Tablet PCs as well. In addition, communicating to students how technical skills andusing new technologies are important for jobs or how the Tablet PC is specifically beingemployed in careers they may want to pursue may motivate students to use new and differentfeatures associated with the Tablet PC. Finally, the college plans to increase the training andinformation sessions that are offered to students. Providing training and information sessions toincoming students and their parents might prove useful as students would enter prepared to usethe Tablet PC and parents would also be informed as to the benefits of using such technology toenhance student learning. Improving the infrastructure of the environment to support Tablet PCadoption is also
sections in this study are no larger than 48, andface-to-face time in the combined lecture/lab format is mostly problem-solving rather than lecturesin the BlendFlex mode, which in essence is a “flipped classroom” design.As an added resource, a Learning Assistant (LA) was available to help students with problem-solving in class for one section (due to class schedule conflict), held online office hours, postedreview materials, and conducted exam review sessions open to all students in both sections.Although the LA Program started at FGCU in the fall of 2016 following the Generalized ProgramElements (GPEs) of the Learning Assistant Model [10], this was the first time an LA was utilizedin Engineering Mechanics. Most LAs work in introductory STEM
observed that the optimum group size of students was four with one ofthose being proficient in drawing. Teams of less than four tended to be overwhelmed by themany components they were responsible to consider during the design process. Teams with morethan four tended to have members who did not contribute sufficiently and the team tended tooverwhelm the consultant16.Industry benefits by receiving technical assistance from senior students in performingpreliminary analyses and design to screen different candidate solutions and to generate new ideastowards solving existing problems19. The students benefit from working on real world problems,interacting with professional engineers and exposure to economical, legal, and regulatoryconstraints that are
Processes, Organization, Management, Economics Customer Needs Technical Strategy Concept System/Product Generation/Selection Requirements Complete & Testable Product Specifications Product Specifications Product Architecture System/Product Design Process Methodologies
descriptive analyses of classroom observations of the instruction and classroominteractions that took place over four days of a high school pre-engineering class, Project Leadthe Way, as participants engaged in project-based learning. Our objective was to study theenacted curriculum and determine how class time was apportioned, the extent to which time wasdistributed between developing technical skills and fostering conceptual understanding inengineering and mathematics, and the degree to which mathematics concepts were implicitlyembedded within the engineering activities or made explicit for students, and therefore moresupportive of transfer of learning.Our coding of the video data support the following three main descriptive results: (1) more of
transmission consists of a train of spur gears arranged in a particular fashion). Create a predicted function structure and list of predicted components and physical principles.5.1.3 Supporting Lab ExercisesMost of the tasks above can be completed in a straightforward manner, but generating an abstractneed statement for the product may prove daunting to some teams. Structured exercises in thelaboratory sessions can help to address these problems. Two such exercises are helpful. The first exercise, to be completed in the second lab session of the first week, focuses onglobal functionality. The instructor should come prepared with a list of 40 or so items - somecommonplace, others not - to be used in the exercise
. Page 24.901.6Program Goals, Vision, and LeadershipThrough these programs, examples are being established for the region and the nation in terms offostering technical advances, training a highly skilled workforce, and integrating universityresearch with industry needs for future growth. A primary goal is to educate thousands ofstudents in energy-related courses and research projects over the next two decades and beyond,including undergraduate, graduate and post-doctoral candidates. These graduates represent thenext generation of power industry professionals and leaders, and will have an important impacton the continued energy leadership of the region and the nation. Moreover, this kind of studentoutput will address the predicted shortfall in
