2020 was the first time running SRI program. Compared with other similar summerresearch programs offered as in-person programs before COVID-19 pandemic, the impacts of thevirtual SRI program on the student participants were same or even better than previous in-personprograms, which was unexpected. The project team will continue running the SRI programvirtually in Summer 2021 based on the experience and lessons learned from Summer 2020 SRIprogram.Acknowledgement:The authors are thankful to the support from U.S. Department of Education Minority Science andEngineering Improvement Program (MSEIP) under award #P120A190085 and Texas A&MUniversity-Kingsville.References:[1] Johnson, S. R., & Stage, F. K. (2018). Academic engagement and student
engineering (b) an ability to design and conduct experiments, as well as to analyze and interpret data (c) an ability to design a system, component, or process to meet desired needs (d) an ability to function on multi-disciplinary teams (e) an ability to identify, formulate, and solve engineering problems (f) an understanding of professional and ethical responsibility (g) an ability to communicate effectively (h) the broad education necessary to understand the impact of engineering solutions in a global and societal context (i) a recognition of the need for, and an ability to engage in life-long learning (j) a knowledge of contemporary issues (k) an ability to use the
introductory design experience with some linkageto a concurrent Graphics course2. Elements of teaming, project management, economics andeffective communication are included. The second half of the course is focused on a major teamproject to build a robot that can negotiate obstacles and fulfill a prescribed task in competitionwith the robots from other teams. The project introduces students to sensors, algorithmdevelopment and microprocessor programming, and it is also fun! The design sequence continuesin the 2nd semester of Freshman year with a design course that strongly links to a Mechanics ofSolids lecture course3. The third design course links to the Thermodynamics and EnergyConversion course4. These design laboratories further advance the
andopportunities faced by graduate students and higher education institutions in navigatinginterdisciplinary research and teaching landscapes. Key themes include but are not limited to: thecultivation of a community-oriented team culture to enhance scientific team cohesion andproductivity e.g., [5]; the importance of academic motivation and teamwork diversity ininterdisciplinary context [6]; the mechanisms that facilitate team science e.g., [7], and theperspectives of graduate students and early career academics on interdisciplinary research e.g.,[8]. These studies collectively underscore the complexity of interdisciplinary endeavors, andhighlight the need for supportive institutional structures, the development of interdisciplinarycommunication and
multiple documents or locations.Ninety-four percent (n = 88) of the respondents reported capstone outcomes were listed in the coursesyllabus. Twenty-eight percent (n = 26) also provided them on the department web page. Twentypercent (n = 18) also outlined the course requirements in the college catalog, or stipulatedexpectations with individual assignments throughout the capstone experience. Handouts were thepreferred method for 9% (n = 8) of the instructors.When asked how capstone outcomes were communicated to students, faculty said multiple methodswere employed. Ninety-one percent (n = 86) of the respondents reported the expectations andmilestones of the course were explained as part of the course introduction on the first day of class.This was
show girls that this is not a field only for boys or men. It is not about only building carsand engines and it is neither too difficult nor boring. We wanted to incorporate a project thatinvolves the students in such a way that they tie engineering to a daily activity they enjoy. Indoing so, engineering becomes more approachable and doable.After brainstorming and researching several engaging daily activities, we concluded music to bethe most effective collaboration with engineering. The music industry is one of the largestindustries with a net worth of U.S. $130 billion globally. It is no surprise that people all aroundthe world enjoy music. Additionally, music serves as a universal platform to unite people. Wewanted to unite the girls in the
retrieval, methods for reproducible experimental design and dynamic report generation (Jupyter Notebook/Pandoc and workflows).The course outcomes (COs) are listed as follows: • CO. 1: Demonstrate knowledge of big data systems. • CO. 2: Analyze, design, and implement big data systems. • CO. 3: Apply big data systems concepts and techniques to real-world problems.The design of the big data analytics course is based on a combination of learning theory principlesand best practices in course design. The course is designed to be aligned with established learningtheories, including social, constructive, collaborative and cognitive. This is achieved byemphasizing hands-on, interactive activities that allow students to actively engage with
as they see them actively engaged “outside of the illnessmetaphor” (ref [3], p. 392). KinesiologyIn order to help address these issues, the Kinesiology Department at Cal Poly conducts has acourse, Kine 307 Adapted Physical Activity, as well as a series of programs (see Figure 1) tohelp these athletes achieve their goals. As part of this program, the Kinesiology Department hasmade kayaking in a local bay accessible to over 40 community participants who are diagnosedwith differing levels of spinal cord injuries. Similar benefits have been obtained through theEyeCycle program, where people who are blind or visually impaired ride tandem bicycles.Kinesiology students take the “captain’s” position while participants sit in the “stoker
