Session 2793 Engineering a Traditional English Department: Writing Instruction and the Role of Freshman English Nicole Amare, Charlotte Brammer The University of South Alabama/The University of AlabamaAbstractThis paper discusses the results of collaborative efforts to create a writing course across thedisciplines for TIDE (Teaming, Integration, & Design in Engineering) students in traditionalcomposition classes. In the fall 1999 semester, the engineering department at the University ofAlabama developed a TIDE curriculum in an effort to assist incoming engineering
is preparing the units for ClinicalTesting. Integration of the Engineering College’s multidisciplinary electronic, software andmechanical design disciplines developed the design. The engineering corporation sponsored aninternship for project feasibility. Subsequently the corporation sponsored three Capstone Teams,in the 2011/2011academic year, which built and designed a proof-of-concept operational unit. Asubsequent sponsorship of two Capstone Teams in 2012/2013 produced an engineeringprototype. Presently a single five-student-member Capstone Team is preparing two functionalunits for Clinical Testing. An audiologist from a local medical clinic has provided directmentoring and patient testing support. The paper also describes the
varied educational backgrounds, to enhance theirappreciation of the complexity and challenges of international space activities, and to facilitatetheir integration into a network of professional, political, and cultural organizations withsignificant impact on space programs.The Master of Space Science (MSS) Program 9This program begins in September of each year and is conducted at the ISU Central Campus inStrasbourg. Typically, about 50 students attend the MSS program, the majority of whom holdacademic degrees at the Master's level or above. The program has a modular structure consistingof a core curriculum (Module 1,) a specialized curriculum (Modules 2 and 3,) aninterdisciplinary team-project (Module 4,) and a twelve-week on-site internship10
Paper ID #26840Understanding Interrelated Growth Mind-set and Academic Participation &PerformanceZiang Xiao, University of Illinois, Urbana-Champaign Ziang Xiao is a PhD student from the computer science department at the University of Illinois at Urbana- Champaign. His primary research interest is in human-computer interaction.Mr. Shiliang ZuoMr. Jinhao Zhao, Tsinghua UniversityProf. Wai-Tat Fu, University of Illinois, Urbana-Champaign Wai-Tat Fu is an associate professor of Computer Science at the University of Illinois at Urbana-Champaign (UIUC). His research focuses on applying theories of cognitive science and human
blood-glucose models. The blood-glucose model is also explored in the context of disease (diabetes) and changing system responses. 3. Euler’s Method, Insulin Pump (PID) In this last laboratory exercise, refocusing on computational skills, students are tasked with two major challenges: developing the appropriate mathematical representation of proportional (P), integral (I), and derivative (D) feedback and writing a differential equation solver applying Euler’s method (a technique discussed in prerequisite courses and developed in lecture).MATLAB® Grader™Each laboratory exercise is developed and tested using MathWorks MATLAB® Grader™ onlinetool. This tool is an excellent platform for developing coding
an ordinal sequence. Typically, students jumpedfrom step to step within a single design process (e.g. sub-steps within DevelopKnowledge) as well as across design processes (e.g. from Develop Knowledge toSpecifications and Constraints) which led to the higher average of steps visited. Overall, Page 24.820.8results suggest that using scaffolded engineering design approaches in WISEngineeringcan help students focus on important conceptual understanding, which is extremelyimportant if engineering is to be well integrated into in precollege settings. Furtheranalysis of log data is necessary to determine if there are any definitive patterns thatindicate
students to evaluate each other’s presentationsthroughout the semester. In another course, the teaching assistant and instructor used the rubricsto evaluate each team’s final report. Because progress reports are an integral component of the courses and are critical toensuring that students make timely progress and effective use of tutors, an additional “progressreport” rubric has been developed as shown in Figure 3; however, this has not been available for Page 8.1256.4use in the modules taught thus far. Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright
attempts, the number good and the percentage good is displayed forproblems worked in the random-entry mode. Right and wrong bits in the student’s answer arehighlighted in green and in red, respectively. Attributes of the calculator are presented. Methodsof software development are explained and a brief account of use with students is given.Because the calculator is written in Java, new objects can be created to extend the capabilitieswhile keeping the old functionality. Also it can be integrated into other instructional software onthe web. The preliminary work on this software was funded by MIDC (Multimedia InstructionalDevelopment Center) at Purdue University.BackgroundBinary numbers and binary arithmetic emerge at various points in the
