cover the foundational topics of both thermodynamics and transport inCourse 1. Course 2 would then address more application-focused content in boththermodynamics and transport in addition to kinetics and reactor design.After this discussion it was determined that this online CHE bridging course will be offered in twoconsecutive semesters (fall and spring) at the authors’ institution as a distance education course.The two-semester bridging course, entitled “Core ChE Concepts: I and II”, is divided into fourcategories spread over the two semesters, as described in Table 1. As noted previously, the topicsshown in Table 1 are not presented sequentially but are integrated over both semesters.One open question is whether students taking an online
problems.IntroductionIn the 20th century, textbooks were a standard technology for higher education and engineeringeducation. In the 21st century, personalized electronics, such as smart phones and laptops, are usedat a much higher rate than almost any other resources, including textbooks, by digitally nativestudents. Similarly, very little information is available about textbook usage, and most researchshows a majority of college students do not read textbooks [1-6]. However, technology fromreading quizzes to interactive textbooks are beginning to measure positive results related to out ofclass reading and participation [7-15]. Specifically, fully interactive textbooks from zyBooks hasshown excellent results helping students in the lower third of the course as
responsibility as citizens to serve their community, nation, and the world. The objectivesof this program are to (1) recruit diverse students to STEM fields, (2) Retain 85% of scholarshiprecipients in a STEM field, (3) Increase the civic mindedness and engagement amongparticipants, and (4) Achieve a STEM placement for 90% of the program graduates. In order tomeet these objectives, the PI team has implemented a series of well-established methods.Scholarships are awarded to make college more accessible and allow more time for educationalopportunities through reduced need for outside employment. The group of ACES students areformed into a cohort to provide a support structure in a community of like-minded scholars withdiverse backgrounds. That support
implementations[1,2,3]. Researchers have also concluded that training in Spatial Visualization (SV) is associatedwith higher retention rates in engineering, especially for women [4]. Spatial Visualization skillsrefer to one’s cognitive ability to mentally manipulate 2-D and 3-D objects. Well-developedSpatial Visualization skills are considered important for success in many STEM fields [5]. Acomplete restructuring of the 1-credit Introduction to Biomedical Engineering course wascompleted in the fall of 2017 in order to 1) introduce design thinking, 2) enhance spatialrepresentation skills, and 3) increase comradery among the cohort by having team-basedactivities throughout the semester. These three objectives have been achieved through thedevelopment and
address a community challenge from Time 1 (M=3.58,SD=3.403) to Time 2 (M=8.29, SD=1.578), t(21) = -6.848, p
students optimallyeducated to meet business and industry needs. However, recent statistics compiled by the ASEEreveals that engineering graduation and retention rates at U.S. universities are not keeping upwith the nation’s increasing demands for engineering talent 1. In 2000, less than 5% of allundergraduate degrees were awarded to engineers. Engineering bachelor’s degrees have grownonly 1% since 2005 2.To address the needs for a high quality science, technology, engineering, and mathematics(STEM) workforce in STEM disciplines, the National Science Foundation has established aScholarships in Science, Technology, Engineering, and Mathematics (S-STEM) program 3. Theprogram provides “scholarships for low-income, academically talented students
, often posted on the Learning Management System (LMS) (e.g., Canvas,Blackboard), because it allows students to watch at their own pace and typically allows forvisualization of the problems [1]. Viewership of videos typically peaks around exam times,indicating that students are using the videos to prepare for tests [2]–[4]. Research has shown thatthe majority of students generally enjoy learning through videos [2], [4]–[7]. Approximately 70-85% of students report that they find videos helpful and useful [2], [4], [5] Though such videosmay be well-liked, it is important to bridge the gap between how the use of videos relates to thegrades received by students. Some past research shows that student performance improves fromvideo use [5]–[12], others
for Engineering Education c American Society for Engineering Education, 2018 A Virtual Community of Practice to Promote LGBTQ Inclusion in STEM: Member Perceptions and Community OutcomesThe results discussed in this paper are part of a transformative project that links diversityresearch with a faculty development initiative to promote LGBTQ equality in engineering. Theaims of the project are to (1) identify aspects of engineering culture that present barriers toLGBTQ equality, (2) build knowledge and skills to disrupt discrimination and promote LGBTQequality in engineering departments on college campuses and (3) to identify best practices forpromoting LGBTQ equality in engineering. This
