eitherbe the host machine itself, or some other Linux-based target device such as the Beagleboard or Page 25.906.4Pandaboard [17].The details pertaining to real-time embedded applications are worthy of some comment,particularly since a common end application is for autonomous navigation of mobile robots. Theprocess is illustrated in Fig. 3. The start point is a user design in the form of a Simulink® model.When the user initiates a ‘build’ command, the Real Time Workshop automatically generates thecorresponding C code, as well as a ‘makefile’ which defines how to compile this code into a real-time executable. The VU-Kinect block provides the
constructivistapproaches. Furthermore, engineers must apply their knowledge in complex situations thatextend far beyond the borders of the classroom.Engineering in the real world is more than number crunching. It involves making decisions suchas making the appropriate assumptions, model simplification, material/size selection, costanalysis, etc. As a result, with the current lecture approach, students may learn to solve problemsand follow preset rules for a well-defined problem but lack the ability to transfer that learninginto additional situations. In particular, they may fail to see the connection between solving aproblem mathematically and real-world engineering application. Following the tenets of
studentsdevelop their engineering skills and understand real world applications. Figure 4 shows only halfthe students see relevance in ENSC2613. Page 12.1043.6 5 Field Relevance in Real World 30% 25% 20% 15% 10% 5% 0% NA Not at all A little Somewhat A lot A great deal Figure 4. Fall 2006 SALG
manufacturingenterprise that is appropriate to its market area on which to base the integrating manufacturingexperience for its program.The ideal model would be to actually employ the students in a real, product-producing company.Thus they would see on a daily basis the application of their learning to real productdevelopment, manufacturing planning and control, quality management, manufacturing processesand equipment, production and inventory control, automation, and other features of an integratedenterprise. A notable example of this approach is Focus HOPE in Detroit, Michigan.It is recognized that this may be impractical in many institutions. In such cases, the programdesign calls for the development of a very realistic model company.The pilot implementation
used in distance education, industry, andgovernment sectors. The technology capitalizes on the use of the World Wide Web and itsavailability in government, industry (87% of U.S. workers have broadband access1), academe,and most homes. The “Internet” was developed by scientists and researchers at DARPA in 1962,long before most people had any concept of what a computer was or could do2. Primarily usedfor research, this resource saw no real change for 30 years. In 1990’s the “World Wide Web”was developed by a group of people who worked on different components of this newtechnology to make the WWW a reality2. In the mid 1990’s, businesses saw potential profitfrom this network of people, and the Internet boom started with online companies and
Articulation of real connections none world Project briefing In-class time Project Various Project none Conducting Trial & error in none limitations limitations limitation
mindset is a construct that is illdefined and in flux. Thought leaders agree, however, that an entrepreneurial mindset is composed of a multidimensional and overlapping set of personal characteristics that support and map to the constellation of attributes and skills of an 7,11entrepreneur . For example, entrepreneurs must be aware of the shifting landscape around them. This requires constant curiosity that will drive a person to continually expand and update their understanding of the real world. It is this understanding of the world, gained through curiosity, that is the source of new opportunities, the generation of value propositions, and the recognition of when it is time
development of adaptive expertise in first-year engineering students within a “Design for Manufacturing” course. Adaptive expertise, theability to apply technical knowledge creatively and flexibly to unfamiliar challenges, isincreasingly essential for addressing complex, real-world engineering problems. This studyfocuses on how structured coaching and iterative prototyping facilitate the cultivation of adaptiveexpertise, aligning with Kolb’s Experiential Learning Cycle and key ABET outcomes.Motivation: First-year engineering courses are pivotal in equipping students with foundationaltechnical skills and problem-solving abilities. However, traditional engineering education oftenemphasizes routine expertise, prioritizing efficiency over creativity and
