system known as the Swivl(Apple), a robotic lecture capture device that tracks the presenter and facilitates livestreamedinteractions with students online. At The Citadel, lessons could also be recorded and posted tothe Learning Management Systems (LMS) for students in quarantine or those experiencing poorinternet reception during class times.This paper examines some of the best practices and challenges of using the Swivl system forHyflex delivery of instruction in engineering courses and the success for faculty and studentsusing this technology. Video recordings and delivery mode are tools in the instructional toolbox,just like lectures. Faculty members who are not experts in remote/online instruction may requireperiodic developmental training
Professor Fathizadeh has been with the Department of Electrical and Computer Engineering Technology Purdue University Calumet since 2001. He has worked over 15 years both for private industries and national research laboratories such as NASA, Argonne and Fermi National Laboratories. Dr. Fathizadeh has established his own consulting and engineering company in 1995 spe- cializing in power system, energy management and automation systems. During last twenty years the company performed many private and government projects. Dr. Fathizadeh has published numerous journal, conference and technical articles. He has been instrumental figure in establishing mechatronic engineering technology at Purdue University Calumet. His areas
opportunity because Arizona State University was one of 13school that received a five-year block grant in 2003 from NACME to increase the number ofunderrepresented minority students who receive a Bachelor’s Degree in Engineering orComputer Science.1 The students were selected for the program based on their application. Thestudent needed to have at least a 3.0 GPA, be enrolled in engineering or computer science (alsohoused in the Futon School of Engineering), have financial need as determined by a FAFSA, bea US or permanent resident, be an underrepresented minority student (African American, NativeAmerican, or Hispanic/Latino), and submit a statement of purpose and two letters ofrecommendation, at least one from an academic instructor. The students
educating them in the skills, competences, and toolsnecessary to cope with them, are necessary in the education of every engineer. This paperhighlights the integration of ethics into an existing, traditional industrial engineeringundergraduate course at the senior level. In particular, we show how traditional optimizationassignments can be reformulated to blend mathematics and ethics. Therefore, we do not followthe path of developing an independent, elective course that focuses on ethical issues.Furthermore, integration of ethics is not performed through case studies on which students canreflect on their own experiences. Instead, we embed ethical issues in traditional industrialengineering knowledge. In this way, ethical conflicts reveal themselves
the number of students in the pipeline, our next step was to contact major potential employers of our students within the State of Texas and surrounding regions. Once they saw the problem, many of the top executives agreed to participate in the formation of an External Advisory Council to see how, collectively, we might be able to reverse the downward spiral of entering freshmen. In our case, we also asked several well-known top industry and academic leaders from around the nation to join the Council, and we were fortunate to obtain an affirmative response from all we invited.3) Developing “Headliner” Scholarships: The first step of the Council was to help our department develop a “headliner
bothmake it through the tenure and promotion process. The third challenge is to have advancementopportunities. Along the way, the couple has to work together to develop a work/life balanceplan to provide an environment for each person within the pair to thrive toward his/her careergoals and personal goals. Besides balancing the day-to-day activities of a functioninghousehold, couples must agree on timing for or if they will start a family and advancementopportunities for each.This paper and presentation will discuss our experiences over the last fifteen years related towork/life balance for a dual career engineering faculty couple. We will discuss the variousphases of our careers and different “give and take” situations at those times. We will
were also invited to sharetexts, awards, pictures and other items that they identified as visual illustrations of their role asallies.Data Analysis Interview data was transcribed and imported into Atlas.ti, a computer assisted qualitativedata analysis software tool, to facilitate the coding process [49], [51]. Data analysis wasconducted using both inductive and deductive coding [49]. Inductive coding allows patterns andthemes to emerge with no previously established theory or hypothesis, enabling the data to guidethe researcher as it is gathered directly from participants [49]. I also created a predetermined setof codes based on previous literature on gender in engineering and allyship. Examples of thesecodes include privilege, formal
