begun to proliferate in industry,so have the demands on the level of sophistication of their performance. Careful attention tosafety planning has been required because; these industrial tools present many of the samehazards as conventional machine tools. Thus, engineers working in the areas of robotics musthave a well-structured understanding of robotic systems. Model driven simulation is a valuabletool for helping in this aspect. RoboCell simulation software is one such model driven simulationprogram. Simulation is a powerful tool, but robotics research should be conducted on robots. Inthis paper we provide a brief approach to learning technical aspects of industrial robots throughuse of an educational robot and RoboCell simulation software
understanding of architectural planning and designconcept, exterior, interiors and feel of aesthetics as compared to paper based models currently usedby most architectural students. In addition, by allowing the students to enter a virtual space at fullscale, it is possible to add more pragmatism to their design experiences. IntroductionUse of 3D technology to present virtual buildings has traditionally been hampered by longrendering times, and the non-interactiveness of a pre-rendered walkthrough. Movie render times ofseveral days to a week are not unheard of, depending on the complexity of the sequence.1Today, 3D computer games are highly complex systems that consist of a universal game engine andthe specific
Optoelectronic Slotted Switches, and they are used innon-contact fluid sensing applications. The water sensors that are used are as shown inFigure 3. Figure 3. Water Sensor to sense water levels Figure 4. Tilt Sensor (this sensor was planned for future expansion of this project)The interfacing of the microcontroller with the sensor array along with multiplexing anddisplaying it on Liquid Crystal Display (LCD) is as shown in Figure 5. Proceedings of the 2008 ASEE Gulf-Southwest Annual Conference The University of New Mexico – Albuquerque Copyright © 2008, American Society for Engineering Education Figure 5. Interfacing of the microcontroller with the sensor array (the tilt
designed x-ray fluorescence detector. Last summer we have replaced the GEM by a micromesh gas detector (MICROMEGAS). The MICROMEGAS consists of steel mesh that isseparated from a PCB by 100-150 microns of Kapton or insulator pillars. The region between themetallic mesh and the PCB has a very high electric filed that allows electron multiplication usingimpact ionization. We are predicting that the MICROMEGAS can provide better amplificationand better signal to noise ratio than the GEM fluorescence’s detector. AutoCADWe used the AutoCAD program to provide different views of the GEM and MICROMEGAS x-ray detectors. A two dimensional plan views of the pieces of the detector that form the Mylerwindow cover, the
, Florida Governor Ron DeSantis committed that Florida would chart a course for students tobe prepared for Jobs of the Future and the State to rank first nationally in Workforce Educationby 2030[7]. Florida’s Perkins V State Plan, in alignment with Executive Order 19-31,necessitates alignment of the secondary and postsecondary programs with the future of work andspecifically “emphasizes experiential learning, a tighter and more intentional alignment toindustry demand, increased access for special populations and a more innovative approach tohow workforce education is structured and delivered [5].”Florida’s Experiential Learning Framework for Perkins Size, Scope, and Quality [6] definesexperiential learning as providing students with opportunities
societyand how engineering processes work [7-11]. Several studies reported that engineering-focused teacher PD programs and short courses were effective at developing theparticipating teachers’ knowledge of the engineering design process and positivelyimproving their perceptions of engineering [4, 11-16]. Some other studies stated that PDprograms provided the necessary knowledge and motivation to the teachers to implementengineering concepts and practices into their curricula [9, 17, 18].In the present study, the research team has designed, planned, and implemented a two-week summer PD program for middle school science and mathematics teachers. Theprogram had ten periods each lasted eight hours. Through this engineering focused PDendeavor, teachers
technology. Theinstructor used a FARO laser scanner to record a wall’s displacement for out-of-plan loadsand a destructive test to clearly explain the mechanical behavior of the rubble walls of thetarget house for students [8].The American Council for Construction Education (ACCE) is a private non-profitcorporation, which accredits construction education programs in colleges and universities thatrequest its evaluation and meet its standards and criteria. The primary goal of ACCE is topromote and improve construction education in colleges and universities. By workingtogether through ACCE, stakeholders representing the construction community and the publicat large, construction educators, and constructors establish and maintain standards and
