a real-world scene) to highly interactive, computer-generated simulations. The benefits of fully immersive VR are well- documented, particularly in therapeutic and educational contexts. Research indicates that immersive VR can enhance learning outcomes and facilitate
encouraging and fostering new technical development, and the engineeringeducation community needs to evaluate its role in this process6.There are many recently documented examples of electric vehicle applications withinengineering education. Three course experiences on instrumentation, electric vehicles andproject activities were reported by Rizkalla et al7,8,9. A summary of the outcomes from thesethree experiences are that the students were very satisfied, learned technical content not coveredin other courses, and felt that the course helped prepare them for the real world of engineering.From an instructor viewpoint the course(s) relied heavily on industrial cooperation, and includedhands-on experiences. The authors also noted that an industrial
• Opportunities for Innovation in Assistive Technology • Heat-Driven Refrigeration for Developing Countries • The IIT Invention Center TeamII. Lessons Learned Page 5.183.2 Through the IPRO Program we have learned a number of important lessons aboutensuring successful academic-industrial partnerships in project-based education. These includethe following critical elements that should be embedded within such partnerships: • All participants should enhance the traditional undergraduate curriculum by addressing real-world issues and problems in the proposed projects, and by working closely with the student teams in carefully
are some approaches that promoteactive learning. The following sections briefly describe these interactive learning modules tointegrate active learning into the classroom of the machine dynamics course.3.1 Problem-based learning (PBL)PBL is a way of designing and conducting educational activities using problems as stimulus andfocus for student activity. It is the classroom process that uses “real-world” problems to motivatestudents to identify and apply concepts, principles and information. It is intended to bridge thegap between a theoretical study of kinematics and the application to practical mechanisms. Inthis way, students should learn how to apply their basic knowledge to more realistic applicationsin a way that they may be able to
Education, 2021Augmented Reality Computer Aided Design Education (ARCADE) tool to improve student motivation, engagement, and spatial cognition. Abstract Immersive technologies such as Virtual Reality (VR) and Augmented Reality (AR) havebecome the worldwide huge technological innovations impactingon human life significantly. While the VR is an enclosed environment separated completely fromthe real world, AR allows users to merge the digital and physical worlds and enable the interactionbetween them. The wide usage of AR has led researchers to investigate its potential capability inseveral areas including STEM-related fields. Previous
implementation of LEWAS into EngE 1024 led to theutilization of LEWAS in many other courses including a senior level hydrology course atVirginia Tech in order to help students learn water quality and quantity concepts through“activity learning strategy” using LEWAS-based modules and field trips. Students were assessedand their feedback was taken to improve the modules and its implementation6,7,9. LEWAS basedmodules showing real world application of LabVIEW programming, data acquisition and dataanalysis were also introduced to the freshman courses in the VWCC. Students in these courseswere also introduced to sustainability concepts, basics of water quality monitoring and MicrosoftExcel software using LEWAS data. Results of pre- and post-tests on both
the campus, as it has been recognized as a GE (General Education) course.II. Course ObjectivesThere are three objectives of the course as described below. Upon successful completion ofthe course, the student will be able: 1. To understand the TQM and Continuous Improvement concepts and their applications. 2. To apply the TQM tools and Continuous Improvement methodologies to real-life problems. 3. To appreciate the global competitiveness issues, such as quality, Page 5.599.1 productivity, cost and customer satisfaction.III. Performance Criteria (PC) and
Sponsored Industrial Research Experiences for Undergraduate Students: Perspectives on Collaborative Projects with Petrochemical Industry Stephanie Farrell Rowan University Chemical Engineering 201 Mullica Hill Rd. Glassboro, NJ 08028-1701 USA1. Introduction Undergraduate engineering and technology students benefit from “real-world” experienceswhich are usually obtained through internship and co-op experiences. Through these workexperiences, students have the opportunity to apply their technical skills to industrially
