differentstages of the product life cycle [10]. There are two LCA standards created by the Internationalorganization for Standardization (ISO) –ISO 14040 and ISO 14044 [11]. According to the ISOstandards on LCA, it can assist in decision making in industry, government, or non-governmentorganizations e.g., strategic planning, priority setting, product, and process design or redesign.LCA is also important for the selection of relevant indicators of environmental performance andeven in marketing from the perspective of the eco-labeling scheme or environmental productdeclarations.Clearly, the field of sustainability analysis and LCA plays a critical role in identifying theopportunities to improve the environmental aspects of products and services at various
Bachelor of Science inEngineering Technology (BSET) program at a higher education institution that has previouslygranted Bachelor of Science in Engineering degrees. The new degree program was launched inAutumn 2020 at the regional campuses of The Ohio State University, which have traditionallybeen feeder campuses.To prepare for a new and effective degree program, an assessment team was formed. Thecommittee was charged to develop a plan for program assessment by following the criteriadefined by the Engineering and Technology Accreditation Commission (ETAC) of theAccreditation board of Engineering and Technology (ABET). Team members collaborated withfaculty and administrators to gather information about the curriculum and developed a plan ofaction
summarize complex studenttrajectory data across time.Summer Program EffortsCISTAR has run three programs for high school and undergraduate students over the past fouryears. In the first two years of the Center, the programs were offered in-person at PurdueUniversity. In year three of the Center, the COVID-19 global pandemic shifted plans (describedin more detail below). Plans for the upcoming fourth year of programs include mostly virtualofferings of the programs at all five sites of the Center.During the third year of the Center (2020), the plans and strategies of the EWD pillar weresubstantially impacted by the COVID-19 global pandemic. Summer program efforts werechanged to a virtual program or postponed due to university restrictions for on
Education, 2021 Continuous Improvement in Academic Computing Programs is Rarely ComprehensiveAbstractRapid advancements in computing require academic computing departments to continuallyimprove. According to the literature, many of those departments claim to have institutedcomprehensive Continuous Improvement (CI) plans by building their own or using externallydeveloped tools to handle the process. This paper provides an exhaustive examination of the“comprehensiveness” of those comprehensive CI plans in the current literature and whether allcomponents of CI (360-CI) are addressed. We identify eight unique CI components, but we donot find any documentation of implementing all of them in a single program. The
planned interventions was puton hold indefinitely.Introduction/BackgroundSeveral definitions and descriptions of the term “troubleshooting” have been presented inliterature. An example of this is in [1], which defined troubleshooting as a common form ofproblem solving that requires an individual to diagnose faulty systems and take direct, correctiveaction to eliminate any faults in order to return the systems to their normal states. Another is in[2], which described troubleshooting as a task that deals with problem-solving skills that arespecific to a domain such as computer programming, engineering, biology, medicine, orpsychology. Furthermore, the author described the task of troubleshooting as locating theproblem or malfunction in a system
discipline issues that are raised in the existingprojects, in the meanwhile discussed how to meet industry demand in the process ofnew engineering construction. The research findings are as following: (1) Thecommonness of programs’ schemes is emerging. In terms of mechanismconstruction, the mechanism of collaborative education receives the most attention,while the cultivation of soft ability and engineering innovation ability are focusedmost in terms of the talent ability; (2) Most of the construction plans are aimed atthe transformation of traditional disciplines, and there is little construction ofcorresponding disciplines for national key industries such as energy conservation,environmental protection and new materials; (3) The overall design of
ME students weretaught in two different sections, by different instructors but following the same syllabus andcourse plan. A separate syllabus, course plan, and deliverables were used with the EM and ISEstudents, who were taught together in one combined section.Every student in the study created pre- and post-course concept maps of their individualunderstanding of product design. They were first introduced to concept maps along with someexamples, and then they were instructed to individually “draw a concept map that embodies theconcept of ‘product design.’” From these submissions, the research team was able to assess thefrequency of the presence of different concepts and relationships in the maps, allowingcomparisons across major programs as
