Session ETD 345In a report compiled by Dr. Bo Beaulieu1 in 2015, economic development data within theNorthwest Indiana counties shows a gap compared to the rest of the state. Data from the regionaldevelopment report noted: • 2001-2013 Northwest counties were issued patents at a rate of 1.6 per 10,000 jobs, while the remaining Indiana counties garnered 4 patents per 10,000 jobs • Stage 1 (2-9 employees) establishments expanded by 85% while stage 2 (10-99 employees) establishments slipped by 4 percent between 2000 and 2011 • Unemployment rate gap between the region and the rest of the state began to close in 2010 and 2011, it increased in 2013. The unemployment in the region was 1.5 percent higher than the rest
) Session ETD 545acts as a corrosion preventing fluid and as a lubricant at the same time. On the other hand, thecorrosion protection fluid can be used to rinse the machined parts in addition to being used as aprotective film for the parts [1].Material used for corrosion protection can leave a hard or soft film on the manufactured partsurface after the protective fluid evaporates [2]. The period of protection ranges from few days toover a year depending on the different characteristics of the protective fluid. Selection of thetemporary protective fluid is usually based on the material of the part to be protected, surface finishof the part, time of immersion or application time, application atmosphere or the surroundingenvironment, and temperature
Session ETD 335 Promoting International Preparedness in Undergraduate Engineering Projects Immanuel A. Edinbarough1, Anabel Pineda-Briseño2, Jesus Alberto Gonzalez-Rodriguez 1, Adriana Olvera1, 1The University of Texas Rio Grande Valley (UTRGV) / 2Tecnologico Nacional de Mexico-Instituto Tecnológico de Matamoros (TecNM/ITM)AbstractThis paper describes the social-cultural elements of the cross-border collaboration between TheUniversity of Texas Rio Grande Valley (UTRGV) – College of Engineering and ComputerScience (COEC), Department of Manufacturing
Collaboration Copyright ©2019, American Society for Engineering Education Session ETD 415where students interested in robotics can learn the hands-on skills and practical knowledge forsuccessful careers in automation. The minor was designed to fit in conjunction with any of theengineering technology majors offered at CWU.As development began for the Robotics and Automation minor, the program faculty focused onhow to implement hands-on topics into the curriculum. There has been a multitude of researchshowing the benefits of hands-on learning [1] [2] [3] and its ability to provide a bridge from abstracttopics to real-world application, with many
even more critical for the local economy. For example, the impactof one successful skilled job placement in Iron County has the same economic impact asskilled job placements in Salt Lake County. This Southwest Aerospace and ManufacturingStrategic Workforce Investment, (SAMSWI) will prepare individuals for high growth andhigh wage jobs to meet local aerospace and manufacturing needs, critical to grow the localeconomy.Rural southern Utah lags behind the overall state scores in median income and per capitaincome, and most counties served by this proposal have higher unemployment rates and agreater percent of persons in poverty as shown in Figure 1. While the focus of SAMSWI isto build our Iron County job placement and 9 additional Southern Utah
respondents said “that their studyabroad experience helped to significantly develop or improve their intercultural skills, flexibilityand adaptability, self-awareness, curiosity, and confidence.”14 In addition, the majority ofrespondents said, “that study abroad helped to cultivate their interpersonal, communication, andproblem-solving skills to some degree.”14The American Institute for Foreign Study (AIFS) report is a study of 1,600 AIFS study abroadalumni from 1990 to 2010. This report describes how their alumni regard the impact of theirstudy abroad experiences. One key finding indicated that 58% of 2,700 respondents said that“developing skills and intercultural competencies which contributed to obtaining my first jobafter graduation.” 1 Another
to do research aboutthe ADAU1761Z evaluationboard, as well as testing it. Figure 1 From left, Professor Elaine Cooney, with Michael Bauchert, Colin Eades,She also worked with the Kaci Darrough, and Alex Perr working in the Engineering Lab on the project.Arduino Mega and a TFTtouch shield to create a user interface and research serial communication.Collin Eades is a sophomore Music Technology major minoring in computer science. He isinvolved in music composition, studio engineering, and performance around the localIndianapolis area. Collin wrote a large portion of the program that runs the device created andcame up with several of the design concepts that were used in the device.”Alex Perr is a senior Electrical Engineering
