andthe importance of minimizing unnecessary network traffic. Successful connectivity among theDesktop computers will demonstrate the effective application of OSPF in real-world networkingscenarios.Security ACL Lab: Figure 19. Security ACL Lab with three desktops, a switch, and Main Router.Description:This lab introduces the principles of Access Control Lists (ACLs), which are crucial for networksecurity. ACLs enable network administrators to control the traffic flow and access within anetwork based on specified rules.Students will simulate an attack with a defensive action taken by the network administrator. Theentire network is one, flat network on VLAN 10. A Malicious User discovered that telnet to theRouter is possible with
. • Create virtual instruments using LabVIEW • Use data acquisition systems to measure physical quantities. • Gain good understanding of General Purpose Interface Bus (GPIB) communication devices and drivers.The following topics are covered during the semester: 1. Introduction to LabVIEW 2. LabVIEW programming 3. Building an application 4. Instrument drivers 5. Writing a DAQ program 6. Process control application 7. Physical applicationThe following are the laboratory projects that students perform during the semester: 1. Creating a virtual instrument (VI) and sub VI. 2. Use While, For Loops, and a waveform chart for acquiring data in real time. 3. Create a VI that takes a number representing degree Celsius and
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
real-world design process in an academic setting foraccomplishing engineering technology analysis and synthesis through of their projects. Therefore,we strongly believe a senior capstone project course may be the answer for integrating teachingand research of undergraduate education in engineering technology programs.Key words: Senior Capstone Project Course, NSF STEM, Undergraduate Teaching andResearch, Electrical Engineering Technology.Background of the Current Study in Integrating Undergraduate Teaching andResearchThe central rationale of the proposed activity, “Metropolitan Mentors Network: Growing anUrban STEM Talent Pool across New York City,” is to leverage the close proximity of multiplecolleges in the urban academic setting to
real-world design process in an academic setting foraccomplishing engineering technology analysis and synthesis through of their projects. Therefore,we strongly believe a senior capstone project course may be the answer for integrating teachingand research of undergraduate education in engineering technology programs.Key words: Senior Capstone Project Course, NSF STEM, Undergraduate Teaching andResearch, Electrical Engineering Technology.Background of the Current Study in Integrating Undergraduate Teaching andResearchThe central rationale of the proposed activity, “Metropolitan Mentors Network: Growing anUrban STEM Talent Pool across New York City,” is to leverage the close proximity of multiplecolleges in the urban academic setting to
dealingwith real world technological issues.For the past 20 years the principal author has taught a course, ―The Environment,‖ to non-engineering and non-science majors as a science core requirement. In Fall 2007 a section of thiscourse was taught using the traditional lecture method. In the other sections of the course,methods for improving the technological literacy of these students were developed. Four bestpractices were selected from these methods and taught to an experimental group in summer2010. The best practices are: (1) learning from three hands on and minds on labs, (2) use ofcharts and equations, (3) making students familiar with the top 20 bench mark numbers used inthe industry, and (4) acquiring knowledge about the commercial
. Page 13.2.2Problem DevelopmentA goal of Engineering and Engineering Technology professors should be to prepare the studentsfor a smooth transition into industry. Employers’ often communicate the need for graduates tohave a thorough understanding of how to integrate technologies and solve real-world problems.Practicing engineers rely on knowledge, experience, and research to lead them through a project.A young engineer, at the beginning of his/her career, is faced with many adjustments. A lack ofinsight reduces the confidence of the young engineer leading to the need for greater supervision.While companies that hire new graduates have a general expectation that additional supervisionwill initially be required, it is advantageous to all
project is that computer-basedsimulators will be increasingly used to apply classroom concepts to real-world applications. Inthis case, a virtual wind turbine can provide numerous realistic scenarios that allow students toengage in hands-on experiences that would be dangerous or impractical otherwise.National SignificanceDespite investment in wind energy, modern wind farms and individual wind turbines have loweroutput and uptimes than planned forecasts, leading to non-optimal return on investment [18].Improving the workforce will be one avenue to deal with these issues. There are currently over85,000 people involved in the wind energy industry [19]. They are all tasked with installing andmaintaining over 83,000 Megawatts of energy capacity in the
