Long Time, No See: How to Keep Work At-Home Agents Connected

In this on-demand webinar, join Michele Rowan of Customer Contact Strategies as she reveals how she led the Hilton@Home program to success, growing it from 200 to 1,000 agents in 18 months. Register for this FREE on-demand webinar to learn: Why adapt your company culture for an at-home program How and when to train at-home agents At-home supervisor tips for success Request Free!

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Long Time, No See: How to Keep Work At-Home Agents Connected

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Download Ebooks: Aircraft Engineering Principles

The books in the series have been designed for both independent and tutor assisted studies. For this reason they should prove particularly useful to the “self-starter” and to those wishing to update or upgrade their aircraft maintenance licence. Also, the series should prove a useful source of reference for those taking ab initiotraining programmes in JAR 147 (now ECAR Part-147) and FAR 147 approved organizations and those on related aeronautical engineering programmes in further and higher education establishments.

This book has primarily been written as one in a series of texts, designed to cover the essential knowledge base required by aircraft certifying mechanics, technicians and engineers engaged in engineering maintenance activities on commercial aircraft. In addition, this book should appeal to the members of the armed forces, and students attending training and educational establishments engaged in aircraft engineering maintenance and other related aircraft engineering learning programmes.

In this book we cover in detail the underpinning mathematics, physics, electrical and electronic fundamentals, and aerodynamics necessary to understand the function and operation of the complex technology used in modern aircraft. The book is arranged into four major sections:

  1. • Introduction
  2. • Scientific fundamentals
  3. • Electrical and electronic fundamentals
  4. • Fundamentals of aerodynamics

In the Introductory section you will find information on the nature of the aircraft maintenance industry, the types of job role that you can expect, the current methods used to train and educate you for such roles and information on the examinations system directly related to civil aviation maintenance engineering. In addition, you will find information on typical career progression routes, professional recognition, and the legislative framework and safety culture that is so much a part of our industry.

In the section on Scientific fundamentals we start by studying Module 1 of the JAR 66 (now ECAR Part-66) syllabus (see qualifications and levels) covering the elementary mathematics necessary to practice at the category B technician level. It is felt by the authors, that this level of “non-calculator” mathematics is insufficient as a prerequisite to support the study of the physics and the related technology modules, that are to follow. For this reason, and to assist students who wish to pursue other related qualifications, a section has been included on “further mathematics”. The coverage of JAR 66 Module 2 on physics is sufficiently comprehensive and at a depth, necessary for both category B1 and B2 technicians.

The section on Electrical and electronic fundamentals comprehensively covers ECAR 66 Module 3 and ECAR Part-66 Module 4 to a knowledge level suitable for category B2 avionic technicians. Module 5 on Digital Techniques and Electronic Instrument Systems will be covered in the fifth book in the series, Avionic Systems.

This book concludes with a section on the study of Aerodynamics, which has been written to cover ECAR Part-66 Module 8.

In view of the international nature of the civil aviation industry, all aircraft engineering maintenance staff need to be fully conversant with the SI system of units and be able to demonstrate proficiency in manipulating the “English units” of measurement adopted by international aircraft manufacturers, such as the Boeing Aircraft Company. Where considered important, the English units of measure will be emphasized alongside the universally recognized SI system. The chapter on physics (Chapter 4) provides a thorough introduction to SI units, where you will also find mention of the English system, with conversion tables between each system being provided at the beginning of Chapter 4.

To reinforce the subject matter for each major topic, there are numerous worked examples and test your knowledge written questions designed to enhance learning. In addition, at the end of each chapter you will find a selection of multiple-choice questions, that are graded to simulate the depth and breadth of knowledge required by individuals wishing to practice at the mechanic (category A) or technician (category B) level. These multiple choice question papers should be attempted after you have completed your study of the appropriate chapter. In this way, you will obtain a clearer idea of how well you have grasped the subject matter at the module level. Note also that category B knowledge is required by those wishing to practice at the category C or engineer level. Individuals hoping to pursue this route should make sure that they thoroughly understand the relevant information on routes, pathways and examination levels given later.

Further information on matters, such as aerospace operators, aircraft and aircraft component manufacturers, useful web sites, regulatory authorities, training and educational establishments and comprehensive lists of terms, definitions and references, appear as appendices at the end of the book. References are annotated using superscript numbers at the appropriate point in the text.

Download Aircraft Engineering Principles Ebooks

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HealthLeaders

Subscribe today and read about the latest trends in market strategy, finance, technology, policy, culture and innovation. Request Free!