both the resources available through the libraryas well as methodology of discriminating amongst multiple references. This paper will detail theinformation literacy module components, briefly describe the course in which it is placed,summarize the related project assignments, and present an analysis of various student projectreference sections to begin to quantify the potential impact of the module on studentperformance. Assignment modifications over various semesters as well as the future direction ofthe research will also be included.Information LiteracyStudies1,2 have shown that despite the technological savviness of digital natives, the ability todiscriminate between non-quality and quality reference sources as well as to conduct
Measuring Added-Value Using a Team Design Skills Growth Survey Kenneth Gentili, Jim Lyons,/ Eric Davishahl,/ Denny Davis,/ Steven Beyerlein Tacoma Community College,/ Everett Community College,/ Washington State University,/ University of IdahoAbstractAssessing student learning in design courses is essential for giving them feedback on theirintegration of a wide range of knowledge and skills. This paper describes the Team DesignSkills Growth Survey, which is easy to administer and interpret in discerning design capabilitiesof students in introductory engineering design classes. This tool measures student perceptionsabout their professional growth
hours (an additional one credithour may be added for a course including a lab). In addition to providing the education andtraining for students in the IGERT program, it was decided to create the courses so that theycould also be used as technical electives for non-IGERT students with an interest in themicrosystems area. This had an impact in terms of course content for all three courses. Ratherthan design the courses such that they only had technical content that was consistent with thegoals of the IGERT program, with its emphasis on microfluidic systems, course content wasnecessarily broadened to include the more traditional microelectromechanical systems (MEMS)area and, in some cases, microelectronics topics were included. Undergraduate
http://www.utep.edu/green) and student development. The green engineeringbuilding design contest is a student development activity that strengthens the bondbetween our commuter students and the University community that serves them.Figure1. The Green Engineering Building Contest is an example of the activities thattake place in the MIE academic support model.Impact on the design of the Engineering AnnexSince integration of green engineering concepts into the design of the Engineering Annexwas a late addition to the construction project of which the budget, location, space, andbuilding functionality were already defined and approved by the Board of the Universityof Texas System, only designs that would not affect the already defined
design experience that prepares students forapplication of the design process in their worklife following graduation. Our challenge has beento attract a sufficient number of engaged students to fulfill the project disciplinary needs in theprogram.Since 2002, efforts have included active recruiting in junior-level classrooms in the year prior tothe program; making the choice of the multidisciplinary program more visible in departmentalcurriculum requirements, and jointly publishing ALL available design projects for the largestdepartments (Electrical and Computer, and Mechanical) at the beginning of the year (such thatstudents would be able to move across courses based on their choosing projects of high interest).Student overhead for choosing the
teaching and support for qualityinstruction by focusing on four dimensions (core values, core principles, inquiry & analysis, andintegration of professional learning and educational development) at multiple scales (Individual– Community – Institution – Ecosystem) within the IHEs. Figure 2 shows the vision of NLC andits four dimensions and four scales.NLC provides an integrated platform for all those evidence-based high-impact practices (HIPs)that demonstrated positive effect on students learning and sustained success. Creating andadopting open educational resources (OERs) fulfills the core values of NLC – “Inclusive andEquity-Focused” and “Learning-Centered” – and supports the HIPs including project-basedlearning (PBL), to collaborative
games were proposed as an approach to create a virtuallearning community to encourage collaborative effort while attempting homework6. This modelhad positive impact on the students’ performance due to their high-level of engagement whileplaying these games. On the other hand, scaling such a model to include large number ofstudents or even different courses is not a trivial task. In addition, there are not too many gamesthat can facilitate the learning process in all the various disciplines. At the other end of thespectrum, a study suggested eliminating the graded homework in engineering courses andreplacing it with periodic quizzes7. This model might have been suitable for a specific setting,but it will be extremely hard to completely eliminate