-Bachelor’s level American Association for Engineering Education Draft Paper for Annual Conference, Indianapolis, IN 2014 • Pilot programs in the U.S by Austrian companies to try to create the needed skilled workforce for their U.S. manufacturing facilities • New and unique programs that focus on the recent entrance of U.S. trade unions into the advanced manufacturing innovation ecosystem • Lessons learned from Austria with recommendations for further study and actionIntroductionManufacturing has always been a bellwether to a country’s economic development status, and isa critical means by which countries ensure employment, maintain living standards, and supportinnovation and economic growth. Because
-level courses intraditional civil engineering curriculum. To evaluate retention of mechanics concepts andencourage review of the material, a mechanics diagnostic exam has been administered to civilengineering students at the U.S. Military Academy at West Point since 2018. The exam isadministered to junior and senior students at the start of the fall semester. It was designed as ano-stakes assessment tool to identify common errors in students’ comprehension of foundationalengineering mechanics concepts. The diagnostic exams consisted of ten mechanics calculation-based problems including topics of truss analysis, indeterminate static equilibrium, andcombined loading. For each problem, students were asked to rate their confidence in theirsolution
, tomeet the requirement of our ME curriculum; and the second part deals with control systemtheory and applications to meet the requirement of our EE curriculum.The designed multidisciplinary course uses the following strategies: theoretical development,software simulation assignments, and case study projects with real-world applications usingMATLAB/Simulink. Furthermore, we carefully design the case study project for the feedbackcontrol system portion so that EE students and ME students minoring in EE are able to constructand test the project in their laboratory course using a LabView platform.The paper is organized as follows. First, the course prerequisites, course content, and teachingmethods will be explained. Second, the outcomes of students
Structural Engineering and an M.S. in Geotechnical Engineering from Stanford University in 1984 and a Ph.D. in Structural Engineering from Kansas State University in 1993. Prior to his coming to FGCU he was a Professor of Engineering at Roger Williams University and an Associate Professor and Director of the Civil Engineering Analysis Group at the United States Military Academy. Dr. O’ Neill is a retired Lieutenant Colonel, U.S. Army Corps of Engineers. He has been active at the national level with ASCE’s Committee on Accreditation Operations, Techni- cal Council on Computing and Information Technology (TCCIT), Committee on Faculty Development (CFD) and Excellence in Civil Engineering Education (ExCEEd) initiative. Dr
plenary member of the American Academy of Health Physics (AAHP) since 1999. He has also served on the HPS Aca- demic Education Committee (July 2007 to June 2010 and July 2011 to June 2017), the AAHP Professional Development Committee (July 2009 to June 2012), and the ABHP Part II Panel of Examiners (November 2008 to October 2015, currently vice chair). He was President of the Deep South Chapter HPS for four years and Co-Academic Dean of the 2014 HPS Professional Development School on Radiation Safety in Medicine. Dr. Wang has served as a radiological expert on the U.S. National Oceanic and Atmospheric Administration Radiological Ideas Workshop after the Fukushima nuclear incident. He was an invited panelist on the
community members. In alignment with calls to “fix the system, not the student,” ouraction-oriented research seeks to disrupt bias and exclusionary behaviors to transformengineering culture. Our research seeks to empower underrepresented engineering students withopportunities for their voices to be heard and to gain support from their peers. Further, we aim topromote allyship among dominant group members and to advocate for cultural change topowerful agents and leaders within engineering. Through our ACC research efforts, we have developed a new method called Articulating aSuccinct Description, an innovative qualitative method, which serves both as a means ofintervention and a means of inquiry. The method is iterative and reflexive, enabling us
communicate with one another in an engineering sense.3. Students quickly realize that the Competency Assignment is helpful during an exam only if they have been actively involved in its preparation. During the exam, a student cannot find the needed information in the Competency Assignment fast enough for it to be helpful unless he/she has actually done the assignment. They thus realize that although they have a team member, they themselves must also do their fair share of the work.4. Students learn the importance of preparing their Competency Assignment neatly, using readily available computer tools, because it will be much easier for them to find needed information during exams, and also because it will be judged by one of their peers
theindustrial environment. One could develop a long list of these skills which would include suchtopics as teamwork, leadership, and business understanding. Third, social skills should not beforgotten. For example, with the advent of social media students interact less on the personallevel, face-to-face. This lack of physical interaction has an impact on developing relationshipswhether they be personal or in the workplace. Fourth, life skills are necessary for students tofunction on their own, away from the extended family or the university campus. This could betasks as simple as cooking and laundry, to balancing bank accounts. Topics like IRAs, 401Ksand retirement are also of interest to students entering the workforce. An important life skill isalso
