Document: 2004-2305 Software Engineering Emphasis for Engineering Computing Courses: An Open Letter to Engineering Educators William Hankley Department of Computing & Information Sciences Kansas State University Manhattan, KS 66506 hankley@cis.ksu.eduAbstractSoftware is an important component for engineering development for all engineering fields, notjust for computing sciences. This paper addresses what might be included in a service course forengineering majors on the topic of software development
Northwestern University. She has also served as an Associate Dean for curriculum, instruction, and advising in the College of Science, Associate Department Head of Economics and Undergraduate Program Director for Economics. She is Associate Editor at Economic Modeling. As a woman in STEM Dr. Ball has presented work on active learning and research, as well as women in science and is actively involved with mentoring for Committee for the Status of Women in the Economics Profession.Walid Saad, Walid Saad received his Ph.D degree from the University of Oslo in 2010. Currently, he is an Assistant Professor and the Steven O. Lane Junior Faculty Fellow at the Department of Electrical and Computer Engineering at Virginia Tech
SIUC and completing the baccalaureate degree. To ensure scholars advance academicallyand professionally, they are integrated into a mentoring and support network of staff, peers, facultyand professionals. Together they engage in a diverse set of professional development activities.Goal 2: Improve the education of future scientists, engineers, and technicians, with a focus onacademically talented low-income students (Quality Educational experiences in EnergyScience/engineering) Energy Scholars join a learning community through a common curriculum and facultymentored hands-on learning experiences. Individual assistance is provided for scholars to secureinternships and research opportunities that focus on collaborative interdisciplinary
Post Doctoral Research Fellow from the University of Birmingham, UK. She was a Visiting Professor at Michigan Technological University for five years, and an Associate professor at Tennessee Technological University for 7 years prior to arriving at the University of the District of Columbia in the Fall of 2001. Dr. Ososanya research interests include new applications for VLSI ASIC design, Microcomputer Architecture, Microcontrollers, Nanotechnology, and Renewable Energy Systems. In recent years, she has worked with colleagues to apply these technologies to Biomass research, Solar Cells efficiency capture research, and Renewable Energy Curriculum developments. Dr. Ososanya teaches a myriad of Electrical Engineering
questions have been used to teach andassess conceptual understanding in mathematics and science education. 25-29 Now, thesetools are being applied to humanities and social sciences, and to some extent toengineering education. 30-33Concept maps are useful for identifying and organizing concepts and their relationships toeach other. A concept map is a two-dimensional, hierarchical node-link diagram thatdepicts the structure of knowledge within a scientific discipline as viewed by a student, aninstructor, or an expert in a field. 34 Cornwell has used concept maps for defining bothcourse-level and curriculum-level content in mechanical engineering. 35 He finds thatconcept maps help students establish connections between the various topics and
kit included an oil pump, solar cell, solar vehicle, crane, rotating swing, wind power system Page 15.66.8 and water turbine. Kathy Moise, pictured right in Figure 5, discuss implementing program strategies into her curriculum. “The program was excellent! I enjoyed meeting math/science educators from around the Louisiana. We are implementing the engineering design process in both our junior high and high school science classes this year. We look forward to introducing our students to the amazing field of engineering.”• Bioengineering – Rehabilitation Engineering – Figure 5. Kathy Moise and Jesse The
culminating with administrative topics. We demonstrate thismethodology through the use of a comprehensive design project.We discuss the capstone design program from students’ point of view, and the experience earnedin design, integration, and also in written and oral communication skills. Methodology used toevaluate the effectiveness of the capstone design program in term of learning outcomes is alsodescribed. 1. Introduction:The HVAC Capstone Design course consists of the mechanical systems design for a multi-storybuilding, and utilizes the architectural drawings of an actual project under construction todevelop the mechanical system design. The goals of this course are to gain an overallunderstanding of the mechanical design process, and to
, Supply Chain Optimization, Change Management, System Integration and LEAN Process Improvement (technical and business), Dr. Wickliff is passionate about Organizational Wellness and the Holistic Well- ness of individuals. She is also a professional Facilitator and Motivational Speaker. Dr. Wickliff earned a PhD in Interdisciplinary Engineering from Texas A&M University where she com- bined Industrial & Systems Engineering with Organizational Development to conduct research in the area of talent management and organizational effectiveness. She also completed an executive MBA from the University of Texas-Dallas and a BS in mechanical engineering from the University of Houston. She is founder of a nationally