[school anonymized for publication] change as a result of your internship? How will yourexperiences this summer shape your approach to next quarter and beyond?” at the end of their internship.This mixed-methods approach helps us track students’ motivations, perspectives, and plans for action andsituates their internship as an integral part of their CSE undergraduate education.B. Background 1) The role of motivation in learning: Motivation is critical to learning and leads one to pursueand continue to pursue an objective [1, Part II]. Importantly, motivation is believed to be an emergentphenomenon, meaning it can develop over time and be updated based on new experiences. As described in[2], self-efficacy theory [3] and situational interest
leadershipeffectiveness using experimental studies, large-scale surveys, and experientially based calls forchange to argue that either managers need to adapt to engineers’ technical-rational, convergentproclivities, or that engineers as managers need to develop a suite of professional skills tocomplement their technical training. Whether they viewed engineers as a homogenous group ofprofessionals who must be accommodated, as technically trained individuals in need of socialskills, or even as citizens with culturally diverse values, all thirteen researchers focused on theindividual engineer or engineering manager as the primary unit of analysis. An importantimplication for engineering educators and corporate trainers is to integrate social skills traininginto
range of intended goals. The University of Virginia’s engineering school hasboth an undergraduate thesis that has been required of every student since the early 1900s and anestablished Systems Engineering capstone project that has been in place since 1988. Both projectstreat constraints in areas such as economics, the environment, ethics, politics, sustainability, andsocial considerations as integral parts of engineering problem solving and decision-making. In sodoing, they anticipated and reflect the integrated approach of EC 2000.Most students who major in Systems Engineering (SE) use their capstone project as the basis forthe undergraduate thesis, which is jointly advised and must be jointly approved by a facultymember from the humanities
to aid current and future project participants. These practices become internalized habits, not just a concession to faculty demands. 3. The Integrated Projects Curriculum alleviates the discontinuity caused by graduation. While the Modified Rower Pump project invariably experiences lulls after losing experienced members to graduation, the down time is reduced with the IPC project structure due to vertical integration and improved documentation practices.Endnotes and Bibliography1. SIM (Serving in Mission) is an organization committed to meeting the spiritual and physical needs ofdisadvantaged peoples. http://www.sim.org/index.php/content/our-purpose provides a more detailed description ofthis organization’s
to aid current and future project participants. These practices become internalized habits, not just a concession to faculty demands. 3. The Integrated Projects Curriculum alleviates the discontinuity caused by graduation. While the Modified Rower Pump project invariably experiences lulls after losing experienced members to graduation, the down time is reduced with the IPC project structure due to vertical integration and improved documentation practices.Endnotes and Bibliography1. SIM (Serving in Mission) is an organization committed to meeting the spiritual and physical needs ofdisadvantaged peoples. http://www.sim.org/index.php/content/our-purpose provides a more detailed description ofthis organization’s
information. Onthe other end of the spectrum a student can create their own framework and then fill it inthemselves. A canvas is an extraordinary balanced tool in this regard. It provides enoughstructure to explore a complex domain but not so much as to render it simplistic or prescribed.Just as it does for entrepreneurs, a canvas can serve as a framework for student-driven discoveryand practice.Interconnected DomainsMost traditional engineering courses have a tightly focused domain of content that has been wellestablished and refined. Some domains, however, are inherently transdisciplinary, meaning thatthey are formed from a diverse range of concepts that interact in complex ways. In anengineering curriculum, design, entrepreneurship, ethics, and
curriculum, it would be reasonable to expect to observedevelopment in information fluency in engineering students in their freshman to senior years.Measures of Information Fluency The processing of information is an intricate interplay between the person and theinformation source. On the one hand, there are strategies for negotiating the complexities ofinformation. These are termed metacognitive strategies because they relate to how a personmonitors and guides comprehension of information. On the other hand, individuals hold specificbeliefs about the nature and purpose of information. These are termed epistemic beliefs becausethey relate to individuals‟ beliefs about the nature of knowledge. Metacognitive strategy use and
