State University. We will provide a description of the studio approach, and analysis ofstudent perception of the first quarter of the widespread studio implementation in three classes:material balances, thermodynamics and fluid mechanics. We will also comment on theadministrative support and department culture needed for this type of curricular innovation.The foundation of the studio architecture is based on the demonstrated effectiveness of activelearning pedagogies from the physics education research community. These methods seek topromote a substantially higher level of engagement from students during in-class times. In arecent study, Deslauriers et al.1 studied the effectiveness of active learning reform pedagogiesusing a split design
are related to the meanings, contexts, and situations thatthey are used for. To do this, SFL examines how foundational grammar is used to create registerand meaning. This is done by examining various components of register (field, tenor, and mode),and meaning (ideational, interpersonal, and textual) and how those components interact. Theserelationships are shown in Figure 1 and are explained in the following sections. Page 25.1444.3 lFigure 1. Components of Systemic Functional Linguistics.2,4Register refers to the context or setting of the language. Lemke5 describes differences in
teach these coursesand a description of the global aspects of this study-abroad program, as well as preliminaryassessments of the collaborative program.Introduction:In Technically Speaking: Why All Americans Need to Know More about Technology,1 theNational Academy of Engineering (NAE) has established the importance for engineers’understanding to go beyond technical expertise and to include an understanding of howtechnology affects society, as well as how society affects the development of technologies. Inaddition to the importance of technological literacy, the NAE’s Educating the Engineer of 2020,Adapting Engineering Education to the New Century 2 and the American Society of CivilEngineers’ The Vision for Civil Engineering in 2025 3 have
abstract, causing manystudents to not easily relate to them. A collaborative team from Manhattan College, Bucknell University, and the Universityof Kentucky will enhance conceptual learning through a new and innovative approach. We willhave students: 1) develop an instructional video that teaches a concept in thermodynamics usingcommon metaphors, and 2) watch a similarly constructed instructional video developed by peersat a separate institution. The former employs autodidactic learning, while the latter takesadvantage of peer-to-peer learning. To measure the effects of these treatments on conceptuallearning, our project will execute: 1) a baseline assessment using a thermodynamics conceptinventory, and 2) a post-treatment assessment using
questions with two open-ended questions at the conclusion ofthe survey in which free text responses were accepted. This study focuses primarily on five ofthe Likert scale questions as shown in Table 1 and the open-ended question “What role do youthink Web 2.0/Social Networking Technology should play in the classroom?” Page 25.1447.5 Table 1. Likert scale survey questions of interest Web 2.0/SNT can be effectively used to: 20. Help faculty and students communicate with each other about course material 21. Encourage academic collaboration among students 22. Coordinate classroom activities such as
traditional review methodology. Lessons learned from thisstudy are also shared, where the use of wikis for writing research abstracts can promote a sharedlearning environment with the opportunity for students to improve their technical writing skillsand remove any inhibitions, if any, about having their writing reviewed and ultimately edited forimprovement. As such, the range of applicability and accessibility for using wikis is vast, andcan be cleverly incorporated into most courses.BackgroundImproving students’ writing and critical thinking skills are very important and necessary forcareer preparation. In recent years, increasing attention has been devoted towards improving thewriting skills of students in science and engineering fields.1 While
producedmany essays on the subject of writing within engineering curricula at various institutions over thelast three decades. Both fields face similar challenges, and theories and solutions taken fromengineers are equally applicable to the field of construction education.Similar to Berthouex’s recognition that the quality of engineering graduates do not meetprofessional demands in the field, our own Department Advisory Board continues to stress theimportance of all communication in the field.1 This is further supported by Kuhn in hisstatement that the quality is important in job placement, job performance, and careeradvancement.3 This is all the more important when it has been found that engineers spendroughly 1/3 of their time writing.2 The major