programs or other industry training.In order to exam the feasibility and usefulness of such program, MSU Denver conducted a seriesof survey. Survey responses would only be used internally at MSU Denver to direct curriculumdevelopment and potentially market the new degree. In this paper we use secondary survey data.The first survey aimed to understand the interests in such degree from employers’ point of view.1Distributed with the help of the Presidents of the Rocky Mountain chapter of the AssociatedBuilders and Contractors and the Associated General Contractors of Colorado, the result of thesurvey indicated strong support for the type of degree proposed, referring to Figure 1. Surveyresponse: importance of a pathway to a 4 year BA degree in
theconstruction industry who support the activities and efforts of all ACCE accredited andcandidate status programs”. Responsibility for planning and delivering the IAB Eventtransferred from the Development Committee to the Industry Liaison Committee.Table 1 lists the locations of all past and known future IAB Events. Table 1. IAB Event Locations 2019 - Houston, Texas 2018 - Tucson, Arizona 2017 - Orlando, Florida 2016 - Mobile, Alabama 2015 - Long Beach, California 2014 - Tampa, Florida 2013 - Baton Rouge
increase involvement in teaching students about technical standards.IntroductionDespite standards affecting most facets of a company, as well as most products and machines weuse on a daily basis, standards are often under-appreciated and thus under-taught at manyeducational institutions. Even though both ABET, an accrediting body of engineering andengineering technology programs [1], [2], and employers have indicated the need for students toknow more about standards before entering the workforce [3], the topic is not alwaysincorporated into curricula [4]. One reason is that many faculty believe that “adding anything toalready jam-packed curriculum is dismissed as virtually impossible” [5]. At Purdue Universityhowever, faculty have risen to the
or method when advisingEngineering Technology students. Advisors mentioned they employ mixed methods dependingon the student and the situation. Advising methods they found most effective for EngineeringTechnology students are appreciative advising, intrusive advising and learning-centered advising(Figure 1). Methods of Advising Employed by Advisor for Engineering Technology Students 0 1 2 Appreciative Advising Intrusive Advising Learning-centered AdvisingFigure 1: Advising methods/models used by advisor for Engineering Technology studentsAppreciative Advising is
systems and techniques, as well as to teach them about the effects ofwelding parameters on quality. In order to improve the lab experience, a survey was takenregarding the student anticipation of the experience, and the results are shared and discussed.Suggestions for the improvement of the lab experience for the students using this system aremade.Introduction and BackgroundVirtual reality (VR) is an interactive computer-generated experience taking place within asimulated environment that incorporates mainly auditory and visual sensory feedback [1].Typically via a worn headset, a VR system ‘immerses’ the user in a computer-generatedgraphical user interface (GUI) that can be interacted with. Though it is most widely used in theentertainment
learning through real life projects. This paperexplains how, and through which channels the faculty and the department have worked withcompanies in different industries. Furthermore, the mutual benefits of these collaborations tostudents, faculty, academic programs, and industry are discussed.Academia collaborations with Industry has a long standing history. However, unlike somecollaborations that were initiated by academia through certification programs or industry inputfor academic curriculums, this paper is about industry projects done by faculty and students andcustomized training for industry. In particular, three different types of collaborations arediscussed: 1) a long term collaboration with a large regional industry and how it has helped
Independence. Drone advancementin the early years of drone use was dependent on the need of the U.S. Military. During the ColdWar the U.S. Military developed a classified Unmanned Aerial Systems (UAS) researchprogram, code named ‘Red Wagon’, and the U.S. also developed the Defense AdvancementResearch Projects Agency (DARPA) 1.Dà-Jiāng Innovation Technology Co. (DJI), founded by Frank Wang Tao in 2006, is the leader inresidential and commercial Drone production. In 2013 DJI developed the Phantom, the firstready to fly drone, which consisted of software, propellers, frame, gimbal, and a remote control2.The introduction of the DJI Phantom started the residential and commercial drone revolution.The uses for drones continue to evolve every day.Unmanned
management. Students in this program learn business andengineering skills in the classroom, then apply them in the field through class projects and acomplex capstone internship, which takes the place of a traditional thesis. Thus, the EngineeringManagement program requires strong industry partnerships for the education and graduation ofits students.The MSPS Advisory Board, which consists of local industry leaders and program alumni, acts togrow and maintain these critical industry partnerships. The Advisory Board’s role is 1) toprovide the class-projects and internships required for the students’ successful careers and 2) toensure that the curricula stays leading-edge and covers the needs of regional employers. Byleveraging the experience and
