advocacy-network paradigm,with special attention upon the quality of the relationships and the mentoring activities.Survey InstrumentAn online 35-item survey was developed for this study to gather opinions on the quality of thementoring relationship; the mentoring received; the career development, sponsorship, andcoaching activities engaged in; as well as the quantity of contact (Fowler, 2009; Sue & Ritter,2012). The survey was based upon prior interviews in which participants were asked to share thementoring and advocacy-networking paradigm activities planned in their mentoring matches.The survey was closed-ended with a mix of factual, categorical response options (Yes/No) andopinion, continuous response options (Likert-scales). The survey
Paper ID #19497Work in Progress: Living with the Lab: Building a New Implementation ofthe LWTL Project-Based First-Year Engineering Curriculum at CampbellUniversityDr. Jenna P. Carpenter, Campbell University Dr. Carpenter is Founding Dean of Engineering at Campbell University. She is Chair of the ASEE Long-Rangge Planning Committee and the ASEE Strategic Doing Governance Team. She is a past Vice President of Professional Interest Councils for ASEE and past President of WEPAN. Currently Chair of the National Academy of Engineering Grand Challenge Scholars Program Steering Committee and an ASEE PEV for General Engineering, Dr
demonstrate an ability to identify, formulate, and solve engineering problems by applying principles of engineering, science, and mathematics. (b) Students will demonstrate an ability to design and conduct experiments, as well as to analyze and interpret data with the use of computer applications current to industry; (c) Students will demonstrate an ability to design and apply creativity in the design of engineering systems, components and process; (d) Students will demonstrate an ability to function effectively on teams that establish goals, plan tasks, meet deadlines, and analyze risk and uncertainty; (e) Students will demonstrate an ability to communicate effectively with a range of audiences (f) Students will demonstrate an
stated by theCommittee on Public Understanding of Engineering Messages of the National Academy ofEngineering: “To be capable, confident participants in our technology-dependent society,citizens must know something about how engineering and science, among other factors, lead tonew technologies.” [1]. This lead to an expectation that the new GenEd program at UMD wouldinclude engineering as an equal partner in planning and implementation along with the rest of theuniversity.The A. James Clark School of Engineering at UMD now participates actively in the I-Series,Scholarship in Practice, Natural Sciences and Diversity components of the GenEd program. TheI-Series courses are a signature component of GenEd at UMD. The I-Series program covers
. While this course uses active learning approaches and team projects, the scope of theircontents distinguish them from similar courses that seek to achieve improved graduation andretention rates. For instance, in this course, soft skills such as technical writing, use of Excel,developing an individual academic plan of study, cooperative education, internships, culturaldiversity, quality, safety, and ethics are covered. Basic technical skills covered include math,mechanical, electrical, and computer engineering technology. The rationale for this course is toexpose students to these subjects and topics before they enroll in core engineering technologycourses such as applied statics.Assessment of learning:While the author plans to conduct this
technology platform ardupilot, and 2) design and build aunique payload for the drone. The course assignments involve designing and building the device(a clear engineering challenge) with the more conceptual work of planning for its integration intopro-social organizational processes (a clear peace and justice challenge). To facilitate thisexploration, we have designed the course to minimize lectures and instead use class time forconversations and collaboration. This will be done through a combination of group discussions,team exercises, and collaborative workshops.This paper, submitted as a work-in-progress, presents the current state of our coursedevelopment. We discuss our learning outcomes, describe our pedagogical approaches, andidentify areas
: • Plan efficient laboratory experiments to collect relevant data while minimizing error • Design and conduct experiments in the laboratory • Compare experimentally measured results with literature data and quantify the sources of error that contribute to differences between measured data and literature data • Prepare high quality written reports and oral presentations to summarize a project in a professional and informative manner. • Practice effective group dynamics to work as a member of a team • Apply safe laboratory practices important in the chemical industry, including laboratory safety protocols, interpretation of material safety data sheets (MSDS), and proper handling, storage, and disposal of
Implementing Planning alternative preferred need problem the design concepts alternative Sustain Sustain Sustain Sustain Sustain Sustain Comp Comp Comp Comp Comp Comp Design Design Design Design Design Design Figure 1: Design process showing courses of emphasis at each stage Sustainability content was covered as five focused units: Energy, Water, Carbon, Biodiversity, and
