Calculus pro-grams across the United States the MAA concluded that the Calculus student’s attitude to-wards mathematics is critical since this can impact career choices. They found that on aver-age, student attitudes toward mathematics declined from beginning to end of their first collegeCalculus course and that the students’ confidence in their mathematical abilities dropped al-most a half of a point on a six-point scale. Even “enjoyment and desire to persist in studyingmathematics also changed in the negative direction from beginning of term to end of term[1].” If we can find out more about students’ perception of their own academic capabilitiesand what influences their attitudes towards mathematics, maybe we can help more students tofinish
; application of personal contributions; and overallresearch experience.On the whole, they did a good job of expressing themselves, indicating that they gave a lot ofthought and consideration to what they had done and how best to describe it. Due to the largevolume of their responses, below is a sampling of what they said. ● The engineering process is all about being flexible, being a critical thinker, and being a problem solver. ● [We]had to find a way to make this project connect with [our] chosen field. For example, I am a civil engineering student. One of the things I found particularly useful to my career path was the practice I got using AutoCAD, which is a program that most civil engineers use for creating designs. In
undergraduate research scholarly events − Evaluate community service as a parallel activity in research − Integrate service learning in the process − Integrate interdisciplinary collaborationConclusionsScholar activities in a bi-national collaborative learning environment provide an opportunity toexperiment a new perspective on the approach to solve a complex problem. It enhances adiversity of skills that students will find essential during their professional careers. To name theimportance of communication and collaboration skills, which go beyond only teamworkexperience; as well as important features such as respect for diversity, and tolerance, amongothers.It has been found that making the rest of the team aware of each profession's
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
instudents’ college careers can be particularly impactful, as students’ first year, and to a lesserextent their second year, is when they make crucial academic decisions, including their choice ofmajor [4].STEM bridge programs are a type of early (pre-college) STEM intervention. They are residentialprograms that take place the summer before matriculating STEM students begin college and aredesigned for students who have been identified as relatively underprepared for STEMcoursework, often female and/or underrepresented minority students in particular [5]. A primarygoal of STEM bridge programs is to increase the number of students who have access to a strongSTEM foundation by increasing students’ STEM knowledge and exposure to STEM content [6].Bridge
council has16 members. Members include the president of the Hilltop University,president of the local community college, superintendents of the three regional independentschool districts, and representatives of the business, workforce, and economic development inthe region [4]. Membership is intended to cover the spectrum of education for the workforce andeconomic development. The council’s mission is to promote and support innovative educationand to provide pathways for students to be able to pursue careers and aspirations. Before theinitiation of this collaboration, it was found that the majority of college students in the HilltopUniversity region did not represent the local population which was predominantly Hispanic.Most of the region’s
chat application for responding to RFIs. Asshown in figures 4.1 and 4.2, the construction process has been shared via live videoconferencing and received immediate design feedback from the students. The complicationswith the construction process provided very useful insight for their future career, and this hands-on learning experience had a profound impact on how they view the construction process.Figure 4.1 & 4.2 construction process shared via video conferencingResultsThe author interviewed with two participating students to ask about their learning experience.Also, to obtain a more in-depth understanding, the author required them to submit a report. Thestudents responded that their representation and design skills improved during this
researched multiple areas of technology. They came up withinnovative design processes. They went through the tough process of creating a cohesive team.They created schematic drawings, graphs, and tables, and submitted a strong, professionalapplication. These are all invaluable skills for their engineering careers, where they will apply forgrants, write reports and papers, and present their findings. The M.A.R.S project gave them theseskills and more.ConclusionThis project was a very successful capstone experience for our students. The project was bothexciting and challenging, and students rose to the task. They did not have access to advancedtechnical or design software, and still were able to create a workable, attractive barge for thecompetition
