Education, 2014 Use of Microsoft Testing Tools to Teach Software Testing: An Experience ReportAbstractThis paper reports our experience using Microsoft testing tools in both graduate and under-graduate Software Testing courses for four semesters. In particular, we used Microsoft Visu-al Studio Ultimate 2010 (including Microsoft Test Manager 2010) and Microsoft TeamFoundation Server 2010, which together offer an integrated and comprehensive environmentfor the application lifecycle management, including test planning, authoring, automation,execution, tracking, monitoring and managing. We assessed our experience in using thetools from the student`s and the teacher’s points of view. Based on students’ feedback
Paper ID #39500Integration of Public Policy into Civil Engineering UndergraduateCurricula: Review of Civil Engineering Body of Knowledge and CourseApplicationDr. Michelle Oswald Beiler, Bucknell University Dr. Michelle Oswald Beiler is an Associate Professor in the Department of Civil and Environmental Engineering at Bucknell University. She has completed her Doctoral degree in Civil Engineering, a Mas- ter’s degree in Urban Affairs and Public Policy, and a Master’s degree in Civil Engineering from the University of Delaware, specializing in transportation planning. She received a Bachelor of Science in Civil Engineering
facilitators with additional experience and expands the number of individualswho can “train the trainers” and help to propagate the program for future participants.In addition to describing the experiences and results from this “train the trainers” effort, thispaper details the information, planning tools, and supports that are incorporated throughout theCyberAmbassadors professional skills curriculum materials to assist facilitators in offering thesetrainings. Lessons learned from this project can be adapted to other professional educationefforts, both in terms of preparing new instructors and in helping trained facilitators betterunderstand and meet the needs of their audience.Background and Related Work: The Importance of Professional SkillsThe
of a stakeholderanalysis and customer value model (CVM). The systems engineering students also create and runlinear optimization models to help identify the most effective way to approach the constructionof the bridge on competition day. The interdisciplinary nature of the project allows both the civilengineering and systems engineering students to more effectively satisfy the student outcomes ofthe Accreditation Board of Engineering and Technology (ABET). The integration of the twodisciplines requires the students to apply more effectively ABET student outcomes (5) an abilityto function effectively on a team whose members together provide leadership, create acollaborative and inclusive environment, establish goals, plan tasks, and meet
two-semester capstone course/project (computer engineering students) orsenior class design course/project (computer science students). Required co-curricular elementsincluded faculty mentors and participation in monthly LEAP Activities (that includedmultidisciplinary projects, guest speakers, skills-building workshops, and field trips). Optionalco-curricular elements included leadership opportunities within a professionally-focused studentorganization, faculty-mentored research, and internships. All planned support programs weregrounded in evidence-based strategies and research pointing to likelihood of their increasingstudent success and completion.It should be noted that UVU’s S-STEM proposal did not specifically mention the use of “high
the rhythm of “What/So What/ NowWhat?” Around this time, we began using this as a structure for reflections throughout thecurriculum, beginning in the first required seminar. This structure was inspired by the literatureon reflection that emphasize movement to future action, or a cyclical process [2, 3]. Around2000, we began also to use the acronym PAW, or “Present, Analyze, What’s Next?”, branded toour animal mascot [18].From 2017 to 2020, we used the same prompt for all of the reflections, as shown below, andencouraged students to choose from a menu of sub-prompts for their own What, So What andNow What.In 2020, of course the COVID-19 pandemic caused us to re-think our plans. Many of ourstudents were no longer able to do the experiences
students’ learning in entrepreneurship. Through a quasi-experimental study, weassume that students who participate in SRL activities will improve their entrepreneurial skillsetand mindset and demonstrate improved learning outcomes in an entrepreneurship course.Research has suggested that SRL is beneficial for students to develop entrepreneurial skills [1].In other words, effective entrepreneurs regulate their cognition, metacognition, and motivation toadapt to new environments and unexpected challenges, make appropriate decisions, andovercome obstacles, which overlap with the essential elements in SRL [2], [3]. SRL describes aphase-like learning model that includes students’ goal setting and planning before a task,strategic actions and monitoring