inthe form of low first-time pass rates, but several recent publications from the engineeringeducation community indicate that bad grades are not the only indicators of the problem [1-3].These reports, among others, indicate that many students, even those who pass statics, havedifficulty conceptualizing the topics that we consider essential knowledge for engineeringstudents. This learning deficiency can provide complications as students enter courses that buildon the statics foundation.The primary purpose of this ongoing study is to determine whether writing can be used inengineering courses like statics to improve learning for students. In part, this study builds onprevious studies by authors like Hanson and Williams [4] and others who have
. Page 25.1451.2A key member of all construction projects is the construction manager. In most instancesconstruction managers have university degrees offered by multiple education programs acrossthe country. However, education techniques used in universities today do not provide studentswith enough realistic construction project experience, whether it is hands-on or simulated 1.Thus, students do not rise to their full potential at the universities, leaving them unprepared toface the challenges of real-world project management.ObjectiveIn order to address this lack of realistic experience among young engineers, the performedproject proposed the use of a new educational medium known as “virtual reality environments”to create an interactive
theIndustrial Advisory Committee of the Electronics and Computer Engineering TechnologyProgram (ECT) at the University of Dayton (UD), has led to the redevelopment of severalcomputer engineering technology courses and to a new course sequencing to have a stronger Page 25.1452.2embedded systems focus. The revised course sequence and major associated embedded systemtopics are outlined in Figure 1. Note that these courses are all required for the ECT major. Figure 1: Embedded systems curriculumWithin the course sequence, system-on-chip (SoC) technology has become an important focus,being studied in multiple courses. Overall, there
STEM programs in Page 25.1453.4colleges and universities is the lack of preparation of high school students in STEM. To fill the gapand to help high school students to realize the importance of STEM education, hands-on engagingtraining programs are developed to help and encourage high school students to be exposed tovarious STEM areas through robotic design activities that tie to existing pre-engineering programssuch as FIRST Robotic Competition (FRC) and FIRST Tech Challenge (FTC). To maximizeparticipation, the trainings were offered 1) on weekends in conjunction with our FIRST partners, 2)in afterschool programs, and 3) in summer
beapplied to curriculum design. The engineering educator has a product – the course – and is toldto make it better for the consumer – the students.Engineering Design ProcessThroughout the years there have been many models created that illustrate the engineering designprocess; a few of which are shown in Figures 1, 2, and 3.Figure 1. A graphic depicting the Figure 2. A Graphic Depicting theEngineering Design Process5 Engineering Design Process6 Page 25.1454.3 Figure 3. A graphic depicting the Engineering Design Process7The steps in each figure vary slightly, but can all be condensed into
% Asian 6 13.0%Hispanic/Latino 10 17.5% Hispanic/Latino 5 10.9%Not Available 1 1.8% Not Available 1 2.2%Two or More Races 3 5.3% Two or More Races 1 2.2% 57 100% 46 100%Female 22 38.6% Female 16 34.8%Male 35 61.4% Male 30 65.2% 57 100% 46 100
], Goswami emphasizesthe environmental impact of using renewable energy, and the importance of SolarEducation and student hands on experience and involvement, which is also mentioned on[8].Solar System DescriptionWe are able to gather solar energy from two Photovoltaic Arrays: The ENGR PV Arrayand TXU Array. The ENGR PV Array is a fixed array of 5 kW with a Collector Azimuthangle of 11o from the south, and a Tilt Angle of 10o. The TXU Array has a SolarTracking System to increase the power efficiency production; it contains 2 solar trackerswith 2 degrees of freedom each. Their rated maximum power is 2.75 kW, summing up atotal of 5.50 kW [1].The ENGR PV Array generates averaged measurements every five minutes, whereas theTXU Array is recording
: Preliminary evidence from the Concept Assessment Tool for Statics (CATS)IntroductionAssessment, specifically assessment for the development of curricula and evaluation of students’performance with respect to ABET accreditation requirements, has been an important aspect ofengineering education. Therefore, engineering educators need to implement rigorous assessmentpractices in their courses that are both valid and reliable, in a manner that would allow them tohave the necessary evidence to improve students’ learning.1 Engineering concept inventories(CIs) have been developed with the intention to be used by faculty to assess students’understanding of specific concepts. Unfortunately they have been used primarily to assess