Institute ofTechnology, namely: Object Oriented Programming and Database, Instrumentation,Microcontrollers and Control Systems. This simulator will allow you to experience andunderstand important concepts related to these disciplines. Undoubtedly, the importanceand stature of the field of control are evidenced by the number of annual national andinternational meetings and conferences, publications (including textbooks) and, moreimportantly perhaps, its impact on industrial applications that touch the lives ofeveryone [3]. This simulator has the same objectives as mentioned [4]: • Demonstrating/validating/motivating analytic concepts. • Introducing real world control/modeling issues, such as saturation, noise, sensor
Course Using Design-Based Teaching ApproachAbstract: Introduction to Manufacturing Processes is one of the core courses in most mechanicalengineering, manufacturing engineering, and industrial engineering programs. The current coursecurriculum and teaching style mainly depend on the lectures for the manufacturing processes thatare aligned and synchronized with the laboratory work (project) to gain the required knowledgeand skills. According to students’ feedback for this course as well as similar courses offered at otheruniversities, the course is time intensive, involves no critical thinking, requires limited classparticipation, and is not well connected with real-world manufacturing problems
with the system viewpoint in mind.Also the homework assignments and class discussions were designed and conducted with thesystem viewpoint as focal point.There was no coding required, which was somehow unexpected especially for the softwareengineering students, as uncovered from the student feedback received during the semester. But, Page 24.127.6the class time was wisely used to relate all the covered material to real-world requirementsengineering projects. All course lectures were complemented with real-world examples fromsoftware and systems engineering area to familiarize the students with real-world projectimplementations. Also, the class
threeuniversities and an education research and consulting group. We are conducting research anddevelopment work to address the absence or lack of clarity in data science instruction acrossmultiple disciplines by using high frequency monitoring data from real-world systems to developand implement an interdisciplinary approach that enables undergraduate students to developrelevant data science expertise through disciplinary STEM courses. These courses includehydrology and civil engineering, environmental sciences, ecology, engineering statistics, and aninterdisciplinary undergraduate course in smart city applications. In this paper, we perform exploratory analysis towards a design-based research approachwith the goal of understanding how different
changes. 3) Employ a well formulated problem solving process to define, model, and solve basic real world engineering problems through quantitative and qualitative techniques. 4) Apply concepts from mathematics, basic sciences, and engineering sciences in order to devise systems, components, or processes that meet specific needs, especially those that serve human purposes. Page 6.343.2 Proceedings of the 2001 American Society for Engineering Education Annual Conference & Exposition Copyright © 2001, American Society for Engineering EducationThe Mechanical Engineering program has its own goals
projects, which appears to have increased their hands-on knowledge andskills with respect to advanced design and engineering analysis software.Introduction With the advancement of computer aided design (CAD) software and the user-friendlyinterfaces of engineering analysis packages for finite element analysis, computational fluiddynamics, and multiphysics solutions, engineering curricula are being revised to train industry-ready engineering graduates with up-to-date technological software and hardware.Implementation of advanced design tools allows students to learn rigorous hands-on tools andapply their knowledge to solving real-world design problems, with computational resources andcloud computing capabilities. At Howard University, the
technologist to meet the challenges of thecompetitive world of manufacturing. There is a need for highly trained engineering technologistwho have the knowledge and skills to work in this environment. Industry needs engineertechnologist-who have the understanding of basic manufacturing theory and the ability to applyknowledge that is relevant to the real world of manufacturing.Dr. Bob Lahidji is a assistant professor in the Industrial Technology Program at EasternMichigan University. His primary interest and expertise are in the area of manufacturingprocess and CNC/CAM. Dr. Lahidji has been involved with manufacturing firms as a consultantin the area of improving manufacturing processes. References
Mechanical properties Energy Psychrometrics Figure 2: Topics Divided along Traditional LinesFinally, an alternate approach was discussed and ultimately used to develop and structureME311. The idea behind this approach was to find and develop real-world case studies as afocal point for the course curriculum. The case studies would be systems that incorporateThermal-Fluid principles and applications and that are easy for students to understand andvisualize. The three case studies chosen for ME311, which appear in Figure 3, are an AH-64Apache Helicopter, the West Point steam power plant, and basic air
