conglomerate of former students that have gone on to prominent companies within theChicagoland and Northwest Indiana region. PNW has created great partnerships with theseindustries to help with potential work and projects. In return, many of the companies rely onPNW for interns or future employees.Since 2019, there is a 18% rise in projects involving industry within the CEMT program. This isattributed to the growing involvement of the industrial advisory board, combined with a revisionin the Senior Survey course to force students to branch out to different faculty members who canshare available projects they have with industry partners. This has led to more fruitful projects,better preparedness in the field for students, and the application of real
contentseamlessly integrates with the real-world environment. This technology operates by overlayingcomputer-generated information, such as images, text, or 3D models, onto the physicalsurroundings in real-time. AR adds a layer of digital content to the existing physical world [1],[2].On the other hand, VR immerses users in a completely simulated environment. VR is defined asa computer-generated simulation of a three-dimensional environment, accessible for explorationand interaction by users via application of hardware such as VR headsets or other immersive Proceedings of the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education
in practical skills, engineering technology students may strugglewith advanced mathematics. Despite these challenges, numerous fluid-thermo related topics havesignificant value for engineering technology students such as the first law of thermodynamics,thermal conductivity, thermal expansion, drag force, hydrostatics, and psychrometric charts, etc.Therefore, it is essential to adopt a distinct approach when designing fluid-thermo related coursesin engineering technology programs, distinguishing them from courses offered in otherengineering programs: i) emphasizing practical applications to ensure relevant and useful contentfor real-world scenarios. ii) prioritizing essential fundamental concepts and key principles ofsignificant importance
educational programs. The importance of incorporating IoT into engineering educationknows no bounds.Integrating IoT applications into engineering curricula offers multifaceted benefits. It providesstudents with essential skills for their future careers, encompassing IoT concepts like sensornetworks, data analytics, connectivity protocols, and cybersecurity. The proposed learning modelemphasizes hands-on experiences through project-based learning, engaging students in designingconnected systems and working on contemporary IoT projects. Potential industry collaborationfurther enriches their education, allowing them to gain exposure to real-world applications andchallenges, ultimately enhancing their employability. Eventually, this proposed learning
personal growth and to prepare them for real-world opportunities, along with being a conduitfor collaboration between academia and industry. Specifically designed to address a currentlyoverlooked opportunity, we created content to be equally accessible to secondary, post-secondarystudents, educators and those working within industry. Due to the length of each course modulemeasured in time and range of topics covered, the curriculum lends itself to flexibility in contentdelivery.IntroductionOriginating from Toyota’s Production System, Lean emerged post-World War II in Japan as atransformative strategy to heighten manufacturing efficiency. Taiichi Ohno, a pioneer in Lean,introduced methods like just-in-time manufacturing, waste reduction, and
courses and activities related to real world industry problems. Moreover,the ABET Accreditation Criterion 5 for Engineering Technology programs states that curriculamust include (among other requirements) “design considerations appropriate to the disciplineand degree level such as: industry and engineering standards and codes; public safety and health;and local and global impact of engineering solutions on individuals, organizations and society”[9]. Nevertheless, one of the concerns the faculty usually receive from industry partners is relatedto students lacking the knowledge and exposure to the industry standards and codes. Thisconcern is related to the dilemma of achieving both breadth and depth in 4-year engineering andtechnology programs [10
ETD 455 Processing Big Data Using Ignition Rabah Aoufi Texas A&M University, College StationAcquiring experience with real-world tools for students is certainly becoming a gauge foremployers to hire graduates who’ve had that experience. In the automation landscape, 70% oforganizations have at least piloted automation technologies, and 80% are looking to use toolssuch as automation and AI to improve productivity [1]. On the academic side, universities aresprouting programs to cultivate technical skills for the advanced manufacturing workforce. So
several reasons.Experiential learning allows students to apply theoretical knowledge gained in classrooms toreal-world scenarios. It bridges the gap between theory and practice, providing a more holisticunderstanding of electrical engineering concepts. Electrical engineering involves practical skillssuch as circuit design, troubleshooting, and equipment operation. Experiential learning providesstudents with hands-on opportunities to develop these skills, making them better prepared for thechallenges they may face in their careers. Real-world projects and experiments often presentunexpected challenges. Experiential learning encourages students to develop problem-solvingabilities by requiring them to troubleshoot and find solutions on the spot
of the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education ETD 515 Fig. 8. Microsurvey part 2, Q1-6 results.The second part of the survey, focusing on student perceptions of the VE and its impact onengagement, understanding, experimental abilities, and confidence in real-world application,provides valuable insights into the effectiveness of the VE in the fluid mechanics lab activity.91% of the students reported positive effects on their engagement with the course due to the VE.They found the interactive and immersive nature of the virtual lab to be
practicedbut rather might be referenced or mentioned with no applications. Also, labs for engineeringclasses are not offered separately, but rather they are partially embedded with the relevantlectures due to the hour’s limitations. There are always tradeoffs between delivering all thetheoretical knowledge relevant to the degree offered and equipping the students with all theindustrial standards relevant to real-world applications, while meeting the accreditation boardrequirements. Educators in the engineering and engineering technology fields always utilizeinnovative ways to overcome this dilemma. In this paper, the authors highlight the use of seniordesign and capstone projects to introduce and implement a lot of important industrial standardsthat