articulations of engineering knowledge with engineering education. Thatwork appears in tension with students’ differentiation of the highly theoretical world of engineeringschool from their more practical perception of engineering work [7,8]. These perceptions exist aboutthings external to students and provide insight into students’ epistemological boundaries – representinginformation about what the student counts as engineering knowledge [2]. Both individuals and groups ofindividuals hold beliefs about epistemological boundaries, and those boundaries interact.In planning this study, we were especially interested in which disciplinary perspectives studentsmajoring in biomedical engineering drew on in defining engineering. We see understanding
” in their mathematics coursework due toAdvanced Placement or dual enrollment credit. That is, the students may be enrolled in thetraditional engineering and science courses for first year engineering majors but be taking moreadvanced level mathematics courses simultaneously. In such cases, these students already havesome “spare room” in their degree plan should they need to withdraw from or re-take a course.Because one of the objectives of the scholarship program is to create some buffer in participatingstudents’ curricula, students who are ahead in mathematics are considered ineligible for thisprogram.Other scholarship selection criteria include grades in the first year mathematics, engineering, andscience courses; participation
plan would be updated every five years. • The director of the Office of Science and Technology Policy would make annual report to Congress. PATENT REFORM ACT OF 2009 S. 515, H.R. 1260 • Replaces “first to invent” with “first inventor to file” similar to system used in most countries. • Maintains grace‐period rule. • Allows patent applications by assignees. • Backed by IT, Pharmaceuticals, Biologic, and mainline
/production, operations management, and logistics. To meetthe obligations of the remaining (nontraditional) tracks, we have developed new courses in Page 12.473.3financial engineering and health care, like many other schools.Table 1. Tracks for each major along with course offerings and home department. IE Tracks Common Tracks I&SE TracksProduction and Mfg Systems Supply Chain Logistics Information TechnologyFacilities Planning (IE) Facilities Planning (IE) Data Communications (IE)Robotics (IE) Supply Chain Logistics (IE) Mfg Info
and/or competencies. Additionally, in Spring of 2007 two new degree programs have won approval and will give new transfer options in Information Technology (Cuesta College) and Mechatronics (Allan Hancock). • CREATE conducted a comprehensive review of the region’s skills needs and cross- mapped these needs to the embedded technical and soft skills currently being taught at each of the CREATE colleges. • A new Mechatronics degree program was developed and implemented at Allan Hancock College. • A feasibility study to determine the need for a new 4-year B.S. in Engineering Technology degree to be offered in the region.Objective 4: Develop and implement a model assessment plan to measure longitudinally the
practices at the university level. TheSustainability Practicum course developed by the authors at the University of Utah aims tointegrate students from multiple disciplines with faculty and design professional mentors, alsofrom multiple disciplines. Multidiscipline student teams are first provided a basic introduction tosustainability concepts and then introduced to an on-going building or development project,environmental assessment, or coupled human-natural process investigation for which they mustincorporate a sustainable feature. By using active projects for the course, students are immerseddirectly into the planning and design experience providing them insight into stakeholder-client-decision maker-professional practice interactions. Students
Lesson plans for science and technologyTeachers’ Domain 7 Lesson plans, activities, videos etc on science and engineeringCalifornia Industrial & Projects related to construction, manufacturing, transportation,Technology Education energy and engineeringConsortium 8Project STEP 9 Lessons and activities in science, engineering and mathematicsCourse DeliveryThe initial delivery of the course began in Fall 2007 at the schools. A fourth high school alsoasked to participate in the course. Each school had a number of distinct characteristics that led todifferences in how the course was presented. Significant attributes included the experience ofthe teacher, the classroom setting, the student
the possibility ofestablishing a Center for Advanced Technology (CAT) in the emerging field of Nano andBio Information Technology. All the participants agreed that in order to achieve this goalan initial organization would have to be formed for a period of two years, which wouldbe located at SUNYIT, Utica, NY, and named “New York Nano-Bio-MolecularInformation Technology (NYNBIT) Incubator”.The mission and purpose of this organization is to set up a plan to establish a Center forAdvanced Technology (CAT) focused on fostering an environment of research,development and education and creating a new industrial base in New York State in thisunique technology area.The collaborating Institutions are: 1. SUNYIT 2. SUNY- Geneseo 3. SUNY
