international students.IntroductionAs we prepare our engineering graduates to enter the global workforce, our industrial advisoryboards provide guidance regarding the characteristics our students should have to succeed. Oneof these characteristics is to be globally engaged1: “World-Class Engineers understand theworldwide nature of their profession and are sensitive to the speed required to keep pace ingeographically and culturally diverse environments.”In addition to the importance of global preparedness given by industry representatives, the Page 24.1306.2College’s Global Engineering Education Faculty Planning Committee has also developed
discuss artificial intelligence through computer science usingheuristics. Additionally, the students debate the ethics associated with artificial intelligence andwhen legal rights should apply to artificial beings.Teachers attend a week-long, immersive professional development workshop for Cyber Sciencethe summer prior to teaching the course6. Following the professional development workshopteachers gain access to all curriculum materials including lesson plans, master notes, andsupplemental documents which are found on NICERC’s website. Communication is maintainedthroughout the school year via the website allowing for any questions, concerns, or issues ateacher may experience when teaching the material.Narrative #1 – High School Teachers
inexperienced students are the mainworkforce of the project. A successful project will have demonstrated the students’ technicaldevelopment, but just as importantly, will have enlightened them to the importance of the projectmanagement tenets that are needed to plan, manage, and report on a project.Many educators have discussed the methods of teaching project management effectively at thecollege level10,14. Due to its importance in the real-world, many training programs target theworkforce in the public and/or private sectors for improvement in their knowledge andapplication of project management23,24. However, only a limited amount of literature can befound in teaching project management in high schools2. Byrne listed twenty-one unique issuesrelated
Challenge as a new student competition builtaround solving the social-technical, complex adaptive, and ‘wicked’ problems associated withdesigning, constructing, operating and maintaining the world’s infrastructure. This paper explainsthe organization of the Goethals Infrastructure Challenge, the student learning objectives forparticipating in the challenge, the annual process used to formulate the challenge, requiredfunding mechanism, submission procedures, judging and evaluation plans, and budgeting andfunding. In addition to being educational, this competition is designed to inspire a newgeneration of engineers to address the challenges we face in “restoring and improving urbaninfrastructure” and“providing access to clean water”as suggested by
rwoodley@mst.edu, kaur.amardeep@ieee.org, thswift@mst.edu, steve.e.watkins@ieee.org, rdua@mst.edu, mrghx4@mst.eduAbstractGaming as used for eLearning is becoming more popular and is widely used in blended andflipped classroom teaching modalities. Many platforms exist to assist instructors in developinggame play to teach STEM related subjects. In this paper we explore using Kahoot! as a platformto teach concepts in a basic electrical circuit analysis course. We investigate the structure ofKahoot! and the types of topics we want to explore from circuit analysis. This project is part of alarger plan to explore other gaming platforms and develop novel game platforms to aid in theinstruction of STEM based courses. The goal is to
startedlooking into the feasibility of making the graduate engineering program more accessible. Thiswould not only allow us to meet the growing demand for engineers in West Michigan, but itwould be well aligned with our program’s student-centric focus. To prepare the students for thegraduate-level engineering work, an exhaustive list of prerequisite undergraduate classes thatstudents must take has been approved. While each applicant’s curriculum is tailored, GVSU’sSchool of Engineering developed a general plan to onboard students from a variety of non-engineering undergraduate backgrounds. Applicants are granted conditional admission to thegraduate program predicated on completing the prerequisite classes with a B or better grade.These plans allow the
use of physical modeling techniques from machine dynamics, as well as implementation of the Newton-Raphson method for solving nonlinear simultaneous equations for the system shown in Figure 1: x = L1 cos(q1 ) + L 2 cos(q1 + q 2 ) y = L1 sin(q1 ) + L 2 sin(q1 + q 2 ) y x Figure 1: Schematic of the Robot • Assignment 2 -- Development of a Trajectory Plan: This phase of the project involves the planning of a robot arm movement from one desired point in space to another
-shift towards future robust air transportation scenarios.Thereby the United States must be prepared to lead this Air Transportation Revolution by timelydelivering industry technology solutions throughout the air transportation continuum. IntroductionThe principal objectives of this study are as follows:To perform advanced strategic planning for N+3 commercial transport aircraft concepts andtechnologies (large long haul) to assist technologists, researchers, and managers at NASA LaRC,NIA, and other US centers in decision-making.To transition such selected technology portfolio into future operational and practical industryhardware applications.As such, the effort is limited to the formulation and first
