to render abstract concepts in graphical representations and extractcorrect spatial information from the structures’ drawings. Spatial ability is defined as theprocesses of constructing, maintaining, and manipulating three-dimensional (3D) objects inone’s mind [1, 2, 3] and considered to have multiple subfactors [4, 5] such as spatialvisualization, spatial orientation, and speed rotation [6]. Research studies that discussed theroles of spatial ability in engineering education have primarily focused on the spatialvisualization, which is the main factor of spatial ability [7]. Some widely used spatialvisualization tests in engineering education [8, 9, 10] include the Purdue Spatial VisualizationTest: Rotations (PSVT: R) [11], the Vandenberg
recommendations to update the textbook everysemester. Now in its 11th edition,1 the textbook is significantly easier to read, has far fewertypographical errors, and includes new material the students requested. This paper discusses theprocess of continual improvement and the effects the textbook has had on student success overthe 5 years of its use.IntroductionWithin the last half century, Continual Improvement Processes (CIP) have become part of theculture in manufacturing and service industries. A key part of Kaizen and other CIP methods isto solicit and implement ideas from the employees, rather than from costly outside consultants.2Involving and empowering employees can reinforce a sense of teamwork and improve employeemorale, leading to higher
order to stimulate and motivate students to master thematerial, which proved to be very successful. It has been observed that new approach improvedthe final scores in the course as well as student satisfaction with this approach of presentingmaterial as well as testing their understanding of the required material. The paper presentsresults from two years of teaching the course with the current approach, along with lessonslearned from this experience.IntroductionTeaching/learning process is an age long human activity of passing knowledge from person toperson [1]. The process has experienced progressive transformation over time as people wereobtaining deeper understanding of the cognitive science [2] and were provided with diverse toolsto perform
Engineering Technology CoursesAbstractPenn State University requires that before any technology intended for classroom use isapproved for purchase, including renewals of software currently in classroom use, there must bean equally effective alternate access plan (EEAAP) in place for that technology. The plan mustanswer the question “What will you do if a person with a disability gets involved in yourprogram and is impacted by the lack of accessibility on this technology.” The motivation for thisrequirement is compliance with the Americans with Disabilities Act (ADA), as amended in 2008[1]. This paper details the process that faculty at Penn State Behrend undertook to create astandard EEAAP that can be used as a template when
quarter, a final grade for each student was determined based on the sum of allweekly task scores, a final score on the most updated proposal manuscript, and professionalism/ethics scores based on quarter-wide performance. The final grade was compared against thecumulative work hours to determine relationship.Time spent versus scores received were expected to exhibit a sigmoidal trend with the currentstudent population. Therefore a curve-fitting method [1] was employed using the equation (𝑦𝑚𝑎𝑥 − 𝑦𝑚𝑖𝑛 ) 𝑦 = 𝑦𝑚𝑖𝑛 + 1 + 10𝑛(log 𝑥50 −log 𝑥)where 𝑦 : score data 𝑦𝑚𝑖𝑛 : minimum value of 𝑦 in data set
that we have a plausiblesolution to the problem and can make evidence-based changes to our curriculum for futureofferings of this course sequence.BackgroundThe Engineering Technologies, Safety, and Construction (ETSC) department at CentralWashington University offers three bachelor’s degree paths for undergraduate students:Electronics Engineering Technology (EET), Industrial Engineering Technology (IET), andMechanical Engineering Technology (MET). These specialized programs provide students witha combination of engineering theory and application-based instruction to prepare graduates forcareers in industry [1]. The department also offers a variety of minors from which students maychoose to enhance their academic careers. After years of
practice.Background on the ETS-IMPRESS ProgramThe ETS-IMPRESS Program has three major goals to achieve over a five year period. Goal 1:Expand the number and diversity of academically talented and financially disadvantagedindividuals entering the Engineering Technology STEM pipeline; recruit and retain theseindividuals in STEM programs. Goal 2: Add to the body of knowledge regarding best practicesin engineering technology education and promote the employment of engineering technologygraduates. And Goal 3: Contribute to research on self-efficacy and best practices. A first-yearprogress report was previously presented at ASEE [1]. Currently, the project is in the third yearhaving successfully graduated one student who is employed in a STEM field of study
engineering degree studies. Extensive surveys ofthe current practices related to senior projects, as well as of engineering teaching through seniorprojects are available in the literature [1, 2]. For their senior projects, students apply thebackground and skills accumulated through coursework in researching a problem, for whichthen a solution is investigated, designed and implemented. A significant part of the knowledgeand skills needed for the projects are straightforward learning from the actual courses taken inthe program, but often new skills are needed, specific to the project topic selected, and studentsneed to apply their learning skills in researching a new subject, or getting familiar with a newpiece of hardware or software platform