with a specific career interest may develop an individually customized concentrationbased on mutual agreement between the student and the department. The current Graduate Focusareas consist of 9 sub-disciplines but none related to aerospace systems and UAS. In thiscurriculum update, the relevant courses required to complete the three course sequence for thenew Aerospace/UAS Graduate Focus area was finalized and is shown below: Aerospace/UAS (choose 1 of 4) 9 MECE-610 Flight Dynamics-X 3 MECE-611 Orbital Mechanics-X 3 MECE-612 Unmanned Aircraft Systems-X 3
equations of motion for a fluid. Thesecan be expressed in variable form for an incompressible Newtonian fluid as:𝜌( 𝑉⃑ + 𝑉⃑ ⋅ ∇𝑉⃑ ) = −∇𝑃 + 𝜌𝑔⃑ + 𝜇∇ 𝑉⃑ (1)These equations are 2nd order, non-linear differential equations, which is conceptuallyoverwhelming. Even when these equations are simplified, it is difficult to translate themathematical expression into a mental picture of the physical reality. This is true even for manyfaculty who have worked with these equations over the course of a career. Alternate analysismethods that are taught, such as integral analysis, are useful engineering tools but they too oftenremain just equations, with mysterious variables and meaning to the
” by Robert Yancey. June 11, 2012. “https://www.industryweek.com/none/how-composites-are- strengthening-aviation-industry.”, August 14, 2019.[20] The Balance Careers: “Advantages and Disadvantages of Composite Materials on Airplanes” by Sarina Houston. November 4, 2018. “https://www.thebalancecareers.com/composite-materials-aircraft-structure-282777.”, August 14, 2019.[21] Shine Auto Project: “Plain Weave Carbon VS. Twill weave Carbon: Which is better??” “https://www.shineautoproject.com/blog/plain-weave-carbon-vs-twill-weave-carbon-which-is- better/.”, August 14, 2019.[22] Swep: “1.5n Energy balance.” “https://www.swep.net/refrigerant-handbook/1.-basic-heat- transfer/as3/.”, August 16
solving strategies and confidence, and • to assist students in determining whether engineering is a career they are interested in pursuing.Since the program began in 2006, a total of 4,651 students have completed the course. Moststudents who take Engineering Innovation are rising juniors and seniors in high school. All ofthem have completed algebra II, trigonometry, and chemistry or physics as pre-requisites.The program spans 20 days over four or five weeks. A typical class day consists of 2-3 hours ofnew content delivery through lectures and problem solving followed by 2-3 hours of hands-onprojects or lab activities. Students conduct remote measurements of building height, apply multi-dimensional ranking to a heterogeneous set of data
on the current course, andprovides a slow path to improvement. This study presents a student-centered assessment modelthat provides timely actionable feedback allowing optimization of course instruction during thesemester with the objective of maximizing student learning and the overall student satisfaction.The proposed model uses a simple structured approach that incorporates questions requiringnumerical scores and open-ended questions to solicit student feedback.This model includes four surveys administered over the semester. The first survey is given on thefirst week of classes to familiarize the instructor with the background and career goals of eachstudent and their course expectations. Based on the findings of this survey, the
engineering students in order to promote collaborative problem solving and provide experience relevant to authentic work in industry.Ms. Esmee VernooijCatherine LaBore, University of Illinois at Urbana-Champaign Catherine LaBore is a sociocultural anthropologist and media production professional. She has had a long career producing educational media. As an ethnographer and media/content producer, she spent nine years supporting engineering research with colleagues developing intelligent systems for education. She’s worked on problems of user experience and design and higher-level content development (e.g. expert ontology and schemata) for systems designed to teach language skills, cross-cultural social interaction
Paper ID #29709A Study of the Effectiveness of Using Hands-On Active Learning Exercisesin a Production Operations Management CourseMajor Steven Hoak, United States Military Academy Major Steven Hoak currently serves as an instructor at the United States Military Academy in the Depart- ment of Systems Engineering, focusing on engineering management. He is a career Army Aviation and Acquisition Officer. He holds a Master degree in Nuclear Engineering (Air Force Institute of Technol- ogy), a Master of Business Management (Mississippi State University) as well as a Bachelor’s degree in Chemical Engineering from the United
theentrepreneurial journey to designing programs that allow students to have founder experiencesand launch their own business ventures. The intention of these programs is for engineeringstudents to gain a skillset and orientation towards being more innovative and entrepreneurial intheir careers once they leave the university, whether they choose to try to immediately start acompany or not.Many of the activities that are designed into entrepreneurship programs, however, result instudents experiencing varying degrees of failure with the most extreme case being student-launched ventures that fail. While entrepreneurship programs typically talk about embracingfailure and learning to fail fast, it’s unclear what impact these failure experiences have
