followed by a series of plans which saw rapid ad-vancements in industry, agriculture and education. Engineering enroll-ments increased to over 75,000 each year. Engineering schools were ex-panded at home, and in addition, students were sent to study in Russianuniversities. At the same time, the government developed its philosophyof education. Mao s support during the liberation depended on the peasants and 1workers and while Mao recognized the need for an educated populace, hewanted to place restrictions on the development of an intellectual class.The result was that the state or rulers took the right and responsibilityto improve society by using education to improve the moral conduct of thepeople. While this may mean many different
classroom, we are using a“teach the teacher” model. We provide a two-week summer professional development for middleschool teachers in the state. During the program, the teachers are taught introductory weather science,the IDV visualization software basics, and how to obtain free weather data from the National Oceanicand Atmospheric Administration (NOAA). Restrictions due to the COVID19 pandemic requiredmodifications to our planned initial year activities, but we were able to pilot and obtain feedback toimprove the program. Our plans for the 2021-2022 school year include offering our full summerprofessional development workshop, observing teachers in their classrooms while they implementmeteorology lessons with computational thinking, and
exposingpotential college students to the engineering technology programs offered locally. © American Society for Engineering Education, 2021 2021 ASEE Illinois-Indiana Section Conference Proceedings | Paper ID 35160One of the authors, observing the popularity of Bluetooth speakers among teenagers, got the ideaof offering a summer camp during which students would build their own Bluetooth speakers. Heregularly speaks to high school students about engineering careers. Each time he did so he askedwhat they thought about such a camp. Interest was high among students, and the director likedthe idea, so it was set. The plan was to design a Bluetooth speaker, then develop hands-oneducational activities to combine with the speaker
course at Purdue Polytechnic New Albany (PUNA) was required to transition toremote learning due to COVID-19 in the spring of 2020, thus eliminating all remaining in-personlabs, the instructor was faced with the challenge of replacing multiple team-based lab activitieswith individual remote learning experiences. Along with complementing required course © American Society for Engineering Education, 2021 2021 ASEE Illinois-Indiana Section Conference Proceedings | Paper ID 35060learning outcomes, the instructor was hopeful when developing the course completion plan tocontinue providing interesting, impactful, and innovative learning experiences. From an ASEE Engineering Technology Division listserv email on March 14, 2020 and
this paper.Course Goals and Objectives The course combines all aspects of the preparation, planning, design, and pre-constructionphases of an engineering project into a single comprehensive and meaningful educationalcapstone experience that integrate engineering and management disciplines and reflect real-world engineering design practices. Students, working in small groups, use the knowledge andskills acquired throughout their undergraduate education to develop the documentation requiredfor actual engineering project design (i.e. project analysis, design calculations, drawings, 169material quantities, basic cost estimate, design schedule, and an overall work plan) and presentresults in verbal
engineering technology degree programs alsoface similar questions as to how their program differs from engineering programs. The answersto these questions are invariably that engineering technology programs are based on the practicalapplication of engineering with graduates working to support licensed engineers/architects. Inaddition, engineering programs are theory and design based with graduates focused on designingand managing projects [1]. Students enrolled in Architectural Engineering Technology Programswho plan to become registered architects face an additional challenge however depending on thestate that they plan to seek licensure. Unlike other engineering technology programs andengineering programs which are both accredited by ABET, Bachelor
Paper ID #35028Undergraduate Area of Emphasis in Unmanned Aerial SystemsDr. Mario G Perhinschi, West Virginia University Mario G. Perhinschi is a Professor with the Department of Mechanical and Aerospace Engineering at West Virginia University. He is teaching courses in Feedback Control, Flight Simulation, Mechatron- ics, Aircraft Health Management, and Artificial Intelligence Techniques. He is actively involved in the improvement of the Aerospace Engineering Curriculum at his institution. His current research interests include primarily the design of intelligent fault tolerant control laws, trajectory planning and tracking
