and manage emotions; another component of personality. This is a very complex issue which we have just started to try to measure with EQ testing. • Cultural Intelligence: an awareness of cross-cultural differences. In our global society, this has become more and more important but it remains difficult to measure.More and more, we are trying to understand our students and their abilities to learn in these fourcategories but measuring all but cognitive intelligence has remained allusive.8Generally, we know, after years of study of cognition, motivation and human development, thefollowing four key concepts that apply to college students: 1. Knowledge is constructed, not
engineer. 7 Basic Steps in the Engineering Design 7 Basic Steps in Writing a Paper Process1] Idea – “Let’s build a Dog House” 1] Assignments, creative thoughts, free writes2] Design – get plans, specifications 2] Basic Format - Intro (Thesis), Body (3points), Conclusion3] Materials – wood, nails, paint 3] Words! Use of Dictionary & Thesaurus are helpful4] Tools – saw, hammer, ruler, paint brush 4] Mind, Library, research, word processor, writer’s reference5
studies that claim that student’s understanding can beenhanced when writing is incorporated into engineering courses 1 2,3. The claim of Writing Acrossthe Curriculum is that in order to write about a concept clearly you must have a goodunderstanding. In addition to the writing component, we are connecting the physics and calculuscourses that freshman take. Kumar and Jalko4 make the claim that mathematics courses shouldbe taught from an applications point of view. We also look to reinforce several efforts at Vaughn 1to improve retention rates of engineering students. Some of these efforts have included freshmanorientation courses, learning
improve the detection of hazards due to terrain, air traffic, and runway obstacles byintegrating data from weather radar, infrared video or Light Detection and Ranging (LIDAR) with existingaircraft sensors 1. Within this project, our laboratory has focused on the use of dedicated FieldProgrammable Gate Array (FPGA) hardware for computationally intensive algorithms. When images andvideo are acquired, some manipulation and processing must occur before they are displayed. In order tomaintain real-time feedback to the pilot, dedicated hardware can be used instead of software solutions.This article evaluates a design method for a real-time processing system based on Field Programmable GateArray (FPGA) and Digital Signal Processing (DSP) structure. To
inTable 1. As shown, 84% of the total grade was assessed during scheduled class and laboratorytime. Since attendance was mandatory, few would miss any of the in-class graded events. Thisprompted a focus of short-term preparation since quizzes, exams and the term-ends were allscheduled events, while assignments were less emphasized because they were simple, time-demanding, worth few points and provided with solutions at a later time.To overcome this procrastination in this course, the author proposed two objectives: shift pointsfrom in-class to out-of-class events and reduce the total number of events. Later offerings ofEE302 in Spring 2008, 2009 and 2010 are used as the basis of comparison and effectiveness ofthe aforementioned adjustments. Some
thencasted in PDMS, yielding microfluidic devices with a height of ~ 60 µm—or multiples of 60 µm,if several layers of tape were stacked. This technology makes it possible to create microfluidicdevices with any planar (2D) design that the students can draw on a paper. After the drawing isfinished, it takes only 1 hour to fabricate a microfluidic device with the shape of that drawing.We believe that this technique will enable the study of microfluidics in educational settingslimited in their access to cleanroom facilities. We present a demonstrator that illustrates thepotential of this technique in standard teaching labs.IntroductionIn this paper, we describe a method to fabricate microfluidic devices using only bench-topmaterials and tools (Scotch
, EE450 Military Electronic Systems, overseveral semesters, allows the opportunity to enhance and augment lectures with activities and in-class circuit exercises. These enhancements then allow for more complex laboratory exerciseswhich include common devices such as TV remotes and RC controllers. The addition of hands-on activities or exercises minimizes “the lecture’s relative ineffectiveness at transmittinginformation”1 and can increase retainability. Figure 1: BOE-BotSelecting a Robot SystemThe BOE-Bot has many online and free resources available to program and incorporate variouscircuits and sensors. The vendors provide texts with a myriad of activities to explain and teachvarious components. However, many
representing measureable properties of systems. The concept is anotational device for writing the laws of these systems. Consider the set of rectangles as oursystem to study. The laws are relationships of the system, in this case: 1) The area of any rectangle is the product of its length and width and 2) the perimeter is twice the sum of the length and width.Call the length, L, the width, W, the area, A and the perimeter, P. Then in algebraic notationthese laws become: 1) A = LW and 2) P = 2(L + W). This algebraic notation is a wonderfulinvention. Not only are laws written more compactly in algebraic notation, but the algebraicnotation is easily manipulated. The relationship, A = LW, can also be modified by the rules ofalgebra to L = A/W