in Engi- neering Education and Future Professoriate. MiguelAndr´es’s research includes sustainable infrastructure design and planning, smart and resilient cities, and the development of engineers who not only have strong technical and practical knowledge but the social awareness and agency to address global humanitarian, environmental, and social justice challenges. For him, social justice is a concept that should always be involved in discussions on infrastructure. Related to STEM education, Miguel Andr´es is in developing and applying contemporary pedagogies for STEM courses, teaching empathy studies in engineering as a tool for innovation, and assessing engineering students’ agency to address climate change
Paper ID #34171Cross Sectional Assessment of CEM Curriculum Offerings at thePre-college level in North Carolina (Evaluation)Ms. Cayla Lenore Anderson, Clemson University Cayla Anderson is a doctoral student and graduate research assistant in the Planning, Design, and Built Environment program at Clemson University. Her research interests include construction education at the pre-college level, workforce development for minorities in construction, and gender and space in- tersections on construction jobsites. Her interests stems from her experience as a Black woman in the construction industry. Cayla received a dual
plan, building and testingdesigns, making improvements, and assessing completion. In this study, facets of engineeringawareness of learners were determined by examining their ability to identify engineering-relatedpractices, strategies, and processes they used; and associating those practices, strategies, andprocesses with the construct of engineering.To conduct this exploration, researchers implemented three approaches to measure facets ofengineering awareness: observations, interviews and surveys. These methods provided data toaddress the following research questions: 1. What engineering practices do researchers observe visitors exercising? (Related to a facet of procedural knowledge) 2. From a list provided, what engineering
the variousdisciplines of civil engineering. Applications of GIS are highlighted as the course steps throughdifferent phases of a civil engineering infrastructure project, including planning, data collection,environmental analysis, design, construction, and data collection for operations and maintenance.ArcGIS Pro software is used to teach core civil engineering topics throughout these projectphases such as zoning requirements and calculations, elevation surfaces, watershed delineation,earthwork volumes, and roadway profiles. Thus, the course covers basic principles to facilitate aworking knowledge of GIS, but also allows students to tap into the data revolution, leveragelarge spatial datasets to create sustainable designs, make informed
a M.E. and Ph.D. from the University ofCarlson, et al. follow this up with “… it is not simply enough Virginia in 1998 and 2000. His research areato teach students about handling incoming data, they must is nanoscale materials design and synthesis for catalytic applications with an emphasisknow, and practice, how to develop and manage their own on structure/property relationships and in-situdata with an eye toward the next scientist down the road.”[2] characterization.Federal agencies (e.g., NSF,[3] NIH,[4] and USGS[5]) are alsorequiring the submission of a Data Management Plan (DMP
a temporary marina dock ramp, allowing the temporary bridge to be returned toits proper use. This cadet-led project required geotechnical, hydrologic, and structuralengineering analyses and design prior to construction of the bridge, as well as the application ofconstruction engineering and management principles and methods throughout the planning andconstruction process. The cadet team followed Forest Service design parameters, includingmaking the bridge both wide enough and strong enough to accommodate ATVs for search andrescue missions. The bridge was also designed to accommodate the approximately 30,000 annualhikers on the popular McCullough Gulch trail. Cadets designed and analyzed the bridge duringthe academic year and constructed the
Department of Education’s academic standards specifically cite “TechnologyEducation” as an objective at all K-12 grade levels.11 Included in this set of standards are missivessuch as, “apply basic computer operations and concepts,” with minimal guidance as to how todesign and implement lesson plans to advance the student’s technical proficiency. While thisopenness enables freedom within curriculum development, it can also mean that technologyprograms are underdeveloped, understaffed and without the technical support needed to sustainsuch programs on a daily basis. To address these challenges, educational Fellows of the National Science Foundation’s (NSF)GK12 program have introduced a pilot program of computer-aided instruction (CAI) at two site
Debra Gilbuena is a graduate student in Business Administration and Chemical Engineering at Oregon State University. She currently has research in the areas of solar cell development through thin film technology, business plan writing and engineering education. Debra has 4 years of experience including positions in semiconductor manufacturing, propellant manufacturing, electronics cooling and sensor development, an area in which she holds a patent and has provided international consulting. Debra was awarded the Teacher's Assistant of the Year Award for the College of Engineering at Oregon State University for her work as a Teacher's Assistant in thermodynamics courses. She has interests in
