significantly different from the first author. In this paper, the authors willsummarize the benefits of their experience which have been used to enhance students’ learning,from the freshmen introduction to civil engineering class to the senior capstone design project.In addition, the authors will offer their perspective as a faculty-engineer and the factorsinfluencing the effectiveness of this “dual” position. “Publish and perish” is not the only reasonwhy so few faculty members are interested in this “dual” position. The support from engineeringprofessionals is also very important. The owners of the firms must have genuine interest inhaving the faculty member incorporate his/her professional experience into the classroom toenhance student learning
been regarded as avariable that is difficult to measure even utilizing LMSs [31]. Figure 7. The user-tracking system compared to the earlier Google Analytics-based system. 6. ConclusionIn this paper, the authors have presented the following: a) the functionalities of a secureindividualized user-tracking system developed within a cyberlearning system, b) the design of anOWLS-based environmental monitoring task implemented within a classroom environment forin-class field site visit and laboratory experience, c) the pilot study to investigate the relationshipbetween individualized students’ behavioral engagement and learning for the specific OWLS-based learning task, and d) the efficiency of the custom user-tracking system in comparison
CAEfeatures. The flexibility of the mechanical systems kit allows for almost infinite possibilities inthe construction, experimentation and design of mechanisms. The future goals of this initiativeare to develop the mechanical systems kits, laboratory exercises and to introduce the kits to theDynamic Systems classroom for initial testing. Results from the initial testing will be provided infuture publications. Page 22.893.7References 1) Dunn, R., & Carbo, M. (1981). Modalities: An Open Letter to Walter Barbem Michael Milone and Raymond Swassing. Educational Leadership , 381-382. 2) Kolb, D. A. (1984). Experiential Learning: Experience as
MechanicalEngineering Technology (MET) in its Engineering Technology Division. While focused onmechanical design as a prime educational outcome, the mechanical engineering faculty recognizethat a fundamental understanding of engineering materials and related manufacturing processesis critical for the engineering technology graduate to be able to effectively function in today’sconcurrent engineering paradigm. Most curricula in mechanical engineering and engineeringtechnology offer courses in materials and manufacturing and many include lab experiences alongwith these courses. Adequate facilities must be provided for these laboratories as required byABET criteria: EAC criteria: “Classrooms, laboratories, and associated equipment must be adequate to
robots. Students apply computer-controlled robots in manufacturing and programmable automation. CSC455, CSC655: Computer-aided Design and Drafting - Three hours lecture and lab; 3 credits. Introducing the concepts, principles and applications of CAD. A CAD software system, Pro/Engineer, is used to support laboratory experiences and the projects. Graduate students prepare a research paper for presentation to the class. CSC475: Computer Integrated Manufacturing - Three hours lecture and lab; 3 credits. Introducing the use of CIM systems to improve productivity, information flow and management of resources. Students design and operate a pilot-scale flexible manufacturing system. Emphasis is on hardware
this laboratory is to enhance students’understanding of power electronics circuits by conducting a series of laboratory exercises, designexercises, and computer simulation exercises using PSPICE or SABER©. In order to finish allassigned lab projects, students must be able to use various measuring equipment such as CurveTracer, Spectrum Analyzer, Digital Storage Oscilloscope, Voltage and Current Transducers, etc.Familiarity with PSPICE, SABER©, LABVIEW and MATLAB are also required in order forstudents to carry out all assignments. One laboratory exercise, DC Motor Speed and Torque Controlusing Single Phase Controlled Rectifier Circuit, is designed for distance learning such that studentscan conduct this experiment through Internet using a
their graduates have the ability to design and conduct experiment, as well as toanalyze and interpret data”. The innovative approach is a project consisting of designing,constructing, and testing of structural systems made of different materials, and subjected todifferent loading and support conditions. The paper presents the detailed description of theproject, all the steps performed by the students, and the difficulties faced by the students in theirfirst attempt of this project. In addition, the paper concentrates on the Outcomes and theAssessments of the project according to criterion 3.of ABET 2000.Introduction In the fall of 2002 the school of engineering programs at Manhattan College have gonethrough the accreditation process
Society for Engineering Education, 2012Engineering SqueezoMeter and HuggoMeter Page 25.555.2 Engineering SqueezoMeter and HuggoMeterAbstract: This paper discusses the design of two experiments developed to serve two primarypurposes. The first one is to expose students to the application of strain gages and dataacquisition system to measure stresses in a beam due to particular loading conditions andcompare them with the results obtained from theoretical analysis. The second one is to use theseexperiments in engineering recruiting events and engage prospect engineering students in hands-on experiments so that they can envision great times while studying engineering. The first experiment is
