) an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability;(d) an ability to function on multi-disciplinary teams;(e) an ability to identify, formulate, and solve engineering problems;(f) an understanding of professional and ethical responsibility;(g) an ability to communicate effectively;(h) the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context;(i) a recognition of the need for, and an ability to engage in life-long learning;(j) a knowledge of contemporary issues; and(k) an ability to use
Science Foundation established the Advanced Technology Education Program(ATE) to fund and support educational initiatives in the areas of mathematics, science,engineering, and technology education.The Midwest Center for Advanced Technology Education (MCATE) at Purdue University issupported by the National Science Foundation. MCATE is a consortium between PurdueUniversity and seven midwestern community colleges. The mission of MCATE is to enhancethe educational opportunities and experiences available to students pursuing manufacturingrelated careers. The consortium is accomplishing this mission through faculty and curriculumdevelopment. This paper will focus on the planning, implementation, and evaluation process ofthe faculty and curriculum
sustained impact on LU, Southeast Texas and the Gulf Coast. The RET support isespecially critical to the education and outreach in the large surrounding school districts whoseminority populations averages 72.5%, and 64.8% of students are considered to be economicallydisadvantaged.AcknowledgmentThe project is sponsored by the National Science Foundation grant #1608886. Their support isgreatly appreciated.References [1]. Texas Essential Knowledge and Skills for Career and Technical Education. In: Science, Technology, Engineering, and Mathematics at TEA. Available at: http://ritter.tea.state.tx.us/rules/tac/chapter130/ch130o.html [2]. Texas Essential Knowledge and Skills for Science. In: Science, Technology, Engineering, and
exposure to U.S. academic culture, as both of us navigated the nuances of being internationalin a foreign academic environment. Serving as a teaching assistant, where I led a lab twice a week,became a pivotal experience. It allowed me to engage directly with U.S. students, offering insightsinto their values and mindset, and gradually integrating me into the academic culture. However,my effort to blend into this new environment was often marred by self-censorship and a reluctanceto express disagreement, a behavior influenced by cultural norms from both my Iranianbackground and my advisor's South Korean culture. This dynamic highlighted the complexities ofcross-cultural academic relationships and their impact on personal and professional
attribution. This paperdiscusses the ethical and legal implications surrounding AI art generators and copyrights,describes how the AI generators operate, considers the positions in the creative process, andconcludes with suggested best practices for engaging AI art in the architectural design curricula.IntroductionA consensus definition of art within the art community is asymptotic as each artist may have adifferent opinion on what art is. Oxford defines art as “the expression or application of humancreative skill and imagination, typically in a visual form such as painting or sculpture, producingworks to be appreciated primarily for their beauty or emotional power [1].” One might simplifyand suggest that art is a process led by the human mind that
. Capstones courses can be somewhat limited and late in the coursesequence. What is needed is continuous exposure to support consumer value – true productivityto make the needed pedagogical impact. Sadly, recalls abound annually and there is no lack ofexamples.Recalls provide the needed context to engage and enhance a student’s intellectual interest; theneed to identify and solve a problem(s). As students enters individual courses these recalls,within the balanced scorecard milieu, girded by IoT can help to engage student’s intellectual Page 10 of 16curiosity. They can see the direct application of course content throughout their program ofstudy. In addition, the
students develop skillsets with “real, applicable value in a rapidly advancing world.” 11These reports associate the growth in the number of spaces with an increased awareness of and value inhands-on design and fabrication activities that encourage creativity and open-ended problem solving. Itis noted that the analysis presented in these reports is not restricted to engineering programs, but rather isa broad review of national trends on university campuses. The reports cite examples of makerspaces tosupport students majoring in journalism, digital media, art, and design. In all applications, makerspacesprovide a way for students from across the university to gather as a community and become engaged inlearning.It is expected that the number of
teachers who attended the professionaldevelopment program, 36 taught a STEM subject. One teacher taught art. Twenty teachers taughtin high schools, twelve in middle schools, and five were elementary teachers.The Format of the Face-to-Face PD SessionsFocusing mainly on middle and high school students, the lessons needed to be informative, butalso engaging. These learning experiences for students in math and science can be importantfactors when deciding their futures. Exposing students to STEM fields increases a more technicalengineering education through the development of hands-on activities in school and at home.Few students today get a glimpse of engineering concepts. The purpose of Engineering ScholarsTraining and Retention (STAR) Center was to