approaches thatwe have found to be successful tools for recruitment and retention are under threat. Institutionsof higher learning must demand clear evaluations of progress being made through minoritystudent support programs. We must challenge ourselves to develop only “results orientedprogram”. We must work with faculty, who are predominately non-minority, in their approachesin working with targeted minority students. We must develop funding patterns and strategiesthat are not “here one day and gone tomorrow”. Long term results are difficult to obtain iffunding is not equalized and sustained. We must institutionalize minority student supportprograms within universities so that they are viewed as an integral part of academic units.ConclusionsDuring
This paper is based on a senior machine is located right on the top of thedesign project. It is an example of a floor. There is no additional adjustmentcomplete work from conception and design tooling that would come up from the bottomto implementation in the industry. This of the vehicle.project also shows how the industry benefitsfrom supporting curriculum based projects. The design of the wheel stop mechanism has been drawn in Mechanical In design process of any device, Desktop V4 – 3D CAD system. Importantthere exists a magnitude of considerations calculations and tests were also made toand a challenge for
Paper ID #36732Board 49: Project-based learning course co-designed with regionalenterprisesLufan Wang, Florida International University I am an Assistant Teaching Professor at Florida International University.Ruoying ChuDr. Fangzhou Xia, Massachusetts Institute of Technology Fangzhou Xia received the dual bachelor’s degree in mechanical engineering from the University of Michigan, Ann Arbor, MI, USA, and in electrical and computer engineering from Shanghai Jiao Tong University, Shanghai, China, in 2015. He received the S.M. in 2017 and Ph.D. in 2020 both from the mechanical engineering department in Massachusetts Institute of
development of original inventions by multidisciplinary studentteams within the Junior and Senior Engineering Clinics. Funding of up to $2500 per student teamper semester is competitively awarded based on student-generated proposals to the Venture CapitalFund. To qualify for funding, student teams must propose, plan and implement an original, semes-ter-long product development enterprise. The product idea must be successfully designed, devel-oped and prototyped in a single semester. The latter criterion is possible given the unique rapidprototyping facilities available at Rowan University, which include a stereolithography machine, amulti-jet modeling rapid concept modeler, a rapid circuit prototyping system and multiple consumerappliance test
educating student to generate creative concepts; 2. train instructors on how to teach Design Heuristics within existing engineering classes; 3. assess learning outcomes from Design Heuristics pedagogy from diverse instructors, courses and universities; 4. incorporate the lessons learned to develop an effective, easy-to-adopt pedagogy for educating students about how to generate creative ideas.Key research questions include: How do instructors’ emphases on concept generation change asa result of introduction to Design Heuristics at a workshop? How do instructors integrate DesignHeuristics in their courses? What similarities and differences exist in Design Heuristicspedagogy across course level and type? How do students
AC 2012-4699: ENHANCING LABORATORY EXPERIENCES WITH PORTABLEELECTRONICS EXPERIMENT KITSDr. Jason Yao, East Carolina University Jianchu (Jason) Yao received a Ph.D. degree in electrical engineering from Kansas State University in 2005. He is currently an Associate Professor of engineering at East Carolina University. His research in- terests include wearable medical devices, elehealthcare, bioinstrumentation, control systems, and biosig- nal processing. His educational research interests are laboratory/project-driven learning and integration of research into undergraduate education. Yao is a member of the American Society of Engineering Education and a Senior Member of the Institute of Electrical and Electronic
byDeGraff and Kolmos [3] in the following: A problem is the starting point of the learning process. The type of problem is dependent on the specific situation of the curriculum, study regulation, semester etc. Normally a semester theme guide which problems can be dealt with. Often semester courses are planned to meet demand from the study regulation and will at the same time support the problem solving process the students have chosen for their project. It is crucial that the problem serves as the basis for the learning process because it will determines the direction of the learning process as well as a problem places emphasis on a question rather than an answer. This also allows the learning content
environmental ethic that will lead to sustainability for humans and theecological systems that support us. An essential part of the class is a design project in which thestudents design a “Center for Sustainable Education”. The facility must utilize sustainabletechnologies for power, heating, cooling, and water supply. The students must demonstratefinancial feasibility of their project through the development of a business plan that provides adetailed analysis of construction costs, operating expenses and revenues. The cost of renewableresources must be compared to conventional resources. The students are given an initial “startupgrant” of 1.5 million dollars and are expected to leverage this money through innovative strategiesto cover the cost of
