engineeringcompetencies. Figure 1 illustrates the problem under consideration and the target audience(organization’s leadership). The SCL represent leadership competencies of an organization’sleadership, and they are aimed at enabling leaders to deal with systemic challenges that arisefrom a target system of interest21. In such a way SCL competencies are differentiated from thetechnical systems competencies of the team members, which have been discussed in detail inSchindel et al.20. In order to put the need for such leadership skills into context, we briefly recalltwo real-world examples – one of which resulted in a costly failure, and the other of whichresulted in a success and therefore illustrated the benefit of systemic thinking at leadershiplevels
they occur during a typical classroom session. The system includes a mobiledevice application for the learner and a rich internet application for the teacher. The mobiledevice collects real-time feedback from students who use the mobile application to reportattainment of three learning metrics: comprehension, motivation, and interaction. Assessmentdata is pushed into a cloud repository where it can be analyzed and projected to the teacher innear real-time or archived for analysis after class. We share our experiences with lectureLess asemployed in two systems engineering courses taught by two different teachers. We includeaggregate trends in overall student reporting and discuss the viability of mobile devices for nearreal-time assessment. We
” problems.4 Strategic Assumptions Surface Testing recognises the benefits of various stances of a range of participative, adversarial, integrative, and managerial-minded stakeholders, and locates them on a certainty/importance scale. Page 25.191.3 Soft Systems Methodology is a most powerful technique for solving wicked problems es- pecially using rich pictures developed from many conceptual models of the real world, and enhancing these by using additional perspectives (or modalities)5 including faith, love, jus- tice, social intercourse, feeling, and sensory perception. These are especially relevant in
Education, 2019SENIOR DESIGN CASE STUDY: APPLICATION OF SYSTEM ENGINEERING CONCEPTS IN THE DESIGN OF A CNC ROUTER 1ABSTRACTSystem engineering (SE) is a multidisciplinary approach for the design, management, andrealization of a complex system. In product development, SE is utilized on structuring a productdevelopment process into simple and collaborative activities that proceed throughout the entireproduct life-cycle, while at the same time, supporting engineers’ decision making. Project basedengineering design classes are suitable for undergraduate students to study and practice theconcepts of SE while solving real-world design problems. In this paper, we document the productdevelopment process, especially the
, interactive video learning, and 3D/2D anima- tion. Professor Santiago recently published a book entitled, ”Circuit Analysis for Dummies” in 2013 after being discovered on YouTube. Professor Santiago received several teaching awards from the United States Air Force Academy and CTU. In 2015, he was awarded CTU’s Faculty of the Year for Teaching Innovations. Professor Santiago has been a 12-time invited speaker in celebration of Asian-Pacific Amer- ican Heritage Month giving multi-media presentations on leadership, diversity and opportunity at various military installations in Colorado and Wyoming.Dr. Jing Guo, Colorado Technical University Dr. Jing Guo is a Wireless Device Applications Engineer at Keysight Technologies and
systems engineering graduate levelcurriculum. This helps students understand and embed the efficient processes and proceduresinto real world problems. Students are tasked to pick a few tools and use them to address a reallife problem. The tools used in this study include requirements analysis, conformance,architecture development, and standards identification, use case analysis, analysis of alternativesand others. This process encourages learning the implementation of systems engineering in aneducational environment. This technique of educating students not only helps them learn andretain the material, but it also helps address important issues. It provides a broad systemsperspective to domain specific problems. Problem
that end, it is likely that the Systems Engineering area would be tailored to highlightcrucial skills for certain types of systems, operational contexts, etc.Critical Findings from Open Source LiteratureThe open source literature search identified three topics that are critical to achieving the desiredcapabilities in the context of real-world operations: 1. Non-determinism of real-world phenomena – the techniques and tools to perform mission analysis and engineering appear to be deterministic in nature [3] [5]; the real world is quite the opposite [6] [7]. 2. Explicitly accounting for systems operational availability Ao < 1 – systems Ao in real world scenarios is rarely “1” A relevant example is the operational