of course-level and program assessment needs in engineering design,multiple assessment instruments related to design and lifelong learning outcomes have beendeveloped by collaborators from the Transferable Integrated Design Engineering Education(TIDEE) consortium. Pilot testing has been conducted in recent years to study the validity andreliability related to TIDEE’s instruments. In particular, validity studies have addressed the valueof the assessments to users (instructors and students) from varied engineering disciplines whilereliability studies have focused specifically on the level of inter-rater agreement (IRA) of scoringbetween multiple and diverse raters. The purpose of this paper is to present results from the IRAstudy conducted
-up paper will discuss the proposed teaching activities in detail and the impacts on studentlearningMotivationIn conventional geotechnical practice, established theories for bearing capacity and lateral earthpressure are used to determine the limiting loads between a soil and a structure. These theoriesdo not address the relationship between load and displacement. Separate analytical methods areused for the purpose of estimating soil displacements, such as settlement. This framework, whichdecouples consideration of failure load and deformation, is typically applied to the teaching ofgeotechnical engineering at the undergraduate level. As a result, it is difficult for students torealize that failure load analyses and deformation analyses are
EntrepreneurshipEntrepreneurial ethics should claim its place in the curriculum for several reasons: • Entrepreneurs may face ethical challenges different from those of non-entrepreneurs • Entrepreneurial studies has been a fast growing field seeking to distinguish itself from other fields • Entrepreneurs may well have much impact on future U.S. and global economic stabilityEntrepreneurs’ Ethical Concerns May Differ from Non-Entrepreneurs’While most may agree that teaching ethics to entrepreneurship students is important, the nextquestion is why wouldn't engineering or business ethics suffice. The answer is thatentrepreneurship has some features that are unique and entrepreneurs' ethical concerns are notidentical to those of engineers and
aF2F class due to the language and social issues [7, 8]. The two flavors of online classes that havebeen popular are Flipped-Format (FF) and 100% Online (OL) ones. In the flipped format, stu-dents typically watch videos of course material and study assigned readings or notes outside theclass and supposedly attend the class for group problem solving, engage in critical discussions,and interact with the instructor. On the other hand, in an online class, usually there is no face toface interaction with the instructor, and all learning takes place outside the “classroom”, which hasno physical space. In the OL format, students watch videos, study notes and text, do homework,take quizzes and exams all at their own time and pace, albeit with some
in engineering disciplines and promote ethical responsibility fortechnological creations is of immense importance. The technology developed by engineers hasfound strong acceptance and integration in the economic sector, society, and even in our dailylives [2]. The recent Accreditation Board for Engineering and Technology (ABET) visit requiresthat we teach our students engineering ethics.By studying engineering ethics, the students develop an awareness of the likely impact of theirfuture decisions on moral and ethical grounds. Teaching engineering ethics in academic 1institutions is mainly undertaken to create awareness among engineering students. Many factorsinfluence ethical standards in
throughout their academic life and howthis relates to academic performance and student engagement in school. The paper concludes bydiscussing the findings' implications and suggests future research directions.Keywords: Entrepreneurial Mindset, Comprehensive Entrepreneurial Mindset Scale, innovativethinking skills, academic performanceIntroductionThe number of entrepreneurship curricular or extracurricular programs for STEM students hastremendously increased in the last two decades. With the increased emphasis on entrepreneurshipand innovation, the term “entrepreneurial mindset” has been a buzzword, as many of theseprograms list fostering an entrepreneurial mindset in engineering students in thier programobjectives. In the broader definition, a
work. Engagement with responsibility and independence. As digital technologyopen source also exposes students to professional interactions becomes an essential aspect of everyday life, schools have aand networking, as well as events like summits and developer duty to prepare students for participation in a free digitalmeetings. In this way, students gain a better understanding of society. Relying on proprietary software can create long-termsoftware engineering, professional communication, and the dependency on specific vendors, which may hinder personalpractical constraints of large projects. Participation in open- and institutional independence. In contrast, free softwaresource projects also