Foundation Piersall come to life when the full-scale structure is excited.Student Vibration LaboratoryThe vibration laboratory challenges students to assess the Bridge House dynamic responsethrough multiple avenues: 1) Hand calculations 2) Computational models 3) Site visit, Forced Vibration Testing 4) Post-Experiment evaluation of computational modelsStudents began by performing hand calculations based on the Bridge House drawings to estimatethe building natural frequencies and mode shapes to provide a reality check for thecomputational model. Multiple modeling decisions ensued, challenging students to consider avariety of issues related to design, construction and building behavior. The first issue for thestudents to address was
inspired by theneeds of creating meaningful hands-on DSP lab experiments in the allotted one term period (tenweeks) and by the goal of improving student success in implementing DSP-based culminatingprojects that meet desired goals within realistic constraints. The benefits of integrating the MCUtools in the DSP course are very promising. It permits more practical DSP laboratories and DSP-based capstone projects that render richer design experiences and makes meeting realistic designconstraints feasible. Furthermore, it provides an integrated laboratory curriculum structurebetween embedded microcontroller and DSP courses which reduces students’ unnecessary effortof learning new tools in different courses. Consequently, students can focus more on
to the remote server tomonitor performance.1. IntroductionThe Internet of Things (IoT) has added a new element to the world of engineering andtechnology. With the advent of IoT, a large number of devices are now being connected tothe web for data collection, management, and control [1, 2, 3, 4]. As a subset of IoT, remotelaboratories allow to access laboratory equipment over the web to perform experiments. Atraditional remote laboratory system involves a full-scale computer system along withassociated interfacing and web hosting technologies, but sometimes there is significantoverhead for the initial commission and subsequent maintenance of a remote laboratorysystem [5, 6]. To address this issue, this paper reports the design
AC 2009-2230: DESIGN AND CONSTRUCTION OF A RAPID PROTOTYPINGMACHINE: A BREAKDOWN OF THE MACHINE SUBSYSTEMS USED TOLEARN MULTIDISCIPLINARY ENGINEERING SKILLSDavid Culler, Oregon Institute of Technology Dr. Culler has more than 20 years experience in CAM systems and is currently an Associate Professor at the Oregon Institute of Technology in Klamath Falls, OR. He has worked with Sandia National Laboratories, the Army Research Organization and most recently spent 4 years teaching at the Costa Rica Institute of Technology. He has published some of his work in the RCIM journal and at the 2004 Frontiers in Engineering Education Conference in Savannah GA.Noah Anderson, Oregon Institute of Technology Noah
experiences. While open laboratories have been proposedas a means to insert hands-on analysis and design into traditional lecture courses, this approachrequires that students return to campus to complete their assignments. In addition to resourceallocations associated with maintaining equipment laboratories, open laboratory traffic can beproblematic, e.g., in instances where classes are offered as service courses for large numbers ofstudents in other departments. This paper addresses the creation of a hands-on learning toolkitcalled the Rapid Analysis and Signal Conditioning Laboratory (RASCL), a portableanalog/digital prototyping unit that provides a student with the capability to attend to hands-onassignments at home. While a few semi-portable
describing the hardware setup and software architecture, aswell as the laboratory experiments that have been developed based on this platform.4. System Description4.1. HardwareThe experimental setup, shown in Fig. 1., consists of two robot units mounted on a base plate, ahardware-in-the-loop data acquisition board, a linear current amplifier, and a desktop computer.4.1.1. Quanser 2DOF PantographThe 2-DOF Planar Pantograph robot is designed for research and education in haptics as well asrobotics. The interface has two degrees of freedom allowing for planar translation. This isachieved by using a Pantograph arrangement, as shown in Fig. 1. Parallel arms in thePantograph arrangement are capable of applying large force while bearing simple structure
Generator / Variable Power SupplyOne piece of equipment that was pivotal to the remote laboratory experiments was the EspotekLabrador USB oscilloscope / function generator / variable power supply. This device hassignificant limitations, but at USD$30, it enables assembling kits for non-trivial experiments at asurprisingly affordable cost. This device uses an open-source hardware design, with open-sourcecross-platform software.Figure 6. USB Oscilloscope / Function Generator / Variable Power Supply, mounted on abreadboard.The oscilloscope shows significant noise even on a signal generated by its own generator; seeFigure 7. One of the main limitations of the USB oscilloscope is its sampling rate. At 750ksamples per second, it is suitable only for