advising board of professional engineers. More details of thethree distinct, but integrated, phases, I, II, and III, of the course are presented below. Phase I – Autumn Quarter – Feasibility/Conceptual Planning Phase (CEE 504, 2credit hours). The Autumn quarter introduces the class to the concept of an “integrated,” orinterdisciplinary, type project which is representative of the real world. The principal goal ofthis phase is to develop and hone skills related to oral and written communication of technicalideas, working together productively in teams, encountering and addressing problems andsituations that sometimes are “out of the box,” group organization, project management,synthesizing existing technical information, and independent
Technology. His research focuses on integrating Makerspaces and Design Thinking with higher education to enhance learning through hands on interdisciplinary practices.Dr. Megan K Halpern, Michigan State UniversityDr. Isaac Record, Michigan State University Isaac Record is an Assistant Professor of Practice at Lyman Briggs College, Michigan State University, where he directs the Collaborative Experiential Learning Laboratory and teaches courses in philosophy of science, science and technology studies, and critical making. His research seeks to situate our epistemic and ethical circumstances within a network of values, capabilities, and material and social technologies. Isaac holds a PhD and MA from the Institute for the
employment in the roleof faculty members, they are well prepared in science, math, and engineering content andpractice, however, they generally lack training in student learning and instruction. A pragmaticapproach guided the investigation lead by three research sub-questions related to: a) practicealignment with the United States Next Generation Science Standards; b) knowledge of reform-based teaching practices; c) how fellows implement biomedical engineering research intosecondary science classes. Surveys, interviews, and lesson plan documents were utilized toanalyze the phenomenon from three perspectives in the form of an instrumental collective casestudy. The National Science Foundation GK-12 program, the context of the study, operated as
thatengineering programs that wish to retain highly socially motivated students should explore theinfusion of social context into engineering courses beyond the first year, as well as the requiredbalance of technical and non-technical coursework in their curriculum and opportunities forcourse choice.BackgroundEngineering has an important role to play in addressing a number of important challenges facingsociety and the world.1-3 These challenges embrace the interface between humans andtechnology, and addressing these issues will require creative, systems-level thinking. A diversityof engineering students with a range of talents and attributes will be needed to meet the demandsof society.4 This includes students who are motivated toward engineering due to
Paper ID #16184Development of Authentic Engineering Problems for Problem-centered Learn-ingDr. Yen-Lin Han, Seattle University Yen-Lin Han is an Assistant Professor in the department of Mechanical Engineering at Seattle University. Her research interests include micro-scale Molecular Gas Dynamics and heat transfer applications such as the Knudsen Compressor, a temperature driven micropump with no moving parts. Her work in exper- imental and computational investigations of gas transport phenomena has been published in high impact journals including Physics of Fluids, Applied Materials and Interfaces, and Journal of
logically addressed in the basic level criteria, because of their direct association with ABET Criteria 3(a) through 3(k). BOK Outcome 12 is logically addressed in the advanced level criteria, because it requires advanced, specialized knowledge. BOK Outcomes 13 through 15, however, might reasonably be addressed at either the basic or advanced level. These professional practice topics— project management, construction management, asset management, business, public policy and administration, and leadership—could logically be integrated into the undergraduate civil engineering curriculum or offered as part of a professional practice- oriented master’s program. From an accreditation perspective, however, it is
be made to select material appropriate to eachschool’s curriculum. Figure 2 The faculty team each wrote outlines of chapters for the applications of their particularfields of endeavor that are exploited in designing the modern automobile. Subsequently all thechapters were re-written4 to achieve a degree of stylistic conformity. These were certainly notintended to be all inclusive chapters that discussed everything a mechanical, or an electrical, or achemical, or a civil engineer does, etc., but they did demonstrate how 1) modern technology isinterdisciplinary and 2) how engineering fundamentals cross all fields of application. The practicum or ‘hands-on’ portion of this course was