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HealthLeaders

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The Impact of Lean on Consumer Product Manufacturers

The real challenge to Lean, however, requires this first change, a shift in the culture. Consumer products manufacturers are early on in their Lean journey compared to companies across industry, with 56% less than a year to 3 years into it. By leveraging external expertise and taking small steps in their Lean programs, these manufacturers are setting their sights on reducing cost, driving down inventory, and sustaining a culture of Lean throughout the enterprise. But success is being found by those Best in Class consumer products manufacturers that go the next step by tying their Lean objectives into business opportunities, and by measuring the impact of the Lean program. These companies are placing more emphasis on monitoring the metrics that are tied with success, including inventory and on-time delivery, to truly maximize the competitive advantage to be responsive to the customer. Prepared by Aberdeen Group Request Free!

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The Impact of Lean on Consumer Product Manufacturers

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Modern Era of Biomedical Engineering

Biomedical engineering is a highly interdisciplinary branch of engineering that

applies electrical, mechanical, chemical, optical and other engineering principles to

understanding, modifying, and controlling biological (both human and animal) systems

as well as to the design and manufacture of products that monitor physiological functions

and assist in the diagnosis and treatment of patients.

The field is quite broad, encompassing biomechanics; biomaterials; biomedical

instrumentation (such as biosensors); medical imaging; biotechnology (the creation or

modification of biological material for beneficial uses, such as tissue engineering);

prosthetic devices and artificial organs; and rehabilitation engineering (the design and

development of therapeutic and rehabilitation devices and procedures).

 

It is a new kind of engineering and therefore graduates with a degree in biomedical engineering are well sought after with a variety of career options open to them. Biomedical engineering teaches you the engineering processes in sensitive bodies, as opposed to other engineering degrees. This enables you to apply your knowledge of sensitive systems into many fields of engineering, enabling you to be the best kind of engineer. Currently, not only is medicine making advances, but so is machinery, and this occupation allows the combination of the two to help further medical achievements, and create treatments, artificial limbs, and artificial organs etc.

 

The biomedical engineering program (B M E) is interdisciplinary in scope. The participating faculty are from the Colleges of Engineering, Veterinary Medicine, Education and Agriculture. Biomedical engineers are concerned with the application of engineering concepts and analytical techniques to biological and medical problems. They are interested in developing new concepts, instrumentation, and materials for use with living systems. In addition, they seek to understand those phenomena of living systems which have functional capabilities desirable in the design of physical systems. Graduates of the program are able to understand scientific literature, formulate hypotheses, complete independent research or design projects and report their results. They engage in research or design careers in the various fields of biomedical engineering.A biomedical engineer is a must in a hospital. No hospital can perform without having a biomedical department, particularly hospitals which are into tertiary and secondary care. We have to look at a biomedical engineer as a resource which is on line with the management resource of an organisation and not as an engineer. Lot of hospitals use biomedical engineer as if he is just a component of engineering services of a hospital. He is a very intelligent resource which looks after the most expensive part of the hospital and so we need to use the resource adequately. He not only takes care of your equipment but forms an integral part of the hospital’s management team. He also needs to constantly keep abreast of the new technologies that are happening. An institution head should look at a biomedical engineer as a guide.Biomedical engineering is a trendsetter in establishing a symbiotic relationship between engineering, medicine, biology, and physics. The main objective of the subject is to bring about an improvement in the overall quality of healthcare. Biomedical engineers can derive creative satisfaction by designing prosthetics, synthetic blood vessels, automated patient monitoring systems, blood chemistry sensors, ultrasound, and artificial intelligence for clinical decisions. State-of-the-art infrastructure helps engineers to delve profoundly into the highly regulated feedback mechanism at the genetic level and render humanitarian research activities.

 

It includes Electromedical Engineering, which includes bioelectric signal processing (EEG, EMG, ECG and such), imaging (such as CT Scan, Ultra sound scan, MRI, PET, X ray), interventional imaging like various forms of endoscopy, patient monitors, bioanalytical instrumentation like autoanalyzers, design and manufacture of biomedical disposables like syringes giving and taking sets. dialysis and blood collection and processing systems, artificial internal organs like heart valves, left ventricle assist devices, orthopedic and dental implants and a lot more besides.It is a multidisciplinary field, which can accommodate clinicians, engineers of various specialties, biochemists, microbiologists, toxicologists, veterinarians as well as bio technologists.It combines the design and problem solving skills of engineering with medical and biological sciences to help improve patient health care and the quality of life of individuals.

 

Biomedical engineering is advancing rapidly and producing important innovations that improve our quality of life. From understanding the human genome to pioneering surgical tools, biomedical engineers are committed the advancement of research and education in biotechnology, biomolecular engineering, sensory systems, cardiopulmonary engineering, neuroscience, micro-and nano-systems and biomechanics and biomaterials.Biomedical engineering integrates physical, chemical, mathematical, and computational sciences and engineering principles to study biology, medicine, behavior, and health. It advances fundamental concepts; creates knowledge from the molecular to the organ systems level; and develops innovative biologics, materials, processes, implants, devices and informatics approaches for the prevention, diagnosis, and treatment of disease, for patient rehabilitation, and for improving health.

