context of the experiments by explaining related theories, utilityvalue and relevance of the experiments to the real world or engineering practice.As an example, a pre-lab module has been developed for a second year chemical engineeringexperiment involving the synthesis of the active ingredient in Aspirin. The module has fivevideos with a total duration of approximately twelve minutes. The videos explain the reactionmechanism of ester hydrolysis and acetylation, and provide a justification for procedural steps byexplaining what is happening at the molecular level. For example, it is explained why cold wateris added at one step, or why sulfuric acid is needed. Examples of various applications of some ofthe techniques and reactions are also given
communicators and, therefore, teachers must be able to: (i) engage students emotionally,(ii) demonstrating their profound mastery of the subject at hand, and (iii) present new ideas withclarity and cogency. Aristotle’s advice to contemporary college instructors might be that theyshould present real world cases that demonstrate the utility and efficacy of the material being pre-sented as well as exposing students to theory and problem-solving protocols.More contemporary learning theorists, like David Kolb10, argue that humans learn best when theyengage in learning that complements the way that the human nervous system processes experi-ence. He suggests that deep and more durable learning occurs when students are given an oppor-tunity to encounter
engineering problems related totheir disciplines. This program, known as “Academic Individual Advanced Development” orAIAD, is vital to the educational development of cadets and provides them with an opportunity toparticipate in activities beyond baseline requirements. The AIAD opportunity is designed tofacilitate interaction among cadets and military and/or civilian organizations for a three-to-fourweek period and discover the “real world” applicability of their academic endeavors here atWest Point.These experiences broaden student perspectives and provide them with practical advancededucation related to their professional responsibilities as student leaders and futurecommissioned officers. Participating organizations gain by having additional
commitment is more palatable for their first venture into research. At the end of those six weeks, these students may be surprised to find that they have caught the research bug and actually like it.Regardless of why it appeals, our CISTAR REM combined program provides a paid summeropportunity where participants can get the best of both worlds. Thus, the program casts a wider netfor broadening participation, bringing into the research lab those students who may not haveotherwise participated in a traditional 10-week summer research program.Critical Design Elements of CISTAR’s REM ProgramExcept for CISTAR’s requirement that NSBE SEEK accept the applicant as well as CISTAR, thetwo programs are administered separately. Thus, the focus of this paper
complete experiment environment with virtual instrument panels, and it iseasy to use. We can design the experiment interface by drag and drop.The transition from Simulink to the dSPACE real time world and back is transparent as we usethe same virtual instrument parameter sets and automated test loops10. Matlab, with itstoolboxes, is selected because it is the main software package used in many undergraduatecourses in our university. Therefore students can easily access Matlab, and most of them alreadyhave the basic programming skills needed to use the given Simulink models and to writecomputer programs when required before coming to the electric drives laboratory class.Description of Collaborative Learning Method Implemented in the Electric
curricula include exposing cross-disciplinary students to sustainability related research, science and policyprincipals, and real-world construction problems presented by industryprofessionals.From a pedagogical perspective, the development of the proposed structuredsustainable construction course would lay the foundation for additionaldepartment-specific or university-wide marketing sustainability-related courses(Sheth, J. and Parvatiyar A. 1995). Results could also be used to create anadditional sustainability focus area within the departments and develop faculty-led seminars and workshops. Continuing education courses could potentially beoffered by TAMU System units. For example, the Texas Chapters of the U.S.Green Building Council have recently
introduction of WAAS. In today’s world increased resolutiontechniques that yield high precision remain of great interest for specific tasks such as surveying,navigation and other exacting work. Additional methods used in these applications includeprecise differential GPS5 (PDGPS) and Realtime Kinematic6 (RTK).IV. GPS Receiver HardwareComponent-based (rather than stand alone systems) consumer grade GPS receiver hardwarevaries along two primary development axes: (1) the electronics and firmware used for generatinglocation estimation and (2) the user I/O interface technology. Due to the popularity of GPS,developments along both axes are quite active.There are a number of semiconductor companies that fabricate GPS receiver chipsets, theseinclude SiRF