schools as the selected applicants,and a few even participated in the program twice. Forty percent of the participants were NativeAmericans and 56% were females. Since the program, teachers have attended approximately 25conferences, several with their students. Program deliverables included a research poster and twoSTEM lesson plans for their classroom – one with indigenous culture embedded into STEMconcepts, and the other based their university research. Additionally, participants received $1500toward classroom supplies to support the RET lesson plans. Outcomes include increased teacherconfidence in performing research, improved laboratory skills, and greater understanding ofSTEM pedagogical development specifically geared toward Native American
- F2F person help or instruction is sometimes necessary or better Plan to use progress reports or build-as-you-go in PLAN TO the futureResultsSince the students were not required to write the progress reports and did not (per se) have toapply the build-as-you-go strategy to their writing, one of our overarching questions centered onwhether the students in fact viewed the progress reports as stepping-stones and/or used the build-as-you-go strategy. Based on the student interviews, to our great satisfaction, they did. In fact,the very great majority of students (96%) indicated they used the progress reports as a stepping-stone and/or applied
Scholaroutcomes are also presented and discussed as well as future plans for the program.INTRODUCTIONHealth care spending represented 17.8 percent of the United States economy in 2015.1Innovations are needed in the healthcare system to enhance patient care and health, whilereducing costs. Educating quality bioengineers trained to identify and solve healthcare problemswill prepare them to develop cost-effective solutions.Our strategy involves team-based design experiences driven by new projects drawn from unmetclinical needs is the strategy used here to train engineers while simultaneously addressinghealthcare problems. Design experiences are core to engineering education and result in studentshaving a deeper understanding and ability to identify and
Environmental Design were hired by anEnvironmental Studies course to develop a water quality monitoring plan, and conduct additionalwater quality measurements.Students in the involved courses encountered situations that they would not have otherwiseencountered. Instructors enjoyed working together, but also faced many difficulties related tomanaging not just their own course. Deadlines not met in one course had rippling effects,requiring other courses to be flexible with their own deliverable contents and/or due dates.Although the endeavor was challenging for instructor and student alike, with some smalladjustments we recommend the model and will try it again.IntroductionThere are many challenges in engineering education, including stimulating student
American Society for Engineering Education, 2017 A broader impacts course for engineering graduate studentsAbstractThis paper describes the development and first offering feedback of a course for engineeringgraduate students aimed at introducing students to the notion of broader impacts of engineeringresearch. During the course, students explored ways in which an engineer’s activities canpotentially benefit society and contribute to the achievement of specific, desired societaloutcomes. The course incorporated lectures from the instructor and invited speakers. Studentsdeveloped a personal broader impacts plan that is aligned with their personal and professionalinterests and goals. Students demonstrated attainment of course outcomes
eight forming components of theAfghanistan National Development Strategy (ANDS): 2008 -2013. The specific strategy forhigher education is described as follows (Babury & Hayward, 2014): “Improving the quantity and quality aspects to satisfy the demand for the market based economy with skilled professionals. This will involve increasing the capacity to accommodate more qualified students, together with an improvement in the quality of higher education by improving the number and quality of lecturers and offering a greater variety of courses. There are plans to provide universities with greater autonomy (p. 5).”In Afghanistan the way people can receive higher education falls into one of the following
Dublin, Ireland, in 2003 and M.S. and Ph.D. degrees in Mechanical Engineering from the Massachusetts Institute of Technology in 2006 and 2010. He has been the recipient of over a dozen invention, entrepreneurship, and student mentoring awards including the MIT $100K business plan competition, Whitaker Health Sciences Fund Fellowship, and the MIT Graduate Student Mentor of the Year.Dr. Donal Padraic Holland, University College Dublin D´onal Holland is an Assistant Professor in the School of Mechanical and Materials Engineering at Uni- versity College Dublin, and an Associate at the Harvard School of Engineering and Applied Sciences. His research interests include engineering design education, methodologies for