] L. Ljung, "Perspectives on system identification," IFAC Proceedings Volumes, vol. 41, no. 2, pp. 7172–7184, 2008.[15] G. Solomon, "Project-based learning: A Primer: When students are challenged to get to work solving real-life problems, the whole world becomes a classroom. Here we offer a guide for getting started. (cover story)," Technology & Learning, vol. 23, no. 6, Jan. 2003.[16] Y.-L. Huang, C.-Y. Cheng, and S. S. -J. Lin, "CIM: Capability-innovation- motive teaching model for system engineering education – ‘embedded operating systems’ as an example," International Journal of Automation and Smart Technology, vol. 5, no. 3, pp. 151–161, Sep. 2015.[17] J. C. Dunlap, "Problem-based learning and self
improved my skills in integrated 4.8 5 0.42mechanical-electrical-software design.The real-world application of the project 4.5 5 0.71motivated me.The open-ended nature of the project motivated 4.1 4 0.88me.Table 4. Undergraduate and graduate students’ ratings of statements after completion of the PBLactivity. Using a scale of 1 to 5, 1 indicates “strongly disagree” and 5 indicates “strongly agree.” Undergraduate Graduate
systems. We selected three key topics: systems dynamics, uncertainty andnetworks. These topics collectively provide means for studying non-linearity, feedback,interconnections, and ambiguity that characterize most real-world problems. Furthermore, thereis a rich body of literature and a fair level of maturity that exists for these topics.11,12,13Substantive and well-grounded material, suitable for undergraduate instruction, could thereforebe presented. Additionally, the application of these methods towards studying sociotechincalsystems is well developed and recognized not just in a theoretical sense, but also in actualpractice and real-world applications.4 The application of these methods and approaches towardsmodeling and analyzing systems with
Technology in Israel6-8.Generally, the purpose of the capstone design course is to provide students with the opportunityto work on a design project in which they can utilize their engineering analysis and methodologyknowledge acquired in other course offerings. One of the main learning objectives is to test theirabilities and knowledge necessary to successfully complete a real-world design project. Theliterature review identified several capstone design experience reports, which highlight thisimportant opportunity for students to develop their skills and learn about new productdevelopment. The outcome of capstone design courses is viewed as likely to offer creativedesign solutions that may, sometimes, result in the creation of intellectual property9
[21-31]. Figure 3 shows asample experiment developed at the networking level for WSN based sensing and datavisualization on PC. The full manual can be accessed from the website of the project [32]. Theset of NI WSN nodes bridges the gap between traditional DAQ and advances in WSN byallowing integration of DAQ design, data logging, visualization, and control in their graphicalprogramming data-flow based application development environment, LabVIEW. Figure 3 Network Level Experiment: WSN Sensing and Data VisualizationCapstone Design ProjectsThree project-oriented WSN systems were developed for real world applications: (1) in-doorenvironment monitoring, (2) smart vibration platform monitoring [33], and (3) smart homeenvironment
classroom that are relevant and applicable in the modern world. Students seldom learn structured techniques (beyond brainstorming) that can aid in the concept generation technique. • Approach: Provide a flexible procedure for students to work on a project related to syllabus topics and allow innovative design ideas to be researched and presented to the class. The students will use the NABC methodology along with biomimicry design principles to inspire innovation. A standard rubric will be provided for assessment. • Benefits per cost: Students benefit by demonstrating their ability to “walk the entrepreneurial talk” by becoming innovators related to a course topic. In addition, the students will
. Engineering education incorporates somesystems-oriented concepts through initiatives such as design and systems thinking [1] andconceiving-designing-implementing-operating [2], both of which emphasize elements ofsynthesis and taking a systems-level perspective in design applications.Transitioning design-oriented lessons to short-duration classroom activities is challenging due tolong timescales and high costs typically associated with real-world product lifecycles. This paperintroduces a series of hands-on classroom activities to introduce participants to systemsengineering concepts by simulating product design and manufacturing processes using LEGObricks. Classroom simulations provide an opportunity for play—“a fun, voluntary activity thatoften
thecomplexity of solving this problem. Not only is SDR a somewhat complex solution, complexityincreases with an increasing number of agencies involved trying to work with each other.Testing and verification of these solutions in a real world training situation will help to measuresuccess, gain valuable feedback and create a roadmap for interoperability solutions.These issues, in concurrence with the SDR technology, standards and procedures should also bepart of any systems engineering solution. Excluding them in any analysis would be shortsightedas without these considerations, even the most technically superior solution will fail.Case Studies and Use CasesThe use case and after action reporting that best illustrates the problems in interoperability