engineering andcomputer science fields as viable and exciting choices for a career for themselves.Within the UNM School of Engineering (SOE), students generally do not have an opportunity towork in project management teams until they are nearing completion of the program. TheInstructors designed the team collaboration introductory course to provide a grounding in themost essential skills needed in the engineering work world. The course curriculum goal was: 1)to lay a foundation in general engineering project principles; 2) expose students to engineeringdesign phases; 3) develop an understanding of concurrent engineering and design manufacturing;and 4) use the small task group to analyze best product solutions. Recognizing that small taskteams are
research conference as discussed in the following.3. 1 Mentored Research Work in Active Research GroupsStudents were matched with faculty in our department in order to obtain direct mentorship andguidance on their research projects defined in collaboration with their mentors. Most studentsreported, that they were actively integrated into their host-lab’s community and able to participatein regular lab meetings, journal clubs, and direct research discussions with stakeholders in theirresearch project. Most students had the opportunity to regularly interact with their faculty mentorand obtain direct feedback on their work. Students ranked the quality of their faculty engagementsa 4.5/5.0. 86% of our participants reported to have had an authentic
programs in entrepreneurship inacademia. But the lack of integrated context knowledge, know-how, may limit theeffectiveness of these early programs.The pervasiveness of learning-by-doing curriculum is driving the need to educateengineering students in their future role as knowledge holders, creators, team members,builders and, ultimately as, innovators. This paper hopes to continue the development ofthese curricula by presenting know-how as an intentioned framework.KNOW-HOWKnow-how is not a new concept. Aristotle (384-332 BCE) was one of the earliestthinkers to make a distinction between know-what – content knowledge or disciplines –and know-how – the oftentimes-messy aspects of self-awareness and applied teamwork.In Metaphysics, Aristotle speaks
Taxonomy to specify desired levels of achievement in the CEPC might be problematic, because the Taxonomy requires the use of measurable, action-oriented verbs. However, ultimately, the CEPCTC determined that the EAC’s concern could be adequately addressed without compromising on the use of Bloom’s Taxonomy simply by changing the introductory clause of the CEPC from “The curriculum must prepare graduates to…” to “The curriculum must include topics necessary to….” The latter phrase was quoted directly from the recently approved EAC Program Criteria for Cybersecurity Engineering [10] which were cited by the EAC Criteria Committee as an example of criteria that satisfied their concern
funds tosupport the actual oversees travel.We address this challenge in an innovative way using the product archaeology (PA) as the corecurriculum paradigm. PA involves the process of reconstructing the lifecycle of a product – thecustomer requirements, design specifications, and manufacturing processes used to produce it –to understand the decisions that led to its development. By considering products as designedartifacts with a history rooted in their development, we synthesize concepts from archaeologywith advances in cyber-enhanced product dissection to implement new educational innovationsthat integrate global, economic, environmental, and societal concerns into engineering design-related courses using product archaeology.Talking about
Engineering 1,2,“Integrating Engineering Design with the Humanities, Social Sciences, Sciences andMathematics”, involved the reshaping of the engineering curriculum through: 1) the integration ofcontextualized, interdisciplinary design projects throughout the four years of the program; 2)experimental and collaborative learning; 3) partnerships with industry in the creation of “real life”engineering projects for students at all levels; 4) cross-collegiate and cross-disciplinary teams of Page 7.1270.1 Proceedings of the 2002 American Society for Engineering Education Annual Con ference & Exposition Copyright © 2002
development of engineering standards (e.g., Engineering for USAll) and the growing number of public, private, and charter schools with engineering subjectsspeaks to an increasing interest in integrating engineering in the K-12 curriculum. However,because such efforts are not yet widely implemented, monitoring K-12 efforts of broadeningparticipation at the national level is unlikely. The same can also be said for informal engineeringeducation (outreach programs, museums, toys, etc.), which is also a prominent form ofparticipation in engineering at the K-12 level.After compulsory education, those wishing to pursue engineering as a career then proceed tohigher education. Here, this can entail the completion of an associate's degree, bachelor’s degree