rates. If thesubstance does not allow a fluid to travel though it, the substance is known as impermeable. If asubstance allows a fluid to travel through it, the substance is known as permeable. Thesedifferent properties can be applied to underground sediments, creating areas ideal for fluids (i.e.water, oil, and gas) to collect. An underground layer of porous rock, sand, or gravel, makes anexcellent storage space for ground water; while, clay and shale do not retain water very well. Iflayers of impermeable and permeable of sediment form, water may become embedded betweenthese layers. The water and porous sediment become known a confined aquifer, as seen inFigure 1. The water reaches a maximum level, which is referred to as the water table
. 2 3 2 6 1 A` 1. ‘Pod’ equipped with dual monitors, a 1 4 resident computer and switcher for B plugging in laptops 1 2. Interactive wall surfaces E 3. Projection Screen 4. Table for layout drawings Page 25.1459.5 1 5. Space for printer and
packageswere considered on which to base the system. These included FlightGear13, X-Plane14 andMicrosoft Flight Simulator FS2004 (the most recent version being FSX). It was decided to useFS2004 due to its maturity as compared to the other choices and the availability of a largecommunity of developers. It was also decided to configure the system with three large (LCD-projector driven) out of the window views in addition to the instrument panel display (Fig. 1).Each of the LCD projector display is driven by its dedicated PC that is synchronized with thecontrol PC that also drives the instrument panel display. This synchronization is achievedthrough two commercial-off-the-shelf (COTS) software, the FSUIPC15 and WideView16. Theflight data including
Mechanics of University of Arizona. 12Generally, we can expect that the use of VR and all other means of educational software inlaboratory training maximize the interaction with the student and enhancing various phases ofthe educational process. The automation of the experimental bench, through introduction of acombination of the above systems, improves the quality of education, offering importantadvantages such as:1. The students devote their time to fruitful discussion and useful observations, having thepossibility to analyze directly the measurements, repeat some of them, compare with theoreticalor simulation results etc.2. The students concentrate on understanding fundamental concepts and not performing tediouswiring and measurements.3. The
variables and designequations, formatted fields can be created to show groups of Boolean variables formatted asbinary, decimal, or hexadecimal values. Such fields on the display are useful for interpretingarithmetic circuits. Additionally, if such a field is comprised only of input and state variablesone can click it (instead of individual variable names) to increment the field value. Thisprovides a very easy (and fast) way of trying all possible values of a set of inputs. A samplescreen-shot is shown in Fig. 1 to give a feel for the display. It implements an 8-bit ripple-carryadder. The circuit it represents contains 59 (2- or 3-input) AND gates and 15 (2-, 3-, or 4-input)OR gates. Entering this design as a detailed schematic would have probably
- learning outcomes, where technical and social capabilities represent roughly equal proportions of the total number of requirements. • Social capabilities represent a wide range of competencies, including very high-order social- analytic competencies (e.g., understanding the relationship between engineering and its social context). • Important variations can be identified in how social capabilities are understood, with four distinct categories emerging: Social capabilities 1) as constraints, 2) as awareness, 3) as responsibility, and 4) as cultivation.After reviewing, categorizing, and analyzing the key ways social-analytic competencies arearticulated and understood in the four countries’ accreditation documents, we identify
to try to introduce students to multiple forms of representations at once.This is exactly what is often done in engineering, science, and math education. [1] In this introductory review of representations in mechanical engineering education, first ageneral overview of representations in mechanical engineering is presented. Following that,some of the differences in the common types of these representations are discussed. Lastly, theeffect that the representations have on the language used by the students is discussed.Representations in Mechanical Engineering Education In mechanical engineering education, the approach taken to solving a problem is oftenpresented as a three part process: (1) The educator explains the problem that