seeing examples of the application of the materials to real-world problems. In thispaper, we will describe some of the tools and activities that were used to design a women’shealthcare center for providing healthcare services in a one-stop, spa-like environment. The casestudy was used to help students learn and apply systems engineering tools and methods.Keywords: Systems Engineering, Case studies, healthcareIntroduction:Over the last nearly 100 years, Systems Engineering principles, methods and tools evolved fromseveral engineering related disciplines. The concepts, methods and tools of Systems Engineeringare becoming more important due to many internal and external factors affecting organizations.Some of these factors include: increasing
entails the literal looking at art images and comparing them for various aspects. One example is comparing ancient Egyptian and Greek sculptures. This is analogous to comparing various systems engineering models. 5. Games - Modifying games such as Jeopardy and Bingo are ways to engage teams or the entire class in reviewing lectures for the class. Students respond to the aspect of competition and can become very engaged16.MusicArts teachers continually reiterate the importance and value of the arts in the lives of students. Tomake systems engineering interesting, the instructor needs to find and use examples of theimplementation of systems engineering in real world applications. Learning objectives in musicclasses include
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
and based on the IRR analysis, would you like to invest in the projects of this company.WARNING: In real life, any decision on whether to invest or not, will depend on more factorsthan those presented above.Discussion and Future DirectionsThis engineering economy module for nanotechnology has been designed in order to introducethis new innovative field to undergraduate students from an economic standpoint of view. Sincecommercial applications of nanotechnology are still in its infancy, data from financial literatureis speculative at its best. Therefore, we focused solely on nanotechnology based small andmedium enterprises (SME’s) listed at NASDAQ. This was because their business is exclusivelybased on nanotechnology and their financial
. Olowokere1 and Abayomi Ajofoyinbo2 1,2 Department of Engineering Texas Southern University, Houston, Texas, USA Email: olowokeredo@tsu.edu1; ajofoyinboa@tsu.edu2;AbstractIn the recent literature, researchers have investigated the mismatch betweenteaching and learning styles with different research objectives. This paperpresents a framework for integrating intelligent sensor real-time measurementdata into engineering education for innovative practice-oriented learningenvironment. In this integration framework, intelligent sensors are deployed onLocal Area Networks (LAN) in engineering laboratories to measure physicalquantities that may be used for classroom
; Validation Utilization Needs Requirements Design Development and Support Retirement (V&V) Figure 1. A General Life-cycle ProcessWhile systems engineering processes are utilized in real world engineering problems, theseprocesses are also applicable to develop K-20 educational curriculum. In K-12 education, asystematic process known as the Backward Design approach is utilized.10 The Backward Designapproach is a tool used in elementary and secondary education to develop curricula and teachinglessons. The process involves the following phases: (1) determination of learning outcomes, (2)development of
, utility functions, and admissible input data).The judge should be an impartial senior engineer with relevant technical expertise and broadexperience. Disputes regarding appropriate decision rules and data are inevitable in, and indeedan essential element of, the adversarial process, and a central decision-maker is essential to Page 26.1048.7ensure the process can proceed to completion. This is because even the simplest of decisionrules are incomplete when applied to the complexity of the real world, and hence interpretationof those rules is always open to potential debate. Resolution of such disputes inherently resolvesto the application of
Communications, Leadership and Motivation, andAccounting and Legal Issues for Mangers. In addition, at the heart of the professionalscience degree is the 250-hour internship that students are required to perform at the endof their course work. This internship allows students to gain real-world workingexperience in an industry setting while performing a company specified project. It alsogives students the opportunity to network with future employers. The MSPS program andthe internship process have garnered recognition both at the local and national level. Thesuccess of the program is further illustrated by the fact that the program has a 95%graduation rate and more than 70% of its graduates are employed by the companieswhere they completed their