solveproblems. The findings may be of interest to design teachers and students in order to proliferatefresh and unconventional solutions to engineering problems, while boosting retention ofengineering majors.IntroductionIn recent years there has been a movement in engineering education to improve the curriculumfor undergraduate engineering students to better prepare them for the challenges of the 21stcentury. Researchers have studied various engineering curriculums and teaching styles todetermine the best system for engineering education. Current research on this topic suggest thattraditional teaching methods (lectures and typical homework assignments) do not meet all theobjective requirements for engineering education [1]. This is not only true for
prerequisite knowledge whichis difficult to accommodate with the limited amount of class time.The advancement of technologies provides an opportunity to help on these challenges. It isestimated that there are over 7 billion mobile phone subscriptions worldwide [1]. Althoughmobile phone subscription doesn’t necessarily reflect the number of mobile phone owners sincethere are multiple mobile subscriptions for individual people and for businesses, it does reflectthe prevalent usage of mobile devices. These devices have prolific use in our everyday life forcommunication, access of information, and entertainment. Besides, mobile devices are beginningto be used in all levels of education because of their easy accessibility and increase incomputational power
module can improvestudents’ knowledge competence and has great potential in increase students’ self-efficacy.IntroductionStudent learning style evolves with time [1, 2]. Gioia and Brass [3] in 1985 noted that the collegestudents being taught then were a “TV Generation”, who were raised in an environmentdominated by visual images. In early 2000, the new “Virtual Generation” appeared withprevalent virtual media such as Internet and videogames [4]. Most recently, the “iGeneration”has been raised with the presence of mobile and handheld technologies (iPod, iTunes, iPhone,Wii, iPad) experienced in an individualized manner [5, 6]. While it may not be necessarily asingle or even dominant learning style for any generation of students, it is necessary
readiness of the students in these majors. Specifically, the NationalScience Foundation (NSF) Scholarships in Science, Technology, Engineering, and Mathematics(S-STEM) program provides funding for projects framed around increasing the graduationsuccess and workforce readiness of low-income academically talented STEM students [1]. Withthis, financial aid alone is not enough to increase the graduation rate of these low-income, andusually diverse, population of students. S-STEM projects must incorporate student support andengagement activities that affect the success, retention, and academic/career pathways of thesestudents.In 2014, Western Carolina University (WCU) proposed and received a $625,179 S-STEM grantfor the SPIRIT: Scholarship Program
) identifies 15 components(Listed Below for Reference) of an effective grading scheme:“A grading system must… 1. Uphold high academic standards 9. Save faculty time 2. Reflect student learning outcomes 10. Give students feedback they will use 3. Motivate students to learn 11. Make expectations clear 4. Motivate students to excel 12. Foster higher cognitive development 5. Discourage cheating and creativity 6. Reduce student stress 13. Assess authentically 7. Make students feel responsible for 14. Have higher interrater agreement their grades
visibility has impacted the way in which the CEEDepartment approaches diversity. The poster will also illustrate how the RevED team has madechanges since the first year and what future plans are being made.IntroductionThe College of Engineering at Rowan University was established in 1992 through a multimilliondollar gift by an engineering entrepreneur [1]. The engineering college is divided into thefollowing departments: Civil and Environmental, Electrical and Computer, Chemical,Mechanical, Biomedical Engineering and the Engineering Entrepreneurship Program. Throughthe National Science Foundation’s Revolutionizing Engineering and computer scienceDepartments (RED) grant, the Civil and Environmental Engineering (CEE) Department isattempting to change
for All: Investigating the Feasibility of a Curricular-Embedded Peer Mentoring StructureIntroductionThe benefits of peer mentoring in undergraduate STEM courses are well documented, and theliterature suggests even more significant benefits to the mentors, compared to the mentees [1-3].The School of Engineering at the University of Kansas has developed a peer-mentoring modelcalled the Undergraduate Teaching Fellows Program, based on the Learning Assistant model [2].Students who participate as mentors in this program reported an improved understanding ofcourse content, more confidence in their academic and leadership abilities, and that they weremore prepared to go into the workplace after their experience as a peer mentor in this program