sturdy. The students are then asked why they think the house is so strong. Theimportance of planning is again mentioned. The students are all invited inside the house to seethe interior and look at how all the framing members tie together.The students then return all the tools and materials issued to them prior to leaving the assemblyarea. After all the students have left the assembly area and headed off to another activity theadult volunteers and boss disassemble the house and stack the pieces in areas according to theircolor in preparation for the next group of student builders. The structure is designed to beassembled and disassembled one hundred times before a new kit is required.An independent third-party evaluation of students
purpose of this paper is to describe the development of departmental safety program at the Uof A which can serve as a model for the development of similar safety programs throughout theU.S. Department investment was required, as well as key changes in educational focus and staff.Features of this program are discussed including safety training, the contents of a safetydevelopment plan aimed at developing a culture of safety in the department, and a developingsafety resource website. The development of similar programs throughout the U.S. will help toassure that safety training is a significant part of engineering/engineering technology/STEMeducation.Educational ChangesOne of the key moves involved changing the safety officer position to a safety
, specifically thedesign and management of technically oriented projects. The four phases of a project wereoutlined as follows.1 It is worthy to note that these phases have also been adopted in theIntroduction to Engineering Design classes and provide consistency in terminology for the firstyear engineering students. 1. Phase I - Conception Phase 2. Phase II - Study Phase 3. Phase III - Design Phase 4. Phase IV - Implementation PhaseNow was when the discussion of timelines was put to use. Students were shown examples ofproject timelines, and asked to make Gantt Charts. This is a very useful planning tool used inindustry. Those students familiar with MS Project were encouraged to use the software.Courses in MS Project are offered on campus
verycontroversial subject that will never receive unanimous approval. The question governments are facedwith then becomes, what course of action should be taken in light of the fact that they will be damned ifdam and they will be damned if they don’t. The decision concerning building dams is not one that can bea simple yes or no. Ultimately a decision will be made to go ahead and build a dam or shelf the plan tobuild one. However, aside from being an analytical decision that requires careful weighing of the pros andcons, the issue is influenced by an undeniable weight of emotions. There are those who feel one way oranother about dam construction and have already made up their minds about the issue even beforelistening to any argument for or against
within the workload expectations of the course, and balancing the workload ofcommunity partners, the instructional team, and the ability of students to connect with theirproject sponsors are all factors that come into play when evaluating whether such projects areappropriate for a course.This study focuses on describing the planning and development process of implementingcommunity-based service-learning projects into the Foundations of Engineering course at thestudy institution and outlines a plan for evaluating the impact of the projects on students’perceptions of the usefulness of course material, specifically related to those learning outcomesthat instructors have identified as historically difficult for students to appreciate. These
verycontroversial subject that will never receive unanimous approval. The question governments are facedwith then becomes, what course of action should be taken in light of the fact that they will be damned ifdam and they will be damned if they don’t. The decision concerning building dams is not one that can bea simple yes or no. Ultimately a decision will be made to go ahead and build a dam or shelf the plan tobuild one. However, aside from being an analytical decision that requires careful weighing of the pros andcons, the issue is influenced by an undeniable weight of emotions. There are those who feel one way oranother about dam construction and have already made up their minds about the issue even beforelistening to any argument for or against
). 4Participating DisciplinesDepartment of ET The Department of Engineering and Technology (ET) provides academic programs forstudents interested in learning about Computer, Electronic, Mechanical, Architectural, andtelecommunication technology as well as engineering science and new media technology. Threeof the department’s main objectives are to 1) Reason quantitatively and mathematically asrequired in their fields of interest and in everyday life, 2) Use information management andtechnology skills effectively for academic research and lifelong learning, and 3)Integrate knowledge and skills in their program of study (QCC, 2016).ARCH -125: Surveying and Site Planning ARCH 125 offers principles and practices of elementary surveying with