Transactions on ProfessioanlCommunication, vol. 60, no. 3, pp. 306-316.[6] Buswell, N. T., Jesiek, B. K., Troy, C. D., Essig, R. R., and Boyd, J. (2019), “Engineeringinstructors on writing: Perceptions, practices, and needs,” IEEE Transactions on ProfessionalCommunication, vol. 62, no. 1, pp. 55-74.[7] Kim, D., and Olson, W. M. (2020), “Using a Transfer-Focused Writing Pedagogy to ImproveUndergraduates’ Lab Report Writing in Gateway Engineering Laboratory Courses,” IEEETransactions on Professional Communication, vol. 63, no. 1, pp. 64-84.[8] Wolfe, J. (2009), “How Technical Communication Textbooks Fail Engineering Students,”Technical Communication Quarterly, vol. 18, no. 4, pp. 351-375.[9] Connor, K. A., and Huettel, L. (2014), “Virtual Community of
generally had three components.1) First, conceptual questions were asked using a hand-held personal response system (TurningTechnologies, 2020). Most of the questions were carefully chosen to go beyond recall anddefinitions. An example of a conceptual question from the topic of Prerequisites toInterpolation is shown in Figure 5. If a polynomial of degree n has more than n zeros, then the polynomial is A. oscillatory B. zero everywhere C. quadratic D. not defined Figure 5. A typical conceptual question asked via a personal response system2) The second component is where the students solve free-response questions in a think-pairformat (Lyman, 1987). For this activity to work, groups of two students each
underrepresented minorities but most of those participating at the USNA were not. Thenumbers of women participants were more difficult to estimate.4. Student Evaluation of TrainingAll students who participated in the BESTEAMS faculty led training were asked to complete anevaluation of their experience. Students were given a brief survey at the conclusion of their Page 8.506.5training session. Questions included their general background with training in team work skills,Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering
the Reservation schools and from the TCCCs. The North Dakota State University(NDSU) College of Engineering and Architecture and the five TCCCs in North Dakotacollaboratively obtained a 5-year multi-site grant from the Office of Naval Research, UnitedStates Navy, to increase NA participation in SME disciplines12. The project began in June 1999and was scheduled to end in May 31, 2004. Turtle Mountain Community College (TMCC),Belcourt, ND, was the lead TCCC. Other participating TCCCs are Cankdeska CikanaCommunity College (CCCC), Fort Totten, ND; Sitting Bull College (SBC), Fort Yates, ND; FortBerthold Community College (FBCC), Newtown, ND; and United Tribes Technical College(UTTC), in Bismarck, ND (Figure 1).II. TCCCs-NDSU Prior CollaborationAs
in Equilibrium Indeterminate 10 Analysis of Distributed Loads Final Project Poster Session Table 1 – Solid Mechanics course overview by-week showing learning topics and placement of the two (highlighted) entrepreneurial case study/labs Page 23.242.5 The class includes 7 in-class labs, as well as a final, student directed project. Each class session lasted about two-hours and generally the first weekly class session was dedicated to a lecture on the relevant solid mechanics topics, while the
make during the semester (sessions were logged so the instructorcould monitor all activity). While both of these functions may be useful in distance education orWeb-based courses, I believe the students find very little use for them when they are in class(lecture or lab) four days a week.Web-CT also has the capability to do online quizzes and surveys. While this type of activitymay be useful for many subjects, the technical material presented in these two courses didn’tlend itself to multiple choice or essay types of quizzes. Therefore, while this might be valuablein other disciplines or even other subject matter, it was not utilized in either of these twocourses.So, the primary uses for the laptop from the instructional standpoint was really
, highlighting the many disciplines involved in the design and constructionof a building, impressing on students the importance of thinking about the constructability oftheir designs (which often influences design choices) and allowing the instructor to point outmany features or concepts that are likely beyond the scope of the course but need to beunderstood by the structural engineer (connection to architectural and mechanical features,fireproofing, detailing of openings, general framing concepts, etc.). Additional informationregarding the tours can be found in Civjan [18].Figure 1. Example structures of moderate complexity (Photos used by permission)Figure 2. Optimal constriction tour timing (Photo used by permission)Design assignments in the class
), thefacilitators should be keeping notes about those answers. It is helpful in this case to have twofacilitators: one who is calling on people and moderating the discussion, and one who is writingnotes. The goal is to keep general thoughts as well as note any identities that are implicated (e.g.,gender, race, class, nationality, ability). An example of this note-taking process is illustrated inFigure 3, a photo of whiteboard notes from one of the pilot study sessions. As discussed above,the research group in this study includes members from a range of disciplinary backgroundsincluding Interior Design, Humanities, and Social Sciences. The facilitators representing thesedisciplines, in addition to those from Engineering backgrounds, provide an