of undergraduate engineering education. This dualism blocks all preventiveapproaches because it makes it impossible for students to understand how their technical designand decision-making contributes to the functioning technology of a society, and how this in turninfluences all aspects of that society, from its economy to its art10.To overcome the above difficulties, the transformation of undergraduate engineering educationcould begin with the creation of several “bridge” courses that mediate between the technical coreand complementary studies. What the students learn in these courses could then be built on intheir technical and complementary subjects to guide technological design and decision-makingby negative feedback, based on an
. Lumkes Jr. (2011). “Engaging Precollege Students in Engineering” ASABE Annual International Meeting. Louisville, Kentucky August 7-10[17] Longo, A., Yoder, B., Chavela, Guerra, R. C., Tsanov, R. (2017). “University Makerspaces: Characteristics and Impact on Student Success in Engineering and Engineering Technology Education” Paper presented at 2017 ASEE Annual Conference & Exposition, Columbus, Ohio.[18] Lovrec, d. Education in the field of fluid power technology-challenges, opportunities and possibilities.[19] Breidi, F., (2021). “Design of a Remotely Opperated Hydraulic Transmission Vehicle”[20] Tvrdić, Vjekoslav & Podrug, S. & Šuljić, Igor & Matić, Bernard. (2018). “Hydraulic
students working remotely must be monitored. By activelyreviewing student completion of web-based assignments, and by providing ready instructions viabulletin boards, email, and direct feedback on remotely operated experiments, the lab teachingassistants continue to provide necessary oversight. Provided adequate resources continue to beavailable, this course, once fully developed, may be offered every semester with minimal preptime, and a faculty member would provide oversight and supervision of the teaching assistants.A larger base of experience will be obtained as more students complete each exercise, andeventually the number of direct interventions and communications from the TAs shoulddiminish. The evaluation of learning and the monitoring of
andsoftware tools for securing critical digital information and infrastructure.OBJECTIVES OF COMPUTER SECURITY CURRICULUMThe Computer Security Technology program is designed with the educational objectives listedbelow. 1. To provide students with the fundamental knowledge in computer security. 2. To train the students with hands-on experience on technologies and tools on how to protect information and related resources. 3. To prepare graduates that can design, analyze and manage computer security systems.Students will be introduced to a wide range of topics, including electrical principles, digitalelectronics, computer programming, biometrics, data security, network communications andsecurity, and smart grid security. They will then be
, a new foundational design is emerging for constructing online courses better attuned tostudent mindsets and increasing engagement. Following are two examples from the engineeringarea. The online lesson overviews were constructed using guidance from Gagne, Bloom, andRogers as presented herein.Recall that the online courses are often designed by grouping some of Gagne’s nine events tobest support continuity and flow. • Multiple short videos introduce topics, address concepts, and encourage students to reflect on past learning to connect to the new concepts (Gagne 1-4). • Digital application of the new concepts and a student reflection in a journal about their learning (Gagne 5-6). • Digital formative assessments with
/PhD student pursues doctorate-level research that isrelevant to their full-time employment and results in them becoming an expert/thought leader onan emerging technical area within their company; (2) the employer supports the professionaldevelopment of their employee in becoming a technical expert on a topic of growing interest thatcould yield new products and services offered by the company; (3) the faculty advisor conductsadvanced research in collaboration with the employee/PhD student and employer that possessesreal-world impact and relevant to today’s society as well as their research community,To successfully facilitate the Experiential PhD experience, it is necessary to develop a strategicframework that would address multiple topics in
are performed inside the classroom. Even more,according to [5], such in classroom activities produce an engagement in the student’s learningprocess. As a result, the proposed methodology prioritizes the students’ work inside theclassroom by incrementing the time spent on problem-solving sessions. On the other hand, intraditional lecturing, multiple topics are covered in a single session, this can be overwhelming formost of the students [6]. As a result, the core of ATCL relies on teaching a single topic at a timeby means of a short lecture. This frees up time for in-classroom problem-solving and it lets thestudents concentrate on one matter at a time. This is crucial if we really want the students to domost of the work by themselves and avoid
focus10. In the late 90’s and throughout the 2000’s advanced courseson robotics dealt with path planning, navigation, autonomy, communication and in general allaspects of mobile robots11. At the same time, one witnessed the use of robotic kits, such asLego12,13 and BOE-bot14 in science fairs and science museums in encouraging K-12 students inscience and as an eventual vehicle of further study in SMET disciplines.4.0 The Robotics Engineering Program at WPIThe Robotics Engineering Program at WPI is a new program that will educate young engineersfor the robotics industry and prepare students for graduate work in robotics. The goals of theprogram are to: • Educate young engineers for the robotics industry and prepare students for graduate work