5: Course Roadmap for Technical Project Management 25Examples of How the Course Roadmap is Applied in What and How We TeachOur teaching and working with practicing engineers continues to inform and evolve what andhow we teach as we interact with students and their real-world projects. While we continue toteach fundamental project management concepts and tools, much more of our emphasis is placedon application of these tools and concepts in a project environment that requires a willingness toembrace ambiguity and turbulence, and to confidently, strategically lead their teams through astream of predictable and unpredictable challenges.Following are a few examples of how we have adapted our curriculum and its instruction to meetthe highly
responses but also the highest level of disagreement (6.5%) among all activities. Thislower rating can be attributed to the limited availability of equipment, as only two rebar tie gunswere available for all student groups to share. This suggests a clear area for future improvement -increasing the number of automatic rebar tie guns to ensure better access and hands-onexperience for all students.Promotion of teamwork and communication Application of theory in practice Real-world relevance Alignment with learning outcomes Clarity of instructions Confidence in reinforced concrete skills Adequate session duration -30% 0% 30
. This paper details the experiment’s time frame, setup,required protocols, sample results, and outcomes of student learning assessments. Developedthrough a rigorous process, this work can serve as a valuable resource for instructors looking toincorporate biochemical experiments into their courses while preparing students for careers inindustrial settings.ObjectivesThe bioreactor experiment was designed to provide students with a comprehensiveunderstanding of a bioprocess through hands-on experience with real-world applications. A keyobjective is to familiarize students with biochemical process equipment and the essential stepsinvolved in growing microorganisms while emphasizing safety aspects and aseptic techniquescritical to bioreactor
through obstacles withouttouching them (see Figure 5). The application consisted of 12 different tasks (i.e., obstacleavoidance). This application allows the authors to demonstrate how facial keypoint and skeletal data canbe used by a co-robot to provide real-time feedback to students in a controlled environment,while still maintaining some of the characteristics present in a real world application of a co-robot system in an engendering laboratory environment. For example, this application allows theauthors to control for the start and completion time of a task, while still providing students withreal-time visual feedback about the characteristic of the tasks and his/her performance aftercompleting the task. This enables researchers to control
any related work experience learning that is outside the isolatedacademic learning environment. They highly prefer graduates with exposure to industrypractices through internships, or relevant job experience. However, these direct employmentopportunities are limited, especially at community colleges given the short two-yearcurriculum. To address this gap in skill sets, a Fall 2016 report Titled “The Key Skills andCompetencies Needed for In-Demand, Entry-Level Tech Jobs in New York City” [2] states thatamong the top five sought after skills are: § Applied technical skills, or application engineering § Demonstration of technical skills in a “real world” setting § Students’ ability to identify essential requirements to solve problems
publishing process was: The opportunity to co-author and publish a scientific paper was: The opportunity to learn about professional organizations and networking in engineering and career opportunities was: The development of a sense of how your research contributes to scientific knowledge was: The development of ability to gain hands-on experience in real world applications was: The development of the ability to apply Cognitive Communications-related technologies to real-world problems was: The development of skills in assimilating latest research was: The development of skills in assessing your own research was: The development of skills in writing research results was
, with the improvement of internet technologies and hardware supports, wecan find that internet have become an important part in our daily life. Thus with theenormous use of the networks, many real world activities are now handled as WorldWide Web applications. Our focus in this paper is a complete conference managementsystem, we observe that in the last few years, several web based conference managementsystems have been developed and are being used by many international conferences allover the world. However, some of these systems are not available for free to theacademic community and some of them are restricted in terms of options and flexibilitythat they provide to the users. Some of the available systems do not support multipletracks in the