lab procedures… for now, I’m completely fine with just doing lab stuff… eventually [I’ll be ready], just not right now.” Suki “To be honest, don’t think that in the first few years of college, any project you do as a final project for a class is going to be super innovative and applicable to the real world.”Reasons for this attitude are varied - one student (Haru) had very little exposure to circuitdesign before college, and they explained that completing the procedural labs in theintroductory course was already difficult enough; attempting an open-ended project appearedto be a daunting challenge to them. Another student (Suki) told us that they viewed theircollege years as
cybersecurity curriculum. The paper first reports thesuccess of delivering a cybersecurity curriculum designed based on a framework consisting ofintroducing a topic, followed by a real-life application practice lab. The authors also describe theplatform developed to support the framework. These labs were deployed outside the universityIT infrastructure and successfully supported hands-on-practice, and practical experience theindustry expects of graduates. [8]In teaching cybersecurity classes for the last two years, the authors found that students learn bestby doing hands-on exercises immediately after a security concept is introduced in the lecture.The more traditional lecture followed by a different day for labs, often with only TAs present,has shown
Annual Meeting – College Industry Partnership Division Columbus, OH June 24-28, 2017AbstractThrough traditional education associated with engineering disciplines, students areexpected to become familiar with fundamental engineering design and principles througha series of engineering materials explanations, stages of assignments and class projects.The usual knowledge flow offered to engineering students is based on a step-by-stepprocess taught by faculty using text books. Design solutions to real world problems oftenrequire approaches that cannot be obtained from traditional text books, such as theformulation of meaningful ideas, setting realistic design requirements, learning to
execution. At the School ofEngineering (SOE) of the College of New Jersey (TCNJ), the best practices for promoting seniorproject quality and evaluating quality is an ongoing process and effort and such practices arecontinuously reviewed, evaluated, and improved. The SOE's efforts and most recent approachand revisions to promote project quality and evaluation practices for capstone senior designproject activities are presented.The elements emphasized and adopted uniformly by the SOE to promote project qualityincluded: a) early involvement of the students (in junior year), b) introduce projects with real-world engineering design problems encompassing considerations of sustainability andinvestigation of design alternatives, c) multi-disciplinary
and microprocessor-based systems.In addition, electronic instruments such as power supplies, function generators, digitalmultimeters, and oscilloscopes must be available to allow the integration of hardwareand software in an environment that addresses real world applications. The DSLconsists of twelve workstations and supports a class of 24 students. The logic analyzersand PLD programmers will be placed in such a way that each of these units is shared bytwo workstations. The computers are networked and connected to the Internet. Detailedinformation about the major equipment follows.- Computers (OptiPlex GX270T): Pentium 4 processor, 3 GHz, 1 GB SDRAM, 19” Dell UltraSharp 1901FP, 120 GB hard drive, Ethernet 10/100, 2.4X8 DVD- RW
alternatives, an increasing amount of interest is being given to UNIX on thePC desktop. We offer some of our observations on the suitability of freely-available UNIX (andUNIX-like) systems for a variety of activities commonly associated with the personal computerdomain, with particular emphasis on inter-operability across various system platforms. Includedin our discussion are the increasingly-popular Linux, which can be used on many different typesof computer hardware, FreeBSD, and Sun Microsystems’ Solaris. In addition, we discussAT&T’s U/WIN system, which provides robust traditional UNIX services, and facilitates the useof many so-called open-source applications, on personal computers running Microsoft Windows.IntroductionOur goal for this
ofhuman commerce and endeavors.Presently, formal education in these innovative Internet applications is lacking. Cisco, through itsonline Networking Academy offers a short overview course about the Internet of Everything(IoE) and has announced its intent to offer more online courses about the topic. However, accessis restricted to colleges that belong to the Cisco networking academy program. IBM has recentlylaunched its Internet of Things Foundation that offers business and industry partners, as well as,educational entities, development tools to implement and test out their IoT applications with thefurther ability to visually display acquired data in real time. However, as of yet, most collegesthat offer engineering technology education at the
instruction and real-world application. Studies show that participation incompetitions fosters critical thinking, problem-solving, leadership, and teamwork skills [1, 2].Additionally, competitions provide opportunities for networking, exposing students to industryprofessionals and enabling them to build relationships that are instrumental in their careertrajectories [3, 4].Competitions also improve students' self-efficacy and confidence in their abilities. A study byHaidet, et al. (2014) concluded that students who participated in team-based competitionsexhibited greater confidence and competence in handling complex problems [5]. Furthermore,competitions provide a platform for students to demonstrate their talents and gain recognition,which can lead