of the art is planned for future offerings3. The followingtable provides a summary of their responses:DTSCParticipantEvaluations* Item 5 4 3 2 1Becauseofthissummercamp,IcannowemployDesign Thinkingtosolveproblems. 4.25InowbelievethatDesignThinkingisanimportantand beneficialskillforahighschoolstudent. 4.20Thecamphasmetmyexpectations. 3.60 Iwouldhighlyrecommendthiscamptoothers. 3.80
, ease of use, and easy integration to other core subjects. Allmore compatible with the Next Generation Science Standards. The course there is scarcely any attention in elementary school settings. For these misconceptions in science, concept mapping, teaching science through reflective essays were positive and encouraging about the inclusion ofin its modified form includes engineering design component. Specifically, reasons, we need more trained and well-equipped elementary educators inquiry, 5-E lesson planning, integrating science, engineering and language educational robotics in elementary classrooms, but they found thethe engineering design component was addressed with the use of
instructors to trackthe diversity of course experiences they are exposing students to by recording the “experiencetype” (e.g., lecture, homework problem, exam question) and the representation used (e.g., active,intuitive, visual). The “app” will record this information, and present longitudinal summaries ofrepresentations favored by the instructor, highlighting which representations students may not beexposed to frequently.When used across a course or a degree program, this technology can serve as both a formativeand summative assessment of instructional strategies. In this work-in-progress paper, we willdescribe the “app”, its features, and plans for beta-version testing. We will also highlight howthis “app” will be used to study prevalent
available for PSUs or USUs. Stratum caneasily be developed and employed with minimum input allowing a researcher to consider ormitigate secondary variables. Consequently, if a researcher decides that additional or fewer strataare needed, the methodology proposed can be easily generalized to increase or limit theprobability of a person or institution being included as an USU.Multistage Sampling has both economic and statistical benefits. Simple random sampling is bothcostly when implemented on a national scale and does not guarantee an accurate representationof the population. Comparatively, multistage sampling designs are considered more costeffective without sacrificing size because multistage sampling plans are designed to capturesubpopulations
with engineering integration reform to help them out.Introduction“Leslie” heaved her lunch onto the table and dumped her body in a chair. (Pseudonyms are usedthroughout and Leslie chose her own pseudonym.) Usually excited during the school day, todayshe was wiped from teaching her first engineering design lesson, a self-planned engineeringdesign challenge to build a catapult and teach free fall. All the mental work she’d been doing haddrained her completely, and now she had 30 minutes to eat, regroup, talk about the lesson, andget ready to do it again after lunch.Leslie started the year with no formal engineering experience but she was hungry for change andinterested in integrating engineering design into her physics teaching. By the end of
: Building Professional Relationships between Construction Programs and their InstitutionsAbstractConstruction engineering and construction management programs often seek industry partners assources of curricular advice, case studies, field trips, guest instruction, internships, andpermanent placement for graduates. These partnerships can be leveraged to enhance and improveprograms’ resources and better prepare graduates for the professions upon which they are aboutto embark. While the focus is typically on partnering with external entities, programs oftenoverlook their own institutions as valuable potential partners. Colleges and universities havesophisticated facilities, planning, and management departments that can provide a
Presentations that have been refereed. She presents at both the state and national level and has been awarded over $7 million in a variety of grant awards. In her spare time she visits with her 2 children and 2 grandsons. c American Society for Engineering Education, 2017 Middle School Math and Science Teachers Engaged in STEM and Literacy through Engineering Design (Evaluation)We describe a professional development program that supports integration of STEM andLiteracy through Engineering Design for 24 in-service middle school math and science teachersin rural Appalachia. Through this program, teachers experience Engineering Design as learners,develop lesson plans utilizing engineering design
performedusing the Composer.Task 4: System TestingA detailed Test Plan will be prepared before system testing to make sure that the whole system(including the 3D printer and the IoT application) satisfies all requirements.The project was planned for 9 months. Figure 2 shows the timeline for the project. Currently theproject is in Month 6. The major parts of the IoT application has already developed (as shown inthe Results section) and tested. Currently, the team is working on refining the application andpreparing testing plans. Figure 2 Project TimelineStudent Assignments and TrainingThere are four students from four different majors working on the project, and they wereassigned into two groups (Group 1 and 2) with two