PBSL efforts may offer two additionaladvantages. First, since students are addressing concrete needs in an interprofessional workingenvironment, the interprofessional PBSL experience may help foster mature attitudes towardsprofessional practice. Second, the array of challenges, joys, and rewards associated with servingthe community in an interprofessional team may promote career readiness and confidence inone’s training and aptitude.The need for interprofessional education and collaborative practice is not unique to engineering.Training programs for pre-service professionals in allied health specialties, such as clinicalexercise physiology, physical therapy, occupational therapy, and athletic training, benefit frominterprofessional experiences
, highly considered by ANU's HE leadership as a critical aspect. In fact, there is along-term partnership of ANU's minor with five or six community organizations beyond EWB.A few social enterprises have been established by alumni, which are working both domesticallyand internationally, broadening the students opportunities to undertake internships or researchprojects, including Abundant Water with programs in Lao and Timor Leste, which helps remotecommunities stop diseases by providing access to clean water, and Enable Development, whichworks with empowering people with disabilities [21].Finally, HE at ANU is not compulsory but restricted to interested students. The evidenceprovided in the benefits for a professional career and consistent
-shelf engineering ethics textbooks, produce a mix of factors thatmay result in the common finding that students often become measurably less ethical as theyprogress through their undergraduate career [9], [10].In response to this, the College of Engineering at Boise State University is taking advantage ofsystemic curricular change efforts made possible by an NSF sponsored RED grant(Revolutionizing Engineering and Computer Science Departments) to its Department ofComputer Science [11]–[17], and adapting innovations from that project to other engineeringdepartments. This manuscript describes efforts in the Department of Mechanical and BiomedicalEngineering and Micron School of Materials Science and Engineering. These efforts
ASEE and the IEEE.Emery DeWitt, Mentor-Connect/FDTCDr. Liesel Ritchie, Oklahoma State University Dr. Liesel Ritchie is Associate Director of the Center for the Study of Disasters and Extreme Events at Oklahoma State University and an Associate Professor in OSU’s Department of Sociology. During her career, Ritchie has studied a range of disaster events, including the Exxon Valdez and BP Deepwater Horizon oil spills; the Tennessee Valley Authority coal ash release; Hurricane Katrina; and earthquakes in Haiti and New Zealand. Since 2000, her focus has been on the social impacts of disasters and com- munity resilience, with an emphasis on technological hazards and disasters, social capital, and renewable resource
, withseveral articles identifying the amount of time practicing engineers devote to information seekingand use [16-20]. Leckie and Fullerton [21] investigated the engagement of faculty in thedevelopment of information literacy and communication skills across science and engineeringdisciplines. The study found faculty would prefer librarians take the lead in teaching informationliteracy skills, and expect students to be able to integrate what they learn about locating andevaluating information into their written or presented work. These research and communicationskills become critical in a curriculum where students engage in experiential or project-basedlearning methods as their academic careers progress [9], [22].MethodologyThis project is a
Cornell Uni- versity, Master of Business Administration degree in Finance from Long Island University, and a Ph.D. degree in Civil Engineering from Lehigh University. Dr. Lenox served for over 28 years as a commis- sioned officer in the U.S Army Field Artillery in a variety of leadership positions in the U.S., Europe, and East Asia. He retired at the rank of Colonel. During his military career, Dr. Lenox spent 15 years on the engineering faculty of USMA including five years as the Director of the Civil Engineering Division. Upon his retirement from the U.S. Army in 1998, he joined the staff of the American Society of Civil Engineers (ASCE). In his position as educational staff leader of ASCE, he managed several new
to address is whether the current mechanical engineering curriculum isadequate to prepare the next generation of mechanical engineers for their profession in bothtraditional and emerging fields in mechanical engineering. The National Academy ofEngineering established a steering committee in 2001 to provide a vision for the engineers in2020 [5]. The career aspirations and desired attributes for future engineers were presented in thatreport. Similarly, the American Society of Mechanical Engineers (ASME) also establishedASME Vision 2030 Task Force in 2008 to assess the state of ME education and providerecommendations for improving the curricula [6]-[7]. Four of the recommendations more closelyrelated to mechanical engineering curricula included