, it is our own best interest to make thiscontribution”8. One respondent commented that offering co-op and internships is thecontribution is the contribution companies make to the community as a whole9. The studentsbenefit from real world experiences, the organizations that sponsor internships and co-opsbenefit by getting some work done and they get the chance to really evaluate the caliber of thestudents, and the industrial community benefits by having new recruits who have had someindustrial experience.Managing schedules and developing acceptable time management skills are key learningmilestones for students. In the workplace students have the opportunity to take a pragmaticapproach to engineering. They get to make the leap from theory to
states (Lee & Bong, 2023). Particularly, 3D printing has the potential to foster studentself-efficacy through its tangible, creative STEM experiences (Buechley & Ta, 2023; Saorín et al.,2017). 3D printing allows students to visualize and physically create engineering solutions andprovide an immediate connection between abstract concepts and real-world applications. This study thus explored the impact of a 3D printing experience on rural students’ self-efficacy towards engineering. Specifically, it seeks to answer the following research question: Towhat extent and in what ways does 3D printing experience impact rural students’ engineering self-efficacy?Methodology A convergent mixed method design was used in this study
concepts and practical application, making learning experiences moredynamic and relatable for students. Research indicates that game-based learning fosters deeperunderstanding by providing immediate feedback and enabling iterative problem-solving processes[15].Application to Engineering EducationIn the context of engineering, constructivism advocates for hands-on, problem-based learningexperiences that mirror real-world challenges. Games such as Minecraft, Kerbal Space Program,and SimCity serve as virtual platforms where students can simulate engineering principles,experiment with variables, and see the consequences of their decisions in real-time. Theseinteractive environments promote critical thinking and collaborative problem-solving, which
incorporating computational tasksinto statistics education is one of them [11,12]. The mini-lecture and active learning model wasused by [11] in a data science course taught by faculty in statistics, while [12] recommended anemphasis on applications in a data analytics course. The use of real-world applications was alsorecommended by [13] in a physics programming course. In an inter-disciplinary course thatincluded students from "business, liberal arts, and engineering and computer science,” [14, p.1]reliance on cross-disciplinary collaboration and business applications was used to increasestudent interest. In their work to incorporate data science modules into multiple STEM courses,[15] encouraged data collection activities as well as visualization
-world, andindustrial-based problems as the most enjoyable part of the project. One student answered, “Thisproject gave me a real life application to the material that was being covered in the class. Thisreal life application allowed me to see the usefulness of the material as well as to betterunderstand it.” The second most identified answer category (26.3%) was the application of whatwas learned in class for the real-world problem. One explanation detailed: “I could see how whatI was learning [would] apply in the reality. Many of the courses that I took seemed uninterestingbecause it was difficult to see how the subject could be applied in the reality.”Figure 8: What students enjoyed the most about completing the class project
3 1 10 219. The workload is appropriate for this course 3 5 6 420. Completing a “real-world” project from which I will see the application has increased my desire for completing the 7 9 projectOutreach/Global opportunities21. Since beginning this course, I have increased my desire to 1 1 2 8 4 utilize my engineering skills/abilities to help others22. Before EWB and this course was organized, opportunities for utilizing my engineering skills to serve mankind in a 1 1 9 5 humanitarian
digital computers in the loop, one can readily generate C code from graphical simulation tools such as Simulink block diagrams for real-time controller implementation. This has provided the impetus for establishment of a real-time instructional control laboratory at Milwaukee School of Engineering. In this paper the development of this innovative integrated real-time control system laboratory will be described. Next modeling, simulation, controller design and implementation of a few typical laboratory experiments and projects of different complexity are presented. This paper also reports on Simulink modeling of the nonlinear inverted pendulum with some research results for different swing-up
. Advanced technologies such as Artificial Intelligence (AI), the Internet of Things (IoT)and Machine Learning (ML) reshape the agribusiness ecosystem by offering new, efficient farm-ing methods. These innovations that drive not only agricultural progress but also secure preciouseducational opportunities for future engineers. Similarly, the inclusion of these technologies incurricula will help students acquire first-hand experience in applying AI and IoT for agriculturaladvantages, preparing them to combat real-world obstacles in sustainable farming [1].The application of AI-based technologies inagriculture is particularly important with regardsto monitoring crop health, controlling pests,managing workload, and analyzing soil health.Figure 1