 

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Materials Science and Mathematics Research Honored at Nation’s Premier High School Science Competition

2009 Siemens Competition Regional Winners Announced at The University of Texas at Austin; Will Move on to National Finals for Chance at $100,000 Peter Hu Wins Top Individual Prize; Sean Karson, Dan Liu and Kevin Chen Win Top Team Prize.

Research projects in the areas of materials science and mathematics scored top marks this evening, as Peter Hu of Denton, Texas and the team of Sean Karson of Winter Park, Florida, Dan Liu of Austin, Texas and Kevin Chen of Missouri City, Texas received the highest honors at the Region Two Finals of the 2009 Siemens Competition in Math, Science & Technology, the nation’s premier high school science competition.

Tonight’s winners will receive thousands of dollars in college scholarships and be invited to compete at the National Finals in New York City on December 3-7, where the winners of six regional competitions across the United States will vie for scholarships ranging from $10,000 to the top prize of $100,000. The Siemens Competition, a signature program of the Siemens Foundation, is administered by the College Board.

“These students have just earned their place among the nation’s greatest high school scientists,” said James Whaley, President of the Siemens Foundation, based in Iselin, New Jersey. “Each year, the students’ work becomes more impressive, and in a record-setting year such as this one, their achievements become even more outstanding. We are proud to welcome them into our family of Siemens Scholars and look forward to their participation at the national finals in New York City.”

The students presented their research this weekend to a panel of judges from The University of Texas at Austin, host of the Siemens Competition Region Two Finals.

Individual Winner

Peter Hu, a senior at the Texas Academy of Mathematics and Science in Denton, Texas, won the individual category and a $3,000 college scholarship for his materials science project that aimed to develop a novel and biologically compatible material for protein drug delivery. While similar delivery systems for therapeutic proteins are known in scientific literature, many of these materials were found to be carcinogenic. Mr. Hu’s research, titled Novel Thermogelling Dispersions of Polymer Nanoparticles for Controlled Drug Delivery, focused on an alternative FDA-approved material to mimic the behavior of these previous delivery systems, effectively avoiding prior toxicity issues.

“While all of the projects were very impressive today, Mr. Hu’s research was successful on many levels,” said Dr. Christopher Bielawski, Associate Professor in the Department of Chemistry and Biochemistry at The University of Texas at Austin. “This research project established a key proof of concept in the laboratory and the materials presented are poised for examination in living systems. Mr. Hu’s work is very advanced and comparable to that of a second or third year graduate student; with minimal tweaks, this research project stands an excellent chance at being published in a top-tier scientific journal and will likely make quite a splash in many scientific communities.”

Mr. Hu is a senior who aspires to one day lead a research team at a university or facility, such as the National Cancer Institute. Currently, he is the Vice President of the Junior Engineering Technical Society, and is organizing a science demonstration team in order to promote interest in math and science among elementary and middle school students. Mr. Hu is also a member of his school’s Research Organization.

Both of Mr. Hu’s parents are physicists, spurring his interest in science at a young age. In addition to his academic pursuits, Mr. Hu plays piano and violin, as well as basketball and table tennis in his free time. His mentor for this research project was Professor Liping Tang of the Department of Bioengineering at The University of Texas at Arlington.

Team Winners

Sean Karson, a senior at Trinity Prepatory High School in Winter Park, Florida; Dan Liu, a junior at the Liberal Arts and Science Academy High School in Austin, Texas; and Kevin Chen, a junior at William P. Clements High School in Sugar Land, Texas, won the team category and will share a $6,000 college scholarship for their mathematics project entitled Relating Missing and Decycling Edges in Directed Graphs. The team’s mathematics project has the potential to increase efficiency in real world networks by establishing an upper bound on the minimum number of connections that must be removed to destroy all cyclic pathways in systems like the World Wide Web and transcontinental trade routes.

“The team’s work was truly impressive in that it focused on a topic in pure mathematics,” said Dr. Haskell Rosenthal, John T. Stuart III Centennial Professor Emeritus in Mathematics at The University of Texas at Austin. “With new and delicate techniques, they have advanced the infrastructure and knowledge of graph theory by providing better bounds, which is of fundamental importance to the mathematics community. Their depth of knowledge was remarkable, and their work was on the same level of that of a Ph.D.”

Mr. Karson is a senior who has received Excellence Awards for Honors Computer Programming C++, Graphics I, Honors Chemistry, Honors Precalculus, AP JAVA and AP Chemistry. He has also received the Rensselaer Polytechnic Institute Math & Science Award, and is recognized as a National Merit Semifinalist. Mr. Karson is Captain of the Quiz Bowl Team, President of Mu Alpha Theta, a member of the Spanish Honor Society and the National Honor Society and volunteers for the Center of Math, Arts and Science Achievement. He has also received the Varsity Baseball Coach’s Award and the Most Valuable Defensive Player Award, and has been the starting third baseman on the Varsity Baseball Team since his sophomore year. Mr. Karson has also leveraged his love of puzzles to create a club called Rubik’s Revenge, aimed to teach middle school students how to solve Rubik’s Cubes.