code has the probability to retrieve all or some of the secure information.Optical joint transform correlation (JTC) offers a nonlinear encoding process which is verydifficult to break without knowing the code as well as the process [1]. Also it does not requireany complex conjugate of the address code for decryption purpose and accurate alignment ofdevices for implementation of the technique in optical domain. Several other optical informationsecurity systems have been proposed in the literature, which include double phase-encoding withrandom masks [2], polarization encoding [3], multiplexed minimum average correlation energyphase-encrypted filter [4], exclusive-OR encryption [5], fractional Fourier transformation [6],shifted phase-encoded
ABET as well as essential forstudents’ future success in the workplace.BackgroundThe University of Hartford has significant history of collaboration between the first-yearrequired engineering curriculum and the first-year required writing curriculum. Since 2000, thesecourses have been paired in First Year Interest Groups (FIGS) in which instructors plan andimplement shared objectives and course activities, to emphasize the essential relationshipbetween engineers and written and spoken literacy.1 Although writing instructors andengineering instructors must give first priority to departmental objectives, critical thinking andanalytical skills cut across both disciplines, and shared or linked assignments (called “integratedlearning blocks”) are
Structural Insulated Panels (SIPs) each with diagrams of construction details but without supplemental video. The test group was given 2 separate but identical lectures, each with diagrams of construction details, and 1 short topic specific supplemental video per topic. Quizzes conducted in both groups showed that the test group scored higher on questions on these topics than the control group, and the difference in quiz scores between the 2 groups was statistically significant. These results suggest that topic specific videos are a valuable educational tool when accompanied by visual handouts. Key words: Assessment, SIPs and ICF, video-based learning
work is dividedand weekly meetings are held to review progress for critical review and informationsharing.Implementation: To introduce the conceptual approach the initial phase of the courseutilized three illustrative examples. The first was a set of references from the UnitedStates Geological Survey and the National Academies [1-8]. Key figures from thesereferences clearly establish that the U.S. economy is intensive in its use of mineral-derived materials. Consider Figs. 1 and 2 from ref. 1, and Fig. 3 derived from data in ref.3. Figure 1. U.S. flow of raw materials by weight, 1900–98. The use of raw materials dramatically increased in the United States throughout the 20th century ( from ref. 1, cited as modified from Matos and Wagner
(PV) is the best known solar energy technology and it has beenaround for a long time - the seminal paper that theoretically analyzed silicon PVcell energy conversion efficiency was written by William Schockley (who alsowon the Nobel Prize in 1956 as one of three inventors of the transistor). Mostcommercial PV products have efficiencies in the 10-15% range, significantly lessthan the 30% theoretical maximum predicted by Schockley. The PV industry hasbeen trying to achieve a cost of $1/Watt-peak for over 30 years and much ofcurrent industry activity is focused on low-cost PV technologies and reducingmanufacturing costs. Moreover, a large percentage of the installed PVinfrastructure can be attributed to significant subsidies and tax
and unwanted camera movements. Different works on object detection with stable background in real time video led to manyalgorithms. The most commonly used are the Running Gaussian Average, the Mixture ofGaussians, the Kernel Density Estimation and the Eigen Background techniques. An exhaustivecomparison of all the techniques is not provided here. Following is an attempt to summarizechallenges on accuracy and speed encountered by the authors of the experiments on thesemethods.6, 7, 8, 9Table 1: Accuracy and speed of some background subtraction techniques Methods Accuracy Speed Running Gaussian Detection of a lot of noise (false alert Fastest due to simplicity in Average
commonly used manufacturing process for products made from sheet metal. The covert orintended collateral goal was to help students understand alignment or misalignment of students’beliefs of what constitutes quality work and what the costumer (the instructor) wants. Theexercise covers one class period plus 20 minutes of the subsequent class period.Day 1, Part 1The exercise requires students to create five 3-D objects from sheets (2-D) of cardboard (filefolders) given standard engineering drawings of the objects. There were three deliverables (seeFigure 1): 1. Layout drawing of the object—this is a ¼ scale 2-D drawing of what will be drawn on the folder paper, cut out, and then folded into the 3-D object; 2. Actual 3-D object made