industries andinstitutions have started to recognize solar energy benefits for electricity generation withphotovoltaic (PV) modules. According to the latest national solar jobs Census [1], Texas rankedin the top five states for solar jobs and had a growth of 9.3% in the past year. There are around683 solar companies established in the state, according to the National Solar Database [2], whichrespond to the increase in solar installations in the recent year.We have witnessed how new industries in our region consider solar systems to provide energy totheir new facilities from the beginning of the construction project. We have also seen an increaseof companies and institutions converting to this type of energy as the technology's cost becomesvery
Techie Times, a STEM summer camp centered around doing activities froma home environment created.Techie Times was developed by Purdue Polytechnic Institute Faculty, Graduate Students, andUndergraduate Students to create a new opportunity for camp participants to learn more aboutthe STEM field, execute fun and engaging projects, and network with fellow students fromaround the country. The program was held from July 27th to August 5th, 2020, stimulatingSTEM ideation before heading back into the school year. The program activities were completedall together at home, supported using virtual meeting platforms [1]. Techie Times was accessibleto all participants, eliminating finances as a participation barrier. Participants were able to signup and
University (MSU) works towardsthis goal is through accreditation of its Mechanical Engineering Technology (MET) programwith ABET. To maintain accreditation, the program must define outcomes, assess thoseoutcomes, evaluate how well those outcomes are being attained, and finally, continuouslyimprove the program. To satisfy ABET defined Criteria for Accrediting EngineeringTechnology Programs, 2019-2020 the MSU MET program has adopted student outcomes listedas #1 through #7. The focus of this work is Student Outcome #6: “An ability to conduct standardtests, measurements, and experiments and to analyze and interpret the results to improveprocesses.” This outcome was noted in prior assessment activities at MSU as an area forimprovement. For assessment
, industry feedback, and the challenges involved during the process indetail from the engineering technology perspective. It also includes discussion on the twodifferent tracks for earning the MSET degree with a flexible selection for the research focus area.This paper will add value to the technology programs planning to develop a new MEROcurriculum in the future.1. IntroductionThe US Department of Labor projects an increase in the number of engineers in the USA from1.68 million to 1.82 million by 2026 [1]. The fastest-growing demands are in Data Science andMachine Learning, and Mechatronics and Robotics. The term ‘Mechatronics’ is expanding itshorizon due to the current digital disruptions in industrial automation. Starting with a concept
clear what impact this common first-year experience would have on engineeringtechnology and, more specifically, on enrollment. Now, with six years of historic data as well asdata available prior to 2014, the effects this restructuring has had on the enrollment inengineering technology can be analyzed. This paper presents this analysis and discussesimpacts on recruiting and enrollment.IntroductionThe selection of a college major has been called a “high stakes decision” and could havesignificant long-term implications [1]. For some students, this decision is made during theapplication process to a four-year degree program when they might be seventeen years old. Forother students, it is made later, once a student has matriculated to campus and has
course is DC Circuits and Design. The course DC Circuits and Designhas both theory and laboratory components.First course: Engineering Economics was offered on-campus in two sections in Spring 2019 withcombined enrollment as 53 students. One section was offered online with 37 students. All thethree sections were taught by the same instructor (Author-3). These sections were not hamperedby any unplanned situations during the semester. In Spring 2020, four sections were offered: twoon-campus sections with 16 and 40 students, and two online with 40 and 45 students. Twoinstructors: Author-1 and Author-3 taught the course. The worldwide pandemic due to COVID-19 hit in the middle of the spring semester and all sections were changed to virtual mode
significant improvements since its inception asthis process enables economical and rapid prototyping of various product designs within a veryshort time period. The recent technical advancement in 3-D printing managed to scale down thesize of 3-D printers and the complexity of process, where it is a more affordable technology foreducators, students, engineers, researchers and scientists [1].Through 3-D printing technology, complex geometric shapes, multi-material andmulti-functional parts can be additively manufactured in a single operation which is a bigadvantage over conventional manufacturing processes. Large portion of the manufacturingindustry has realized the benefits of the AM technology and started utilizing AM as an integralpart of their