(e.g., student clubs/orgs). It also impaired essential hands-on learningbecause students were no longer able to access facilities and equipment required to conductexperiments, make observations and collect data [2].Even for those who were comfortable with online teaching, difficulties do not stop there. In the ruralarea, one could not assume reliable internet access was always guaranteed to everybody. Lecturescould be interrupted because of lost WIFI connections. Students might not finish an exam due to poweroutrage. All these technical hardships not only impaired learning, but also increased faculty workloadand caused academic integrity issues [3].Planning for Fall 2020- The (Limited) Return to CampusThe university valued the importance of
Award for Women in Engineering Education in 2016. Dr. Davis received a B.S. degree in Computer Science from Loyola University, New Orleans in 1985 and an M.S. and Ph.D. in Computer Science from the University of Louisiana, Lafayette in 1987 and 1990, respectively. American c Society for Engineering Education, 2021 Examining the Efficacy of Exam Wrappers in a Computer Science CourseAbstract (Evidence-based Practice)An exam wrapper is a guided reflection activity that students undertake following an exam.Students are typically asked to reflect on their preparation, performance, and plans for preparingfor the next exam. The
programand reflects on the applicability of the activity in a wide range of engineering courses. Second, itdescribes a qualitative study to answer the research question, to what extent is the YTU activityeffective in terms of student engagement and connection to the course objective? Data wascollected from two groups of students who participated in this creativity course and completedtwo peer teaching activities. Each student taught a 15-minute lesson to a group of peers,submitted a detailed lesson plan, and wrote self- and peer-assessments after class. These lessonsincluded both content sharing (i.e., presentation about the topic) as well as an activity and a finalassessment tool to ensure that their peers had met the student-defined learning
, 7th, or 8th grades in Fall 2008. This camp is part of the UTA Engineering andComputer Science Summer Camps that have been running since 1998. The second camp was anewly inaugurated camp called Girlgeneering. This camp was for girls entering the 6th, 7th, 8th or9th grades in Fall 2008. The new Girlgeneering camp was modeled after the structure of theEntry to Engineering camp with some specific modifications for its audience that will bediscussed.In the paper we will discuss the goals for the two camps, the differences in the planning for thecamps, and the staffing for the camps. We will also talk about our rationale for the ways inwhich the camps were planned differently. We will then talk about the ways in which the campsthemselves were
Biomedical Engi- neering.Mr. Francisco Cima, Old Dominion University Francisco Cima is a Ph.D. student in Engineering Management and Systems Engineering at Old Dominion University. He obtained his Masters in Business Planning and Regional Development from the Techno- logical Institute of Merida. His areas of interest are innovation practices in organizations, communication technology in organizations, knowledge management, and team processes.Dr. Orlando M Ayala, Old Dominion University Dr. Ayala received his BS in Mechanical Engineering with honors (Cum Laude) from Universidad de Ori- ente (Venezuela) in 1995, MS in Mechanical Engineering in 2001 and Ph.D. in Mechanical Engineering in 2005, both from University of
is an evaluator for the Engineering Accreditation Commission of ABET.Dr. Marcia F Williams, North Carolina A&T State University Marcia F. Williams is the director of Special Academic Programs in the College of Engineering at North Carolina Agricultural and Technical State University (NC A&T). Marcia has more than 30 years of expe- rience in organizational development, strategic planning, proposal development, and grants implementa- tion and administration. Her experience with NSF programs include former co-principal investigator and statewide project director for the North Carolina Louis Stokes Alliance for Minority Participation (NC- LSAMP) program, co-principal investigator and administrative manager for
member expanding on the pre-workshop materials, then attendees shared theirperspectives in discussion groups while SDEI members served as moderators and note-takers.This paper provides a model for other student groups of the planning, structure, content, andoutcomes of an Unlearning Series. Responses from participant surveys conducted at the close ofthe summer and group reflections amongst SDEI committee leaders are also presented. Thisfeedback has been translated into lessons learned presented at the conclusion of this paper.IntroductionIntegrating diversity, equity, and inclusion (DEI) topics in university coursework intended toprepare future planners, designers, and builders has proven to be a challenge. Faculty membersin these fields base
. in Civil Engineering from The University of Texas at Austin, an MBA and an M.S. in Information Management from Arizona State University, and a Ph.D. in Educational Policy and Planning from UT Austin. American c Society for Engineering Education, 2021 The Impact of COVID-19 on Women Engineers in AcademiaIntroductionCOVID-19 has upended the lives and livelihoods of millions of Americans, introducing an historiclevel of uncertainty in our everyday lives. While it is unclear what the impact will be on diversityin the engineering and technology sectors, we are beginning to see concerning signs. The U.S.Bureau of Labor Statistics recently reported that the higher