, statistical analysis, simulation processes, optimization techniques, and risk analysis at the strategic and network management level. Among his research sponsors are the National High- way Cooperative Research Program (NCHRP), Metropolitan Transportation Commission in California (MTC), the Texas Department of Transportation (TxDOT), the El Paso Metropolitan Planning Organiza- tion (MPO), and the City of El Paso. His academic work is documented in more than 100 publications in peer- reviewed national and international journals, conference proceedings, books, and technical reports. Dr. Chang also serves as the Chair of the ASCE Infrastructure Systems Committee, and Vice President of isMARTI in the U. S Research Coordinator
creative ways to solve real-world engineering problems and ensures students get experience in planning, design, research, manufacturing and project management before they graduate. Dr. Kathir is a member of ASCE’s Committee on Accreditation.Dr. Erik Knudsen, George Mason University American c Society for Engineering Education, 2021 Capstone Design - Unexpected Challenges and Opportunities due to the Covid-19 PandemicAbstractDue to the Covid-19 pandemic George Mason University (Mason), similar to many institutions,had to suddenly switch to online delivery of all courses in March 2020. As the director of seniorprojects (first
pipeline of an educated and skilled workforce is known as a demand-driven workforcedevelopment system. The enabling technology for the federal government’s efforts is its labor market informationsystem.In order for STEM programs to meet the needs of the 21st Century workforce, we must understand the componentsof the nation’s labor market information system (LMIS) so that we can fully participate in our regional and localworkforce and economic development planning decisions. The LMIS collects, among other things, data from amyriad of sources on employment across occupations and industries, projections of high demand/high wageoccupations for the next 10 years, occupations and industries likely to see declining demand, and the knowledge,skills, and
performance criteria were also provided. The five performance criteria developedfor this outcome, are based on Proceedings of the 2008 ASEE Gulf-Southwest Conference The University of New Mexico - Albuquerque Copyright © 2008, American Society for Engineering Education 1. Ability to define a problem: This performance criterion is assessed by determining if students are able to (i) identify the customer and the needs, (ii) identify and list the design objectives, and (iii) identify the design constraints. 2. Ability to plan the project: This performance criterion is also assessed by determining if students are able to (i) define the
approaches to equity. Titled “Power, Equity,and Praxis in Computing,” the course plan is discussed and assessed through three facets: thecourse’s purpose, its content, and its (intended) learning environment. The purpose of the courseis to make space for undergraduate computing students to explore how systems of power arecoproduced with computing so that students can practice making social justice-centeredtransformations as critical participants of their field. The content of the course plan is organizedthrough modules that overview opportunities and considerations for intervention in computing.The learning environment is discussed through commitments to queer and critical racepedagogies, interdisciplinarity, and mixed methods in which teacher
, visioning and decision-making.The content that students explore within these themes is intended to encourage the developmentof self-authorship, a critical foundation to decision-making for first-year students [2]. At the endof the course, students design a Personal Action Plan for their educational experience at theUniversity of Michigan.The structure of the course has been substantially revised to align with these themes as part ofthe Foundational Course Initiative. The course includes two primary structural elements:synchronous, weekly discussion sections and asynchronous, self-paced online modules. Thisformat is designed to provide choice within a well-defined structure and to support the courselearning goals, particularly those related to self
Paper ID #34171Cross Sectional Assessment of CEM Curriculum Offerings at thePre-college level in North Carolina (Evaluation)Ms. Cayla Lenore Anderson, Clemson University Cayla Anderson is a doctoral student and graduate research assistant in the Planning, Design, and Built Environment program at Clemson University. Her research interests include construction education at the pre-college level, workforce development for minorities in construction, and gender and space in- tersections on construction jobsites. Her interests stems from her experience as a Black woman in the construction industry. Cayla received a dual
plan, building and testingdesigns, making improvements, and assessing completion. In this study, facets of engineeringawareness of learners were determined by examining their ability to identify engineering-relatedpractices, strategies, and processes they used; and associating those practices, strategies, andprocesses with the construct of engineering.To conduct this exploration, researchers implemented three approaches to measure facets ofengineering awareness: observations, interviews and surveys. These methods provided data toaddress the following research questions: 1. What engineering practices do researchers observe visitors exercising? (Related to a facet of procedural knowledge) 2. From a list provided, what engineering
