is to only accommodate an exclusive population of studentswhile the less conventional students are forgotten and left behind. Instead, we show howIoT can be used to bring the outlier students into the system. IoT can also be used toprovide substantial educational assistance. IoT creates opportunities for vicarious andvirtual inclusion. IoT is the tool, and now is the time to build an education system for allstudents, not just those that fit academia’s cost-efficient model of mass education. Thepaper includes cases where IoT is being successfully used to democratize education.Keywords: Education 4.0, Industry 4.0, IoT, Remote learning, Inclusive education.1. Introduction: Inclusive and Exclusive EducationPerhaps the term “inclusive education
effective and appealing tostudents; however, sustaining student engagement is a challenge.IntroductionMentorship is critical to professional development [1]. The impact of engineering mentorshipprograms on students, such as related to their perceptions and self-efficacy, is nebulous [2];impacts are undoubtedly influenced by confounding factors, including the participants involved,contexts, techniques, and mentoring procedures applied. Educators have implemented a plethoraof engineering student mentorship program structures, ranging from formal to semi-formal andapplying various techniques, such as experiential based workshops [3] and one-on-one mentoring[4]. These diverse mentorship approaches are being applied to and studied for the full age
Grants(PPG) program to support the delivery of P2 and E3 assessments to a wide variety of commercialand industrial sites statewide. In 2016, the program merged with ENMRN, which serves as theCollege’s formalized outreach organizational unit.NMSU is among a group of academic institutions across the country that provides sucheducational awareness and outreach services to the business community, with EPA havingfunded several university- and community-college-based technical assistance programs since thepassage of the P2 Act in 1990 [1]. In states with a large manufacturing presence (where thereduction of chemical and hazardous materials is most needed), EPA's funding has beenespecially beneficial. Nationally, the program leverages engineering
method used tocarry out the research. After that it provides a summary of the results. The paper concludes witha discussion of the key findings and provide directions for future development.MethodThis paper uses a case-study approach. During workforce development meetings across multiplecommunity and technical colleges in Louisiana, there was a discussion to determine whatadditional program offerings are needed; both on the credit side (i.e., degrees), and the non-creditside (i.e., industry-based certificates). To address this need, and through collaboration with amanufacturing-extension program, a set of Competitiveness Review© (CR) assessments8 wereperformed. Figure 1 describes the assessment process. Each assessment involved: • The company
opportunity for engineering and construction managementeducation to introduce a new education model that connects the needs of the marketplace to theeducation provided to the students through strong relationships with industry.What is the construction industry is looking for from graduates? Much of what the constructionindustry desires of graduates is outlined in the technical and business topical content areasprovided by the American Council for Construction Education (ACCE), the accrediting body formost construction management programs in the United States4. Table 1 lists the twenty StudentLearning Outcomes (SLOs) for students graduating with a bachelor’s degree from a constructioneducation program.Table 1 American Council for Construction
Award.Marina Bograd, MassBay Community CollegeDr. Chitra Javdekar, Mass Bay Community College Dean, Division of Science, Technology, Engineering, and Mathematics c American Society for Engineering Education, 2017ASEE Off‐Site Internship 2017 1 A Collaborative Capstone Industry Project for Community College Students Abstract The Community College, located in Wellesley, MA offers two certificates in Advanced Manufacturing: Manufacturing Technology and Manufacturing Innovation. Each certificate can be completed within a year. The final semester is dedicated to a paid industry internship where students are supervised by both company and faculty
acollaborative effort between the students, their faculty capstone advisor, the EPA Region 4College/Underserved Community Partnership Program (CUPP), the Thriving Earth Exchange(TEX), and the City of Midway, Georgia. This collaboration is illustrated in Figure 1 below. Figure 1: Communication in project collaborationIn addition, the project implemented sustainable engineering design features and materials, andwas made available by CUPP.According to the U.S. EPA: The CUPP is based on developing partnerships between small, underserved communities and geographically close colleges/universities to provide a variety of technical support at no cost to those communities. This geographical proximity enables the
