degrees are ABET accredited.We recently received a National Science Foundation (NSF) Curriculum (ILI) grant. Themajor thrust of implementation reflects the revolution caused by technology in civilengineering and survey. We give each student not only the theory but also actualexperience with the projects and equipment that are the "bread and butter" of civilengineering practice. Laboratories in cartography, photogrammetry, surveying and civilengineering are designed to integrate experiences in this new technology.In the area of Geographic Information Systems (GIS), the merger of information fromdifferent sources, often in different formats, is the norm in civil engineering technologypractice, using GIS-based systems. We must recognize and keep up
Release, “Bringing Together Industrial Design and CAD”, Edited by the Engineeringtalk Editorial Team on 20 December 2001[2] W.J. Fleming, C. G. Conner and J. K. Tan, “Creation of An Interdisciplinary Design Curriculum At Northumbria University”, International Engineering and Product Design Education Conference, 2-3 September 2004 Delft The Netherlands.[3] G. Gemser and M. Leenders, “How Integrating Industrial Design in the Product Development Process Impacts on Company Performance”, Journal of Product Innovation Management, Volume 18, Issue 1, page 28, January 2001[4] M. Yamamoto and D. Lambert, “The Impact of Product Aesthetics on the Evaluation of Industrial Products”, Journal of Product Innovation Management, Volume 11, Issue
.5,8,10,11However, more studies are needed to examine how computational thinking is demonstrated inelementary students.Research PurposeThe purpose of this study is to explore computational thinking practices in kindergartenclassrooms during an integrated STEM+C curriculum. In particular, this study will focus onevidence of computational thinking found in student worksheets completed throughout thecurriculum. The primary research question is: How do student artifacts provide evidence ofcomputational thinking during an integrated literacy, STEM, and computational thinkingcurriculum?Theoretical FrameworkPattern Recognition as Part of Computational ThinkingComputational thinking is a multifaceted construct as it comprises of several sub competenciessuch as
. Specifically,the proficiency of students to identify and apply learned skills to a different setting and situation,and the ability of students to converge different learned skill sets and apply in a new situation areevaluated.2. BackgroundA new undergraduate civil engineering curriculum was implemented at the Kerala TechnologicalUniversity prior to this study. This section provides an overview of the underlying vision guidingthe introduction of Design and Engineering and Group Project courses within the newcurriculum. Figure 1 illustrates the stages of competence expected in the students undergoing thefour-year undergraduate civil engineering degree course as per the new curriculum. Theknowledge component integrated into the course envelopes all the
Technical College-West 19 Texas Tyler Junior College 28 Statewide 185 The multidisciplinary engineering technology program with a focus in mechatronicsproposed by ETID will be a seamless integration of the two programs with two additional newcourses specifically in mechatronics. This new program will address the job market needprimarily in Texas, as well as be competitive nationwide. The unique structure of ETID will keepthe cost of creating the new degree at a reasonable level. In the State of Texas, there is nomultidisciplinary engineering technology program with an emphasis in mechatronics at the
has disseminated this program to other institutions. She directs an NSF sponsored grant in innovation in graduate education which draws on best practices in team work to develop leaders in engineering practice. She has revamped the MSE UG lab experience and MSE curriculum with an emphasis on integrating assessment and including post-doc and graduate student development. Dr. Realff is a dedicated educator who listens to and advocates for students and has been honored for her teaching and mentoring at Georgia Tech. Her leadership and teaching excellence have been rec- ognized through the Undergraduate Research Mentor Award, Atlanta Partners for Education Business School Partnership Award, CETL/AMOCO Junior
misinformation, over-reliance on technology, academic paradox highlights the complex and evolving nature of instruc-dishonesty, algorithmic bias, and data privacy. These findings tor perspectives on AI adoption.highlight the necessity of transparency, ethical AI development,and regulatory oversight to build trust. Addressing these chal- Building trust in AI tools is a crucial factor in theirlenges is vital for successfully integrating AI into education, successful implementation. Studies have shown that trust infostering an inclusive and dynamic learning environment. This AI among educators depends on multiple factors, includingstudy offers valuable insights for future research and practice