, increasedaccountability amongst project professionals, and reduced occurrences of non-value addingactivities.IntroductionThe response time of an RFI could have a huge impact on a project as inflated cycle timescan affect the overall project schedule and the sequencing of downstream tasks6. Furthercomplications can arise if there are additional procedures that must be followed during theRFI process or contracts that dictate the communication sequence between the professionals.Furthermore, many of the activities that are required to process an RFI are underestimated intheir allotment of time, are severely unreliable, lack transparency, and include activities thatdo not add value to the project’s main objective5. The goal is to seek out areas ofimprovement in the
. For direct assessment, students’ EML assignments were evaluated by theinstructor to verify inclusion or exclusion of a set of entrepreneurially minded attributes. Forindirect assessment, students were surveyed to determine their perceived extent of usingparticular entrepreneurial mindset skills during an EML assignment. The results have thus faryielded positive results for students incorporating mindset skills into subject-based matter.1. IntroductionIncreasing emphasis has been placed on the engineering education community to implementstudent-centered pedagogies which will allow the students a more authentic (“real-world”)experience. Many highly effective pedagogies have proven to be more effective than thetraditional “chalk-and-talk
program,the topic was presented to teachers during a week-long workshop in the summers of 2008 and2009. In 2008, the presentation was of a general nature and intended as a very basic introduction,while in 2009, a more extensive unit was presented encompassing both design and projectmanagement. This paper provides information on the current efforts to introduce engineeringtopics at the high school level and where HSE fits into this landscape. It describes the HighSchool Enterprise program and how secondary students and teachers are exposed to engineeringdesign. Some examples of student-project work from the 2008/2009 academic year that conveyhow students engage in the design process are included. Finally, the lessons learned to-date andhow those
” [1]. To help serve the campus community, Library Services is comprised of 17faculty librarians and 20 library technicians and is led by an Academic Dean. There are alsotraditionally four or five graduate student assistants and about 15-20 student workers to help staffthe library building 16.5 hours a day Monday through Friday, six hours on Saturday, and 13hours on Sunday. The library, built in 1967, houses approximately 1.5 million books, scores,DVDs, and other materials and contains several special collections including the educationalresource center and children’s collection, government documents, maps, and the UniversityArchives and Southern Minnesota Historical Center.While the faculty librarians have specific jobs such as cataloging
regarding active experimentation[7]. Open-ended laboratory courses or even traditional classes with experimentation exposure have shownto provide greater learning value as compared to the traditional lecture only focus [2,8]. Such coursesemploy an approach to learning science that are backed by a significant body of work on research-basedand active pedagogies in various engineering disciplines as well as have demonstrated superior levels ofstudent engagement and learning. Introduction of real-world problems not only allows students to masterappropriate techniques and technologies, but also allows the students to design strategies for solvingproblems and practice an overall process of inquiry [9-10]. Since experimentation is so critical to
sound welldefined, but the ways in which WIE programs work to accomplish these outcomes varytremendously.Recruitment happens at multiple phases and levels. In the community of scholars and practitionersthat address women in engineering, there exists a high level of awareness and research that showsthe importance of starting recruitment efforts at an early age. WIE programs with Girl Scouts, forexample, are designed to help maintain an interest in math and science and raise awareness ofengineering as a career path for these girls4,5. Recruitment efforts for older students include "openhouse" days held on college and university campuses and summer engineering camps. Suchprograms involve significant follow-up with participants as directors work to
electrical engineering. In one mode of operation, 8-12 year-old studentsat the Boys and Girls Club of Brazos Valley 1, in Bryan TX, are able to light up and vary theintensity of incandescent and LED bulbs using purely their cycling output. In another mode, theycan charge a LiFEPO4 storage battery, which in turn is used to charge computers, phones, andrechargeable AA batteries. This device provides a clever way to incentivize the students at the Clubto perform physical activity on the bike to receive charged AA batteries that they can use to playvideo games. The seniors also created engaging videos using Lightboard that further reinforced thelessons imparted by the exerciser.One of the significant findings of this project was the community-oriented