. Undergraduate students can receive jobs in and around the same locationof their alma mater, which leads to the need to gain knowledge of the geography and populationto be a successful transportation engineer in that area. Turochy [22] gave the example of “aninstitution located in a large metropolitan area may place a higher value on a multimodalapproach (including coverage of mass transit systems) than an institution in a small collegetown” (p. 202).The increase of information technology applications, including simulations, in recent years hascreated the need to educate future engineers on the use of them and how to interpret theiroutputs. This adds another topic to the already expansive course syllabus. The fact thattransportation agencies are
,problems, etc.) prior to class. The students receive productive feedback through the processingactivities that occur during class, reducing the need for the instructor to provide extensive writtenfeedback on the students’ work. Walvoord and Anderson describe examples of how thisapproach has been implemented in history, physics, and biology classes, suggesting its broadapplicability (Berrett D, 2012).Flipping of Construction Management CourseConstruction Management course can be flipped in different ways. In the following sectionsthree different case studies are analyzed.Case Study 1A graduate level course was designed having the Building Information Modeling (BIM) as thecore of the syllabus. BIM was used in this course to integrate project
members, lead to a greater understanding of student needs and how best to accommodate them while considering the unique approach to learning and teaching at Olin College. One of the initial difficulties in accommodating Ella’s needs in a course like this may spring up as the course begins. Ella’s challenges with executive functioning combined with her high anxiety and former reliance on a regular planning with instructors may not coincide well with a course that is individualistic and self-paced. Such a course may not typically have a syllabus with clearly defined deadlines. Also, because instructors and faculty members are responding in real time to student work, being able to anticipate or plan for long-term learning objectives becomes very
like projects, lab courses, online homework, recitation, quizzes, andsupporting resources, this “good fairy” interested (interessed) the faculty and administrators ofthe course. Now that these curricular additions have been implemented in the curriculum foryears and enshrined in the syllabus as small contributors to the final course grade, they havebecome enrolled as part of the course, durably incorporated into the system. The mobilizationhere is the ongoing efforts of students, faculty, and graduate student TAs to keep the “wholemachine” running, and the wealth of resources like classrooms, worksheets, graders, websites,software packages, salaries, textbooks, etc. that are playing important parts in keeping the courserunning smoothly.The
electronic lecture notes 7. I liked handy assignments with due dates 8. I like announcements and class news are helpful 9. I like the handy syllabus Figure 3. Results for survey questions Page 22.927.6Overall, student feedback on using BML for their learning is quite positive, especially the handyand electronic lecture notes, handy assignments and grades, and real-time class announcements,etc. However, due to the difficulties on setting up the BML for the course, students did not haveenough time to use the BML in their learning such that they were not sure if the use BMLenhanced their engagement
and reliable learning-style identification instrument. The PEPS is currently beingused as a research tool within the introductory physics course for non-majors at AmericanUniversity. Two teaching approaches that have been developed based on a learning-style approachwill be shared. These approaches include the use of writing as well as interactive, live online chatsusing Blackboard technologies. Ideas for effective adaptation of these approaches by educators inother branches of science, as well as mathematics, engineering, and technology (SMET) educationare discussed.I. INTRODUCTION The brisk changes that continue to occur in modern society, and in academia in particular,suggest that learning must be a continuous process. A growing body of
in the semester (as reading assignments are due at8am preceding the 11am class time). After the second assignment where fewer studentsparticipated, the instructors reiterated the syllabus, which included 5% of the total course gradebeing awarded for participating in the zyBook. Next, the participation jumped to nearly thewhole class with ninety students completely finishing Sections 1.7 to 1.9, eleven studentspartially completing the assignment, and only 4 students not completing the reading. Overall,data from the entire semester will be included in the talk. 1.7to1.9 ZyBookSections 1.3to1.6 0
(angle, vel, h0) #instantiation of the object cball in the class Projectile while cball.getY() >= 0: cball.update(time) print "\nDistance traveled: %0.1f meters." % (cball.getX())Now run the Python script in the Interpreter.>>> import cball2>>> main()Enter the launch angle (in degrees): 30Enter the initial velocity (in meters/sec): 50Enter the initial height (in meters): 2Enter the time interval between position calculations: .1The python returns the result in the interpreter window.Distance traveled: 225.2 meters. Page 23.22.6III. Course Syllabus and DescriptionECET 49900 - Dynamic Programming with Pythonclass 3, lab 0