, specifically thedesign and management of technically oriented projects. The four phases of a project wereoutlined as follows.1 It is worthy to note that these phases have also been adopted in theIntroduction to Engineering Design classes and provide consistency in terminology for the firstyear engineering students. 1. Phase I - Conception Phase 2. Phase II - Study Phase 3. Phase III - Design Phase 4. Phase IV - Implementation PhaseNow was when the discussion of timelines was put to use. Students were shown examples ofproject timelines, and asked to make Gantt Charts. This is a very useful planning tool used inindustry. Those students familiar with MS Project were encouraged to use the software.Courses in MS Project are offered on campus
functions of the software, each studentwas required to design and to draw a 2D plan view of a house with at least two bedrooms, a living room,a bathroom, and an attached garage. This gave the students an opportunity to use many of the basicfeatures of the software, which served as a foundation for the much more intricate projects that wouldfollow. Figure 1 shows the 2D plan view the writer designed and drew within this theme.Preliminary 3D AssignmentBuilding on the previous week’s assignment, students were required to use the plan view developed forthe house to add the third dimension and show their creation in 3D virtual space. This assignmentenhanced students’ appreciation of buildings in 3D and illustrated the functionality of the software
observation and integrated into the classroom. However, it was limited to usingevidence. Section V will discuss plans to move forward based WolframAlpha or Excel to perform repetitive calculations andon the experiences so far. create graphs of experimental data. The physics students use Excel regularly to create graphs of experimental data, including II. GOALS AND OBJECTIVES performing calculations to add other columns of of calculated At Haverhill High School, there is an interest in integrating data. Because of Excel has a large market share, the studentscomputer programming
education. It will enumerate the rewards that accrue to both facultyand students through an international exchange and the components that must necessarily beincluded in the program if it is to be successful and live a long and prosperous life. It willinclude such things as: making the initial contact, evaluating the proposed site, developing abudget, generating support, documenting the responsibilities of each institution, planning for thetrip, emergency contingency plans, orientation meetings with the students, language difficulties,academic credit, recruiting, technical projects, and final evaluation.The paper will conclude by reviewing two different exchange programs, one in Europe, which iswell established and has been operating for many years
Batch of Universities under the “Excellent Engineer Education and Training Program” Outline of National Medium and Long-term Education Reform 12 2010 and Development Plan (2010-2020) The Decision of the State Council on Accelerating the 13 2010 Cultivation and Development of Strategic New Industries Hu Jintao. Report to the Eighteenth National Congress of the Communist Party of China. Steadfastly advance along the road 14 2012 of socialism with Chinese characteristics and strive to build a moderately prosperous society in all aspects 15 2015 Made
workers (division of labor) to collaboratively Figure 2: Example of an engineering activity produce the components of the power grid. They do system in this study this work using specialized tools (computers, plans, knowledge, and skills) according to existing rules(regulations, norms, ‘best practices’) to achieve their objectives and ultimately deliver theoutcome, that is power service to customers (see Figure 2).Data AnalysisThe interviews were transcribed and analyzed using a thematic analysis approach [17], in whichthe data were analyzed to find patterns and themes in the texts. Braun and Clarke formulated athematic analysis process comprised of six general phases: 1
collaborative and inclusive environment, establish goals, plan tasks, and meet objectives6. an ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions7. an ability to acquire and apply new knowledge as needed, using appropriate learning strategies.Brief background of the senior design sequence The engineering capstone course sequence has evolved over more than three decades.Initially, electrical engineering was SPU’s only engineering major with a capstone project. Itfocused on team design projects but did not include close teaming guidance or connections withindustry professionals. The presentations and documentation requirements mid-project were lessformal