by the students. Centra system was chosen due to students’familiarity with the system and the ability to download the recordings as an executable file.Implementation PlanThis section describes, in detail, our implementation plan including the hardware-software. Theidea behind using Tablet PC and Centra system came after our successful experience in flexibledelivery system using Centra.Hardware-Software requirementsThe software and hardware requirements includes: Centra, Multisim, MATLAB, one Tablet PCfor the instructor and one for each team, consisting of 2-3 students, and Internet-camera for theinstructor. Wireless Internet connection is also an important issue as it should be capable ofhandling the required bandwidth.Teaching ProcessA
analysis of responses on a 7 point Likert scaleshowed an increase in four different areas measured and quantitatively demonstrated meeting ourgoals. However, the survey results also revealed a great propensity of participants alreadyinterested and planning to study engineering. These results will help us to refine our goals,future marketing approaches, and development of the summer program.IntroductionThe Grand Challenges identified by the National Academy of Engineers (NAE)1 and the globalnature of engineering in the 21st century require a diverse set of engineers with innovative ideasand a mindset towards the helping society. Thus, the “Rise Above the Gathering Storm” reportcalls for enlarging the pipeline of students and increasing the number
provided help with the engineering, science, and mathematics concepts needed tosupport and supplement the units of Engineering is Elementary.The teachers were also asked to develop with the assistance of the community collegefaculty an appropriate plan for the professional development of their elementary schoolcolleagues over the next year and to present the plans to the districts.An outside evaluator was employed to gather and evaluate data and report the results ofthe summer's activities. His findings are included.IntroductionIn 2003, by act of the Massachusetts legislature, in an effort to increase the number ofstudents choosing STEM (Science, Technology, Engineering, and Mathematics) careers,a STEM Pipeline Fund of $2.5 million was established
Session 1608 Competency-Based Engineering Design Projects a a b c a D. C. Davis , R. W. Crain Jr. , D. E. Calkins , K. L. Gentili , M. S. Trevisan a b c Washington State University , University of Washington , Tacoma Community CollegeABSTRACTAn outcomes-based approach to education is becoming essential for engineering educators.Design competencies help one define educational outcomes, develop plans for achievingintegrated design experience, and document educational
’-’ ) 1996 ASEE Annual Conference Proceedings %@l&.? 1 If the goal really is to put space engineering students’ projects into space, then some kind ofhitchhiking arrangement is required. Get-Away-Specials (GAS Cans) and mid-deck lockers on theSpace Shuttle have hosted student projects for years2. Our experience is that flying on the Shuttle isfeasible, even for undergraduate students, but these projects require years of planning, coordinationand review. Mission durations are short and experimenters have little control over when theirpayload gets manifested on a flight. A ride as a secondary
fares relatively well, probably in part because of my necessarily greater involvement. Future Plans The Department is planning a larger computer classroom, with 36 PCs, one per student, improved andversatile computer screen selection and projection. The facility will be used for a wide variety of undergraduate Page 1.432.3 ?$!iih’-’) 1996 ASEE Annual Conference Proceedings ‘..+,~yy:: . courses, including digital signal processing, digital image processing
Session 1247 Course Analysis Effectiveness Survey of BSET Graduates Ronald H. Rockland New Jersey Institute of Technology ABSTRACT Just as the business world has realized that customers are its first priority, higher education alsoneeds to become customer oriented. Since our customers are our students, the opinions by recentand past graduates on course effectiveness with respect to their job functions is important. This analysis was part of an overall strategic planning effort within the EngineeringTechnology department of NJIT. A
with high potential for technicians employment are being pursued including alternative energy programs in wind and solar technologies.Objective 4: Develop and implement a model assessment plan to measure longitudinally the success of the educational experience. • A new adaptation of the Facilitator/Teaching Improvement model was piloted in cooperation with an Achieving the Dream community college in Pennsylvania in January 2009. A team of Master Facilitators conducted both an on-site FDW1 and an on-site TSW for 16 targeted faculty with rigorous pre and post testing of faculty and students to assess improvement in student learning. • In cooperation with community college researchers, CREATE continues to follow