activities including: problem solving sessionsand computer-based activities with commonly-used software (MS Excel, Bridge Designer, andSkyCiv). The majority of these activities are performed in groups of three which provides acollaborative environment for students to share ideas and pose questions to other students thatrequire critical thinking.Construction Cost Estimating is also required for both construction management andconstruction engineering students. Traditionally, the course meets for 2 hours of lecture and 2hours of laboratory time with lecture time devoted to covering topics related to the laboratoryinstruction. Under the blended course format this changed. Approximately 1 hour of lecture timewas placed online. The students were asked to
infrastructure anytime andanywhere. The system provided students with opportunities to learn cyberattack and preventiontechniques in a simulation environment.1. IntroductionThe innovation of technology continues to proceed with a fast pace over the past years.Meanwhile, the scale and sophistication of cyber-attacks are also advancing at a worrisome paceagainst individuals, governments, and companies. According to the report from the Council ofEconomic Advisers in White House, malicious cyber activity cost the U.S. economy between$57 billion and $109 billion in 2016 [1]. Hence, America needs well-trained professionalsworking in cyber security roles to protect critical infrastructures from attacks, thus making cybersecurity education increasingly
. 1-3 Innovation in the science, technology, engineering and math(STEM) fields are key contributors to the US global competitiveness. With predictions that thegrowth rate of many science and engineering occupations will be faster than average in the nearfuture, 4 failure to strengthen the STEM pipeline has potential to further erode the U.S. ability toremain competitive in a global economy. Increasing the participation of underrepresentedpopulations in engineering will allow the U.S. to fully tap the human potential of its citizenswhile enhancing and diversifying the STEM workforce.Recruiting more underrepresented minorities into engineering programs is a way to diversify andgrow the engineering workforce. However, despite an increase in the
accreditation as outlined in the ABET AccreditationPolicy and Procedures Manual. (5) (ABET was formerly known as the Accreditation Board forEngineering and Technology.)DiscussionIn general, a program must meet the General Criterion (3) as specified by ABET foraccreditation, and the Program Specific Criterion (4) as identified by the title of any givenprogram, i.e., Electrical Engineering, Computer Engineering, Computer Science, and so forth.While not going into detail, the ABET General Criterion (3) includes: Criterion 1 – Students – progress is monitored to ensure graduates attain Program Educational Objectives. Criterion 2 – Program Educational Objectives – established and consistent with
Education Collaboration Copyright ©2019 American Society for Engineering Education Session: CPDD 214Managing Transitions Proceedings of the 2019 Conference for Industry and Education Collaboration Copyright ©2019 American Society for Engineering Education Session: CPDD 214Phase 1: Letting go • Identify who is losing what • Accept the reality & importance of the subjective losses • Acknowledge losses openly & sympathetically • Let people take a piece of the “old way” with them • Inform, explain why the
BC was made by containing the bricks within a fire,as well as enclosing the fires in kilns to gain more heat. This did not allow even heat distributionand could not penetrate the entire brick to bake it uniformly [1]. The bricks made using this“low-fire” technique were combined with lime mortar to make buildings. Lime mortar and low-fire brick have a similar density and possess the same capillary qualities. Therefore, moisturemoved equally throughout both the brick and mortar.In 1824, Joseph Aspdin discovered Portland Cement; a mixture of limestone and clay thathardens with water. It quickly showed its usefulness with brick layers, as the cure time is quickerthan the traditional limestone cement. Brick layers in the United States began
©2019, American Society for Engineering Education Session ETD 415As a result of the need for high quality assessment of student learning and the expectation fromaccrediting bodies for programs to show what students know and are able to do, more recentlyuniversities have adopted the integrative learning model for assessment of student outcomes.According to Budwig and Jessen-Marshall (2018), integrative learning for the college studentcomprises 1) the useful blending of knowledge and skills from different disciplinary areas, 2)putting theory into practice, 3) considering multiple perspectives to advance collaborativeproblem solving, 4) adapting the skills
service poling score and highly sophisticated heuristics. The five stepswere, continuous collection of scoring data, transportation, storage, analysis, and comprehensivedisplay. The scoring system was designed to be used in a Competitive Labs-as-a-Service(CLaaS) learning system. The scoring system provides light-weight, secure, and automatedscoring of specific data points as deemed necessary by predefined learning objectives.1. IntroductionIn a 2017 Survey done by the Capgemini Digital Transformation Institute, 55% of the 501employers surveyed said that Cybersecurity is number one in a widening digital talent gap [11].To compound this talent gap, an annual global survey on the state of Information Technology(IT) by ESG indicated the situation may