will have to be child-friendly in every aspect.To avoid lead paint risk factors, the project used regulated plastics approved by OSHA. Becauseof challenges of having multiple physical issues, this will help the therapist to collect data as theyprogress through their therapy.Students in the senior design course are required to do a literature review for any similar workthrough University’s easy access to ScienceDirect and IEEE Xplore data bases. Their researchthrough both resources regarding any similar work was inconclusive since the research subjectwas very specific. Students found that there are some toys that include the similar ideas andapplications but are not combined into one application. Children’s Therapy Store [1] online andtheir
, and program changesand graduation majors. The results will be useful for engineering technology researchers,practitioners, and administrators in their quest to study, diversify and increase studentpopulations in the field.Literature ReviewThe discipline of engineering technology originated in 1955, as the Committee on Evaluation ofEngineering Education (CEEE) from the American Society for Engineering Education (ASEE)in the Grinter report [1]. The report defines and outlines engineering education, as suggested a"bifurcation" in engineering curricula [2]. The creation of this division proposed a "generalprofessional category" emphasizing engineering sciences, focusing heavily on theory, thoughengineering educators were unreceptive [1, 2]. The
withdrawal rate in the regular in-personteaching mode, an average of about 30% in the past ten consecutive semesters. Our institution, the New York City College of Technology, abruptly switched to distancelearning mode in Spring 2020 and continues to offer all courses online in Fall 2020. This paperpresents our effort to redesign the contents, applications, and assessments of this course to face thechallenges of teaching an online hands-on lab class. We also want to implement remote learningadvantages, such as the flexibility and numerous methods to deliver information, into this course.The arrangements we made to adjust to the remote learning mode include: 1) redesign of the labcontents into 12 lab experiments in four modules; 2) integrate the
National Science Foundation Scholarships in Science Technology Engineering & Math(NSF S-STEM) address the need for a high quality workforce to ensure the nation’scompetitiveness in the global economy is maintained [1]. The S-STEM program aims to increasethe number of students with demonstrated financial need obtaining degrees in STEM fields,improve STEM undergraduate education, and advance the understanding of best practices for theretention and graduation of low-income, academically talented students in STEM. Funding forthese projects supports scholarships and curricular and co-curricular activities that supportstudent success.The Self-Determined Critical Mass of Engineering Technology Scholars (SD-COMETS)program is a comprehensive program
used by schools [1].It is necessary to solve this deficiency with significant public and private investments, and bytraining engineers to be prepared for the evaluation, repair, and possible change of use of theexisting infrastructure.These capstone projects expose students of the Structural Analysis and Design EngineeringTechnology Program of UHD to the challenges of reading and interpreting technical documentsprepared for structures with well-made designs but following superseded codes whose currentversions are more demanding. Two projects are discussed in this paper; one refers to an existingbridge with steel and three-span continuous beams that is close to UHD, and the other project isthe roof of a coliseum constructed in San Juan, Puerto
continuum of student supportservices, resources, and opportunities for professional growth, and prepare scholarship recipientsfor graduate school or careers in computing. COF-IMPRESS-C will facilitate dual-enrollment ofstudents in the Honors College, allowing an additional focus on developing leadership,entrepreneurial skills, and a success mindset. The goals of the project are to (1) increase the numberand diversity of students pursuing degrees in computing; and (2) Add to the body of knowledgeregarding best practices in computing education and promote the employment of computinggraduates to meet the local and regional workforce needs.The project team is led by the College of Engineering and includes Lorain County CommunityCollege. The project
for distance learning and possibly identify potential areas for further improvement. Keywords: Engineering Education, Feedback control system, distance learning1. IntroductionNew York City College of Technology (City Tech) is one of the senior colleges of the CityUniversity of New York (CUNY), which is the nation’s largest urban public university. CityTech is the largest public, baccalaureate college of technology in the Northeast and serves asa transformative engine of social mobility in New York City. [1] The department of ComputerEngineering Technology (CET) is dedicated to preparing students with the fundamentals ofelectrical technology, electromechanical technology, computer hardware, software, networks,using engineering principles to