Paper ID #11460Introducing Kinematics with Robot Operating System (ROS)Dr. Asad Yousuf, Savannah State UniversityMr. William Lehman, Bill’s Robotic Solution William Lehman is President of Bill’s Robotic Solutions which he started in July of 2013. He has had over twenty years of experience in software and hardware development. He has worked on numerous projects in digital communication systems, robotics, and aerospace applications. Mr. Lehman received his Bachelor of Science degree in Electrical Engineering in 1979 from Catholic University of America.Dr. Mohamad A. Mustafa, Savannah State UniversityDr. Mir M Hayder, Savannah
(4) Photocatalytic water purification (5) Rapid prototyping via ink jet printer (6) Silicon wafer oxidation These new experiments collectively allow introduction of topics which are modern, yetnot routinely covered in traditional chemical engineering laboratories. The experimentsdescribed are relevant to energy storage and utilization, polymer coating of consumer andmicroelectronics products, water purification, laser-driven material transformations forinformation storage, semiconductor circuit fabrication, and computer-aided solid prototypesynthesis. Introduction In changing times, the keepers of engineering curricula must look to the most responsiveacademic elements to address new needs. We
defined as “an educational technique that consists of two parts:“Interactive group learning activities inside the classroom and direct computer-based individualinstruction outside the classroom” [15]. In a flipped classroom, the student takes responsibilityfor viewing content ahead of the lecture. Subsequently, class time is re-purposed to provide thestudents opportunities to work more examples, peer learn, and engage directly with theinstructor. The pre-lecture is typically delivered via video content and may be combined with anevaluation tool (e.g., embedded or post quiz) that keeps students focused. Students are able tocontrol the pace of the lecture and can re-watch if necessary to increase comprehension. Theybecome an active participant in
activities. A series of laboratoryassignments have been developed for students to gain hands-on experience with electronics,programmable logic controllers, industrial robots, conveyors, instrumentation, and dataacquisition. The initial exercises establish a basis to program and network multiple PLCs,command the movement of a robotic arm, and then integrate these elements into a smartconveyor system under automated control for product distribution. The remaining laboratoryactivities focus on electronic circuits, and vibration experiments with accompanying dataacquisition and theoretical analysis. Lastly, a design project offers an open-ended multi-facetedopportunity to apply a robotic arm, conveyors, bar code reader, color sensor, and networkedPLCs
thequarter of most privileged students. [4]Our goal is to provide practical opportunities to precollege students, with an emphasis onthose in lower socioeconomic class, to encourage them to attend college and enter intoSTEM fields. Opportunities to learn engineering should be low cost and easilyimplemented. We hope that application of courses out in practical situations help themunderstand the impact of the educational process and encourages them to continue theirstudies.The multidisciplinary nature of robotics makes it a popular platform for STEM education.The development of a successful robot requires the integration of knowledge fromvarious disciplines such as mechanical and electrical engineering, computer science, andmath. Creating a robot
thequarter of most privileged students. [4]Our goal is to provide practical opportunities to precollege students, with an emphasis onthose in lower socioeconomic class, to encourage them to attend college and enter intoSTEM fields. Opportunities to learn engineering should be low cost and easilyimplemented. We hope that application of courses out in practical situations help themunderstand the impact of the educational process and encourages them to continue theirstudies.The multidisciplinary nature of robotics makes it a popular platform for STEM education.The development of a successful robot requires the integration of knowledge fromvarious disciplines such as mechanical and electrical engineering, computer science, andmath. Creating a robot
libraryguides or LibGuides to help the students. LibGuides is a Springshare tool that allows librarians away to quickly create a web page to collect and share library resources around a topic, subject,class, or program [20]. Each librarian at Minnesota State Mankato was responsible fororganizing and developing guides for their specific program. At first, these LibGuides were a bitwordy and rather intense as the librarian just added everything that she could find. In herinteractions with the students and from their questions, she soon began to reduce these guides,adding more relevant information and highlighting regularly used but often forgotteninformation. For example, since the locations of the Iron Range Engineering, Bell Engineering,and Twin Cities