Paper ID #33997Capstone Design - Unexpected Challenges and Opportunities due to theCovid-19 PandemicDr. Nathan M. Kathir P.E., George Mason University Dr. Nathan M. Kathir, P.E., F.ASCE is a civil/structural engineer with over 35 years of experience in government and private industry. He earned his Ph.D. in civil/structural engineering from Texas A&M University (1991). Dr. Kathir is a licensed professional engineer (PE) in the State of Colorado and a Fellow of the American Society of Civil Engineers. After leaving the federal government with more than 30 years of civilian service, he is currently an associate
Page 24.1248.2 mechanism to enhance a project.5. CCA senior level class was not motivating the students to fully utilize the associate faculty as industry legal experts.6. Senior students were not able to articulate construction contract issues and their solutions with the traditional lecture approach of the class.The class structure was not stimulating the students in an actionable way or preparing them forthe construction industry as project managers, contractor representatives, and owners. Thestudents needed a thirty thousand foot view of construction contracts, and needed to understandhow the construction contract administration concepts integrate with the other constructionmanagement skills. The students also needed a mechanism to
manipulation of integrated system, malware information from within a in an Air- chosen covert device and to vulnerable device; optical computer otherwise Gapped leak of test key or acoustic noise reduced disconnected from Computer captured signal integrity surroundings Can use existing sound Acoustic MATLAB and signal Capture sounds of mechanical software and MATLAB to Keyboard
traditions, folklore, and historical narratives. For instance,an AI-driven platform could transcribe and translate indigenous stories into written form. Long-term ethical education can also serve as a perennial concept. Rather than a one-time ethicsworkshop, integrate ongoing ethics education into AI courses. For instance, students could explorecase studies related to indigenous knowledge and AI.Furthermore, collaboration should be achieved with local communities, linguists, and educators toensure that AI systems are culturally sensitive. Regularly update algorithms to reflect evolvingcultural norms. Moreover, AI tools that facilitate the documentation and dissemination ofindigenous knowledge should be developed. In addition, involving community
Manhattan-based mobile media development company developing augmented reality systems. He has also designed and implemented numerous mixed-reality systems for a variety of platforms and clients, including the British pop phenomenon, Duran Duran, and is currently developing augmented reality games for mobile platforms. Academically, he is an active researcher with several ACM and IEEE publications in virtual and augmented reality. As a graduate student in the Graph- ics, Visualization, and Usability (GVU) Center at the Georgia Institute of Technology, he contributed to early research in the nascent field of self-harmonizing karaoke software. He currently serves as a Profes- sor in Computer Game Design and Development
the PBL model, team facilitation and project definition,applied to first-year design courses better support retention and persistence for engineeringstudents. In this paper, we focus on findings associated with facilitation using interview datafrom the first phase of the study. The overall study employs a mixed methods design(observations, interviews, and questionnaires) in two settings. At State U1, students select aspecific engineering department (biomedical for this study) before entering the university andparticipate in a well-established PBL-based course in their first-year. At State U2, students entera general engineering program that uses a project-based approach to integrate design projectsinto the first-year curriculum; we have
Page 26.1389.8serve to impact an individual’s spatial ability. We expect that this analysis to be the most impactful 7in the future as the lived experiences that impact spatial ability can be translated into instructionalinterventions that can be applied in existing curricula in STEM disciplines. 6. Conclusion We trust our study will inform engineering education community in two ways: 1).Gaining a deeper insight on the intrinsic relationships between spatial thinking and STEMdisciplines. 2). Findings from this study can lead to clues on how to integrate elements of spatialthinking with engineering concepts and incorporating
building orientation to reduce energy use, planting suitablevegetation and reducing the development of open space. 16Background:In our Fall 2008 paper titled Sustainable Construction – An Education and ResearchPerspective,4 we concluded the following: • 46% of construction management programs offer at most two courses in sustainable construction. • None of the construction management programs studied offer a course in sustainable site planning and design.We recommended the integration of sustainable construction practices throughout constructionmanagement programs, as opposed to offering separate sustainable courses as electives, to reflectthe standardization of “green” development.Methodology:This paper will examine the