Engineering CurriculumAbstract“Systems engineering” is concerned with the effective management of complex systems over theentire product lifecycle. Good systems engineering practice is essential for the effective design,fabrication, testing and operation of complex systems, such as spacecraft and aircraft.However, teaching good systems engineering to undergraduates is often viewed as either impossible(because “true” systems engineering capabilities must be developed in real, professional settings) orimpractical (because it requires sophisticated tools that are best covered at the Masters level). Whilewe do not dispute that years of practical experience and solid technical fundamentals are necessary tomaster the concepts and application of systems
recognized. Inexample, the National Science Foundation has successfully sponsored the National EcologicalObservatory Network (NEON) for examining continental-scale ecological change over time.This network provides planners with ecological data to help identify potential problems causedby development. Additionally, many government agencies have installed high-tech surveillanceand monitoring systems for traffic control, natural disaster monitoring, and assets management.The private sector also contributes to identify sustainable development issues. IBM hasestablished a Smarter Cities Challenge Fund to help 115 cities in last four years to address thekey challenges facing urban cities around the world. In these examples engineering is playing acritical
Robotics Laboratory in an Industrial Engineering ProgramAbstractRobotics is the study of the design, manufacture and application of robots used in a variety ofexisting systems or systems to be created. The impact and benefits of robotics in education at alllevels have been documented by many researchers and educators all across the country, as wellas, the world. Several universities have developed robotics programs which provide uniqueopportunities for students to learn about robotic systems through coursework and conduct high-level research. When these courses are combined with hands-on laboratory modules, roboticsprovides a means for student to utilize their analytical skills learned in other Science,Technology
interest in engineering; 86% reported moderate to greatgain in confidence that they understand the material; and 83% indicated moderate to great gain inunderstanding how engineering helps people address real world issues. Figure 2 provides asummary of responses to the questions related to student affect.Class impact on your attitudes 3. As a result of your work in this class, what GAINS DID no gains a little gain moderate gain good gain great gain not applicable YOU MAKE in the following? 3.1 Enthusiasm for the subject 3.2 Interest in discussing the subject area with friends or family 3.3 Interest in taking or planning to take additional classes in this subject 3.4 Confidence that you understand the material 3.5 Willingness to seek help from
-based conceptualizationframework applied to the teaching and learning process, particularly in undergraduateengineering.We begin by presenting a “traditional” setup using classical control theory. We map thefundamental elements of the process (instructor, student, tasks, etc.) to key aspects of the controldiagram (controller, plant, sensors, actuators, communication pathways, etc.). While thisframework provides us with an initial conceptual mapping, we outline various limitations in itsability to capture real-world applications to teaching and learning.Next, we refine our model by turning to a more recent field of research for controls engineers:Networked Control Systems (NCSs). We provide an introduction to networked control systemsand
thestudents’ level of systems thinking skills (STS) and offers a starting point to better understandstudents’ capacity to engage complex multidimensional problems. The proposed VR gamingscenario will ask students to understand, investigate, and analyze the provided real-world complexsystem problem. The VR gaming scenario measures an individual’s systems thinking skills basedon their approach in solving and dealing with authentic complex system problems. The VR gamingscenario is built based on an established system thinking instrument that consists of sevendimensions: Level of Complexity, Level of Independence, Level of Interaction, Level of Change,Level of Uncertainty, Level of Systems Worldview, and Level of Flexibility. The purpose of thisstudy is
performance tuning.Feedback: Based on the survey data collected and shown in Table 3 and 4, students believe thatthey have learned some basic HPC concepts and definitely increased their interests in HPC area.Most of them think that they know a great deal of real world HPC applications, and believe thatthe HPC knowledge will help them better solve problems and be more marketable aftergraduation. They would also like the HPC knowledge to be included into more courses. Forexample, some of them think “the class project needs more knowledge such as advanced datastructures, and algorithms,”“Linux programming environment is also important to implement theproject on a cluster,” and “the new technologies in HPC such as MapReduce, PGAS, Spark areinteresting