engineering designs into the curriculum are nearly alwaysfocused in the senior year. This makes sense, since ABET requirements imply a senior capstoneexperience in their accreditation criteria, but simply maintaining a senior design course fails toaddress the need for team-based, real-world, open-ended design experiences throughout thecurriculum.Background of the DesignSpine® ProgramThe curriculum of the DesignSpine® Program at the University of Indianapolis was developedaround real-world design experiences. The goal is to produce graduates with strong technicalknowledge, project management skills, a strong engineering identity, an exceptional ability tocommunicate, and experience in real-world, relevant engineering design. Students receive
326 Linking Theory with Experiential Learning in Virtual Learning Environment Reza Raeisi, Max Gardner, and Ricardo Rangel California State University, FresnoAbstractThis NSF-founded project presents work on new ways of delivering technical instructions toengineering students through distance using customized Virtual Learning Environment (VLES)tools. An important aspect of this paper is to present the efforts by a group of faculty from fivedifferent institutions, hailing from three different regions in the country. The goal of the projectis to develop a curriculum for the
engineeringcurriculums. Tasks were assigned based on course emphases; to allow students to apply theircourse work. One class graphically designed the testing system. The second class manufacturedthe testing system and provided a prototype. The freshman class was assigned the task of testingthe cans and analyzing the results. It provided for a vertically integrated learning experience,where experienced students were able to demonstrate to less-experienced students on how theiruse of the tools and skills has progressively grown more sophisticated.RationaleThe concept of vertical integration relates to streamlining an entire curriculum so that there is atangible connection between pre-requisite and follow-on courses. This has been achieved atmany schools by
movement towards the vertical integrationof design throughout the curriculum. Some of these initiatives are driven by the new ABETcriteria. This integration could be highly enhanced by an early introduction to processsimulation.Process simulation can also be utilized in lower level courses as a pedagogical aid. Thethermodynamics and separations area have a lot to gain from simulation packages. One of theadvantages of process simulation software is that it enables the instructor to presentinformation in an inductive manner without the need for time-consuming experiments. Forexample, in a course on equilibrium staged operations, among the concepts a student mustlearn are the optimum feed location. Standard texts such as Wankat (1988)5 present
, not only from a technicaland ethical perspective, but also from a social perspective. The Montreal Massacre is rarelydiscussed in the classroom. In 1989, an armed man opened fire in an engineering classroom atMontreal’s École Polytechnique School, killing only the women students. In total 14 womenwere murdered [17]. The lack of discussion around these cases further supports a lack ofviewpoints and inclusion. Whitbeck asserts “feminism is a bad word in engineering andengineering ethics” ([17], p197).Inclusion of scholarshipIncluding women in scholarship within the Carnegie Mellon CEE curriculum has been successfulfor Armanios et al., [19]. Contributions by women are integrated within the computational anddata science course for civil and
facilitated the emergence of faculty-driven affinity groups that will serve as onevehicle for increasing pedagogical risk-taking among faculty. The development of othermechanisms to spur additive innovation and pedagogical risk-taking are also underway.At Colorado State University (CSU), a team of educators are working to overcome the failings ofthe current engineering educational system by reimagining the roles that faculty play in theteaching and learning environment within the Department of Electrical and ComputerEngineering (ECE). The team is implementing a new pedagogical and organizational modelwhere the curriculum is no longer treated as a set of disparate courses taught in unconnectedpieces, but as an integrated system that fosters
give an example of a computer organization course where the tools are employed, and where the objective stated in the title is achieved. Key words: Course Design, Computer Organization/Architecture, ISA, Assembler, Emulator1. Introduction: Most technology-related undergraduate engineering programs struggle with the relentlessand rapid growth of the body of knowledge required by graduates. New technologies, newtechniques, changes in technology price points, new calls for students to master the ethical,social, and political dimensions of engineering and to work in teams, and various other factorsare a constant source of pressure to treat an ever larger array of topics in the curriculum. Yet theamount of time
taught to apply physics principles tosolve ill-structured and complex engineering problems. The integration of engineering designprocesses to physics labs is meant to help students transfer physics learning to engineeringproblems, as well as to transfer the design skills learned in their engineering courses to thephysics lab. The purpose of this case study was to examine how, and to what extent, students engagedin a physics laboratory that is integrated using an engineering design project engage in transfer.We begin by briefly reviewing the existing literature on the integration of science andengineering practices, then provide a brief overview of transfer. We then describe the contextand content of the integrated physics labs, before