flip their classes. Whatstarted out as a faculty development program designed for local STEM faculty quickly expandedto include faculty around the country and the world, across a wide variety of disciplines and K-12teachers as well. The program included three modules – backwards design applied to the flippedclass [1], creating online materials (video lectures), and active learning strategies for the face-to-face classroom. These modules were taught in a variety of different ways for different audiencesincluding in-person workshops, flipped semi-in person workshops, and completely online massiveopen online course (MOOC)s. The online MOOCs are now taught each semester by our Center forTeaching and Learning Excellence through Canvas.Net.We
, rheological models, non-linearviscoelasticity, and time temperature superposition. In the second part of the course all students,in groups of two or three, were required to do a class project and discuss them in class, whichrequired them to apply the concepts learnt from this course.The goal of this paper is to disseminate to instructors in other departments or universities amethodology and some of the tools that the instructor successfully employed in such a mathintensive interdisciplinary course. These tools made the course more interesting and provided abetter appreciation of the complex math in this course.Many instructors have taught viscoelasticity concepts [1-3], but all of them were within a singlefield, such as biomedical engineering, or a
the University of Illinois, Champaign-Urbana in 1990 and 1999, respectively. He became the Dean of Engineering at The Citadel on 1 July 2011. Prior to his current position, he was the Department Head of Civil Engineering at The University of Texas at Tyler from Jan 2007 to June 2011 as well as served in the Corps of Engineers for over 24 years including eleven years on the faculty at the United States Military Academy.Dr. Anand K. Gramopadhye, Clemson University c American Society for Engineering Education, 2018 Paper ID #22098Dr. Anand K. Gramopadhye’s research focuses on solving human-machine systems
developed that facilitates integration of these products inexisting civil engineering curriculum. The SHRP 2 Education Connection program serves as anexcellent pedagogical tool to each civil engineering student by providing knowledge of SHRP2products and their impacts on community before they start their careers as transportation engineer.In the first round of SHRP2 Education Connection, faculty members from Rowan University hadsuccessfully integrated (SHRP2) solutions and products in the CEE curriculum (i.e., in fall 2015and spring 2016 semesters). Mehta et al [1] reported that the vertical integration of SHRP2 products from freshman year todoctoral level resulted, not only in an increased understanding of the role of each SHRP2 productin
education. The workshops are facilitated by internationally-recognized EER andsustainability experts, and engineering faculty attendees have ranked them as very effective inhelping frame their EER efforts. Since the EER center’s inception, which was catalyzed by thisproject, the number of engineering faculty members engaged in the EER center activities, alongwith the amount of externally-funded EER projects and both institutional and foundational(alumni) support has increased multi-fold. This project has thus contributed significantly to theinitiation and growth of EER capacity at a welcoming institution.Engineering Students’ Professional Responsibility AssessmentThe Engineering Professional Responsibility Assessment (EPRA) [1] was developed to
strengths of ourtrial, areas for improvement, lessons learned, and the future steps we intend to take.2. Literature reviewMentoring has been used in undergraduate engineering courses in a variety of ways includingresearch training [1], service learning [2] and building skills for culturally-diverse workplaces[3]. The complexity of the engineering profession in itself means graduates entering the industrycan benefit greatly from guidance and support in some form of mentoring by a more establishedindustry practitioner [4]. Mentoring at university is a well-studied subject [5] that supports thedesign of university mentoring for engineering students. Recently published research onmentoring of future engineers in the context of higher education
limitations and advantages of eachevent helps show why a VCF is an important addition for students and employers alike—and insome cases, it may even be the ideal option.Most notably, traditional career fairs require a substantial cost and time commitment [1],[2].VCFs reduce both time and costs for employers. In a study conducted by Galanaki [2], the authornoted that cost effectiveness of recruiting online was both a critical factor and an influencer.Other critical factors included a wide response rate, specific niche, and passive job seekers [2].While VCFs may not be free, the VCF environment reduces travel costs for both employers andstudents since both parties are able to attend with a viable internet connection.VCFs allow for a broader pool of