Blackboard quiz, and potentially an assignment. Uponcompletion of each of the Blackboard modules, each student’s grades for the program contributeto the final grades in the associated discipline courses, thus providing the students with therequired motivation to complete the employment search skill development program. Studentsurveys and focus groups were completed to assess the employment search skill developmentprogram and to determine suggestions for improvement.1.0 IntroductionA myriad of books [e.g., 1-3] exist that instruct students on how to develop the required skills tobe successful when searching for a job, skills such as employment search strategies, networking,resume construction, interviewing, career fair preparation, cover letters
information may provide potential mechanisms toincentivize individual faculty engagement in industry partnerships, foster overall program andschool support of these collaborations, and serve as a model for extending this work to otherinstitutions.Introduction Industry partnerships in capstone design programs have increased substantially over thepast few decades. Studies have highlighted how these partnerships can be beneficial to multiplestakeholders [1], [2]. Working with industry partners can benefit students, engineering programsand partnering companies. However, potential benefits to faculty are rarely considered. Based onthe critical role faculty play in student engagement and learning, more consideration of facultyengagement within
been invented yet - 49% of current jobs have the potential for machine replacement, with 60% having at least 1/3 of their activities automated - 80% of the skills trained for in the last 50 years can now be outperformed by machines - At a global level, technically automatable activities touch the equivalent of 1.1 billion employees and $15.8 trillion in wages The rapidly changing landscape of the workplace and associated uncertainty has raised a lot of questions about the future of our education system. The impact of different industrial revolutions on education, just like all other parts of society has been profound. Education 1.0 was no education at all. At that time children worked in manual jobs and child labor was the order of
knowledge and pass it from one generation ofworkers to the next properly and succinctly. The aging workforce poses a difficult obstacle, withreports of employees within the industry nearing retirement age being published regularly in theearly 2010s [1] [2] and illustrated in Table 1 [3]. This is prevalent at the local utility, where mostsenior operations staff are at or nearing retirement age, with several purposefully asked to staybeyond their qualified retirement. The researchers completed a Knowledge ManagementCapability Assessment (KMCA) questionnaire that was validated at its publication [4]. Thisquestionnaire provided the team and the utility management with a succinct description of theKM capability of the operations and maintenance staff in
world. Introduction Internships have long been recognized as valuable by students, employers, and career services professionals aiding job search, recruiting, and career development [1]. “For students and career services professionals, internships offer a range of benefits, including the opportunity to identify and clarify career direction, develop skills important to career readiness, and gain first-hand experience in the workplace. For employers, internships can serve as a valuable source of new hires, enabling the organization and potential hire to try each other out, thereby enhancing
Workforce1. Introduction Throughout the world, there is an agreement that there is a gap between the skillslearned in school and those needed in the workforce [1]. Engineering curricula mustcontinuously change to prepare students for industry needs [2], and universities should alignwhat they teach to the most demanded skills required in the workforce [3]. However, this isnot always the case, and empirical evidence has shown a gap between the undergraduateengineering program's skills taught and industry needs [4-6]. Several studies have revealedthe gap in water-related undergraduate programs [7], and such a gap can stand in the way ofmeeting the needs of the water and wastewater industry [8]. According to UNESCO-UNEVOC International
Policy,Zhejiang University School of Public Affairs,Zhejiang UniversityDr. Yujie Wang, Zhejiang University Wang Yu-jiePostgraduate of Institute of China’s Science,Technology and Education Policy, Zhejiang Uni- versity School of Public AffairsZhejiang University.Dr. chen li, Zhejiang University 1 American c Society for Engineering Education, 2020The Status of University-Industry Collaboration in China, EU and USA ——A Comparative Research on Co-authored PublicationsAbstractThe type of this paper is research. Policymakers and industry strategists in developing countriesare increasingly considering initiatives that foster university-industry
Initiative (B&R) being conducted byChina and participating countries and regions. This is evidenced by the fact that 138 countriesand 30 international organizations have so far signed cooperation agreements with China onjointly building the Belt and Road, according to data published in January 2020 on China'sofficial Belt and Road web portal, including 27 European countries, like Italy, Greece, Russia,Luxembourg, 37 Asian countries, like Korea, Malaysia, Singapore, Pakistan, uzbekistan, 44African countries, 11 Oceanian countries, 8 South American countries and 11 NorthAmerican Countries. [1] The B&R prioritizes the interconnection of infrastructure includinghighways, railways, ports, and pipelines of oil and gas. The enthusiasm for