assignal conditioning and computer interfacing. This paper discusses the different types ofsensors and the experiments which were developed to study them.1. IntroductionThe Engineering Physics (EP) program at the University of Wisconsin - Platteville began in theFall of 1996. The EP program was born out of a traditional physics program. Little of thephysics curriculum was completely removed in this transformation, although a small numberof credits were taken from existing upper level physics courses and replaced with novel EPcourses. Three such courses were developed, the engineering physics laboratory (formallyadvanced physics laboratory), sensors laboratory (formally two credits of advanced modernphysics), and senior design (a new capstone
data for all the experiments. Each experiment has a specially designed table.“tblGrades” is set up to store the grade information for all the users. Any user can obtain his orher up-to-date course grades from this table but cannot view any other student's grades.The ASP FilesASP allows the presentation of dynamically-generated web pages to users. Serving ASP webpages to a client requires a web server running Windows NT Server 4.0 and Internet Information Page 5.717.3Server 4.0 2. ASP pages are text files that can contain a combination of HTML, VBScript, andJavaScript. In this project, only HTML and VBScript were used to create the necessary
of the experiments are designed to demonstrate physical principles. Several are also designed todemonstrate applications or to give experience with widely-used tools and techniques in sound and vibration 1engineering. In another paper we present more detailed discussions of laboratories 3 and 8 which demon-strate the value of coupling computer simulations with experiments to avoid mistakes, improve quality, andenhance confidence in both the computer model and test results. In this paper we describe the laboratoryexercises, explain the objectives and learning outcomes expected of each exercise, and discuss how the se-quence of exercises enhances comprehension. Full laboratory procedures (in TeX or Postscript
and hence also mechanical energy losses in the stream tube comprising the windtunnel region. This readily shows that the major source of these losses is associated with thediverging section, in obvious contrast to the converging inlet section. Identification of theselosses represents an important component to be considered in the design of the wind tunnel itself,as they are directly related to the power requirements to drive the flow. Introducing students tothe strengths as well as the limitations of analytical tools such as Beronoulli’s equation, isextremely important to a meaningful experience in both aerodynamics and fluid mechanicslaboratory settings.Wind Tunnel FacilityFigure 1 shows the existing Educational Wind Tunnel associated with
chemical properties of a spring and the affect of each onthe displacement of the spring in the text, students are expected to identify the physical andchemical properties of a wire that could affect the resistance through it. After identifying severalproperties, students are expected to design a series of experiments to determine how theseproperties, e.g., diameter and length, affect resistance. Upon completion of each experiment inthe series, students are asked to develop a scatter plot of the data, test the data to determine anappropriate model, verify the model with a residual plot, and use a graphing calculator toconstruct the best-fit model for the data. Students should be able to identify the linearrelationship between length and resistance
paper covers the assessment methods used and the results to date.New Programmable Logic Controller (PLC) trainers have been introduced in SCADA(Supervisory Control and Data Acquisition) Systems Design. The labs for this course have eitherbeen modified or new ones created to work with the new equipment. To objectively assess theeffectiveness of the equipment and laboratory activities, pre- and post-lab surveys areadministered to the students. Students are surveyed about their understanding of the variousobjectives of the labs. The survey results, along with direct assessment data in the form of labscores, are used to identify areas of improvement for the equipment and the labs.IntroductionIn the fall of 2020, a new PLC trainer was introduced to
* Edge Detection and Binary Effects Using Back Lighting * Investigate & Design Lighting Configurations for Industrial Parts & Tasks * Use of Strobe Lighting to Image Features on Moving Parts * Laser and Fiber Optic LightingDue to the interdisciplinary nature of vision systems, these laboratory experiences include basicconcepts in related fields such as: electronics, computers, production control, axis transformation,algorithms, pattern recognition, optics, lighting, and much more.A final project for the first course is to develop a robotics program to incorporate the robot arm,sensors, and/or vision sensor to perform tasks with subroutines and decisions. Machine visionsystems are used to let the robots identify