Mr. Liu is a junior who aspires to one day become a computer or electronics engineer or programmer. He is currently Vice President of the InvenTeams Club, Co-Director of his school’s Math Team, and a member of the Liberal Arts and Science Academy’s (LASA) National Honor Society Chapter. Mr. Liu is also a part of the LASA Camerata Orchestra and Science Olympiad Team. He is a part of the Circle C Swim Team, and also plays badminton and ping-pong.

Mr. Chen is a junior and is a member of his school’s Mu Alpha Theta, Junior Engineering Technical Society and Computer Science Team.  He is also an active volunteer at a local middle school Math Club. Mr. Chen’s dad is a computer engineer and has taught mathematics and physics in the past, playing a large role in sparking his interest in math when he was young. His mother is also very encouraging and supportive of his passion for math and science, helping to foster his current academic interests. He enjoys practicing piano, playing tennis and programming games in his free time.

The team’s mentor was Dr. Jian Shen, Professor of Mathematics at Texas State University in San Marcos, Texas.

Regional Finalists
Regional Finalists each received a $1,000 scholarship.

Regional Finalists in the individual category were:
–  Sai Achi, Texas Academy of Mathematics and Science, Denton, TX
–  Somak Das, Texas Academy of Mathematics and Science, Denton, TX
–  Prianka Ghoshal, Westlake High School, Austin, TX

–  Sahil Khetpal, Texas Academy of Mathematics and Science, Denton, TX

Regional Finalists in the team category were:
–  Fayen Bastani and Jonathan Lin, Jasper High School, Plano, TX
–  Sumit Gogia and Patrick Kim, The Science Academy of South Texas,
Mercedes, TX; and Vincent Yu, Sha Tin College, Sha Tin, Hong Kong
–  Sunil Pai, The Kinkaid School, Houston TX; and Aneesh Sampath, Ward
Melville High School, East Setauket, NY

–  Tianjiao (Tom) Zhang and Liang Gu, Bellaire High School, Bellaire, TX

The Siemens Competition

The Siemens Competition was launched in 1998 to recognize America’s best and brightest math and science students. In another record-setting year, 2,151 students registered to enter the Siemens Competition in Math, Science and Technology in 2009 – more than ever before – for a total of 1,348 project submissions – a 14% increase in project submissions over 2008 figures and more than a 12% increase in the number of registrations.

Entries are judged at the regional level by esteemed scientists at six leading research universities which host the regional competitions: California Institute of Technology; Carnegie Mellon University; Georgia Institute of Technology; Massachusetts Institute of Technology; University of Notre Dame; and The University of Texas at Austin.

Winners of the regional events are invited to compete at the National Finals at New York University in New York City, December 3 – December 7, 2009. Visit www.siemens-foundation.org on December 7, 2009 at 9:30 am EST to view a live webcast of the National Finalist Award Presentation. You can also log into and follow the Siemens Foundation on Twitter (http://twitter.com/SFoundation) for the latest information and announcements throughout this year’s competition.

About the Siemens Foundation

The Siemens Foundation provides more than $7 million annually in support of educational initiatives in the areas of science, technology, engineering and math in the United States. Its signature programs, the Siemens Competition in Math, Science & Technology and Siemens Awards for Advanced Placement, reward exceptional achievement in science, math and technology. The newest program, The Siemens We Can Change the World Challenge, encourages K-12 students to develop innovative green solutions for environmental issues. By supporting outstanding students today, and recognizing the teachers and schools that inspire their excellence, the Foundation helps nurture tomorrow’s scientists and engineers. The Foundation’s mission is based on the culture of innovation, research and educational support that is the hallmark of Siemens’ U.S. companies and its parent company, Siemens AG.

For further information, visit www.siemens-foundation.org.

The College Board

The College Board is a not-for-profit membership association whose mission is to connect students to college success and opportunity. Founded in 1900, the College Board is composed of more than 5,700 schools, colleges, universities and other educational organizations. Each year, the College Board serves seven million students and their parents, 23,000 high schools, and 3,800 colleges through major programs and services in college readiness, college admission, guidance, assessment, financial aid, enrollment, and teaching and learning. Among its best-known programs are the SAT®, the PSAT/NMSQT® and the Advanced Placement Program® (AP®). The College Board is committed to the principles of excellence and equity, and that commitment is embodied in all of its programs, services, activities and concerns.

For further information, visit www.collegeboard.com.

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