chemistry. Page 13.1121.1© American Society for Engineering Education, 2008 SUMMER ON-SITE IMMERSION IN FRENCH LANGUAGE AND ENGINEERINGAbstract Globalization will require production of engineers with not only technical but alsoforeign language competence. We describe a new summer program at a Frenchengineering school, CPE-Lyon, which provides both French language instruction andengineering laboratory experience. The desired result is an immersion in a foreignculture and language as well as demonstrated use of a second language as a futureprofessional tool, not just a retrospective pathway to a past
Johns Hopkins University Department of Biomedical EngineeringFreshmen enrolled in Biomedical Engineering at Johns Hopkins University start their academiccareer with “Modeling and Design”, a two-credit course developed to immerse our freshmen intorealistic challenges on day one. Rather than introduce our students to biomedical engineeringthrough lectures, freshmen learn by working in teams of five on modeling and design projectsduring their first semester. The freshmen projects are open ended, providing students with theopportunity to brainstorm many possible solutions, design their own experimental protocols,perform those experiments in lab, and present the results collectively as a team. These projectsincorporate written reports, oral
projectsoffered in this course1-3.The milling machine was a small tabletop model that has a two-direction movable vise,and an adjustable height cutter head. A small 120-volt AC motor turns the cutter head.The cutter head speed can be controlled electronically from 200 to 2000 RPM’s. Withthe two-axis (X , Y) movable vise and the single axis (Z) movable cutter head, three axis(X, Y, Z) control of the cutting tool is achievable. Each axis is driven by a stepper motorturning a lead screw attached to the movable structure at one end. The other end isthreaded through a fixed block and is coupled to the stepper motors.The stepper motors utilized in the milling machine are bipolar and variable reluctancetypes with 200 discrete steps per revolution. The lead
? Would QM skill, if well developed, be useful in your Engineering Career? Would you think that QM should be taught in all Engineering disciplines programs? If a student can understand Basic QM mathematical formulations well, then would you think dealing with other physical concepts such as electromagnetism, thermodynamics, classical mechanics, etc…. be easier ? Would knowing QM be enabling you to communicate more effectively in any physical arguments? Don’t you think that knowing QM as an intellectual tool would impress your interviewer and generally in your resume for job application would show an outstanding advantage? At some stages during physics class some students feel so overwhelmed by
framing theproblems, enables developing new solutions, and helps address creative perspectives on our 1social landscapes [14]–[17]. The idea of design thinking as a framework for solving the problemseffectively and innovatively [18] was first stated by Herbert Simon [19], who identified design asthe knowledge, a set of processes that follows by a well-defined problem. He saw designthinking as creating ‘the desired state of affairs [1, pp. 210],’ which can be applied to the areaslike engineering, management, and economics. Ever since Herbert [1] first discussed the notionof design thinking, researchers have sought to validate the nature of design thinking in a diversecontext. In an engineering
think the way you are running class now is fun and stimulating (I enjoy the discussions).”2.3 Use of multi-media technologies in teachingIMSE 564 was taught in a technology classroom. The classroom was equipped with a largeprojector screen, an overhead projector, VCR and DVD equipment, and a computer with Internetconnection. To help the teaching process, the professional videotapes - SME Fundamentals onLean Manufacturing Series - were played in line with the course development. These videoshelped the students’ learning, as can be seen from the following comments: • “Movies with oral review questions (keeps my attention on the info. in the movie).” • “Movies - I like to see stuff actually done in companies.” • “Watching
for junior and senior level undergraduate students.In this course, I was the primary instructor, managing all classes, exams, and assignments. Thefollowing year, I was a part of a team of faculty and graduate students in a freshman engineeringprogram. In retrospect, preparation, expectation, motivation, and reflection played a pivotal rolein my professional development along the way. Understanding how to apply these fourcomponents to teaching and mentoring should not only help a new graduate student instructorprepare for and enjoy the experience, but it should also help them discover new ways tocommunicate their interests and excitement to others and reflect on themselves as an instructorand mentor.IntroductionAs in swimming, first-time
assessment of the gaps in institutional services and resources and providethe required feedback, while informing the institution and the research community about theways to develop a resilient support network for engineering students in the times of crisis. Futurework will consider how student responses change under the altering societal and work/academicconditions with or without COVID-19 pandemic being present at that time. Results from thecurrent study also provide recommendations for effective online instruction in the future.Keywords: Needs Analysis, Learning Technology, Engineering StudentsIntroduction During times of local and national quarantine due to the COVID-19 pandemic,universities had to close campuses and expediently convert