laboratory is the “design, build, and fly”project. Virginia Tech has extensive experience in student-centered projects of this type for air-craft, and is now involved in designing and building a small satellite. This satellite project, theVirginia Tech Ionospheric Scintillation Measurement Mission27 (VTISMM), is sponsored by theAir Force Research Laboratory, the Defense Advanced Research Projects Agency, and NASA’sGoddard Space Flight Center through the University Nanosatellite Program.28 The 10 kg satelliteis being designed by undergraduate students in aerospace, computer, and electrical engineering,and will be launched on the shuttle in late 2001. The “HokieSat” will fly in formation with twoother university “nanosats” being built by students at
self-directed learning for a diversity of learners, with anaim to strengthen their sense of mastery and agency. The design elements include: Textbook;video lectures; instructions that incorporate recommended current practices for neuro-diversity,instructional design, and visual navigation. The materials have been piloted and refined over aperiod of 7 years with approximately 500 students. Course materials can be downloaded at nocost; future development includes low-cost, supporting hardware. The course was rated apositive experience (39/74) approximately twice as frequently than it was rated either negative(3/74) or not rated (14/74) by first year students in the Fall 2019 offering of the course (85students) at a small residential engineering
unsuccessful experimental outcomes. 4. Recognize the scale and sophistication of mechanical and electrical systems. Objective 2 recognizes that experiments should teach students to collect, analyze, andinterpret data. This objective was helpful in determining how a remote lab should representnumeric information. The graphic interface in Figure 2 was modeled after a commerciallyavailable building automation system. The visual layout may seem like a minor point, but theability to navigate and interpret data from web-based systems has become an important job skill.The remotely accessed energy laboratory was consciously designed so that students collect,analyze, & interpret data as they will during their career. Course objectives
senior-level undergraduatestudents with a minority of graduate students. The course is a four-credit class, and involvesboth a lecture and a laboratory component. The lectures, however, do not introduce any newfundamental principles in the fluid and thermal sciences. Instead, the lectures serve to reviewand apply principles that have already been taught in introductory classes in thermodynamics,fluid mechanics and thermal energy transport. The laboratory component is strictly gearedtoward design, synthesis and evaluation, utilizing knowledge, and comprehension learned inprevious courses.The Fluid and Thermal System Design course was instituted in the 1970’s to be the primary fluidand thermal design experience for graduating seniors. As a four
taken.I. Background and GoalsThe control-systems laboratory at the University of Colorado at Colorado Springs (UCCS) hadnot been paid much attention for years. One major deficiency was that it had not a single device tocontrol! All lab experiments were accomplished via simulation, either on a Comdyna GP-6 analogcomputer,2 or on one of the lab’s digital computers using Matlab and Simulink by MathWorks. 3Simulation using either method has limitations. The need to control real hardware, and not justsimulations, is known to all who design and build real control systems. How this applies tocontrol-systems education is emphasized in a paper by Bernstein. 4 Modeling and simulationrarely capture the complete picture—physical system identification is
developed in house). Integrated Learning EnvironmentThe new laboratory will use an Integrated Learning Environment model that involves a paradigmshift in the design of laboratory instruction. Typically, laboratory instruction suffers fromisolated learning which results from a focus on short term solutions instead of long range goals.In the Isolated Learning model, the instructor develops laboratory exercises, experiments, andstudent materials based upon the immediate demands of a specific course. This results inoptimizing the instruction in one course without regard to other laboratory courses.The Integrated Learning Environment approach redefines the way laboratory instruction isdesigned. The integrated approach
Paper ID #16947Flipped Laboratories in Chemical & Biomolecular EngineeringDr. Lauren Sefcik Anderson, Lafayette College Dr. Anderson is Associate Professor and Acting Head of Chemical & Biomolecular Engineering at Lafayette College. She received a BS in Chemical Engineering from Lafayette College in 2004 and a PhD in Biomedical Engineering from the University of Virginia in 2009. She is the recipient of the NSF Graduate Research Fellowship. Dr. Anderson teaches courses in transport phenomena, experimen- tal design, biomolecular engineering, and material science, including biomaterials. Her research area combines
of a variety of electronic components and a proto-board,and they are required to assemble and interconnect the components on their proto-boardsto perform some specified electronic function. They are then requested to make a varietyof experimental measurements on the circuit that they have built. While in the electronicslaboratories, students have access to such instruments as DC power supplies, functiongenerators, digital multi-meters (DMM’s) dual-channel oscilloscopes, and curve tracers.We tried to design the web-based laboratory experiments as close as possible to the in-class experience.II. System DescriptionII.A Hardware DescriptionFive hardware systems were purchased and installed, four on the main campus inKlamath Falls and one