, eschewsdiscussions about values or relegates them to conversations about ethics and personalresponsibility [45]. Therefore, recent graduates might feel ill-equipped to negotiate thedifferences between their personal and organizational values if they even have the option.By making issues of values more visible for both engineers and organizations, we can more fullyunderstand the different challenges faced by emerging engineering professionals as theytransition from students to professionals in practice. This can, in turn, give researchers andeducators a language with which to describe relevant values and therefore offer strategies fornavigating these “values gaps.” One potential result of this focus is engineers who are morefulfilled and engaged with their
studentsentered class. After five to ten minutes, solutions were projected using the lecture slides whilestudents switched writing tools and self-graded their quizzes. Several example retrieval practicequizzes are included in the appendix. Usually, quizzes were completed individually, butsometimes they were completed with a partner to encourage community or shared learning. Thelevel of difficulty varied depending on the goal and timing within the semester. Sometimes thesepractices were easier, reviewing past information and sometimes they were harder to preparestudents for an upcoming test. Retrieval practice quizzes included questions on assigned reading,previous lecture content, and homework. This encouraged students to keep pace with readingsections
Service (Availability),and Elevation of Privilege (Authorization) to evaluate different threats on the Arduino Megaboard.Capstone Project ObjectivesThe primary purpose of this project is to get students involved in research at an early stage intheir academic journey. Students engaged in research at the early phase could potentially pickup valuable hands-on expertise. Those skills can help to complete their senior design projectand open many job market opportunities. Moreover, the Internet of Things innovation has beenused in several domains such as transportation for smart cities, the medical sector, agriculture,and many other industries. Students working on this project will learn various skills, includingcommunication skills, presentation
Page 9.528.5 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering Educationover-sized Lego™ brick (see Figure 3). Built into the battery-powered RCX are three A/Dinputs, three 9-volt outputs and an infrared (IR) link for communication with a host computer orother controllers. RIS 2.0 also includes 2 motors, 2 touch sensors, one light sensor, over 800Lego™ pieces (plates, blocks, gears, axles, etc.) and software designed to allow upperelementary and middle school students to program robots that they have built. Beyond the basics,the project also covers advanced topics including object-oriented design and programming of
, 4 Lab.CommunicationTeaching communication, as a skill, is a persistent challenge in technical education. This ishighlighted in the Engineer of 2020 report which described it as a need to “listen effectively aswell as to communicate through oral, visual, and written mechanisms.” 5 Prior to technicalstudies students have been immersed in the fundamentals of persuasive writing and socialinteraction. All technical educators build on that base to add skills for business and technicalinterfacing. At WCU the PBL sequence ensures an orderly development with the context ofengineering project work.Table 1 - Typical Communication Topic Introduction in the PBL Sequence Topic ENGR 199 ENGR 200 ENGR 350
Paper ID #26904Is it Rocket Science or Brain Science? Developing an Instrument to Measure”Engineering Intuition”Dr. Elif Miskioglu, Bucknell University Dr. Elif Miskioglu is currently an Assistant Professor of Chemical Engineering at Bucknell University. She graduated from Ohio State University in 2015 with a PhD in Chemical Engineering, and is interested in student learning in engineering. In particular, her work focuses on various aspects of students’ develop- ment from novice to expert, including development of engineering intuition, as well as critical thinking, problem-solving, and communication skills.Dr. Kaela M
conferences. Furthermore, to address his passion for leadership development and community building, he kickstarted a chapter of Connect1NG; a professionally recognized yet non-traditional development program focused on engaging and assimilat- ing new employees to the workplace through leadership development activities and networking. He is currently one of two Western Region liaisons for the program. Boyd was also selected to be a part of the company’s prestigious LTP (Leadership Training Program) and, just two cycles from graduation, planned and facilitated two recent offsite retreats, events involving a hundred participants, requiring months of de- tailed planning and acute project management. An avid nature lover