ofhundreds of HC11 manuals.References[1] John Hennessy and David Patterson, “Computer Organization and Design: The Hardware/Software Interface”, second edition, Morgan Kaufmann, 1998[2] Goodman and Miller, “A Programmer’s View of Computer Architecture”, Saunders College Publishing, 1993.[3] M68HC11 Reference Manual, Rev 4, Motorola Inc. 2001 (supersedes older Rev3 which is no longer available); Page 7.228.10 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright ©2002, American Society for Engineering Education M68HC11E Family Technical Data, Rev 3
“Sufficient background to Arduino programming languagematerials and assembly of the SPBs; two 1-hour was provided to collect data.”sessions were insufficient in many cases. Early on itwas identified that wood screws failed to secure components to MDF board, so a switch wasmade to quarter inch plywood. Subsequent observations suggest three-eighths plywood wouldbe more successful. Mini USB cables connected the solar panel to the microprocessor, but initialtesting indicated unregulated voltage levels generated by the solar panel exceeded the specified5V microprocessor input voltage at the mini USB port. A barrel jack cable retrofitted to the USBcable connected the solar panel to the
significant to them. The range of skills potentially required to productively engage with the impacts of research isextremely broad. However, it can be helpfully broken down into four main areas: 1. Values and ethics: basic understanding of ethical theory and virtue ethics; ability to self- reflect on values and priorities; ability to make difficult ethical decisions 2. Knowledge of relevant non-science social contexts: this may include areas such as policy, business, economics, healthcare, politics, media, religion, or culture 3. Communication skills: including science communication to laymen; general public speaking and presenting; interviews and speaking to media; interacting with policy makers; and learning to listen
serves tocontextualize the new content that students have to learn before solving the problem. Lectureson the new content are not given. Instead, students are guided through a PBL cycle that helpsthem to identify and construct new knowledge that is synthesized with their existing knowledgeto be applied in solving the given problem.10, 11 As shown in Figure 1, the typical PBL cycle11basically consists of • Phase 1: problem restatement and identification, • Phase 2: peer teaching, synthesis of information, and solution formulation • Phase 3: generalization, closure and reflection. Meet the problem Self-directed learning Phase 1 Problem identification
Institute. Mike is a registered professional engineer in Connecticut and held an electric Transmission System Op- erator certification from the North American Electric Reliability Council. c American Society for Engineering Education, 2019 Universities and Industries: A Proactive Partnership Shaping the Future of WorkIntroduction and BackgroundThe U.S. Electric Power industry directly employs 2.7 million people; it is estimated that theindustry indirectly supports more than 7 million jobs and contributes $880 billion to the economyannually (roughly 5% of the GDP) [1]. Currently, a large percentage of the utility and electricitysector workforce is nearing retirement
articulate the ABET criteria?The generic 5 step model shown in figure 1 is one way to view the design process. Itprovides us with some structure for thinking about teaching design: our teaching shouldinvolve a balance of all 5 steps, where the balance reflects engineering practice. Notethat homework assignments, lectures, and labs often involve mainly aspects of steps 2and 3. In fact, often in lab we verify a particular model – concentrating on step 2 almostexclusively. We miss an opportunity here because the other steps of design are mosteasily included in the less formal environment of the lab.LiteracyFigure 1. also shows 3 types of “literacy” often required to complete each design step. Ihave found the concept of literacy a useful one as I think
students in learninghow to start successful companies. An important feature is that students admitted to the Programlive together in an incubator-like residence hall where they can freely exchange ideas with like-minded students. Living and learning together, these students are provided with a uniqueopportunity to interact with their fellow CEOs. This environment has the potential to impact theway the CEOs think about their careers, their destinies, and their ability to start businesses rightout of school.1. IntroductionEmployment options for graduating students have generally centered on large corporations andgovernment; however, in recent years, students across the nation are realizing that a third option- starting their own companies - has