programs with an instructional design on how to build the course content for atemporary structures course.1. IntroductionThe fundamental goal of educators in the construction-related program is to focus on developingthe abilities of their students, thereby preparing them to embark on their professional journey.The students that come out of construction-related programs should have knowledge in allaspects of construction operations. By so doing, the graduates are able to implement safe, cost-effective, and timely solutions. Thus, to prepare students for the construction profession, theymust be educated in the basic, fundamental courses that touch on all aspects of construction. Inaddition to basic, fundamental courses, such as materials and methods
, entrepreneurship training, socially relevant research themeIntroductionThe National Science Foundation Research Experience for Undergraduate (REU) programs offer studentsthe ability to gain research experience, engage in professional development opportunities, and interactsocially with a community of scholars. REU programs are known for increasing enthusiasm in studentsfor their major and encouraging many to pursue graduate studies [1-3]. Research themes for REU Sitesare important in that they provide students with a focused technical area where they can investigatesolutions to complex science and engineering problems. Students are enthusiastic about topical areas withpotential for broad societal impact because they understand the relevance of critical
appreciation for how all kinds ofdiversity (cognitive, identity, background, and experiences) strengthen engineering and computerscience as disciplines, and (c) knowledge of how to act in inclusive ways to create inclusive,effective environments within their field.Project Goal and ObjectivesThe ultimate goal of the project is to identify and disseminate a set of curriculum activities thatcan be adopted and adapted by a variety of engineering and computer science programs to helpundergraduate students develop inclusive professional identities. The project is driven by threespecific objectives: 1. Study the transfer of first-year activities developed and piloted for engineers at one institution to both engineering and computer science programs at
for Engineering Education, 2018 Work in Progress: Problem Based Learning in a Flipped Classroom Applied to Biomedical Instrumentation TeachingIntroductionBiomedical instrumentation is a required course in our Biomedical Engineering (BME) programfor all concentrations: electrical, mechanical, pre-med and tissue engineering. The course hasbeen part of the curriculum since its inception and it is part of a larger set of courses related withmedical devices, as shown in Figure 1. In the early years of the program, the required coursesincluded other courses taught by the Electrical and Computer Engineering (ECE) Department; itincluded courses such as electronics and linear circuits. With the evolution of the BME profession,the
enjoyable enough, the actual content itself hasalso struggled to represent important STEM values to kids in grades K-12. Studies have shownthat the percentage of students taking pure science classes have regressed from over 50 percentto under 21 percent in the last decade [1]. The objective of this project is to get kids in this agerange more involved with areas in the STEM field using a desirable and enjoyable learning style.This project also aims to educate users about using algae as a renewable resource. This is animportant concept to convey because, while algae are a common microorganism known to all, itis rare that people make the connection that algae can play a significant role in impacting thefuture of this world. Focus on algae has risen
,Engineering Disasters, and Technology, Society, and Values). The Civil Engineering departmentat Oregon Tech has a strong laboratory component in its curriculum with a majority ofprogrammatic courses including a laboratory. Given the motivations of these two departmentsand mutual interest of the project faculty in bridges, and Conde B. McCullough (Figure 1) inparticular, the faculty identified the potential for a field course to tour important Oregon bridges.Emphasizing those constructed to complete the Oregon coast highway, the course brings thehistory of these bridges together with their design and construction details. Changes in bridgedesign practice were discussed as an analog to the development of civil engineering moregenerally. Figure
concentration in Transportation at Purdue University. He works with Dr. Godwin and her team in the UPRISE Research Department analyzing code and interview transcript, creating academic posters, and providing valuable insight to research papers. Thaddeus is also an executive board member to both the Black Student Union here at Purdue.Mr. Joshua T. Yeggy c American Society for Engineering Education, 2018 CAREER: Actualizing Latent Diversity: Building Innovation through Engineering Students’ Identity Development – An Executive SummaryIntroductionInnovation is the key to economic growth and prosperity, and engineering is a critical driver inindustrial innovation [1]. Many companies are discovering