Statics is often taught in a very structured manner. I took this class taught in this style, which wasconducive to my learning style. My professor lectured on the equations and material we needed to know,assigned at least one problem for homework every night, and gave weekly quizzes. This style of teachingis not perfect for all students. In an effort to increase student curiosity and interest in the material, theprofessor can incorporate real world applications. This will appeal to different types of learners and mayencourage them to learn more in the future. The professor can also assign case studies that highlight theimportance of statics and the concepts of forces and moments.engineering economics Currently in Engineering Economics
university as theknowledge deliverer and enabler for the knowledge application needs to be a full partner in thisvalue chain, not just a degree supplier.One key team member added to the GM TEP model is the inclusion of HR as a primary teammember to: a) integrate the TCEP into the organization’s performance evaluation process; b) provide real career path opportunities for the staff who operates the CTEP on a daily basis; Page 23.4.8 c) free the technical community from the time necessary to operate the CTEP and allocate this responsibility to the staff better equipped to execute the associated functions in a much more efficient
comprehension and analysis (http://envision.purdue.edu).II. VRML and 3D VisualizationToday, a term that is synonymous with web-based multimedia visualization is “VirtualReality.” A great deal of the 3D visualization for a wide range of applications is done in avirtual cyber space that is frequently typified as “virtual worlds.” The users can navigatewithin these virtual worlds, interact with the scene components, rotate, translate, or scalethem. These virtual worlds facilitate user interaction with the scene components andprovide a sense of immersion whereby the user feels that he/she is actually part of the 3Dsetting itself.Modeling using virtual environments makes it possible to envision the finished product(the current construction) beforehand. When
-partquestion that had no students providing all the correct responses in both the pre- and post-project learning assessments. Question 10 dealt with the real-world application of theequations defined in the Problem Formulation section. The low correct response rateindicates the students did not see the real-world applications, even though they werestressed throughout the semester. The student verbal responses to the learningassessment questions were not meaningful as they indicated the students were guessing.The students who did respond correctly to Question 6, which deals with reasoningthrough the axial change in the pipe, indicated the students could rationalize the correctbehavior.Figure 6 – Fraction of all students with the correct questionnaire
systems thinking courses is its unique integration ofsystems thinking with engineering management principles. The course incorporates severalinnovative features: 1) Application to Engineering Management: Unlike general systems thinking courses, which often focus on abstract systems or non-technical examples, this course is specifically designed for engineering students. It applies systems thinking principles directly to the challenges graduates will face in the workplace. For example, students learn how to use systems thinking to optimize supply chains, manage risks in infrastructure projects, and design policies that address societal challenges such as climate change or public health. 2) Real-World Relevance
deeper understanding of real world applications. To date, feedbackfrom students has been very positive.IntroductionWith the increasing dependence of industry, businesses, education and society on computing anddigital communications, the need for providing security through effective and efficientcryptographic algorithms has became more important than ever. Cryptography is the science ofusing mathematics to encrypt and decrypt data. Besides its traditional role of ensuringconfidentiality, it has been utilized to ensure integrity, authentication, and non-repudiation whichare the basic requirements in today’s information systems or data communications. It isimperative to teach cryptography to students in the general areas of computing, information
and processinghardware/software was implemented. This required knowledge from the domains of ElectricalEngineering, Computer Engineering, Embedded Design and Digital Signal Processing.Formulating an experimental set-up with the limited hardware to mimic the challenges faced inthe real-world scenario of vibration analysis in aerospace applications required creativity andcareful consideration. Input from SME and faculty advisor was valuable.Communication between team members required to understand their individual strengths andweaknesses and schedule appropriate tasks to progress project development and meet importantdeadlines was a crucial challenge in this project. Additionally, communicating with the SME andadvisor to define requirements