Modeling [9] interpret, and evaluate a another, advanced mode of representation [8,10] mathematical model (the model • Handling of functions in contextualised problems being a mathematized abstraction by interpreting them within a mathematical of a real-world problem) framework and relating the solutions to real-world scenarios (e.g., function maxima interpreted as the highest point reached by a projectile) • Can be integrated easily
-person courses into some online format via video conferencing tools like Zoom, MicrosoftTeams, or WebEx [13]–[15]. The rough adaptation led to a new high stressed virtualenvironment for instructors which they were not used to and many struggled with teaching aswell as capturing student attention [16], [17]. This has forced many instructors to re-evaluatetheir teaching methods and develop better methodologies to face the new era of hybrid learning.In this article, we discuss how the novel Design Thinking pedagogy embedded in ourengineering curriculum introduced students to the capabilities of computer-assisted methods indecision making for real-world problem solutions and applications. Furthermore, it can supportthe remote teaching/learning
and the breakdown of each assignment in the project (i.e. market analysis, business model…) • It was cool • The project was interesting and realistic data collection process was good to experience • Let’s you reflect on what I’ve learned • I liked the real world applications and going over data analysis techniques • It was well rounded, showed another side to research • I liked how we went through the whole process in regards to creating and running a study • Benefited senior project exploration, technical writing and formatting skills • Working on real world problems • Project based class • I liked how we had freedom to decide what we wanted to do for our human performance project, it
and IPSs to collect stateand inspect application-layer payloads in real-time. However, these systems are omitted in ScienceDMZ setups because of substantial impact on flow rates. Instead, high-speed networks can beprotected by a combination of router’s access-control lists (ACLs) and offline intrusion detectionsystems (IDSs) [4]. While there are plenty of instructional materials for enterprise firewalls andonline IPSs, learning materials for friction-free security are limited or non-existent. Firewall / security appliances Router Transport DTN / Data Security
1 Name of the university is hidden for blind review purpose. (Yousuf et al., 2010). In other words, the knowledge transmission depends upon the instructorand how he or she designs and delivers the material given in the text book. It has little correlationwith what is the contemporary need of the industry. The more recent learning approach that hasbeen widely adopted across all the majors is project-based learning, which provides environmentfor active learning (Bayles, 2005), and application of knowledge to solve real-world problems(Perrenet et al., 2000).In summary, while it is critical to have academic rigor based on theory offered by traditionaltopic-based learning, it is equally important to develop an innovative pedagogical approach
are you prepared to write a professional technical report and give a presentation if you’re asked to do so by your employer, after you graduate?The team’s response was highly positive regarding the experience and knowledge gained, as wellas their ability to think and be creative in their approach to solving practical real world problems.Following is a summary of their responses: The project introduced us to new concepts such as: effective use of C++ in a practical engineering applications, RFID, wireless network protocols, and Arduino. The senior design project allowed the team members to exchange ideas, think of alternative solutions and reach a consensus on the most practical ones. The
methodologies that willbenefit them as they encounter open-ended problems that can be conveniently answered using afew equations. A course developed at the University of Michigan exposed upperclassmenundergraduates in a wide range of engineering majors to a vast array of ideas to develop theircreativity, to enhance their problem solving abilities and to make them aware of issues they willmost likely confront in the workplace. The use of real-world examples, guest lectures fromindustry and a course project allowed students to directly apply the problem solving heuristicdiscussed in lecture and recognize that these concepts are not solely academic and can be used intheir daily lives. Initial feedback from the students has indicated that the students have
entering into their third year of a grant fundedby the National Science Foundation (NSF) which provides authentic research experiences inmaterials and manufacturing for community-based teams comprised of STEM educators fromurban, rural and underrepresented school districts as well as undergraduate and graduate studentsmajoring in STEM disciplines and STEM education. The assimilated teams workedcollaboratively with program principal investigators, research faculty mentors, STEM curriculumexperts and evaluators to engage in real-world research activities related to the manufacturing ofmaterials from natural products, medicinal plants as well as the scaled-up additive manufacturingof three-dimensional components for various industrial applications