by Wicklein, the primary reasons are “inadequateunderstanding by school administrators and counselors concerning technology education,inadequate understanding by the general populace concerning technology education, and lackof consensus of curriculum content for technology education”1. These concerns were ranked #2, # 3, and # 4 in a research finding among technology educators2. Likewise, in a recent surveyamong prospective employers, 30% of 250 respondents did not have any awareness about theengineering technology program and one-third of those who claimed to have awareness aboutthe program could not distinguish the difference between the work performed by the engineersto the work performed by the engineering technologist accurately3. This
successfully secure the data and ensure it is tamper resistant, an investigationof blockchain technology use cases must be conducted. In addition, this paper defined theprimary characteristics of the emerging distributed ledgers or blockchain technology, to ensurewe effectively harness this technology to secure our data. Moreover, we explored using ablockchain database for our data.1. IntroductionNew buzz words are constantly surfacing in the ever evolving field of computer science, so it iscritical to distinguish the difference between temporary fads and new evolutionary technology.Blockchain is one of the newest and most developmental technologies currently drawing interest.It first attracted attention after the tremendous success of Bitcoin’s
from educational gaming pioneers like MEC, Davidson and the learning company and overthe years there has been a tremendous increase in the user experience [1]. Eames defined this method oflearning as the incorporation of games which could imply video games in instructions. There are severalexamples of game based learning but one of the significant ones called the Oregon Trail is one of thefirst and best with applicable educational standards and subject specific content giving the player acaptivating game experience. Other examples of starter games include: Banished, Bridge Constructor,Gone Home, Kerbal Space Program and Myst. Games often have a fantasy element that engages players.Not only does the integration of learning with gaming make
laboratory with a last generation CMM, with characteristics identical tothose existing in the industry, where the student can develop the set of skills that the industrydemands and that can help them to integrate faster into this specific field of the industry. Thefirst generation of students has graduated recently; and has been able to quickly and successfullyenter the local industry.Detailed Design of Coordinate Measuring Machine TrainingThe modern industries have high demand for engineers and technologists with good qualitycontrol skills and knowledge in manufacturing. The CMM manufacturing companies, such as theHexagon Manufacturing Intelligence [1], have put together comprehensive training needs withthe help of major worldwide manufacturers
©2019 American Society for Engineering Education Session ETD 535Changes to Criteria 3, 5, and Program Criteria Proceedings of the 2019 Conference for Industry and Education Collaboration Copyright ©2019 American Society for Engineering Education Session ETD 535 Criterion 3 – Associate DegreePrevious ETAC Criteria New ETAC Criteriaa. an ability to apply the knowledge, (1) an ability to apply knowledge, techniques, skills, and modern tools techniques, skills
Advisory Boardin curriculum development. Why then does this problem persist? Can the problem be placed atthe door of the university, or are the expectations of industry set too high? Perhaps there is someblame to be placed on the university and industry, a problem not being adequately addressed byboth. This paper explores a number of possible causes behind the problem, and suggests changesthat could help move toward a long-term correction.IntroductionA number of years ago, I wrote an article for the Professional Communications Societynewsletter. The title of the article was “...but Johnny can’t write!” (1). The article looked at aproblem experienced by undergraduate engineers entering their new careers in industry. Simplyput, they couldn’t write
University of New Hampshire wasestablished in 1973 as a centralized research facility within the Office of the Senior Vice-Provostfor Research. The UIC, located at the main campus of the University in Durham, NewHampshire, houses much of the shared, high end scientific, analytical instrumentation for theuniversity. The main campus is approximately 1 hour from the Manchester campus where theET Program resides.The mission of the University Instrumentation Center (UIC) is to support the research, teaching,and engagement missions of UNH by providing access to the best analytical instruments,scientists, and engineers. In support of the university’s engagement mission and as a broaderimpact requirement for many federal grant programs, the UIC partners