included multiple workstations through use of the previously purchased NanoSurf EasyScan 2 AFM as well as the Veeco Caliber. The remote access AFM from the NACK Center was also demonstrated for the group during the workshop. Hands-on material was provided to the participants for using it in their classes. The powerpoint presentations developed for Part 1 and part 2 are given on the project’s website: www.sunyit.edu/afm. Conducted an interactive lecture in Engineering Physics 3 course at MVCC using NanoSurf easyScan 2 AFM. The lecture included theory, operation of AFM, and a demonstration of AFM using prepared samples. Students were required to complete a written assessment including Internet research on AFM and prepare questions for the
had increased only slightly to 68%.1 With the nanotechnologyindustry manufacturing over $50 billion in goods, it would be beneficial for the general publicto know about some of the new and emerging nanotechnologies. Similarly, a 2010 ResearchAmerica survey on Floridians found that 60% of individuals in Florida would like to see moreinformation about science and research.2 Therefore, this work looks to assist in increasing thepublic awareness of innovative nanotechnology.Particularly, the advancements in the area of nano materials technology, and its applications toalternative energy, have spurred the debate on ethical considerations for society and theenvironment. Dr. William Marcy, P.E., executive director of the Murdough Center
involves team building, hands-on activities, technical reportwriting, and oral presentations. The underlying concepts of engineering design pervadethroughout all eight semesters4. However, as shown in Table 1, each Clinic course has a specifictheme and emphasizes specific topics4. Inside of these overarching objectives, the engineeringfaculty at Rowan University have developed a variety of projects of innovative pedagogy thatfocus on sustainable engineering at each level of Engineering Clinic. Table 1: Overview of the Course Content in the Eight-Semester Engineering Clinic Sequence4 Year Clinic Theme (Fall Semester) Clinic Theme (Spring Semester) Freshman Engineering
will report lessons learned, student responses, application of the programto an undergraduate NSF-funded REU program, and transition to a sustainable ethics educationprogram for STEM graduate students.Intellectual Property for STEM StudentsUnderstanding the basics of U. S. intellectual property law and the norms of scholarly publishing– copyright and appropriate attributions, fair use, falsification of data, plagiarism, and patentrights and infringement – are essential to ethics education for STEM students.1 Three factorscontribute to its urgency: 1. Federal mandates for responsible conduct of research (RCR) for students engaged in funded research. Ethics education in intellectual property and scientific publishing is a
received several teaching and research awards, including the Shewhart Medal, the Brumbaugh Award and the Lloyd Nelson Award from the ASQ, the George Box medal from ENBIS, the Greenfeld medal from the Royal Statistical Society, and the Deming Lecture award from the American Statistical Association. Page 25.1469.1 c American Society for Engineering Education, 2012 Web-based Active Learning Modules for Teaching Statistical Quality Control, 2012 Update!!!!"#$%&'()*+"#$!%&'%()$!(*!+#,)!'$)$-'.#!,)!+(!,/0$)+,1-+$!+#$!&)$!(*!),2&3-+,(/45-)$6!-.+,0$!3$-'/,/1!+((3
and MetricsAbstract “The traditional (or Alexandrian) model of the library is based upon the mistakenintuition that to be good a library must be vast and always growing.”1 Weeding of librarycollections, whether printed or electronic, whether by choice or compulsory, createsopportunities for criticism and growth. Where the literature suggests that starting a weedingproject is close to last on a librarian’s list, events beyond a librarian’s control can force aweeding action. Space reallocations, time constraints, or e-provider policies imposes risks thatthreaten the attempt to maintain a viable collection. Sometimes the choice is voluntary; but if notexplicitly defined as part of a formal collection policy, the rationale used can vary
of the action plans. It discusses the results of the lessons andprojects, including successes as well as failures. Based on our results, we discuss lessonslearned and provide recommendations for teachers looking to implement EBL in theirclassrooms and in various disciplines. Page 25.1471.21 IntroductionPast educational models like T4E focus on principles such as structured, effective, andefficient teaching models that encourage and engage hands on learning. Understandingpast models like T4E allows us to understand and improve upon how teachers learn andhow that knowledge is transferred to students [1]. For most high school teachers, theirteaching
internal expenses and the remaining 40 percent ($68.5 billion) contributed to external expenses.” Page 25.1472.3 1 Green, Michael & McGill, Erin (2011). State of the Industry Report, 2011. Alexandria, VA: American Society forTraining & Development Research. 2| In 2006, the authors conducted a focus group with multiple corporate attendees from thefollowing industry areas (with emphasis on their engineers): a. Architecture b. Computer hardware c. Computer software d. Energy e. Government f. High tech g