throughcollaboration between these objects, with the objects sending messages to each other. The keytheme of OOAD is that objects represent encapsulated sets of services (data plus functions)performed by the system. System requirements are represented in terms of interacting objects.That is, both the world of the client, and the world of the developer are modeled in terms ofobjects that collaborate with each other. One of the strengths of the OOAD approach is the lackof real distinction between problem analysis and solution design [5].Benefits of Object-Orientation: 1. Problem domain is modeled in terms of real-world objects. 2. Technology is designed to support abstraction, encapsulation, and generalization. These are key to managing complexity and
capable systems, and recent advances in policy by the FAA haveenabled a climate where UAS may be effectively used as a model for students in many age groups tolearn the SEDP and critical problem solving skills. A UAS SEDP project provides a stimulating hands-on active learning opportunity many students are seeking today. In addition, the application of UAS tosolving real-world problems provides intrinsic motivation to students and faculty alike, as well asengendering public support.The University of Alaska (UAF)[1] has broadly embraced the concept of active learning, supportinginitiatives to more effectively engage students, such as “flipped” classrooms where students take amore active role and responsibility for their education. The College of
in software development. If system designers usestandard software protocols over Ethernet, they could take advantage of a superfluity ofsoftware that's already installed on many of today's computers and handheld devices,without worrying about compatibility between multiple operating systems.Keywords:Ethernet transceivers, Embedded Ethernet System, TCP/IP, real-time operating system.INTRODUCTIONEmbedded Ethernet hardware and software development:Until recently, complexity has prevented many embedded systems designers fromdeploying Ethernet connectivity in their applications. This needn't be the case, the manyready-made reference designs available from various silicon and third-party vendors canhelp designers get a head start in embedded
schematics, Mechanical Engineering Technolo~y Lab (3 hours) Students were introduced to the concepts of Computer Aided Design and Computer Aided Manufacturing. Each student designed a simple machine part using the hands-on computer lab. Mathematics Lab (3 hours) This workshop provided an awareness of career opportunities in mathematics as well as the importance of mathematics in engineering and science. In relating mathematics to the real world, students were challenged to derive algebraically the horizontal distance of volcanic fallout. Students completed a BASIC program which computed the velocity and vertical and horizontal distances for nine layers of the atmosphere. Students then graphed the
can be found in Fig. 2. (a) (b) (c) (d) Fig. 2 SODOTO Outcomes (a) Kevin Crespo performed analysis on Gas Chromatography; (b) Leah Hoffmann analyzed Congo red sample in High-Performance Liquid Chromatography; (c) Evan Myers presented his progress on breaking PET plastics during a bi-weekly group meeting; (d) Noah Valverde presented his poster in Undergraduate Research Showcase.Student OutcomesThrough ten weeks of training, all students gained knowledge in real-world solid wasteproblems, experimental design and skills, and data interpretation. A pre- and -focus group surveyshows that the designed proactive activities helped students understand concepts and enhancedself
and clarity of action plans can be informative in assessing the depth ofreflection and ability to self-correct. In the following paragraphs, we describe our pilot run of theerror classification and progress planning exercise and observed results from last Spring.MethodsSystems physiology is a core curriculum sophomore level course that applies principles ofengineering to the excitatory tissue, cardiovascular, respiratory and renal organ systems. Thenature of the course requires students to utilize critical thinking and quantitative reasoning skillsto solve problems in living systems. Daily quizzes, problem sets, examinations and an open-ended proposal based on real world applications serve as assessments throughout the course. Theexams
P3 Page 25.1399.11 Design Competition is a chance to demonstrate why our project deserves the phase II grant, enabling our designs and ideas to become reality. This aspect of our senior design project is different from our peers. The design competition adds a level of pride that other projects may lack. Although most of the projects at our university do have a real world application associated with them, this project incorporates a hands on approach that goes beyond engineering. It deals with the involvement of sustainability, a business/implementations plan, multi-disciplinary collaboration, and healthy