Engineering Education, 2021 Lemons into Lemonade!AbstractThis paper discusses a trial of offering two senior/first-year graduate classes in a 7-week format,one following the other. Thus, a student could complete two courses (6-credits), dealing with twoclosely related topics, in one semester. In this case, the courses were Digital CommunicationSystems and Wireless Communications.During the first week of the first 7-week course, all of the in-class demonstrations and hands-onexperiences needed to be shifted to online/remote delivery. This was primarily accomplishedusing the Amazon Web Services (AWS) AppStream, cloud computing system.The planned real-world signal capture and analysis project changed to an optional
engineering-focusedproblems. One challenge in developing a collaborative and integrative model for engineeringcomputing students is identifying an appropriate means to relate ethical content to technicalapplications that are germane to the introductory computing concepts taught in the course.Science fiction has emerged as an effective means to teach ethics to students in English [4],computer science [2], [5], [6] and engineering [2], [7] courses.Inspired by the success of science fiction applications to ethics and integrative collaborativemodels for ethics in existing computing courses, this work presents a preliminary lesson plan,developed by an engineering professor and a philosophy professor at an undergraduate liberalarts institution, to
still happen? What software tools could be leveraged? How wouldfaculty and students adapt? A rolling parade of cancellations plagued each colleges’ summerofferings for high school students: everything in May, then June, then July and August wascanceled. The months of hard work and planning for the summers’ educational events were nowfor naught and this reality had negative effects on the morale of both faculty and staff. Almost asan afterthought, the TriU Partnership circled back to the idea of an online event and held its firstTriU Committee planning meetings on May 8, 2020. Working as one team and on a tight timeschedule, the TriU Committee brainstormed ideas, decided on a direction and freely sharedresources. After many long meetings, The
WorkThe initial work involved determining the features to be developed and included in the finaldesign. The measurement capabilities of Distortion Analyzer, Agilent 35670A, were studied andconsidered for inclusion in the LabVIEW-based design. Some of the capabilities were providedby National Instruments in the Advanced Harmonic Signal Analyzer demonstration program.The features of the Agilent equipment and the demonstration program are included in Table 1below along with a plan for including selected features.Added FeaturesWithin the time period available for this project only few of the features (mentioned asDEVELOPED in Table.1) could be added. In Table 1,DEVELOPED: the features which were added to the new design,YES: the feature is already
ten.The two methods used and the observed student performance are detailed in the followingparagraphs.Definitions and ClarificationIn the context of this paper, designing an experiment entails determination of properties neededto meet a given objective, selection of experimental conditions, specifying required data, type oftests and number of specimens, and planning the data analysis. The data analysis typicallyincludes determination of experimental error, consistency of data and validity of test results.This definition differs from the broader field of statistical design of experiments in the sense thatstudents are not expected to perform comprehensive cycles of investigation that involvescomparison of various treatments and empirical studies
of Indianapolis (UIndy) has partnered with the Community Health Network(CHNw) to address the food insecurity related issues among the residents of the South IndyQuality of Life Plan (SoIndy) in two community organic gardens. The goal of the Watering forCommunity Gardens project is to design and construct a watering system for the UniversityHeights community garden. Employing a Design for Six Sigma framework (DFSS) under theDesignSpine™ design model at UIndy, the team began the process by conducting interviewswith the client and interns who work in the garden. The Voice of the Customer DFSS tools thatwere utilized in this project, includes translation worksheets and KJ Analysis. These were used tohelp solicit and evaluate requirements that
elective courses in the areas ofinformation-communication technologies (ICTs). Such courses should benefit both MSEE andBS REE (Renewable Energy Engineering) programs. When the Covid pandemic occurred inMarch, we modified our plans for actions. First action was to examine the inherent correlationsbetween mobile ICTs and renewables, and second action was related to simulations. In thispaper, we’ll describe the lessons learned in the second endeavor, along with the softwareapplications. For example, 5G connectivity introduces enhanced mobile broadband (eMBB)supporting high data rates and low latency, allowing large data flow instantaneously. Massivemachine type communication (mMTC) supports a large number of connected devices includingIoTs. Ultra