technologiesinclude web-based technology that allows students to access learning materials anytimeand anywhere. Another key technology includes discussion boards which provide a toolfor students to engage in general and group conversations. Unlike a face-to-faceenvironment where students must be in class to listen and learn, pre-recorded lecturevideo is also a tool in virtual learning and allows students to review lectures anytimeanywhere. The presence of videoconference tools makes it possible for synchronousonline learning as well as group breakout sessions for virtual classroom exercises. Also,the virtual learning environment has other features for email, announcement board,assignments, assessments, and Q&As.Bridging the gap – from face-to-face to
, the National Technical Association, The Biomedical Engineering Society and the National Alliance of Black School Educators amongst other activities. She is Deaconess at New Friendship Baptist Church. Whitney was recognized in the 2013 Edition of Who’s Who in Black Cincinnati. c American Society for Engineering Education, 2017 Session W1A Work in Progress - Presence of Stereotype Vulnerability in Freshman STEM students at a Historically Black College Whitney Gaskins, Cirecie West Olatunji, Meghan Berger, Samuel Burbanks, and Kalesha Jenkins University
M1A-1 Session M1Aof this reflective activity is to help students develop a plan for coding from the first three reflective assignments to: 1) checkbecoming a successful and engaged student throughout the intercoder reliability, 2) to further define the primary codesremainder of their undergraduate curriculum. The DYP to help improve intercoder reliability, and 3) to add newproject is typically assigned at the end of an academic course codes based on memos generated. After this meeting, athat focuses on teaching students academic, personal, and portion of the remaining reflective
a librarian is asked a question, s/he may nothave to answer the same or similar question in the future. Imagine that students can askquestions online and are able to receive their professor’s answers even while that professor is offdoing his or her research, on sabbatical, or just on down time. A natural language knowledgemanagement system could be the solution. An integral component of knowledge managementsystems, a knowledge base, is used to optimize information collection, organization, and retrievalfor an organization, or for the general public [1]. Functions of a natural language knowledge basemake it possible to answer specific questions that are likely to be asked repeatedly by other usersbut perhaps in a slightly different manner
learningbehavior and patterns unique to computer programming [1-4]. Within the context of anintroductory programming course, choosing the most effective teaching method can bechallenging. The analogy of learning a new language is sometimes used to describe the types ofskills that are needed to communicate with a computer. Language pedagogy may provevaluable in introductory programming courses. Current practices in language instruction advisedeductive teaching for simple rules and less skilled learners, versus inductive teaching forcomplex rules and more skilled learners [5]. Deductive teaching begins with a general rule oftheory presented by the instructor, followed by specific examples and practice problems.Inductive teaching begins with specific
39 newly trained Engineering Ambassadors werefemale). The workshop achieved the following outcomes:1. All participants received an overview of the four existing Engineering Ambassador Programs;2. All new Engineering Ambassadors received presentation training, coaching, and multiple critique sessions, to help them leave with a successful presentation in hand for a high school visit;3. Faculty advisors discussed strategies on forming and sustaining an Engineering Ambassador program;4. A showcase of the student’s presentations at the workshop’s end; and5. An online community was created for discussions on sustainability and national assessment.Figure 2: On the left is a map of participating institutions in the
Session 1330 The Effect of Hypermedia Instruction on Achievement and Attitudes of Students with Different Learning Styles Malgorzata S. Zywno, Judith K. Waalen Ryerson UniversityAbstractThe goal of this ongoing action research project has been to increase student learning andsatisfaction using an innovative approach to instruction, evaluation and interaction with students.A process control course in electrical engineering was redesigned, introducing collaborative, activelearning using real-life applications. The course utilizes interactive hypermedia
Session 3460 Effective Educational Delivery Tools Using Multimedia and Distance Learning Fazil T. Najafi, William M. Maalouf University of FloridaAbstractDistance learning, or the delivery of educational programming to remote sites, has recentlycome in vogue again as a hot topic, although it is far from being a new subject. There aremany world remote areas and sites consisting of a single individual, a whole classroom, or acorporate training center. Existing delivery methods are the Internet and the World WideWeb (WWW), emails, hardcopy documents, disks, CD’s