softwareare found in virtually every area of scienceand engineering.Program:1–2:30 pm Intro and Live Demo2:30–4 pm Hands-on Session If you have any questions do not hesitateto contact Nicholas Snaith by email atnicholas@comsol.com or phone at(781) 273-3322.LabVIEWHands-on Campus Workshop byNational InstrumentsIn this workshop you will get:1. ntroduction to DAQ hardware— I capabilities, driver software, where to go for help2. ntroduction to LabVIEW—User Interfaces, I Block Diagram, Collecting Data, Signal Processing, Writing to Disk. Learn how to create complete LabVIEW applications from scratch in minutes with interactive Express VIs and I/O assistants3. &A —Address specific applications you Q have in mindRegistered
Partnerships across Academic and Geographic Boundaries: A Technology-Driven Transformation of 3 – 7th Grade STEM Learning Communities rd Authors: Arthur Kney1, Nancy Ball1 (Lafayette College), Traci Shoemaker2 (Spring Cove School District), Danuta Bukatko3 (Holy Cross), Angela Moran4 (US Naval Academy), Joe Colosi5 (DeSales University)1) Lafayette College, 740 High Street, Easton, PA 18018, 610-330-5439, kneya@lafayette.edu, balln@lafayette.edu;2) Martinsburg Elementary School, 415 Spring Street Martinsburg, PA 16662, 814-793-2014, tshoemaker@scsd.k12pen.com;3) dbukatko@holycross.edu; 4) amoran@usna.edu; 5) jcc0
pharmaceutical industry whichcould be incorporated into an introductory freshman or sophomore chemical engineering course.Many of the problems are appropriate for the freshman level and do not require mastery offreshman math and science content. More advanced problems do use concepts from freshmancalculus 1 and 2. chemistry 1 and 2, and physics. The problems were designed to be used as in-class examples or homework problems. The formatting, layout, style and focus of the problemspresented in this paper are based on those of Felder and Rousseau’s Elementary Principles ofChemical Processes1, a widely-used textbook for these types of courses. However, coursestaught with a different textbook may still use the problems developed since they cover topicssuch
particularly evident with high school educational models in which students aretaught digital tools, not computational thinking, concepts, or ways to design. Teaching thatfocuses on concepts rather than tools, while still acknowledging the roles tools play, addressesuniversal issues of creativity and continues to stay relevant for a longer time period.“Learning by doing” philosophyLearning by doing, often called experiential learning, is about acquiring skills and knowledgethrough activity, which is often contrasted with the traditional didactic and passive-style learningreferred by Paulo Freire as “banking education.”1 There is ample precedence and philosophical backing for the learning-by-doing approach.Some trace it as far as Confucius, with
system definedthreshold, the matching is considered successful, otherwise unsuccessful. The main objectives ofbiometric recognition are user convenience and better security. We believe that widerapplications of biometric technologies are inevitable and necessary. However, biometricapplications have raised a series of issues that prevent its wide acceptance. Among them thesecurity and privacy issues [1-6] of biometric information are regarded as more important thanother issues.In literature a few methods [7-9] has been proposed to address these issues by perturbing theoriginal minutiae of fingerprint templates. In this paper we propose an authentication system thatprotects the security and privacy of biometric information. Specifically, the
steganography – Information Hiding.Biological AlphabetsHuman languages have redundancy. Shannon [1-2] estimated the entropy of written English to be0.6 to 1.3 bits per character (bpc), based on how well people can predict successive characters intext. Cover and King [3] concluded 1.25 bpc. The redundancy makes cipher using these languageseasier to attack.In biology the genetic information existing in DNA is a base 4 system. Lanctot et al. [4] reportedsome experimental results on the entropy of DNA. The first experiment was focused on thecoding and non-coding regions in E. coli to test the hypothesis that the non-coding regions havea role by showing that they may be more regular than coding regions, which would support theconjecture that non-coding
interact with 3D designs, as well ascommunicate and share experiences. As a result of the internet-based, persistent andcollaborative nature, Second Life may offer advantages over traditional modeling tools.Virtual worlds, such as Second Life, have been demonstrated to be a useful educationaland research tool, and will play an important role in the future.1. IntroductionSecond Life® is an online, virtual world platform which was first released in 2003[1].Since that time, the number of universities, organizations, and corporations exploringSecond Life has steadily grown. Currently, there are many universities (estimated at over300) with a presence in Second Life. Typically, there are between 60,000 to 80,000people online at any given time in Second