into practice; not only the electronics portion, but working as a teamand planning ahead.” The HARP program was started in 2003 through an Indiana Space Grant Consortiumgrant, and has been the recipient of four consecutive grants for the continuation of the program,as well as matching funds from the Lilly Corporation, Taylor University’s Center for Researchand Innovation, and other INSGC grants focusing on research of individual components of thesystem. The program was recognized as having the potential to become a powerful new tool inTaylor University’s STEM curriculum from the very beginning: in the 2003 grant, theobservation was made that the program would be an asset to Taylor University students becauseof the requirements listed
build a nationally recognized firm in affiliate marketing, if not a globalpowerhouse. While the vision was a bold one for a 21 year-old undergraduate student, success ofother Hinman CEOs and alumni provided precedence and support. This vision and commitmentto growth parallels the literature review. The importance of planning is evident with Anik.Contrary to the literature, the relationships with other firms have not played a role in AffiliateClassroom’s growth thus far. Page 11.289.8 7 Table 2. Comparisons and contrasts of firm attributes Our
and saying “Fellas’ I am the truth, I’ll tell you what you are doingright and I’ll tell you when you’re making mistakes. Every team member knows right up frontthat not only will I tell them the truth-but I will do so as soon as possible,”(Krzyzewski &Phillips, 2000, p.75). This straight forward approach eliminates possible excuses or negativeadjustments. This can be is a valuable approach, because now your staff members know exactlywhere you stand-always with the truth. As simple as it may seem, the problem may fall back onthe manager (librarian or coach) because it only works as long as they are consistent and fair.The test occurs when a project sequence (library) or game plan (coach) goes wrong (assumingthe task is executed correctly
, ground station, andsupporting infrastructure; 2) comprehend the complex interaction and interdependencies of UASsubsystems; 3) understand mission operational planning considerations such as flight planningand data requirements planning; and 4) demonstrate the ability to clearly and conciselycommunicate a UAS mission analysis in both written and oral form. In addition, due to studentfeedback from its inaugural offering, this second offering of the course included the design,construction, and flight of an actual UAS in support of a selected remote sensing mission.While this 1-semester course was originally intended as a graduate class, its overwhelmingpopularity has resulted in it also being offered to seniors at UAF and now via video link to
that there werethree main curricular activities within engineering that had the potential to encourage EBR in theclassroom: the report to the client at the end of the unit, the types of questions the teacher askedof the students (i.e., asking students to further explain the “why” or “how” of their answers), andstudent discussions. However, this research did not address actual implementation of thecurricula. Mathis et al.18 explored students’ use of EBR during solution generation of anengineering design challenge in a seventh-grade classroom. The study found that students usedEBR most while planning a design idea and evaluating the tested design solution; also, instancesof EBR were found in student worksheets and group discussions. Both the
among Underrepresented Scholars through Engagement with the Sustainable Development Goals in Global ContextsIntroductionOpportunities to participate in international engagement experiences broaden students’perspectives and perceptions of real world problems [1]. A strong sense of “global engineeringidentity” can emerge when students are part of international teams that consider solutions tohumanitarian challenges [2], [3]. To encourage retention in engineering among undergraduateand graduate students from underrepresented groups, a multi-campus team of faculty andadministrators developed a plan to expose students to humanitarian engineering perspectiveswithin global contexts. Through the University System
and with number of engineers leaving theworkforce, which is particularly truer in the power industry1-4. Indeed too few engineeringstudents are studying or planning to study power engineering, further compounding to theproblem of power engineers’ shortages1-5. Preparing students for these career opportunities is achallenging task, further complicated because it must be accomplished using often limitedresources and within very stringent time constraints of the already crowded curriculum1, 5-8.Moreover, there also are new challenges due to the grid transition to the future smart grids and tothe increased use of renewable energy. Development and operation of the smart grids requireengineers to have not only a solid power engineering background