independence and improve their quality of life.Another significant area of research in mind-controlled systems is the development of braincomputer interfaces for communication and control purposes. BCIs enable individuals withsevere motor impairments or disabilities to communicate with the outside world and controlvarious devices using their brain signals. This can range from controlling a computer cursor,typing on a virtual keyboard, or even operating household appliances.Furthermore, mind-controlled systems have shown great potential in enhancing humanperformance and cognitive capabilities. For example, researchers have explored the use of brain-controlled drones or robotic systems for applications in search and rescue missions, hazardous
monitoring systems. LinMot actuator applications arepackaging Machines, assembly & handling systems, food productions, semiconductors,electronics, and CD/DVD. An example of LinMot actuator's real-world applications is shown inFigure 2.Fig.1. LinMot Linear Motor cross section [3].Furthermore, LinMot electromagnetic linear actuators provide better flexibility in the design ofproduction processes and production monitoring systems. Proceedings of the 2024 Conference for Industry and Education Collaboration Copyright ©2024, American Society for Engineering Education ETD 445Fig. 2. LinMot Actuator applications [4].Some of
certificate program that expands upon the growing world of zero energy. Ourmulti-facetted department includes, interior design, architectural technology, facilitiesmanagement, construction management, and electrical engineering technology, and all theseprograms will play a role in the creation of a certificate leading to a multidisciplinary capstonestudio course. The goal is to have student led multi-disciplinary design teams work together on avertical structure to achieve a Zero Energy building design. Combining the efforts of fivedifferent degree programs coursework, we are looking to give students a real-world experience ofgive and take amongst peers, project management, and design development. Incorporating thebuilding information modeling (BIM
andassessed on the ABET-required factors, including the exposure to interesting case studies fromindustrial disasters and scandals that made news headlines.This paper provides an introduction of the broad engineering ethics arena, focusing onacademia’s role teaching students the tenants and applications of ethics, in preparation forsuccess in the real-world. It details this university’s unique, creative, and comprehensiveapproach of teaching ethics to meet ABET requirements. A discussion on the difference betweenethics and morals follows, along with summarizing ABET’s ethics requirements. The bulk of thepaper provides engineering ethics and business ethics case studies used to support thecurriculum, which provide the students multiple (and never
students’ task involves designing a shell-and-tube heat exchanger to meet specificminimum requirements. The objective is to provide students with a real-world assignment thatenhances their heat transfer calculation skills. To accommodate instructors’ busy schedules, wehave developed an assignment that is user-friendly. Detailed instructor guides and materials arereadily available, making it convenient for other instructors to incorporate this assignment intotheir classrooms. Additionally, we have included some of the students’ written feedback on theactivity to offer valuable insights.IntroductionEngineers are renowned for their problem-solving abilities. Their work often involves tacklingcomplex, ill-structured problems, necessitating the
. Detect Compromises: 1. Tools and Practices: - Using various tools like Kali Linux for penetration testing, Burp Suite for web application security testing, deploying intrusion systems, and implementing Multifactor Authentication (MFA) aids in detecting unauthorized access. Applying Snort helps define any malicious network activity.D. Plan for Compromise Response: 1. Prepare: - Developing an incident response plan (IRP) and establishing an incident response team are foundational and practical responses to compromises. 2. Detect: - Monitoring for signs of compromise using intrusion detection systems and real- time log monitoring helps in
, mid-term and final exams, laboratory reports,and a final project. Each of these activities is weighted equally at 20% of the final grade. Thisassessment structure is designed to ensure that students' understanding of the course material istested in multiple ways, including theoretical knowledge and practical application in thelaboratory. The laboratory reports and final project provide opportunities for students to applythe concepts learned in class to real-world situations and demonstrate their understanding of thesubject matter. By distributing the weightage equally across all the assessment activities, studentsare motivated to perform well in each area, thereby achieving a comprehensive understanding ofthe course material
how the interconnection of machines, devices, sensors, and people connect the Internet of Things (IoT) and Internet of People (IoP) to form the Internet of Everything (IoE). 2) Demonstrate how information transparency is accomplished through tasks from the virtual and physical world. 3) Propose decentralized decisions based on the interconnection of objects and people, along with information transparency. 4) Assess the shifting role of humans operating machines towards a strategic decisionmaker and problem-solver role.To assist in achieving these learning objectives, a grant award was received from the Associationfor Iron and Steel Technology (AIST) foundation [7] to help with curriculum development. Theaward is
their critical thinking skills and ensurethey completed the assignment.In addition to fostering critical thinking, I have been relying more on ship visits and projects toprovide practical hands-on experiences, and real-world applications. Traditionally, EPO-125 hasa laboratory component that requires system P&I (piping and instrumentation) diagrams for vitalsystems aboard our 500-foot training ship. Recently I’ve gone a step further by requiringstudents to visually trace out and research shipboard components outside of class, providepictures documenting their time in the ships engine room and allot time in class to discuss whatthey found and learned. Figure 2 below shows a group of students engaged in experientiallearning while tracing out
studentsexhibited commendable performance, surpassing expectations in several instances. The wide-ranging array of assignments in the two courses, spanning topics from Stirling engines to theadvantages of water as an energy storage medium, compelled the students to venture beyondtheir comfort zones. This encouraged them to engage in critical and ethical deliberationsregarding their proposed solutions and to establish meaningful connections between classroomknowledge and real-world applications. It is worth noting that all the projects in Table 2 werecollaborative endeavors, fostering an environment where students could mutually benefit fromone another's strengths and compensate for their weaknesses. Proceedings of the 2024 Conference for