have already developed the basic understanding of construction methods, materials, and estimating. • Compared with other courses in the construction curriculum, it is less computational. • The department has previously used web-based pedagogy for this course.Tools InvolvedMany tools are available for developing an on-line course. The main tool is the WebCT that isavailable to all faculty at Missouri Western. It has also been the tool for faculty training and hasbeen evaluated to meet the following criteria: Page 11.847.3 • Ability of integration with current registration system and ease of use. • Possibility
fieldbus networks with linksto official web sites of each fieldbus organization [4]. Integration of fieldbus topics intoundergraduate curriculum is slowly taking places at various institutions. For example, Franz [5]reported the development of a National Center for Digital and Fieldbus Technology (NCDFT)under an NSF grant at Lee College, Texas. Also in Reference [6], Müller and Max Felserdescribed how fieldbus concepts are adopted in control technology curriculum in Switzerland. Aweather station instrumentation experiment that uses digital and wireless communicationconcepts was adopted in a Computer Engineering curriculum at University of Oviedo, Spain [7].The concept of fieldbus networks such as Devicenet are also introduced in PLC courses
studies evaluating engineeringeducation research and current engineering curriculum note that engineering faculty maintain thathumanities studies are irrelevant to engineering education and present engineering problem solvingdevoid of social context [6 – 11].This paper introduces an ongoing work in developing unique collaborations between engineeringand non-engineering students in a user-centered design course and humanitarian engineeringproject work. In this paper, the authors will review their integration of social and emotionalcompetencies into engineering design and practice through a credit-based engineering course inconjunction with an Engineers in Action (EIA) Bridge Project student chapter at a midwesternpublic university.Previous
knowledge map has sufficient structure to capture a model ofeach student’s progression. It provides a graphical map of the concepts that a student haslearned and the degree of understanding for each concept. At the highest level, the knowledgemap represents the architecture of the entire curriculum. In the second level, the knowledgemap represents each course as an interconnection of modules. The third level gives thearchitecture for the module's concepts and their relations. The structure representing eachconcept will specify the types of questions that are relevant. An adaptive guidance system willthen be able to select a particular question from the question database depending on thestudent's current level of understanding. Grouped concepts will
effectiveness. Closed-loop implies performance data is compared to a referencevalue and depending on the magnitude of the difference, the implementation strategy for theacademic program is modified.SPK functional areas derived from the following ABET General Criteria [12] are: 1. Students: Ensure students are academically prepared and scheduled to be in the right place in the program at the right time. 5. Curriculum: Ensures an integrated set of courses and laboratory experiences from the discipline BOK to develop knowledge, skills, and behaviors of students and satisfies accreditation and university requirements.Extra-Curricular, also an SPK Functional Area, consists of non-curriculum related programactivities that also develop knowledge
advisory board can serve as a powerful tool to help the school or department in theaccreditation process. The board can also serve as a fund raising mechanism by having itsindustrial partner give grants for scholarships for incoming freshman, or monies to help purchaseequipment and supplies to maintain a laboratory of the department. The industry advisory boardmembers can also serve as mentors on an industry sponsored project. Another important purposeis to advise the department in the area of curriculum development. Industry participation incurriculum development will ensure that ET students are taking the necessary classes to givethem the industry skills to compete globally with other engineering technology graduates.The Industry advisory board
was that amongthe students in Calculus II that semester, only one woman was identified as a computerscience major, she withdrew from Calculus II and subsequently withdrew from the collegewithout attaining a degree. Fall 2012 Calculus II Grade Distributions Total (N) A B C D F W Men 313 15% 14% 16% 11% 16% 28% Women 51 21% 12% 10% 8% 18% 31% Table 1: Fall 2012 Calculus II Grade Distribution. The discovery prompted the project team to develop an active learning curriculum inCalculus, one that was not just the mechanics of differentiation and integration, but onethat integrated concept visualization, real