MFG-INFO from Michigan State University).Student response to the growing use of e-mail has been very positive. 97% of the students I workwith in undergraduate and graduate courses reported that they liked sending and receivingmessages with the instructor. E-mail communication saves the students and faculty time.Problems related to inconvenient office hours and "telephone tag" have been greatly reduced.The use of instructor developed "course pages" on the available on the World Wide Web hasbeen a new development during the fall semester of 1997. The growing list of new web basedcourse documents includes:• A syllabus "home page" for each course.• A posting of the latest version of the daily course plan.• Creation of a "links to other sites
Process: The goal under this RED task is to create anovel teaching evaluation process that engages all stakeholders (including industry & students).The new process will be based on developing training materials to prepare students on how toeffectively evaluate teaching and teaching portfolios, and it is intended to become an integralpart of the faculty promotion process. The training will include the fundamental elements ofdesigning a course and delivering content; the initial plans call for the students to observeinstructors in the classroom, review the course syllabus, and other course materials, and preparea report. A similar approach will be developed for TFAB industry members who will also beinvited to evaluate faculty teaching
by an ethics professor,and a heuristics assignment. Each module contained the same underlying format, but differed inthe case studies analyzed. The second project team chose the complexity of the case studiesaccording to the class difficulty and picked case studies that were relevant to the class topic toencourage student interest. Modules were implemented into three engineering courses at thefreshman, sophomore, and senior level. The goal of the ethics modules was to be easy toincorporate into an already established engineering syllabus, peak student interest in ethics, andprovide some baseline exposure to ethics and give instruction as to how to analyze and handle anethical dilemma. Junior classes were not available for implementing the
significantly in scope and complexity. The three-yearportfolio is more extensive and includes sections on assessment, continuous improvement, andstrategic plans that were not part of the one-year portfolio. The one-year portfolio was composedmainly of a statement of teaching philosophy and goals and objectives for individual courses. Asthe personal experience is detailed, several conclusions and observations about teaching andlearning portfolios are made. Those conclusions and observations are then placed in a contextrelative to the perspectives presented while discussing background literature.I. Overview and Literature BackgroundTeaching and learning (T&L) portfolios have been used in academia for many purposes; themost widely recognized are for
network in the field. The network uses a cellulargateway to transfer the field data to the web. The data can be viewed in real-time on the web. Theinstallation details and conditioning of the sensors will be highlighted. The smart farming researchteam is also looking into installing compatible rain gauges in the field and instrumenting the set-up for automated activation of the valves to turn the water on and off in the drip lines based on soilmoisture readings. Online real-time monitoring capability proved useful for demonstrating the set-up to undergraduate students in the online junior level “Instrumentation course (ENGE 380)”offered by the author in fall 2020 using screen sharing capability of the Blackboard LearningManagement System (BLMS
learning objectives with associated Bloom’s taxonomylevels are provided to students with the course syllabus. These section-by-section learningobjectives are provided in Appendix A. At the end of this course, students should be able to: Conduct uncertainty analysis Perform basic statistical treatment of experimental data Distinguish between signals and systems Analyze signals in time and frequency domains Describe the effects of noise and filters on measured signals Apply digital computational tools to solve measurement problems Design measurement systems that include transducers, signal conditioning elements, and digital data acquisition
courses (based on a lecture-homework format) offer fewopportunities to provide individual students with descriptive feedback. This paper describes ourdepartment’s recent experiences using flipped classroom instruction to improve feedback andattainment in our introductory thermodynamics course in Chemical Engineering at the Universityof Washington. In our implementation of a flipped class, traditional lectures are replaced with20~40 minute instructional videos that incorporate course content, laboratory demonstrations,and how-to tutorials. Students view and take notes on these materials outside of class, and takean online “Prep Quiz” that provides feedback on their basic understanding before coming toclass. Once in class, students spend most of