in Mission (SIM)1 facilities in West Africa. The purpose of this trip was to look forpotential areas for project collaboration between SIM and the Messiah College Department ofEngineering. SIM was a logical partner for our department because of their long-termcommitment to aiding developing countries and experience in supporting overseas projects.The immediate result of this trip identified a need for electrical power at a medical dispensary inthe rural village of Mahadaga, Burkina Faso. In January of 1998, a team of faculty and studentsreturned to Mahadaga to install a photovoltaic solar array. In the course of the visit, the teamdiscovered a second area for project collaboration with SIM: irrigation of the vegetable gardensand mango
purpose is to reduce thewastewater volumes discharged to these receiving bodies. The objective of water use reduction ismaximizing water efficiency within buildings to reduce the burden on municipal water supplyand wastewater systems. Based on prerequisite 1 Water Use Reduction, 20% Reduction isrequired. Credit 1.1 Water Efficient Landscaping, Reduce by 50% ,Credit 1.2 Water EfficientLandscaping, No Potable Use or No Irrigation, Credit 2 Innovative Wastewater TechnologiesCredit 3 .1 Water Use Reduction, 30% ,Credit 3 .2 Water Use Reduction, 35% and Credit 3 .3Water Use Reduction, 40% at least Credit 4 Process Water Use Reduction, 20% . The definitionof these prerequisites are as follows: Potable Water is meets or exceeds EPA’s drinking
trips, chapters must rely on non-college-affiliated professional mentors. This creates challenges in both supporting and assessingthe service learning occurring. This paper describes those difficulties and recent efforts toformalize the academic aspects of the program at Lafayette College.IntroductionEngineers Without Borders–USA (EWB–USA) was founded in 2002 by Dr. Bernard Amadei, aProfessor in the Department of Civil, Environmental, and Architectural Engineering at theUniversity of Colorado at Boulder. Its mission is to support “community-driven developmentprograms worldwide through the design and implementation of sustainable engineering projects,while fostering responsible leadership”.1 Since its inception, EWB–USA has grown to over12,000
cultivate a mentor network, enabling CUNY graduatestudents who are only a subway ride away, to become role models for STEM undergraduates atCity Tech. The goal is to increase the number of students receiving associate and bachelor’sdegrees within science, technology, engineering and math, by conducting the following activities: 1. Development and institutionalization of two three-credit courses, one in the sciences and math, the other in engineering technologies, that emphasize academic preparation through development of laboratory techniques, communication, team work and creative thinking skills. 2. Academic year mentoring of undergraduates by teaching assistants in STEM, and block programming of the summer cohort in
notion thatmulticultural teams should be the goal when organizing project work. Students, when allowed tochoose team members, are more likely to form rather homogeneous groups. Educators cancontrol this by being more proactive in the process of not only team assignments, but in teambuilding exercises. It is likely that, with diverse student teams, two benefits accrue: (1) moreinteresting approaches to problems, and (2) students graduate better prepared to work inenvironments where multicultural groups are more the norm.C. Global Environmental IssuesThe issue of global warming and attendant climate change, although a serious threat tohumankind, is at the same time a challenge to technologists and actually brings the idea of globalenvironmental
. Biodiesel is a domestic, renewable fuel for diesel engines derived from naturaloils like soybean oil, and which meets the specifications of ASTM D 6751.Biodiesel can be used in any concentration with petroleum based diesel fuel inexisting diesel engines with little or no modification. Biodiesel is not the samething as raw vegetable oil. It is produced by a chemical process which removesthe glycerin from the oil. Biodiesel is a fuel comprised of mono-alkyl esters oflong chain fatty acids derived from vegetable oils or animal fats, designated B100,and meeting the requirements of ASTM D 6751. 1, 2 Biodiesel Blend is a blend ofbiodiesel fuel meeting ASTM D 6751 with petroleum-based diesel fuel,designated BXX, where XX represents the volume percentage
everyone’s learning andthe depth of the program’s results.Participants in the Design Science/Global Solutions Lab pay to come to the program, typicallyput in between ten and twelve intense hours per day, receive no academic credit for their work,produce valuable work, and have an enjoyable time.The success of the program is a result of a combination of factors: 1. It is focused on real world problems. 2. Participants develop real solutions to those problems. 3. Participants present their ideas and solutions to people and institutions in positions capable of implementing the solutions. 4. The intense, all-consuming 10+ hours per day is spent working collaboratively in teams. 5. The high expectations that the Lab’s facilitators have