the variousdisciplines of civil engineering. Applications of GIS are highlighted as the course steps throughdifferent phases of a civil engineering infrastructure project, including planning, data collection,environmental analysis, design, construction, and data collection for operations and maintenance.ArcGIS Pro software is used to teach core civil engineering topics throughout these projectphases such as zoning requirements and calculations, elevation surfaces, watershed delineation,earthwork volumes, and roadway profiles. Thus, the course covers basic principles to facilitate aworking knowledge of GIS, but also allows students to tap into the data revolution, leveragelarge spatial datasets to create sustainable designs, make informed
software are of note. These software classifications permit students to: 1) Better communicate and collaborate design ideas to a variety of team members and stakeholders beyond presentations. 2) Better organize and manage the critical tasks the team must navigate during the project. 3) Better function as a team/discipline on complex interrelated tasks. 4) Better connect students and other stakeholders together to aid in mentoring and problem solving. This paper starts by documenting computer software packages that can enhance the teamside of a capstone. Next discussions progress into how teams can best plan their use oftechnology. Lastly, survey trends on student perceptions are presented that are correlated toobserved
changes within engineering departments. Based on this work, we developed thePOWER protocol (Privilege and Oppression: Working for Equitable Recourse), a workshop thatguides engineering educators to identify and understand the intersectional nature of power andprivilege before planning strategies to disrupt, disarm, and dismantle it. In this paper, we presenta design case to show how this workshop has evolved. We provide the POWER protocol in theappendix so that others can adapt this workshop for their own contexts.In the interactive session at CoNECD, we will take attendees through part of the POWERprotocol (we will scope the workshop to fit in the time allotted; the full workshop is 1.5 hours) toexamine how power, privilege, and
to communicate effectively with a range of audiences 4 an ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts 5 an ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives 6 an ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions 7 an ability to acquire and apply new knowledge as needed, using appropriate
, environmental, and economic factors 3 an ability to communicate effectively with a range of audiences 4 an ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts 5 an ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives 6 an ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions 7 an ability to acquire and apply new knowledge as
civil breadth of the PE exam has fourteen out of 40 questions relevantto construction in the areas of site development, project planning, means/ methods, andconstructions codes totaling 35% of the breadth exam. When considering further the 40questions in a concentration area, other than construction, the required knowledge in constructionaccounts for approximately 18% of the whole exam. Inclusion of topics such as ethics andprofessional practice, engineering economics, environmental regulations, materials, earthwork,and volume computations in a construction course can significantly increase the percentagesreported above. The construction topics required by the National Council of Examiners forEngineering and Surveying are listed in Table A-4 of
formative analysis.As a work in progress,, we are seeking feedback from researchers who have experience withlarge-scale, multi-year implementations, especially in the context of making revisions to researchdesign. We chose design-based methods to construct our tools and plan our implementation,having selected them for their applicability in situations where plans may need to be revisedbased on formative iterations of reflection [1]. Now that we find ourselves with the need to makechanges, we are uncertain how to effectively integrate new research questions, collect andanalyze data, and communicate findings in ways that: (1) maintain consistent attention toestablished throughlines while; (2) integrating adaptations to the original research design
various aspects of their academic and personal life to before and during the pandemic.Questions ranging from current schoolwork, to future plans and well-being are addressed. Thisinformation may inform both long-term and immediate changes that universities and instructorsmay be able to take to improve student learning outcomes and experiences within engineeringprograms.Methods An initial online survey was sent to 383 students among eight different sections of a first-year engineering course that was being conducted in a 100% remote learning environment duringthe Fall 2020 semester. The online questionnaire included a total of 10 COVID-related questions,each on a 5-point Likert scale. The questionnaire asks questions related to student