strategies• develop team-building skills• involve students in community activities• provide personal and professional developmentIt is the only course that has the ability to expose the students to the variety of engineering fieldsand explain the differences between engineering functions. This is often the earliest source ofinformation to help them decide which engineering career/job to pursue and motivates them towithstand the rigors of an engineering education in order to succeed and graduate. The toy/gameproject contributes significantly to the achievement of the six primary course goals detailedabove.The DoSeum has coordinated this project as a culminating public program every semester. Sincethe first iteration of this project, the
typology. We feelthis research is an important contribution that can: 1) further our understanding of how studentproblem typology may (or may not) change during their undergraduate career; 2) contribute to ourevolving understanding of problem solving among novices and experts; and 3) provide afoundation for negotiating understanding of “good” problem solving among students, faculty, andpractitioners, serving as a feedback loop for engineering curricula.AcknowledgementThis material is based upon work supported by the National Science Foundation under Grant No.1830793. Any opinions, findings, and conclusions or recommendations expressed in this materialare those of the author(s) and do not necessarily reflect the views of the National
the degreeprogram.JH: I appreciate all of these insights. I would like to touch on two points. First, I would like toreference two studies supporting the argument that experiential education is optimal forpreparing students for ethical practice in their future careers. Second, I would like to add fodderto the iteration argument we have laid down regarding ethics.First, in light of one of our recent work [22], it is apparent that folks tend to teach ethics in amanner that is less experiential than Dewey (and we) would think ideal. Specifically, engineeringeducation seldom provides students with explicit opportunities to act ethically in real engineeringenvironments (which I define very broadly), let alone critically reflect; but is simply
are aligned with how engineering students develop in their career identity while also developing as whole persons. James received his Ph.D. in engineering education and his M.S. in electrical and computer engineering, both from Purdue University. He received his bachelor’s in computer engineering at Harding University. c American Society for Engineering Education, 2020 Expectations in engineering programs – between social construction and internalized experienceAbstract:Prior research established that expectations play a significant role in students’ educationalexperiences. Academic and non-academic expectations can
through several different approaches [18, 19]. Hoitet al. [18] introduced a one credit hour lab-based course that introduces students to engineeringby rotating groups through each engineering discipline. The results showed that this approachhelped to improve retention rate by 17%. Dini et al. also demonstrated that the student who takesa design-based course in their freshman year are 19% more likely to retain engineering conceptsin their subsequence years in engineering field when compared to students who did notparticipate in a freshmen design course [19]. In short, providing a hands-on experience-basedlearning opportunity to the student early in their engineering career will improve learningretention.Along the same line, to mitigate these
|| Microsoft Excel II 5 Engineering Tools - Fusion 360 I: Modelling || Fusion 360 II: Modelling 6 Engineering Tools - Fusion 360 III: Simulation || Fusion 360 IV: Iterative Design Process 7 Engineering Tools - Fusion 360 V: 3D Printing || MATLAB I: Introduction to MATLAB 8 Engineering Tools - MATLAB II: Basics || MATLAB III: Script Files 9 Engineering Tools - MATLAB IV: Functions || MATLAB V: Vector Creation, Plotting Guest Lecture: Professional Expectations, Career Outlook, Description of Local Civil Eng. Projects || 10 Engineering Tools - MATLAB VI: Vector Operations 11 Engineering Tools - MATLAB VII: Arrays || The Engineering Method and Design 12 Peer Mentored
participants before and after the training were almost constant, apaired t-test indicated that the times to take the pre and post diagnostic went down (from anaverage of 1000.41 seconds or 16.67 minutes to 678.39 seconds or 11.31 minutes) in asignificant way (p-value 0.0002203). This result may indicate that the students felt more familiarwith the type of questions and their level of difficulty during subsequent testing.Analysis of the qualitative results gathered through the ET exit surveys shows that 89% of theparticipants completed them, 50% of them reported that the training improved awareness aboutthe level of applicability of SVS to their careers, but only 21% expressed satisfaction fromimproving SVS vs. the work that was needed for this project