged to participate in the survey by being allowed to drop low homework orparticipation scores in exchange for
, matched to engineering challenges for societal benefit. The course uses case studies,Granta CES software, laboratory and design activities, with selected readings to providerelevance for core concepts in materials science early in student’s academic career. The goal ofthis paper is to provide a model of how other universities can design laboratories for students,aligning best practices with departmental goals.BackgroundA 2008 report from the Workshop on Materials Science and Materials Engineering Educationsponsored by the National Science Foundation September 18-19, 2008, promoted changes forundergraduate programs in materials science1: “To attract more students to the discipline, materials programs should change the message used to
that student appreciation formaterials science will be enhanced when working on an independent project that is intimatelyrelated to their broader career interest. In addition, the value of different mentoring approaches(peer-peer, expert-student) to the learning outcomes of the project will be examined. The courseis a 106-student course that is offered to all engineering majors, and is generally composed ofstudents from bioengineering, industrial engineering, mechanical engineering, chemicalengineering and is the first course for materials science and engineering students. Students wereasked to select a topic related to their professional interest. A Wiki-style article was assigned thatasked students to deconstruct the life cycle of the
paper, we will be focusing on three resource categories: (i)real-world inspired case studies, (ii) the Five Step Method for advanced design problems, andour newest resource, (iii) Introductory Materials Science Teaching Packages. These resourceshave been designed with increased student engagement in mind.Case Studies are among one of the resources categories that we have developed. These resourcesallow students to see what goes into the design and assessment of real-world products. This real-world connection is critical; it connects to previous understanding for improved learningpotential and can motivate learning of technical concepts (such as mathematics [24]) by showingtheir practical use, relevant to students’ careers. To address this need
aspects of fiber-reinforced composite materials, design and simulation based upon CLT and FEA of typical composite structures are emphasized. Topics include: constituents and interfacial bonding, microstructure and micromechanics, theory of anisotropy, classical laminate theory, material characterization, failure and damage, manufacturing techniques, composite structure design, and introduction of nanocomposite.The Mechanical Engineering Department of Kettering University has an enrollment of 1300students, one of the largest in the country. For the past 75 years, Kettering University has strivedto provide its students with top quality classroom instruction, state-of-the-art laboratory facilitiesand career
collaborationamong our colleagues in other disciplines. It is not difficult to envision the synergistic effect thatcould evolve through such collaboration. As we all become more aware of pressingenvironmental issues there will be increased interest by students who will seek careers thatsustain our environment. This might, in some cases, enable us to increase our enrollments if wecan shape our curricula accordingly. Regardless, there have been prior research efforts that offersome perspective particularly with regard to applied research.An Environmental Effort before ISO 14000Twenty years before ISO 14000 and the environment was only emerging as a major issue workwas being done by farsighted engineers to solve recycling problems. An example of this is
temperature plasma. He currently studies the characteristics of injection molded medical plastics in various testing conditions.Richard Fasse, Rochester Institute of Technology Richard Fasse, Ed.D., is currently an Instructional Technology Specialist in the Teaching, Learning, Technology group at RIT. He earned a BS in Business and Computer Science at the University of Kansas and an MBA in Information Systems at Pennsylvania State University before beginning his career at Xerox Corporation in Rochester, New York. He was a systems designer and later manager of the Xerox Billing Systems group responsible for planning and implementing changes to large scale administrative systems. He returned
≠ conduct follow-up surveys for immediately following the summer program and over the course of the senior capstone project period (3) Total the number of submitted publications resulting from the capstone projects (success based in part on the number of students and faculty involved in the program) ≠ student papers ≠ scholarly work by faculty based on the work initiated in the capstone projects (4) Surveys of industry partner perceptions related to student progress ≠ gauge relevance and technical contributions of the student work as perceived by the industry partners (5) Program alumni surveys ≠ total value perceived for graduate studies or professional career