to the liftingof travel restrictions and the growing demand for in-person experiences from both students andeducational institutions. While the core structure remained unchanged, an 8-day onsite programin Indonesia was introduced for the social science learning component. Participants now had theoption to select either a fully online virtual course (VAx) or a hybrid model consisting of halfvirtual and half onsite courses (HAx). The onsite courses were designed to be affordable for allinterested participants, as out-of-pocket costs only included round-trip transportation to and fromSurabaya International Airport. Onsite accommodation, ground transportation, and regularlyscheduled meals were sponsored by ITS. This effective utilization of the
pedagogy to technology and to the learning styles oftoday’s college student is an additional strategy, which may enhance classroom management.The modern engineering classroom, for example, is changing in format. There is the traditional lecture(possibly accompanied by recitation sections), the flipped classroom where students watch recordedlectures prior to class and engage in active learning during class time,3 and the online classroom wherestudents access course material through the internet and laboratory sessions. In all of these formats,faculty must manage the environment to ensure a supportive learning experience. Faculty come tohigher education wellversed in their subject matter but largely unprepared to successfully confront andmanage
Paper ID #22035Visual Literacy in Mechanical Engineering Design: A Practical Approach toAssessment and Methods to Enhance InstructionMs. Caitlin A Keller, Worcester Polytechnic Institute Caitlin Keller is the Instructional Designer for Worcester Polytechnic Institute. Her primary role involves partnering with teaching faculty to create and develop courses in the online, blended, and face-to-face environments. Caitlin serves as the designer, facilitator, and instructional design consultant for the Faculty Institute for Online Teaching program. Caitlin holds a Master of Science degree in Learning Technologies and
track of the students’ progress on a set of interactive exerciseslisted at the end of each section and of the number of each student’s attempts until an exercise iscorrectly completed. We use the results of these exercises to give a participation grade to thestudents. In addition to the online book, the course has a main website where the syllabus,lectures, etc. are stored (see Figure 2) and an enhanced discussion board website called Piazza(see Figure 3) that implements a class discussion forum between students, instructors, TAs, andULAs. Proceedings of the 2014 American Society for Engineering Education Zone IV Conference Copyright © 2014, American Society for Engineering Education
tosupport a more concentrated prototype production timeline (See Figure 3). To alleviatecongestion in the fabrication facility, the four sections of the course were staggered with twosections completing prototype production while the other two sections attended three formallessons on engineering economics, ethics, and project management, respectively. The sectionswould then reverse roles such that each student had approximately one week to complete thefabrication process. Student feedback indicated that while this was sufficient time to build theprototype, it did not allow enough opportunity to complete finishing details. Subsequentiterations of this syllabus will provide an additional design studio lesson to address this concern
were presented with the flexure on the final exam) with the 2023 Fall cohort, who werepresented with the flexure during the first class meeting and in subsequent group activities.The first measurement was on performance against the relevant learning objective as stated in thecourse syllabus. This learning objective was inherited from a previous instructor and was statedas “Upon successful completion of this course, students will demonstrate an ability to apply theFinite Element Method (FEM) through selection of appropriate analysis methods and applicationof appropriate analysis tools to determine meaningful results and validate accuracy of results.”Fall 2022 students received an average of 4.19 on a scale of 1-5; Fall 2023 students received
from public online course catalogs; only chemical engineering classeswere considered. If a class was taught in another department by a chemical engineeringprofessor, it was not included in our analysis.For teaching load calculations, the majority of course credit hours were simply attributable to asingle faculty member. However, a minority of courses necessitated an alternative counting. If aclass was taught by multiple different professors, those faculty were each given credit forteaching the class. This choice was made because it is unclear, with publicly available data, howteaching load is divided between faculty of co-taught courses. Further, a course taught by twofaculty does not reliably indicate that the sum of their efforts would not
12engineering topic of self-healing infrastructure, explore contextually relevant knowledge,synthesize actual self-healing concrete samples, and synthesize online and offline findings topresent in front of a peer audience. They are also well-suited to project-based courses and“unconference” sessions that inculcate greater interaction and collaboration between participants.For instance, at the time of writing, Elsevier’s Engineering team has partnered with a series ofAiChE Regional Student Conferences to launch similar sessions having as many as 100participants, to provide a professional development experience around real industry corrosionmitigation and asset management challenges. The format is agnostic to the particular challengeor toolsets used and