of multimediamodules. Three enhanced learning modules were used, all of the same format, and weredeveloped to focus only on one or two fundamental concepts for each topic. The moduleshighlight conceptual material in the following three areas: 1) torsion; 2) bending; and 3)combined loading. The modules contained visualization components in the context of a real-world application. Table 1 provides an overview of the modules’ content. TABLE 1. OVERVIEW OF ENHANCED LEARNING MODULES Real-World Multimedia Module Specific Concepts Example Visualization - Stress
continuoustechnological disruptions, this framework aims to provide a dynamic and adaptive methodologyfor educational institutions and industry professionals. This proposal outlines how a futureapplication could facilitate the development of flexible curricula by leveraging real-time labormarket data and predictive modeling to enhance workforce readiness. The framework supportsactive learning, hands-on methods, and customized learning paths to help professionals acquirecritical future skills, such as digital literacy, creativity, and problem-solving. A hypothetical casestudy illustrates how the framework might function, demonstrating its potential application inaligning education with workforce demands. While this paper does not present empirical results,it
currently being developed to enhanceundergraduate curricula to meet the industrial needs for engineers with education in lean. Thepurpose of the research is to address these expectations by developing learning modules thatincorporate lean simulation models into various Engineering Management, IndustrialEngineering, and Mechanical Engineering courses at Missouri S&T, Texas Tech, and SouthDakota State, respectively. In recent years, increasing global competition, rapidly changingtechnology, and a deficit of U.S. engineering graduates have intensified the need to producegraduating engineers who are effective problem solvers and analytical thinkers, yet who can alsocollaborate on interdisciplinary teams to address complex, real-world systems. A key
educational camps, and use a dedicated water education website to enhance studentlearning and problem-solving skills.Students explore groundwater's critical role in sustainingecosystems, agriculture, and community life. Activities cover aquifer recharge processes, bothnatural and artificial, addressing the growing demand for water resources. Lessons on water heightmeasurement demonstrate its applications in flood management, irrigation, and hydropower,helping students understand water dynamics and how material properties influence displacement.Experiments on capillary action illustrate water transport in plants and soil, linking environmentalprocesses to real-world applications in agriculture and medical diagnostics. These activities buildobservation
promotingcritical thinking and real-world application compared to traditional methods. Students also recognizedGenAI as both a valuable learning tool and a potential risk to academic integrity. These findingscontribute to the ongoing discourse on adapting higher education to the challenges and opportunitiespresented by GenAI, ensuring assessments remain relevant and effective in fostering meaningfullearning outcomes.1. IntroductionThe role of assessments in higher education is fundamental to evaluating student learning, fosteringcritical thinking, and preparing learners for real-world challenges. Traditional assessment methods—such as homework essays, and problem sets—have long been regarded as the cornerstone of educationalevaluation. However, as
12. This project is an outcome of a Research Experience for Teachers (RET) summer program designed to immerse secondary educators in authentic research environments. During the program, participating teachers engaged in a ML project centered on predicting the sever- ity of Alzheimer’s Disease using data collected from smart home sensors—a real-world application of ML in healthcare. The teachers were introduced to foundational computing concepts through Scratch, developed basic ML pipelines with interpretability features using ORANGE, and explored automated machine learning through the Aliro platform. Each tool provided a progressively advanced exposure to ML
-driven world. CS students do not perceive the significance of data Keywords: Data science, supervised undergraduate science as creative and applicable topics that can helpresearch experiences, computing, and analytical solve problems in various contexts. Judd et al. [8]skills. showed that integrating advanced computing subjects in non-CS curricula promotes students’ interest and1. Introduction inspires them to use the power of computing to solve All STEM students must have access to high- real-world domain-specific problems. Similarly, thequality education