both the student (and instructor) would have liked to have more time to complete theproject, that is, get that ‘second try or test’ in to answer questions or concerns learned in the firstround of ‘evaluation and testing’. However, with a 15-week project and graduation imminent,choices were made to get the ‘best’ results with the scope of this design project and 3-creditcapstone course. So reflecting on the three parts of this project, i.e., the materials selection,fabrication and testing, the student experience incorporated previous engineering knowledgefrom courses, practical hands-on experience, and moved into the realm of independent life-longlearning needed throughout an engineering career. The advisor also hopes this example can beused to
in engineering careers, but it is also strongly focused on a particularfive step design sequence, “Ask, Imagine, Plan, Create, Improve.”8 Although aspects of what isput forward as design are included in each of the curricula, the interpretations and approacheswere found to be quite different. Clearly, a universal concept of engineering design may not beforthcoming, but the breadth of interpretations for just this aspect of the curricula demonstratesthe disparate status of K-12 engineering education and curricula that include engineering design.In their findings and recommendations, the NAE/NRC Committee described the development ofsystematic linkages between engineering design and scientific inquiry and furthermore, positedthese connections
yield continuous improvements to the information literacy experienceand provide the students with research skills for the future.The Materials Science course is taught at an introductory level to the vast majority ofengineering students at many institutions around the country. In one semester, it may benearly impossible to cover all the information, with significant breadth and depth.Therefore it becomes critical in this Materials Science course to give the studentsknowledge of the fundamentals of materials science and the tools for lifelong learning.Noting none are Materials Science majors, but students majoring in mechanical andindustrial engineering, who at some point in their professional careers, will find the needto investigate problems
essential components: (1) a driving question orproblem that serves to organize and drive activities, which taken as a whole amounts to ameaningful project; and (2) a culminating product(s) that meaningfully addresses the drivingquestion.9 This initial step into this arena is a deliberate attempt to capitalize on some of thedistinctive benefits associated with project based learning including a deeper knowledge ofsubject matter, increased self-direction and motivation, improved research and problem-solvingskills, and understanding how classroom learning connects to jobs and careers.10 The highly successful program results from the initial integration of Habitat have beenpreviously published and presented though ASEE.1 Professors organized
business logistics from The Pennsylvania State University. He had a 13-year career in the transportation field before joining ASTM in September of 1998, when he began as a manager in the Technical Committee Operations Division. Page 15.1087.1© American Society for Engineering Education, 2010 Standards Education: Bridging the Gap Between Classroom Learning and Real World ApplicationsThis paper introduces the role of standards education in materials science and engineeringcurricula. Technical standards provide a common language for engineers to specify materials foruse in design and for discussing
-direction and motivation, improved research and problem-solvingskills, and understanding how classroom learning connects to jobs and careers.5 Page 15.741.5 Table 3: Universities and Their Partnership with Habitat for Humanity Habitat University Department & Course Partnership Basics LocationLouisiana Construction Management, Habitat for LSU’s Center for CommunityState CM1010 Humanity of Engagement Learning andUniversity
Mechanical Engineers, and the US National Science Foundation-sponsored SUCCEED Coalition. He is also active in the POGIL project; he has been invited to attend the last three POGIL National Meetings and serves on the Education Research Committee for the project. He has received several awards for his work, including the Presidential Early Career Award for Scientists and Engineers, the Ralph Teetor Education Award from the Society of Automotive Engineers, being named a University of Florida Distinguished Teaching Scholar, and being named the University of Florida Teacher of the Year for 2003-04. He is a member of the American Society for Engineering Education, the American Educational
innovations and research-based instructional strategies, 1, 2, 3, 4yet most engineering faculty continue to rely on traditional methods of delivery in their courses. Over a decade ago, Felder et al.5 explained that the gap between the current state ofknowledge and the practice results are due to the perception and reality that good teaching is notvalued in terms of career advancement. The authors made a compelling case for the need to cre-ate a positive campus climate for good teaching. Further research has shown that many facultywho attempt to implement research-based instructional practices (RBIS) stop using them whenthey encounter challenges or barriers.2 These include lack of class time, lack of instructor time,lack of rewards or recognition