, virtual methodsemploy computer-based techniques such as 3D animations and simulations, virtual reality andaugmented reality tools 11 .Project DescriptionIn this project, we employed a tangible training model using the augmented reality technology tosupport students in enhancing their spatial skills. Augmented reality is a technology that allowscomputer-generate imagery (text, images, 3D models etc.) to be overlaid onto a live video streamof a real-world environment 12 . In AR, the real environment is extended with information andimagery coming in real-time from the mobile phone or tablet. The AR application monitors thecamera stream constantly to detect and track the marker (or target) image. As soon as it detectsthe marker image in real-world
all futurists now—practical futurists, trying to map the shortest path between today and a point not that far in the distance.”) • Silberglitt, R., P. S. Antón, D. R. Howell, and A. Wong, 2006. The Global Technology Revolution 2020, In-Depth Analyses, Technical Report, RAND National Security Division. (Reports on the results of a study that identified “technologies and applications that have the potential for significant and dominant global impacts by 2020.”) • The World Future Society, http://www.wfs.org. (The World Future Society is “an association of people interested in how social and technological developments are shaping the future.” Publishes the bi-monthly The Futurist.) • Toffler, A
process signals from a wide frequencyrange. Analytical Explanation: Following the interaction phase, students engagein the analysis stage, where they explore the underlying mechanisms of RF signalpropagation, decoding, and interpretation. This phase is designed to deepen theircomprehension of real-world applications of RF communication principles whilepromoting the development of critical thinking and problem-solving abilities. Comprehensive Assessment: The final phase involves evaluating students’ grasp ofRF communication concepts through a series of assessments. These could range fromtheoretical quizzes to practical tasks, such as optimizing signal reception or developingintrusion detection systems for wireless networks. This stage is crucial
example, instructors might encourage students to use AI in group projects to analyze data sets, generate design solutions, or create multimedia presentations. Such activities enhance learning through practical application and prepare students for the collaborative, technology- driven work environments they will encounter post-graduation.5. Adapting Assessment Strategies. To align assessments with the capabilities afforded by AI, instructors might adopt innovative assessment strategies that focus on process and creativity rather than rote memorization or straightforward problem-solving. This could include open- ended projects where students must apply AI tools to real-world scenarios, reflective journals documenting students
weightratio to win the competition. In addition, students get to improve their entrepreneurial mindset byapplying Kern Entrepreneurial Engineering Network (KEEN) learning objectives on curiosityand creating value via investigating multiple truss bridge systems and selecting the superiordesign through NABC approach. The direct assessment was conducted by rubric evaluation andan anonymous survey was used for the indirect assessment of the project. The students’feedback indicated that they enjoyed the real-world application of the project and liked beingable to learn how to analyze trusses using professional software and apply their learning to anactual design.IntroductionProject-based learning (PjBL) has been widely used in engineering education
technical and social benefits that strengthen the comprehensive training offuture engineers.Literature ReviewService-Based Learning (SBL) is an educational methodology that integrates academicinstruction with community service, allowing students to learn in real-world contexts whilemaking meaningful contributions to their communities [13]. Over the past decades, thismethodology has gained relevance in higher education, particularly in disciplines likeengineering, due to its ability to develop both technical skills and transversal competencies,such as communication, leadership, and social awareness [10-11].Numerous studies support the effectiveness of SBL in connecting academic learning withpractical application, promoting students' holistic
Session 2358 The Intranet Web: Short on Distance - Long on Education Gregory M. Dick University of Pittsburgh at JohnstownAbstractThe World Wide Web and Electronic Mail List Servers are Internet communications toolsavailable to educators at most colleges and universities. This paper is a case study of oneapplication of these tools to the education process; it represents the first step in the process oflearning how to prepare effective, Web compatible multimedia presentations.IntroductionThe Internet is a global data communications infrastructure. The use of Internet