) award focusing on Predictive Plant Phenomics (P3). Our program aims toincrease agronomic output as highlighted by the National Plant Genome Initiative’s current five-year plan [NST, 2014]. Ph.D. training production levels and types are not always a good fit foraddressing complex technical and societal problems such as these. To train these scientists, theP3 NRT is using the T-training model proposed by the American Society of Plant Biology(ASPB) and described in “Unleashing a Decade of Innovation in Plant Science: A Vision for2015-2025”. This approach requires that students get broader exposure to multiple disciplines,work with industry and develop effective communication and collaboration skills withoutincreasing the time to graduation. This
communicating information, (3) planning and carrying out investigations, (4)analyzing and interpreting data, (5) engaging in argument from evidence, (6) developing andusing models, (7) using mathematics and computational thinking, (8) constructing explanationsand designing solutions.The first engineering epistemic practice is that engineering is a social field and requires real-world context [11], [12]. Engineers work directly with clients to develop a set of criteria andconstraints (time, money, resources, etc.) and to define the problem [8], [11]. Before any projectcan begin, engineers must see the problem in context [11]. Therefore, every EiE lesson beginswith a narrative which allows students to gain interest in the topic, understand the need
proceed andlessons learned compound to make change agents’ relationship to theory more complex, theoriesbeing used must often be adapted and morphed. Another panel contributor (Harris, 2019)experienced such a need in their transition to a new learning management system (LMS) at alarge, public university. They used Kotter’s leading change model (Kotter, 2014) to manage thechange project’s guiding philosophy and initial plans, particularly with respect to forming cross-disciplinary partnerships that would facilitate widespread adoption of the new system. However,while in the field, some of these philosophies and plans needed to be changed as the changeagents learned new lessons.Sometimes, the realities of a change project require change agents to
theircapabilities to exercise control over events that affect their lives” [21, p. 1175]. An individual’spersonal agency operates within social systems; agentic actions are therefore produce and areproduct of social systems [22]. Personal agency is achieved through the following capabilitiesintentional actions, forethoughtful perspective, self-reactive a form of self-regulation, andreflectivity [11]. Forethought in personal agency goes beyond future-directed plans because futureplans “cannot be a cause of current behavior,” and, “through cognitive representation, visualizedfutures are brought into the present as current guides and motivators of behavior” [11, p. 164],[16]. For a behavior to count as agentic, the individual must take intentional actions
extensive con- struction projects, organic farming, and currently works as a mechanical engineering technician designing and building automated production equipment at Smith and Vandiver. He plans to transfer to UC Davis after completing his studies at Cabrillo College. Upon receiving his BSME degree, Brandon would like to work designing machines and processes that address issues such as renewable energy, potable water systems, bio-remediation, and sustainable agriculture.Sarah E. Kalman, Cabrillo College Sarah Kalman is a civil engineering student at Cabrillo College. During the 2014-15 academic year she was selected to be part of Cabrillo College’s first Engineering Abroad Program. After the abroad experi- ence
sophomores and one first-year student.Administered via Qualtrics® Research Suite online survey software, the full survey consisted of14 items, including multiple choice (e.g., yes/no) and text entry (see all 14 questions inAppendix A). Three survey questions queried strengths of the CU Teach Engineering programand career plans, while five questions probed perceived differences between engineering andeducation programs and barriers to simultaneously navigating both disciplines. Other questionsasked students to briefly describe the use of engineering skills in education courses, as well asthe use of teaching skills from education courses in undergraduate engineering courses.To supplement the quantitative findings with a qualitative perspective
in Higher Education in China Feifei Zhong1 and Gene Hou2 1 Department of Engineering English, School of Foreign Languages Southwest Jiaotong University Chengdu, China, 611756 zhongfeifei@163.com 2 Department of Mechanical and Aerospace Engineering Old Dominion University Norfolk, VA 23529 ghou@odu.eduAbstract: This study aims to develop an effective curriculum plan to improve
economic, technological, and military goals, the Programs Economic Growth ModelChinese government relies on various state-directed plans. Military ModernizationThese plans provide insight into the kinds of knowledge, re-search, intellectual property, and trade secrets the countrytargets and seeks to acquire from foreign sources. At present, Academic Front CollaborationsChina’s government has as many as 100 plans guiding China’s Companiesforeign acquisition, and their scale and influence are impres-sive