global marketdespite rising labor costs. “From 2018 to 2020, global robot installations are estimated to increase by at least 15% on average per year (CAGR): 15% in the Americas and in Asia/Australia, and 11% in Europe. Total global sales will reach about 520,900 units in 2020. Between 2017 and 2020, it is estimated that more than 1.7 million new industrial robots will be installed in factories around the world. Due to the dynamic development of robot installations since 2010, the robot density in the United States increased significantly from 114 installed robots per 10,000 employees in the manufacturing industry in 2009 to 189 robots in 2016.” (1)This data refers to robotic applications, but the
. Projects that require the application of knowledgeleaned from lectures to real-world cases/projects are planned in the curriculum.For example, • after learning about function and mechanism of fire alarm system, students work on an assignment to further research effectiveness of fire alarms in various situations, including effective alarm system for people with disability. In this project, students are encouraged to propose innovative solutions to alert all kinds of occupants in a fire emergency. Some ideas include adopting built-in shaking alarms in a wheel-chair or bed, placing pre-recorded parents’ alerting voices as alarm in young children’s bedroom, etc. • after learning about using public announcement
teaching Six Sigma as a course project in ajunior level Electronics Engineering Technology course. Instead of using a lecture onlystyle of teaching, the Six Sigma methodology was applied during a course project. Over aperiod of seven weeks, the students learned and practiced Six Sigma theory and processes.They followed the DMAIC (Define, Measure, Analyze, Improve, Control) process toimprove a given design. Six Sigma tools such as Critical to Quality (CTQ), QualityFunction Deployment (QFD), Failure Mode Effects and Analysis (FMEA) and CriticalPath Method (CPM) were introduced to the students. The business aspect of the productdevelopment process was added to the technical design contents to make the project morelike a real world experience for the
of entrepreneurial skills into classrooms to motivate and provide guidance tothe nation’s future innovators. Today’s engineering students must not only be technicallyeducated, but they must also be aware of what it takes to bring their ideas to market. Thisincludes skills in marketing, production, budgeting, innovation and business analysis. Itis the collaboration between industry and academia that will teach our students to shapetheir ideas to fill real-world needs. Engineering entrepreneurship requires that engineers acquire a number of skillsthat are not normally present, particularly in new graduates. These include a number ofgeneral business skills related to accounting, marketing, finance, and others whereengineering graduates
shows inone extreme passive learners who view successful learning as memorization of concepts to passexams, and the other extreme consisting of fully engaged learners who see success in thelearning process as a change in self-perception and possession of new ways of seeing things inthe world. The transition stages in-between show a growing effort on the part of the learner to“make sense of concepts,” and to find some meaningful vital connections to the real world.The study conducted by Driel 6 focuses on a curriculum innovation project in higher engineeringeducation. The study is carried out against the backdrop of suspicions that the “lack of success ofmany innovation projects are due to the failure of teachers to implement the
level, has beenoriented toward engineering research. The change in this trend will be driven by real world Page 9.525.4demands on the engineering professional and the educational expertise of that professional. It is “Proceedings of the 2004 American Society for Engineering Education Annual Conference and Exposition Copyright 2004, American Society For Engineering Educationclear an engineer's education benefits from immersion in dealing with problems of the realworld, that is, education in the context of application, or context-based learning. This reform will be far more extensive than a simple update of course
University of TechnologyRekha Bhan Koul ©American Society for Engineering Education, 2024 Exploring coaches’ use of engineering notebooks in the FIRST LEGO League Challenge robotics competition (Work-in-Progress)IntroductionThe FIRST LEGO League (FLL) Challenge is one of the world’s largest pre-collegeeducational robotics competitions, involving over 225 300 students (aged 9-16) from 92countries [1]. Educational robotics competitions are typically designed to support students’development of 21st Century skills through their application of real-world engineeringpractices to collaboratively design solutions to real-world problems, such as transportationlogistics, space