knowledge, skill, and experience are alsoleaving the workforce. The electric utility industry, like many others, is feeling the effect of babyboomers’ exodus to retirement. A variety of factors, including the growing retirement eligibilityand “…the generational shift in the traditional utility workforce…”1 is having an adverse effecton the utility industry.According to the U.S. Bureau of Labor, 46.2 million baby boomers, 46.9 million generation xand 46.4 million millennials were employed in the fourth quarter of 2014. Baby boomers beganto reach retirement age, 65, in 20112. All baby boomers will be over 65 by 2029 and will makeup more than 20 percent of the U.S. population3.To get ahead of the curve, EASi partnered with one of the largest electric
methodology is generally the same as thatemployed during the last century and dates back to the early 1940’s1. In a recent study, theAmerican Society of Mechanical Engineers (ASME) identified aspects of US engineeringeducation that are currently ineffective, with a focus on mechanical engineering2. The mostsignificant shortcomings were practical experiences, a general system perspective, anunderstanding of engineering standards and codes, problem solving skills, critical thinkingskills, oral and written communication skills, and project management skills. To close thegap between the current educational state and these identified changes, ASMErecommended the following actions for curricular change: (1) Create curricula that inspireinnovation and
forgenerating intellectual property, conference and journal publications, training students to pursuenational scholarships, and industrial and federal grants.Background and MotivationSTEM employment opportunities in the U.S. are projected to increase by 3 million by 2026, butthere is a projected deficit of 1.5 million qualified STEM graduates [1]. There are severalchallenges in developing a robust, actionable U.S. STEM educational policy and ecosystem.Educational initiatives over the last 20 years have not produced the required improvements inmath, science, or reading literacy to address the qualified STEM workforce deficit. Exam resultsfrom the Programme for International Student Assessment (PISA) [2] show that Americanstudents have remained near
. Entering the 2015-2016 academic year,program faculty envisioned a capstone design experience that would engage student teams in ayear-long, professional level design project sponsored by an industry client. The first two yearsof the capstone design program have been inarguably successful, and in this paper we identifyand reflect on the keys to our success. The intention for writing this paper is to ensure thesuccess of the program is repeatable, and to assist other programs, especially those residing insmall liberal arts universities, in starting or revising their own senior design experience.Our key factors in assembling a successful industry-sponsored capstone design program havebeen: (1) faculty buy-in and involvement, (2) engaged industry
. IntroductionHaving friendships within one’s organization has, at times, proven to be conducive to both workenvironments and individual welfare. In their research on interpersonal relationships ofpersonnel, Methot, Podsakoff, Lepine, and Christian [1] found that workplace and organizationalfriendships have been shown to have positive impacts on some individuals’ happiness andeffectiveness. A number of employees who reported having friends within their organization, forexample, appeared to benefit from higher levels of productivity alongside job satisfaction andretention [1]. However, these friendships may often blur boundaries between objectiveprofessionalism and subjective favoritism. Even within a seemingly cohesive organization,subgroups may emerge when
the 2017 ASEE-CIEC Conference[1]. That CIEC paper outlined the template for this new BS degree, “MultidisciplinaryTechnology” (MDT), that features a flexible plan of study. MDT allows company partnersconsiderable input into degree course requirements to meet unique employee education needs,which may differ from traditional academic plans of study.This ASEE 2018 paper presents the specific degree requirements for three unique versions ofMDT which have been developed since the 2017 CIEC paper. One plan is with Subaru ofIndiana Automotive (SIA) at its US based automotive assembly plant. Another plan is with RedGold, the nation’s largest privately-owned tomato processor. A third plan is with another majorautomotive company and affiliated
connotation, how to createthe benefits and how to sustainably develop school-enterprise joint training. In the context ofpromoting a new round of PETOE strategy, it is urgent to communicate and coordinate withrelevant stakeholders such as policymakers, industry and business sectors, and institutions ofhigher learning, and take active and steady measures to jointly promote engineeringeducation reform in Chinese mainland.Key words: the Plan for Educating and Training Outstanding Engineers Plan, higherengineering education, school-enterprise joint training, Chinese mainland, small-N cases1. IntroductionOn June 23, 2010, the Ministry of Education of China held a kick-off meeting for the Plan forEducating and Training Outstanding Engineers[1] (hereinafter