projects, applying knowledge in problem situations, or both. The proposed modelincludes six sequential steps in designing and evaluating Experiences. 1. Definition of Learning Objectives 2. Definition of Scenario and Context 3. Identification of Resource Requirements 4. Execution of the Plan 5. Exercise and Post-Exercise Activities 6. Evaluation of ExerciseThroughout the development and execution of Experiences, educators should be cognizant of thefollowing issues. ‚ Learning Styles: Finelli et al.8 define learning styles as “…a biological and developmentally imposed set of personal characteristics that make some teaching (and learning
that are testing for lead. In Leon County School District, hometo 34,000 students, tests began in 2016 through a collaboration initiated by researchers at one ofthe local universities. Their lead testing plan and results were shared via that district’s waterquality website. Across the Tampa bay, the Pinellas School District, responsible for 150 schools,started a lead testing program in 2016.Based on personal communication with Florida State University faculty leading testing in LeonCounty, there will be calls for installation of water filters on kitchen faucets and water fountainsin all Florida schools.This local wicked problem resonated with students as many attended the schools in the districtand some had young children who attend or are
Congress andExposition), the Board of Governors’ strategic planning retreat, the ASME Boiler and PressureVessel Conference, and attend an ASME Annual Meeting. Being selected into this distinctiveProgram significantly enhanced my leadership and project management skills, and enabled me toexpand my professional network. Most notably, together with fellow 2018 ECLIPSE memberswe developed structured material to raise awareness of the Society and highlight the manybenefits to early-career ASME engineer membership and volunteerism. Content in the form ofbrochures and email templates included a business case and guidance for early-career individuals(less than 10 years) on how to gain support from their employer or institution for time spentperforming
. The five main goals in this collaborative infrastructure wereestablishing (1) a management structure, (2) one primary high school partner, (3) two academictransfer agreements, (4) an Industrial Advisory Board of three members, and (5) seven additionalhigh school partners to scale future implementation.Three of these goals were fully accomplished within the planned timeline, and the two otherswere partially accomplished. This paper discusses detailed achievements in each area along withthe project’s external evaluation results and the project leadership team’s lessons learned. Thepartnership infrastructure that has been built will be used to build the skilled technical workforcein North Louisiana through increasing high school students
efforts have aimed to provide a holistic engineering education [1], producing T-shaped engineers [2] who possess broad knowledge across disciplines with deep expertise intheir domain. We have seen many pedagogical advances, such as team-based learning, problem-based learning, experiential learning, and creative learning using virtual reality, to name a few.The core driver for this change stems from the need for engineering education to prepareengineers to stay relevant and to contribute to society in the face of rapid global change andadvancement in information and technology.These trends have been the main motivator for integrating liberal studies and engineering.Bucciarelli and Drew laid out a “design plan” for liberal studies in engineering
Post Deviation I am interested in careers that use science 3.78 4.00 0.98 0.1610 I am interested in careers that use mathematics 3.69 4.12 0.75 0.0030 I am interested in careers that use technology 3.91 4.24 0.79 0.0190 I am interested in careers that involve engineering 3.94 4.12 0.64 0.1100 I plan to use STEM in my future career 3.93 4.17 0.54 0.0140 I am interested in careers that involve STEM 3.82 4.12 0.53 0.0030 STEM interest average 3.92 4.07 0.31 0.0080As can be seen in Table 3, there was a significant upward change in
resourcegaps if a school or program experienced a poor enrollment and a lower budget. In general,library collection development decisions were driven by budget policies rather than byuser need.In 2011, KSL formed a task force consisting of faculty and several librarians. The goalwas to create a collection and budget strategy that adapted with new research needs andreflected a fairness in meeting all faculty expectations for access to databases, journals,and books (i.e. prevent subscription inflation from overtaking the book budget). The taskforce proposed a plan that was approved by the Faculty Senate. The plan allowedlibrarians to decide how to allocate collection development budget dollars, since they