. The impact of these education programs can be measured in terms of studentparticipation in EE major programs, student diversity, and learning outcomes related toenvironmental sustainability.Environmental and Engineering at Purdue University The BS degree in Environmental and Ecological Engineering (EEE) received final approvalfrom the Indiana Commisson of Higher Education on September 14, 2012 and ABETaccreditation in 2013, retroactive to October 2012. This marked the end of an almost decade-longprocess of program planning and launch. The foundation of the EEE program was built through an NSF Curricular Planning grantawarded in 2002: “The Future Role of Ecological Engineering Science in UndergraduateEngineering Education.” The Purdue
- Replace one cylinder with the one of different rating and repeat Steps a to c.In the second part, students will build the circuit on the pneumatic trainer to verify Step c. Also,they should answer the following questions: 1- Do you observe any difference between the hand calculation, the simulation, and the actual circuit built? Where do you observe the differences, if any, and why? 2- Explain what you observed in Part D. Propose a solution to modify the circuit so both cylinders extend/retract synchronously. 3- How would you modify the circuit for overrunning loads (e.g., loads that are more than the allowed maximum loads)Plans for assessmentUpon completion of both phases, the authors will develop a
knowledge in problemsolving, management of resources, and process planning. Quality Control is a key skill requiredby Engineering Technologists, who work in project-driven manufacturing companies. AnIndustry Advisory Council for a university in Louisiana expressed the need for quality controltrained graduates, and worked with Engineering Technology faculty to develop a post-baccalaureate certificate program focused on quality control.This paper discusses the development of a post-baccalaureate industry certificate program inquality control. It starts by identifying the need for quality control knowledge and skills. Afterthat it discusses the key components for quality control body of knowledge. These componentsled to identifying relevant course
decimal equivalent, thus getting instant feedback, which instillsconfidence in the technique usage and understanding of the negative number binaryrepresentation. Students are encouraged to explore the decimal number range, for an 8-bit binarynumber, for both unsigned and signed number domains.Outreach and Feedback: Since the planned laboratory is still in its infancy, the designed emulators have been fieldtested in informal settings. Below are some survey results for the two emulators, which weredemonstrated at two different events: Logic Gates Emulator: The device was demonstrated at a Discover Engineering Day event. Users ranging from kids-to-adults used the device to understand the basic functioning of logic gates
planned to obtain Stayed Same 55.6% 54.5% 55.0% Increased 44.4% 36.4% 40.0%Based on the results shown in Table 3 and 4, it seems like there is no difference between the firstand second year. However, when comparing the pre and post survey results for 19 differentquestions, there are some differences between the two years. Each question asks REUparticipants’ confidence in one type of ability, such as formulating a research question. Byconducting two-tailed t-test for the first year’s results, only one question (Dealing withunanticipated delays in conducting research) shows significant improvement with p-value of 0.03.For the second year, there are four questions show
• ENGP 1005: Introduction to Electronics with Laboratory • NSCI 1015: Basic Neuroscience with Laboratory • Physics 1015: Materials Science and Engineering Summer Class • PSYC 1100: Exploring Psychology • SCEN 1015: Computers and Musical CreativityStudents also have the option of living on campus during the course period for additional feesand many extracurricular educational activities are planned outside of the courses to introducethe students to each other and opportunities available at universities.The Purpose of Evaluations: This program offers a unique opportunity in the New Orleans areafor high-achieving students. However, the cost associated with the program is prohibitive tomany Greater New Orleans area residents. While course
aroadway with bike lanes. This paper builds upon the familiarity of students with thetransportation system and pursues three objectives. First, students learn how math and physicsprinciples can be used to model complex systems, such as a surface transportation system.Second, students are introduced to the decision-making process and before-and-after studies inwhich quantitative measures are used to support a decision. Third, students learn how engineerscan potentially influence city planning and affect communities. In the first steps, students learn how math can be used to model driver behavior and todevelop car-following models. Then, students use traffic simulation software to model the flowon an urban corridor. The software considers