ElectricalEngineering Technology (EET) bachelor curriculum that have the flexibility to implement thisform of training. This project looks to aid the preparation of future undergraduates interested inautomatic control implementations.IntroductionPID control is an integral component of industrial automation [1, 2]. It is used to automaticallycontrol process variables such as temperature, liquid level, pressure, flow rates, etc. Althoughprogrammable logic controllers (PLCs) have software functions for implementing PID controlusing analog input and output modules, all major manufacturers offer stand-alone PIDcontrollers since they are easier to program, monitor and maintain [3]. This creates a need toteach this cornerstone control calculation to university-level
Robotics and Advanced ManufacturingAbstractThis paper presents the curriculum, courses, laboratory modules and other student-centricactivities for a new Robotics Engineering Technology baccalaureate degree program which iscurrently being developed at Miami University. The new program consists of theory andlaboratory courses on industrial robotics, advanced manufacturing and automation systems, to bedelivered in a mixed format to support workforce development in the Southwest Ohio region. Inthis paper, we present the curriculum, course structure and planned evaluation methods of thenew RET program and discuss the challenges and opportunities that motivated us to develop theprogram.1. IntroductionRecent advances in robotics and automation have
expand the number of students who can benefit from conducting research as the designprojects are embedded directly into the curriculum and are taken by all students in the program.Undergraduate research has been shown to help students take ownership of their own learningand helps them to see the real-world relevance of research as they learn problem-solving skills[1 – 3]. Inquiry-based projects are beneficial because they require a significant investment ofstudent time and effort over an extended period with frequent constructive feedback from facultyand regular opportunities for reflection [4, 5]. This paper addresses the process of developmentof performance indicators and presents the results of assessment and evaluation of both ETACABET and
most in achieving 3 out of 5 student outcomes.1. IntroductionEngineering design is an important component of higher education in engineering. In mostinstances, these experiences in engineering design become incorporated into standards-baseddesign courses. In this case, the courses are designated as engineering/engineering technologycourses and the engineering design component is emphasized. Engineering design projects areproblems that may be approached and resolved using strategies and approaches commonlyconsidered to be engineering practices. The term “engineering” is used because developingsolutions to the problems involves processes similar to those used in the professional practice ofengineering, in addition to the integration of knowledge
performed at a distance bystudents during the COVID-19 pandemic. While many laboratory classes transitioned tosimulation software for experimentation, this course utilized physical equipment and componentsto conduct experiments and provide valuable experience, skills, and knowledge in the field ofelectronics off-campus.Keywords: Active Learning, Laboratory Experiments, Hands-On, e-learningIntroductionThe pandemic outbreak created great challenges for all aspects of life including education.Normal face-to-face, hands-on learning was rapidly shifted to online conferencing, lectures, andassignments with very little time to prepare or adjust [1]. The shift to online learning causedgreat trouble for teachers as many did not have online platforms
, Industry 4.0 focus, and research targetedindustry. Introduction The rise of Industry 4.0 transforms the workplace [1]. New technology reducesproduction costs while increases the product quality with more efficient work processes[2]. While it is plausible that Industry 4.0 improves people’s overall life satisfaction, atthe meanwhile, this rapid change causes anxiety among employees because advancedtechnology may replace human workers, especially blue collar workers [1, 3]. Forexample, in a traditional warehouse, workers’ job, which includes operations of pickup,delivery, and bookkeeping are highly repetitive [4]. Even for those who stayed,cooperating with machines or using new technologies bears
course as well.Product Planning (Week 1-2): In this phase, design teams are expected to understand theunderlying problem that is intended to be addressed by the final product and develop the projectsmission statement. The mission statement of the project contains the broad description of theproduct, the main assumptions, the key business goals, the primary and secondary markets forthe product, and the main stakeholders of the product. The design teams are cautioned that theproduct description that is created in the product planning phase should only identify theproduct’s basic functions and it should avoid implying any specific concept. The missionstatement serves as the project contract that defines the scope of the project and its
runoff, the top layer of the soil be removed and new soil added.Davis et al. contends the following with regard to rain garden soil design. “Selection of asuitable soil mix and depth includes consideration of a number of different objectives andparameters which include the following: 1. Ability to support and sustain the selected vegetation 2. Ability to dewater the ponded water in 24 Hr. 3. Ability to remove the projected hydrologic and pollutant load; 4. Life cycle and durability of the media; and 5. Media cost.”With this in mind the following amendments should be made to the rain garden. The top 3-4inches of soil must be amended with a mixture of peat moss and top soil and rototilled togetherto ensure that the new plants