current practice the “IndustryFellows” model, developed and tested by faculty at the University of Washington, Tacoma [1].This model goes beyond the typical industry engagement pathways of industry advisory boards,guest speaker events, student internships, and capstone projects. Industry Fellows is a form ofindustry/academia collaboration providing direct engagement of an industry professional withinthe classroom throughout a semester. This direct engagement has the benefit of bringingacademic instruction and state-of-the-art industry practices into closer alignment [1].The goal of this paper is to extend the Industry Fellows model from application in face-to-facedelivery into online delivery for distance education. Both the original research and
and Baker Hughes known as the 21st Century Co-op. The BHI 21st CenturyCo-op is a five year accelerated Bachelor of Science/Master of Science degree program in mechanicalengineering or petroleum engineering. In addition to the required courses for the disciplinary degree, theBHI 21st Century Co-op curriculum includes customized courses offered by faculty and BHI engineersduring summer internships, a senior capstone course, graduate cross-disciplinary courses and graduatetheses all relevant to Baker Hughes and its initiatives.In this paper we present the salient features and lessons learned of this industry university partnershipaimed at ensuring the scholars hit the road running when they take up positions in industry.1. PREPARING ENGINEERS
continually adapt to its business environment, its customerdemands, and the needs of the wider society whether through legislation or changing market.This phenomenon is well known and the subject of many business management texts [1].Similarly for University undergraduate engineering courses to be effective and acceptable toboth students and industry they must be continually revised to incorporate the latest thinking,both in technology and pedagogy. Traditionally, the method used to ensure courses remainedrelevant was to approach companies in the immediate locale of the education institution orlocal alumni [2] and elicit membership to form an Industrial Advisory Board (IAB). Thisapproach was effective when companies addressed markets which were
, customer needs, alternativesolutions, environmental and social impact aspects of the design, as well as, their experience indecision-making, are ample reasons why their expertise would enrich students’ learning andbrings them (the students) closer to the realities of the workplace. (1)Employers, by and large, are generally satisfied with the basic technical preparation of today’sgraduates, but find them largely unaware of the vital roles that engineers play in bringingproducts and services from a “concept stage” to the marketplace. An important reason for this“drawback” is that faculty member, today, often lack industrial experience and/ or any other typeof practical experience. This is particularly troubling when faculty members, straight out
implementing a change, or when dealing with a complicated medicalcondition, such as sepsis, the clinician can help guide and inform the engineering team’sapproach. The clinician, in-turn, also learns how systems engineers approach problems anddevelop solutions. Clinicians embedded on the engineering team can interact with the cliniciansat the healthcare site to more fully understand the specific clinical implications of engineeringdecisions so we make most effective solutions early on in the iterative process Figure 1 provides an overview of the center and a visual representation of itsrelationship with the healthcare industry. The center takes what is learned in the academicsetting and sets out to apply it in healthcare systems. While great
current systems. (1, 2, 3, 4)The higher education arena interacts in a complex way with a variety of external partners whoserole, participation, and expertise must be harnessed to help overcome some of the challenges thathave beset engineering education in the Region. Perhaps the most notable partner in thisendeavor is the industrial sector whose role and participation in shaping engineering educationhas, unfortunately, been extremely modest by best estimates. Establishing a beneficial workingrelationship between colleges of engineering in the Region and industries at large, has proven tobe difficult, often short-lived, and appears at the outset, not to be rewarding to either side.Among the many factors contributing to this failure, is the
application be a real structure beingdeveloped at a major Original Equipment Manufacturer (OEM). Teaming of ProfessionalEngineers from both the industrial and university partners helped to define and execute a large-scale, multi-material structural analysis of a rear end suspension under development by the OEM.Course Progression PhasesThe course development was initiated with the OEM providing jigs and production assemblies fordestructive testing, as well as the full assembly model with geometry, material properties andinterfaces defined (Figure 1). The university provided software, instruction, and actuation/datacollection systems for testing. Figure 1. OEM full assembly model of chassisThe students completed the multibody