students own the designs’ solutions because they make the decisions as individuals and as a team, which in turn increases their ownership. Feedback Loop. The DO has preset design reviews on increasing levels of design completion, which include faculty, industry partners, and eventually the public. Hence, the students learn to critique their own work as well as provide and receive feedback. This is an essential element of DO that ensures the quality of the vehicle’s final execution. It also enables the students to think holistically, particularly about the impact of their component or system design on the final vehicle’s overall concept. Documentation and Presentations Skills: During the entire DO project, the students
Paper ID #7360A picture elicits a thousand meanings: Photo elicitation as a method for in-vestigating cross-disciplinary identity developmentMs. Kristen Hatten, Purdue University, West Lafayette Kristen Hatten is a doctoral candidate in the Brian Lamb School of Communication at Purdue University in West Lafayette, Indiana.Mr. Tiago R Forin, Purdue University, West Lafayette Tiago Forin is currently a student in the School of Engineering Education at Purdue University. He received his Bachelors degree in Civil Engineering from Florida State University in 2006 and his Masters degree in Environmental Engineering from Purdue
, were even more in need for support during this transition. Although it may nothave been realized at the time, building virtual STEM experiences for K-12 students can ensurereach to a wider audience, in addition to enhancing traditional, in-person settings by creatingmore interactive and engaging content [1].BackgroundThe National Science Foundation (NSF) funds several Research Experiences for Teachers (RET)programs across the United States that are designed to support teachers through authenticresearch experiences with engineering faculty researchers. One of the goals of the early RETprogram was to foster deeper involvement of K-12 and community college faculty in engineeringresearch with the intention that faculty would bring this knowledge
hand-in-hand with industrypartners in developing leadership and growing the proficiency, effectiveness and dexterity ofselected high-potential, future leaders.The purpose of this paper is to introduce the unique structure, process and techniques used inachieving these objectives. What is the problem and why is it hard?The accelerating increase in discipline specific knowledge, deepening silos even within a singlefield of study, and the lack of consensus on the skills, knowledge and attitudes necessary to beimmediately effective in an engineering environment widen an already significant gap betweenthe needs of industry and society and the output of engineering education. Critically at risk isthe potential impact on the
, and economy together withpossible positive as well as negative impacts on U.S.-based engineers. Thesecontemporary challenges require a systems perspective and a growing need to pursuecollaborations with multidisciplinary teams of technical experts. Important attributes forthese teams include excellence in communication (with technical and public audiences),an ability to communicate using technology, and an understanding of the complexitiesassociated with a global market and social contextii. In order to ensure that engineering students studying in any university in the USreceive an appropriate and useful education, ABET a-k criteria have been created. Thisstates that engineering programs must demonstrate that their graduates attain
space constraints, the entirety of even a single unit cannot be fully described in this paper.Instead, the focus will be on describing the computational models used in each unit and theactivities students engage in using the models. Appendices 2 and 3 include the complete text ofthe questions students answer in these units. It should be assumed that there is some amount oflecture and explanation following each student activity with a model.3.1 Atomic Bonding to Crystal StructureAtomic bonding and crystal structure are covered in three chapters in our text: (1) AtomicBonding, (2) Modeling Interatomic and Intermolecular Interactions, and (3) Bonding to CrystalStructure. Our Atomic Bonding chapter begins with an exploration of a model of just two
the fields of Civil Engineering and Architecture, while emphasizing the Page 10.219.4 interrelationship and dependence of both fields on each other. Students use “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education” state of the art software to solve real world problems and communicate solutions to hands-on projects and activities. This course covers topics such as: The Roles of Civil Engineers and Architects, Project Planning, Site Planning, Building
AC 2009-206: DEVELOPING AN INSTRUMENT TO MEASURE ENGINEERINGDESIGN SELF-EFFICACYAdam Carberry, Tufts University Adam Carberry is a doctoral student in the Math, Science, Technology, and Engineering Education program at Tufts University. He serves as a research assistant and director of the Student Teacher Outreach Mentorship Program (STOMP) at the Tufts University Center for Engineering Education & Outreach. His dissertation research involves the development of assessment instruments for investigating the impact of service-learning on engineering students.Matthew Ohland, Purdue University Matthew W. Ohland is an Associate Professor in the School of Engineering Education at Purdue University