building orientation to reduce energy use, planting suitablevegetation and reducing the development of open space. 16Background:In our Fall 2008 paper titled Sustainable Construction – An Education and ResearchPerspective,4 we concluded the following: • 46% of construction management programs offer at most two courses in sustainable construction. • None of the construction management programs studied offer a course in sustainable site planning and design.We recommended the integration of sustainable construction practices throughout constructionmanagement programs, as opposed to offering separate sustainable courses as electives, to reflectthe standardization of “green” development.Methodology:This paper will examine the
Plenary Address1. As the panel leadoff paper of this session itintroduces Constructivism as the learning theory and process that is most efficient in thedevelopment of professional competence. And that effectively guides the philosophicalframeworks or curriculum approaches that prepares engineering and engineering technologystudents at all levels for the execution of integrative functions that are particular to therequirements of industrial practice and systems operations and management. Constructivistlearning approach can be crucial in the enablement of sitting professionals making the jump tothe leading edge of the practice-focused engineering that requires massive constructedintellectual fusion. This paper raises fundamental questions that
of the simulationexperience. The paper compares other production system projects, presents the project itself,describes the application of modern production systems and the integration of sustainability, andconcludes with student project experiences.Introduction and MotivationTextbook and lecture methods are much more effective when complemented with a computersimulation. Simulation allows students to make decisions in dynamic real-world environments.The output from the simulation allows the student to evaluate the impacts of decisions and makenecessary adjustments while learning new problem solving strategies. The manufacturingenvironment provides an excellent application of computer simulation. The complexity,uncertainty, and
manufacturing processes that they mightencounter as part of their cooperative work experience. The revision of the curriculum in 2001caused a redesign of the course and added some design experiences to further enhance theeducational process. This paper discusses the development of the new course calledInterdisciplinary Design and Manufacturing and discusses relationship of course coverage to theSME competency gaps. The manufacturing portion describes the lecture topics and laboratoryexperiments that were an integral part of the course. The mechanical and electrical designportions describe the use of commercial toys and a self-designed toy platform that formed thebasis of the new design laboratory portion of the class. It will be demonstrated that it is
exportable modules which can be used as is or modified to fit the needs of otherinstitutions and which cover elementary teaching skills, advanced teaching skills, proposal writing,time management, and preparation for the job search process. There is also a mentored teachingcomponent, which is individually structured for each student. Requirements for participation areset by each department. The program prepares students for the full range of academic positions,at research-intensive or more teaching-oriented schools. It also offers a forum for faculty toupdate their teaching skills and for the discussion of issues of diversity, learning styles, anddifferences in culture between instructor and students. In addition, an associated yearly lecture
theywork toward a relevant project solution4. By engaging with an open-ended problem, students areencouraged to learn the course concepts at their own pace and seek out other sources ofinformation. Numerous studies have been conducted that demonstrate the efficacy of PBL inundergraduate engineering education5–7. Another approach called design-based learning (DBL)incorporates the concepts of PBL with an emphasis on the design process, and its origins can betraced to improving secondary science education8–10. In the past few decades, DBL’s conceptshave been integrated into engineering education. This learning approach prepares students tofunction in an engineering role by placing an emphasis on solving open-ended design problems.Wei et al. found
acres about 20 minutes from downtown Pittsburgh. In 2002, following approval by thestate Department of Education, the college became Robert Morris University. From a School ofAccountancy with 26 students, Robert Morris University has grown to an enrollment of over3,400 undergraduate, graduate, and doctoral students. Robert Morris University’s mission is tobe the gateway to engaged, productive, and successful careers and lives. True to its heritage ofprofessional education and applied instruction, Robert Morris University builds knowledge,skills, and citizenship and prepares students to lead with integrity and compassion in a diverseand rapidly changing world. Robert Morris University is a nationally ranked university thatcombines academic