and innovative pedagogies on student learn- ing and success. She also led a project to develop a taxonomy for the field of engineering education research, and she was part of a team that studied ethical decision-making in engineering students. American c Society for Engineering Education, 2021 Work in Progress: College Students with ADHD: A Framework for Studying the Role of the College Experience on Academic SuccessAbstract Students with attention deficit hyperactivity disorder (ADHD) represent a growingfraction of the college population. We plan to study the experiences of college students withADHD majoring in science, engineering, and mathematics
. There are three cycles per semester and each cycle isof six weeks.4.2.1.1. Semester 1:Manufacturing Planning and Control:Students were introduced fundamental concepts related to manufacturing processes and control.In context of this course, the term manufacturing, and related terms of production, refers to‘making of many’. The topics covered were: introduction to manufacturing systems, MasterProduction Schedule, Material Requirement Planning, Inventory Management and Control, andIntroduction to Lean Production. The scaffolded aspects of electronics and digital fabricationwere covered through the examples (e.g., mass manufacturing of LED lights for decorationpurpose) given when discussing the manufacturing concepts. Instructors taught students
of all disciplines. The course will demonstrate, througha series of practical projects, how to assess your capabilities, find and communicate with your end-users and clients and correspondingly develop your product to fit their needs. Topics coveredinclude an overview of technology transfer, innovation models, customer discovery, lean startup,open innovation, and its implication, interview and analytical techniques, competitive intelligenceand competitive advantage, value proposition, elevator pitch, and other types of a business plan,presentation skills, and techniques.The second course (GE2030) seeks to develop in-depth knowledge and experience in prototypingby focusing on engineering processes and instrumentation that are used in
. Prerequisite: IME 600 or permission of the instructor”The course’s title had been changed to Engineering Management Seminar since the catalog waspublished and its description had been expanded to include advanced engineering managementtopics such as change management. The course’s coordinator normally taught both the courseand its prerequisite. Typically there was a reading packet for this course but as no specific topicsneeded to be covered during the course each instructor was free to take a different approach.With the ground rules for the course established, the standard next step was to develop a courseplan - course objectives, a syllabus, a grading scheme, and a reading plan for the course based onwhat should be taught. But by stepping back
and sentiments from student responses visually, to inform a novice-led analysis toultimately help with course planning for future semesters.Keywords: COVID-19, First-Year Engineering, Machine Learning, Sentiment Analysis, AssessmentIntroductionWe consider integrating student feedback and experiences into course planning as critical, since studentsare an important stakeholder in the learning environment (Lattuca and Stark 2009). Our approach ofusing heuristic approaches through automated tools to enable faster preliminary insights from studentresponses may be a first step towards helping instructors and administrators make informed decisions fortheir courses. Amplifying students’ voices and allowing them to significantly contribute to
, & Access, whose mission is to establish a strategic plan for access, attainment, inclusion, and diversity at Mines. American c Society for Engineering Education, 2021 Increasing Retention and Graduation Rates for Women in STEM Dr. Amy Landis, Faculty Fellow for Diversity, Inclusion and Access, ProfessorAnnette Pilkington, Director Women in Science, Engineering and Mathematics Program WISEM.MINES.EDU #womenatminesSLIDE 1 Notes: This presentation will review the efforts of Mines Women in Science and
school Physics and Chemistry courses for admission into college levelengineering degrees. One of the reasons for a low number of local students entering STEM majorsat the university was found to be the lack of access to these courses among students in high schools.This study presents a partnership between a college of engineering and the local school districtfaced with low numbers of students enrolling in STEM majors, who sought to change the trend.Our partnership began planning in 2019 and started our first cohort the summer of 2020. The Officeof Inclusive Excellence and Community Engagement offered a physics course online during thesummer of 2020. Results from the feedback survey were collected to evaluate the effectiveness oflessons offered