Technology). Thesecourses are unique because they are co-taught by an engineering professor and a historyprofessor who regularly collaborate to develop the syllabus and lessons within the classroom.Both iterations of the course are titled “War, Machine, Culture, and Society: History andEngineering in the Second World War,” and focus on teaching students the social and politicalfoundations of World War II while discussing technical issues, design thinking, and problem-solving skills associated with the war. As we describe in the review below, there are variousreasons to develop an interdisciplinary model in STEM courses, integrating the humanities intoengineering coursework. However, it is often difficult for STEM faculty to integrate their
, students are expected to create a display (poster, brochure, animations, or video)that visually communicates how an engineered system of their choice works. While the studentswork individually on the displays for each unit, they collaborate with peers in the class tobrainstorm ideas, improve drafts and evaluate the final projects. Engineered systems that studentshave selected to explain include clocks, LED lights, bicycle gears, stethoscopes, games,thermometers, wind turbines, photovoltaics, and more. The course syllabus is provided inAppendix A.In addition to the projects, each unit includes introductory lectures related to engineering,sketching lessons and exercises, hands-on building projects, and reverse engineering activities.The following
innovative reforms; and (3) a reformed curriculum and teachingmodel that will not only benefit students in EP but will also benefit students in other engineeringand science degree programs at UW.20The cornerstone to a successful launch of a student into a research project is a new coursedesigned for the EP degree program, EP 468 Introduction to Engineering Research (the first in aseries of four courses in the research sequence). In this one-credit course students are introducedto issues in the context of research. An outline of the syllabus from a recent offering of thecourse is given in Table 1. The main objectives of EP 468 are to provide: (1) content knowledgerelevant to the conduct of research, apart from specific technical skills, (2) a
(e.g.syllabus, schedule, etc.). Creating an INCA website is efficient and easy, requiring only threesimple steps: 1. Download and and unzip the site template package; this creates a complete Dreamweaver2 website on the instructor’s desktop machine. Launch Dreamweaver and define a new site based on the installed files. 2. Modify the dummy default documents (e.g. syllabus, assignments) to install actual content for the course. Additional pages (e.g. more assignments) can easily be created by using page templates3, or by writing them from scratch. The site layout and organization can2 The decision to rely on Dreamweaver as an HTML editor and site manager was purely practical. We wanted toprovide a maximally sophisticated
human-centered design approach, (2) the intersection of socialjustice and design thinking, and (3) the implications of design choices on historicallymarginalized groups. Course artifacts, student reflections, and instructional team reflections areused to understand the growth in mindset of the students and instructor through this course.Additionally, these resources are used to present key learnings for future implementation.This project focused on examining systems. Groups historically excluded from engineering,including people of color, disabled, LGBTQ+, and women, were recentered through the humancentered design process. Students evaluated engineering systems for exclusion and ideated on thesource of these design flaws. In doing so, they
First Year Engineering student is assigned an advisor that theywill work with throughout their first year.During the spring semester of 2016 we began requiring all first year engineering student tocomplete a five-semester plan before their mandatory meeting with their advisor during theregistration period. Originally we had students upload their plan to Microsoft SharePoint, whichwas not part of our university’s LMS. For the fall 2016 semester we created a section for allentering first year students in Canvas, our LMS. Students already use Canvas for all of theiruniversity courses and therefore are familiar with its design and structure. The benefit of using anLMS is that it allows users to “organize content and multimedia resources into
more course to fit into theirschedule. Alternatively, with just the three-semester calculus sequence, the author has nevermanaged to finish covering all the topics in the syllabus for multivariable calculus.The description of calculus courses from the Columbia University Bulletin 1969, ColumbiaUniversity, Department of Mathematics is given in Appendix I.The description of calculus courses in The University of Tulsa Department of Mathematics,extracted from the current online Undergraduate Bulletin, (http://utulsa.catalog.acalog.com/) isgiven in Appendix II.3.2 The University of Tulsa Department of Mathematics, 2016-2017As of 2017, The University of Tulsa Department of Mathematics uses ALEKS(https://www.aleks.com/), for mathematics course