Paper ID #23226Work in Progress: Streamlining the Biomedical Engineering Design ProcessDr. Olga Imas, Milwaukee School of Engineering Olga Imas, Ph.D., is an assistant professor of biomedical engineering at the Milwaukee School of Engi- neering, where she teaches a variety of courses in biomedical digital signal processing, medical imaging, computing in biomedical engineering, biomaterials, anatomy and physiology. In addition to her academic responsibilities, she acts as a consultant to GE Healthcare for product development with emphasis on advanced imaging applications for neurology, cardiology, and oncology. Olga’s
require small group collaboration; (3) a comic book thatprovides an engaging story with 4 near-peer characters (3 ethno-culturally diverse girls and aboy) with a unique context for problem solving and integration of digital and unpluggedactivities; and (4) role model videos in which gender and race-matched cryptology andcybersecurity researchers and professionals introduce their professions.Figure 1. Curriculum components: A) an example comic book page; B) a screenshot of a digitalactivity; C) an example of an unplugged activity; D) a screenshot of a role model video.A) B)C
hadopportunities to work with two professional surveyors from an engineering company to gainreal-life engineering experience. In addition, two undergraduate student assistants were availableto facilitate students in the field work. The projects benefited the University by providingnecessary traverse and leveling surveying data to help create a baseline map for the easement.The projects were integrated into the curriculum as service-learning to enrich the studentlearning experience. It has accomplished an education goal by engaging students in a real-lifeproject applying the skills and knowledge learned from the class. As presented in Figure 2,students used advanced surveying equipment including total stations and automatic levels tomeasure the elevations
BBC micro:bit can be powered via battery pack (without computer interaction) allowing users tocollect data both indoors and outdoors. The BBC micro:bit is a powerful and flexible technology tool thatis suitable for use with students in grades three and up.The standards-aligned Garden TOOLS curriculum includes nine lessons requiring an estimated 15 hoursto complete. Student learning outcomes include the ability to: • Program a BBC micro:bit to collect data in an outdoor learning space. • Make informed management decisions based on assessment and analysis of data. • Integrate the BBC micro:bit and other suitable technologies into engineering design solutions to address student-identified garden challenges.To achieve these
learning in basic sciences and math were applied in BE, to establish acommunity of learners, and to combat retention issues. The curriculum was overhauled in partto address a lack of enrollment, and the faculty wanted to ensure that students enrolled in themajor would learn about BE in a supportive environment.The first two courses in the BE curriculum that comprise the “first year sequence” in the majorare:BE 1250 (offered each fall): 2 credit hours; 6 hrs. lab. Fundamentals of engineering design;presentation of an engineering design; graphical expression of engineering design usingcomputer-aided drafting.BE 1252 (offered each spring): 2 credit hours; 1 hr. lecture; 3 hrs. lab. Effect of variability andconstraints of biological systems on
science-technology-engineering-math (“STEM”) K-5 major was defined and implemented, where the teachercandidates receive a deep level of content knowledge in all four STEM components, as wellas education tools for “integrated-STEM”. 1 The program is referred to as theMath/Science/Technology, or MST, program, even though all four elements of STEM arerepresented in the program. [That is, a more accurate name would have been the “STEM” K-5 program.]An obvious potential benefit of the MST program is numerical in nature; an effectivetechnologically literate K-5 teacher should impact the willingness to “think and learntechnologically” for thousands of young students, and hundreds of colleagues. Another largepotential benefit is pedagogical in nature and
Engineering from Rose-Hulman Institute of Technology in 2005. He spent 7 years as a part of a lecturer team at Arizona State University that focused on the first-year engi- neering experience, including developing and teaching the Introduction to Engineering course. Currently, he is an assistant professor at Rose-Hulman Institute of Technology in the Mechanical Engineering de- partment. His teaching focus is in fluid mechanics and thermodynamics but has also taught classes such as numerical methods and introduction to engineering. His interests include student pathways and mo- tivations into engineering and developing lab-based curriculum. He has also developed an interest in non-traditional modes of content delivery
, engineering design, programming, and computer-aided design. Additionally,each student in the program is assigned a first-year Academic and Career advisor who facilitatesthe transition to college through one-on-one advising appointments, workshops, and electroniccommunications, including emails and newsletters. The instructors and advisors shareinformation about students and resources for mutual support.General Engineering AdvisingThe General Engineering advisors facilitate the development of academic success skills in FYEstudents using a framework that conceptualizes time management, metacognitive study skills, andresource utilization as an integrated system for academic success. In this systemic approach, thelimited availability of academic support