academic and industrial advisoryboards, however, only a small external academic advisory panel exists at this point. The team isin the process of assembling an industrial advisory board.Petrie (1976) identifies three important 'nonepistomological considerations' as being crucial forinterdisciplinary teams. The first consideration is 'idea dominance', i.e., the existence of a clear Proceedings of the 2007 ASEE North Midwest Sectional Conferenceand recognizable idea serving as the central focus of the work. Such an idea brings the teammembers together and serves as a guideline for how to operate collaboratively. To identify thedominant ideas, we convened a planning workshop in the summer of 2006 and used thepreliminary objectives
anundergraduate-only, project-focused curriculum. Students are given instruction and mustdemonstrate their abilities to execute team-based design and to build projects in all of their fouryears of study. The pedagogical basis for their required design classes is governed by aProfessional Plan, assuring that by graduation all ME students experience key areas of theengineering profession and show the ability to perform at an acceptable professional level.The authors of this paper have delivered the freshman and sophomore design classes at WKU formore than a decade. The courses are stable; student performance in all aspects of design havebeen consistently assessed and deemed successful. The stability of this aspect of the curriculumwas thrown into
. Likewise, efforts mostly but not entirely led by the abovementionedfaculty commission, such as the annual offering of a teaching workshop and teaching conference,as well as new faculty training, a variety of seminars and teaching chats, and voluntary peerobservation all work to reinforce a university culture that is focused on quality teaching andpedagogical development.According to our university’s mission, we provide “a hands-on, project-based learningenvironment” and we aspire to be on the leading edge of “innovative teaching.”Indeed, this phrase appears in a recently released strategic plan, which further emphasizesexcellence and the guiding value of “embracing and celebrating the highest quality standards inteaching.”Though our university is
a new approach, inwhich laboratory activities based on 21st-century engineering problems are used to enhancestudents' higher-order thinking skills and reinforce fundamental knowledge. Topics of thelaboratory activities included Sustainability, Machine Learning, Additive Manufacturing,Autonomy and Robotics, and Energy. In this course, students apply their prior knowledge in HeatTransfer, Fluid Mechanics, Solid Mechanics, Materials, and Chemistry and integrating with newmaterial to solve complex engineering problems involved multiples principles. To graduallyimprove student's critical thinking ability, we structured this course into six levels, following theRevised Bloom's taxonomy. Students use their cognitive skills to plan and conduct
Paper ID #34459Lessons Learned: College Student Surveys as a Professional DevelopmentToolDr. Dick Apronti, Angelo State University Dick Apronti is an assistant professor at Angelo State University. He teaches transportation engineering courses, engineering graphics, and plane surveying. His research interests are in transportation safety and planning. Dick Apronti also has interests in projects that improve access to higher education and college retention for minorities and under-represented groups. American c Society for Engineering Education, 2021Lessons
. Proceedings of the 2010 ASEE North Midwest Sectional Conference. Level 1 Below Expectations Level 2 Meets Expectations Level 3 Exceeds Expectations Uses unsafe and/or risky procedures Observes occasional unsafe laboratory Observes established laboratory safety plan and procedures
plan to gather formative feedback on the course’s effectiveness. This paper focuseson this initial assessment. Specifically, we seek to answer the following questions: 1) How has students’ familiarity of PM skills changed after taking this course? 2) What are students’ opinions on the course delivery?MethodsThe student survey analysis served as the major assessment instruments in this assessmentproject. We developed surveys using Qualtrics and asked enrolled students to complete thesurveys throughout the semester. The purpose of the surveys was to gather students’ perceptionsand satisfaction with the course and their ability to apply material to their research. All studentswho were enrolled in the GAPS course received a pre
intensity is kept at a levelfavorable to plant growth, thus optimizing production. Maintaining soil moisture, temperature andlight intensity at ideal level will ensure higher production, also reduce crop losses and make theproduction process more cost effective.Objectives:This project aims to tackle one of the biggest challenges the human race is facing today, foodscarcity. We plan to automate the irrigation system that will assist in plant growth. We plan tomonitor growth of radish seeds in controlled environment by providing the theoretically ideal soilmoisture, temperature and light intensity. We aim to increase the yield of radish plants and then tryour device for other crops to lower cost of production and raise yield. An automatic