together provideleadership, create a collaborative and inclusive environment, establish goals, plan tasks,and meet objectives5a: Collectively provide leadership, with each member having a well-defined team role.5b: Create and sustain a collaborative and inclusive team environment where each member could make a meaningful contribution to the team’s goals.5c: Plan tasks as a team and organized team activities towards the completion of a project.5d: Establish goals as a team and evaluated if objectives were met.The University of Mount Union’s general education curriculum is referred to as the IntegrativeCore (IC). The IC is composed of a first-year seminar, four foundations courses, two junior levelexplorations courses, and a capstone course for
Dr. Elaine R. Millam, is an executive coach and educator specializing in leadership development, organi- zational effectiveness and character-based practices for leaders and teams. Her work focuses on helping clients (businesses and individuals) achieve positive, long-term change in leadership behavior as well as plans for realizing their future vision. She earned her PhD in Organizational Leadership at the University of St. Thomas, has two Master’s degrees in Industrial Relations and Educational Psychology from the University of Minn. Beyond her degrees, she has certifications in multiple leadership assessment tools. Elaine has over 20 years of experience as an executive in Human Resources and Organizational Devel
innovation and its commercializationcalled the “Technopolis Phenomenon”.This paper reviews research done on creation of Technopolis communities and highlightsexemplary best practices from Technopolis communities around the world such as SiliconValley, Boston, Austin, Ireland, Bangalore, Taiwan, Sophia-Antipolis, and others. The role ofacademia-industry-government collaboration in creation of Technopolis communities isdiscussed in detail. This involves sustained, collaborative efforts by academics, industryrepresentatives, Entrepreneur Support Organizations (ESOs), Economic DevelopmentOrganizations (EDOs), engineers, entrepreneurs, investors, and other practitioners to developinitiatives, plans, methodologies, infrastructure, and action items for
Engineering Design for the First-Year CurriculumAbstractBuilding a tower out of straws has been used as an activity for many years at all educationallevels. In general terms, teams of students are provided with a fixed number of straws andfasteners (such as paper clips or straight pins) and are instructed to build a structure as tall aspossible within a limited amount of time. Sometimes a constraint is added, usually that the towermust be able to bear a specified load or withstand other mechanical disturbances such as wind orvibration. Lesson plans for this activity are readily available on the Internet; the majority of thempresent the building of a tower of straws by a team of students as a methodology for developingcooperative learning skills
math teacher two days a week during the school year. The Fellowsalso enroll in a one hour graduate level course focused on teaching strategies. They spend 10hours working in the classroom per week, 1 hour in planning with the teacher-partner, and 5hours in activity preparation.Each summer, our GK-12 program culminates with a workshop for middle school math andscience teachers. There has been research focused on and related to professional developmentthrough engineering, science, and math workshops for teachers2, 3, 4, 5, 6, but few report outcomesbased on participant’s subject area. This paper aims to describe the implementation and Page
(Program Outcomes and Assessment),we have developed an overall assessment plan to measure program outcomes. The assessmentplan is shown in Table 1 and the schedule for assessment activities is shown in Table 2. Theassessment plan includes a mix of direct and indirect measures of program outcomes. The directmeasures are (1) course-embedded assessment and (2) a scoring rubric for the senior designproject. These two direct measures are described in more detail below. The two indirectmeasures are end-of-course student surveys and a graduating senior survey.Our assessment plan has several characteristics worth noting. First, we listed all of our program
program include a two-quarter course sequence entitled“Multidisciplinary Senior Design (MSD) I&II,” which constitutes the “design-build” core of theprogram; and a third course entitled “Design Project Management (DPM),” which trains selectedstudents for project management roles in MSD I&II and facilitates early-stage planning anddevelopment of a project readiness package (PRP) for each project. The DPM course has beeninstrumental in reducing the startup time for design teams, but further discussion of redesignefforts in this paper will be limited to the MSD I&II courses. Below is a more detaileddescription of the courses. Page
. Page 13.11.1© American Society for Engineering Education, 2008 A Case Study of Student Learning in Civil Engineering TechnologyAbstractThe curriculum of the four-year, TAC/ABET accredited Civil Engineering Technology Programat Georgia Southern University covers three traditional areas within the discipline of CivilEngineering. These areas are environmental, structures, and transportation. In an effort toimplement the continuous improvement plan for the program, assessment and evaluation of theprogram objectives and outcomes are being done on an ongoing basis. The term “assessment”means one or more processes that identify, collect, use and prepare data that can be used toevaluate achievement of program outcomes and educational objectives