well academically, and they had a cumulative GPA of 3.383. With respect to programs, the students have evaluated the seminars positively. The2008 freshman cohort reported that they were actively participating in many of the careerservices (Career Services Center - 88%) and academic assistance programs (Center for AcademicSuccess - 77%) that would impact their academic success, professional development and overallbalance of life.IntroductionFulfilling the need for college graduates in science, engineering and technology has beenidentified as a critical element in maintaining the United States’ progress and leadership in acompetive, technology driven world economy1. Unfortunately, overall enrollment in engineeringdegree programs has declined
’ that computer sciencedeals with is internal to the discipline and usually involves the development of an algorithm - areusable, mathematical structure that is sufficiently comprehensive and precise. While thealgorithm itself may yet be applied to some real problem, and the process of developing thealgorithm may also be applied to some problem, the science focuses on the development of thealgorithm. Its’ application, while motivational, is neither the initial intent nor a necessary part ofthe process by which it is developed.The patterns and operations distinguished and studied by computer science often have greatheuristic value for solving both scientific and engineering problems. The algorithms become, likedifferential equations, part of the
reality (VR), and asked to design a simple VR game. Nintendo Labo VR kits[13] were also utilized in the workshop. This section of the paper illustrates the design of theworkshop and the details of the development environment.Workshop Design and Its ExecutionDuring the first day of the 2-day workshop the participants were exposed to what VR is alongwith its applications including industrial and medical through a PPT presentation. Augmentedreality (AR) was also briefly presented with examples such as the Pokemon Go game for them tounderstand the differences between augmenting the real world with digital (virtual) images inthe case of AR or immersion of the user as the part of the real world into a virtual one in VR.Students were told that VR will
project management Page 15.1298.3and systems engineering competency models, and focus on what the participants need to enhancetheir own capabilities, knowledge, and skills. NASA APPEL utilizes best practices and unrivaledsubject matter experts to ensure the best and most appropriate leadership and technical educationis available to NASA professionals.NASA APPEL’s curriculum consists of a core curriculum and a wide array of in-depth courses,all of which leverage real-world experiences to reinforce learning and provide an additionalmeans of obtaining requisite skills. The core curriculum develops and enhances the essentialskills and knowledge
. Page 1.243.1 1996 ASEE Annual Conference Proceedings The principal features of IMPEC are as follows:• The courses are team-taught by mathematics, chemistry, physics, and engineering professors. Fundamental scientific and mathematical material is presented in the context of real-world engineering problems.• With the exception of a chemistry laboratory, the courses are taught in a single classroom equipped with PC’s that have real-time data acquisition capability. The classroom holds 36 students, which limits the enrollment in the curriculum.• The calculus instruction follows the Harvard Calculus format, emphasizing a true understanding of concepts as opposed to learning drills and
course intrusion. Depending on thenature of the course, there may be a second assignment to be completed after Module 2and/or there may be a final examination.Class size is targeted at 20-25 participants. Courses are designed to be highly interactive withcase studies, group and individual work, guest lecturers from academia and guest speakersfrom industry. While the academic standards are very high and the courses are academicallydemanding, as required for a masters-level program, course content is also designed to focuson "real-world" industry issues and applications. Page 9.264.4
different currencies, different culture and globalized resources and oldstrategies that worked before may not fit in.6. SummaryIt was recognized that an educational gap exists between traditional undergraduateengineering design education and the current market trends for employment growth.Manufacturing sector is experiencing a major shift from goods manufacturing to serviceindustries in the USA. Therefore a new course curriculum was designed and developed toincorporate service design as a key component of the curriculum. The course contentswere delivered via traditional text book and lecture method as well as case studies anddiscussions. Many real world applications were studied to identify service productopportunities for traditional