thinking focused on deciding what to believe or do”[9, 13]. Facione [2] expanded uponthis, suggesting that it is a purposeful, self-regulatory process that involves interpretation,analysis, evaluation, inference, and eventually explanation. Halpern (2014) highlights thecognitive and dispositional dimensions of critical thinking, emphasizing metacognition and theimportance of fostering critical thinking across all disciplines and contexts.The context of engineering changes the application of critical thinking to some extent. Problem-solving of complex, real-world scenarios is often tied closely to critical thinking[16, 18]. Asengineers operate in their field, they are called upon to employ structured and adaptive solutions.The application of
real-world hydraulic and pneumatic applications. Building on initial work [1], thepresent study adds indirect assessment for both courses, previously unavailable direct assessmentin Thermodynamics, and additional data points for indirect and direct assessment in FluidMechanics.Fluid-power based modules for Fluid Mechanics and Thermodynamics courses were developedfor potential continued future use that utilize active and collaborative learning (ACL), problem-based learning (PBL), and entrepreneurially-minded learning (EML) techniques to teach coreBSME content while also creating awareness and engaging students in the area of fluid power.Active learning requires that students participate and discuss issues or work problems in theclassroom
developing new research, development, and applications programs supporting government and private industry in product / process design improvements based on new rapid applications software, enhanced constitutive models using multi-scale concepts, and software verification and validation based on real world applications. 2003-2007: Director, Center for Advanced Vehicular Systems, Extension, Mississippi State University Developed and implemented strategic plan and operational concept for technology transfer of R&D products developed at Mississippi State University to Nissan, Tier-1 suppliers, and small to medium size industries in Mississippi. 2001-2003: R
stronger for female students and“inventing something new” was stronger for male students (2013). Engineering programs’student retention research done by Amelink and Meszaros indicates that female students valueconnecting with other females with a passion for engineering and participating in studentorganizations and in study groups; “females explained that it was the intrinsic benefits receivedfrom participation in such programming that served to encourage them” (2011). Both female andmale engineering students expressed frustration that it was “two years into the degree programbefore they had a chance to begin making connections between coursework and applying theknowledge they learned in entry-level classes to real-world problems” (2011).Problem
electrical machinery fundamentals. The course also includescomputer simulation of energy systems via use of MATLAB-Simulink SimPowerSystemsmodeling, and the simulation of vehicle applications using Vector CANoe vehicle software.The laboratory component uses several major resources. An electrical machinery laboratorysupports electrical machinery testing, single and three phase systems, and energy transfer. Aneddy-current vehicle chassis dynamometer and access to a test vehicle also enhance the vehicletesting instruction. The dynamometer controller is an industry standard control system withLabVIEW Real Time data acquisition and control software and hardware. Performanceindicators can be acquired via the dynamometer instrumentation, additional
to apply the theory to solve real world problems.10 Effective teaching requireseffective teaching tools. Active learning tools complement lectures and make class delivery moreinteresting to the learners.11Case studies can be used to contextualize theoretical concepts.12 It has been shown in manystudies that the benefits of case studies are derived from their interactive nature and the shiftingof emphasis from teacher-centered to student-centered activities.9, 10, 13, 14 Manohar et. al. statethat case studies are effective educational tools for introducing real-world professional practicesinto the classroom which would help the students in identifying and solving problems, anddeveloping a perspective on knowledge application.15 The benefits
cyber security where it can be utilized for further discoveryof new cyber security concepts. This reduction of complexity is accomplished by providingaccess to necessary information to get started, thereby enabling users to learn by experimenting,gaining practical experience, and learning the real-world applications in an effective manner.The educational advantage of the Antenna Calculator tool is that it would provide students withaforementioned practical experience in complex RF concepts in an approachable and accessibleway as well as decrease the intimidation factor that can often accompany learning new subjectswith significant pre-requisite knowledge. This tool can be integrated into the existing curriculum,allowing students to gain a
an opportunity to apply this newknowledge to ‘real world’ applications. As shown in Table 1 and 2, the project requirementssupport the expected outcome, which is the familiarity with the ‘language of materials science’highlighting the correct use of vocabulary and application of basic concepts. As outlined in thefollowing sections, preparation and logistics for both the instructor and the students are essentialto success of this learner-centered activity.i. Topic selectionTo engage the class, the instructor requires each student to select a topic or area of investigation Page 10.1485.3that is of interest to them personally. Often