Posts Tagged ‘information’

An education should give students the tools to adapt and prosper in a world characterized by change. In such an environment, technical competence is not enough. Education that prepares children for life must have basic skills for creativity, intellectual curiosity and honest inquiry boost. The progress and development, both personal and social, are dependent on these elements. approach to innovation and progress in the ability to challenge a new way and offer solution. Read articles about Ross Global Academy to get more informations about educations.

Education must also arise if a pluralistic tradition in which different perspectives, ethnicities, religions and perspectives are evaluated not only because it is right and prosper, but also because the pluralism, the climate is more suited for creativity, curiosity and investigation.It should also help to encourage students a variety of views on some fundamental questions of human existence in mind asked: “What is truth?” ”What is reality?” And “What are my duties to others, for my country and to God?” (find education at Ross Global Academy). At the same time strengthen the educational foundations of identity in a way to revive and strengthen them so they can withstand the shock of change.

What students, is not the most important measure for education. The real test is the ability of students and graduates on what they know not to get involved and find a solution. They must also be able to draw conclusions that are the basis for making informed decisions. The ability to make decisions based on sound information to, and use a thorough analysis should be one ofmost important goals for all education efforts. As students develop these skills, they can start with the most important and most difficult step aside: to learn to make decisions within an ethical framework. For all these reasons There is no better investment that individuals, parents and the nation to do so as an investment in training of the highest quality. These investments are taken into account and to keep training the kind of consciousness our social world so urgently needs. Go to Ross Global Academy to get useful informations.



A point that we’ve got from real estate book, that Real estate transactions provide an unusually attractive setting to test the impact of information distortion by experts. Unlike many experts (e.g. surgeons), real estate agents not only provide their services to clients, but also sell their own homes. When a real estate agent sells his own home, he is residual claimant on the full surplus from the sale and thus has optimal incentives. By comparing sale prices and time on the market for homes where the agent is hired by a client versus when the agent sells his or her own home (and controlling for other factors), we have to learn real estate book in more details.

Using a data set of nearly 100,000 home sales, of which roughly 3,300 are agent-owned, we find that, even after controlling for a wide array of house and neighborhood characteristics, agent-owned homes sell for about 3.7 percent (or roughly $7600 at the median sales price) more than comparable houses and stay on the market an extra 9.5 days (about 10 percent) longer, even after controlling for a wide array of house and neighborhood characteristics. Although a price difference of $7,600 is large for the consumers, the real estate agent’s personal share of that sum  is only $114. It does not seem unreasonable that a self-interested agent would be willing to forego $114 to avoid having a client’s home on the market an additional ten days. This basic result is consistent with information distortion on the part of agents, but also with other competing hypotheses. For instance, real-estate agents own homes that systematically differ from those of their clients in ways that make them sell slowly, but at high prices. It is always difficult to rule out stories about unobservables. real estate book provides more than enough informations about real estate, all we have to do is arrange good strategies in investing on real estate.

Given the changing direction and magnitude of support for research sponsored by the federal government and industry, coupled with the increased competition from federal laboratories and international groups, engineering colleges must look for new opportunities to establish collaborative research alliances. Some alliances may be local or regional; others will be “virtual,” that is, national or international alliances established through the emerging global information superhighway.

Regional consortia of engineering colleges, for example, may share research facilities, teaching laboratories and faculty. Faculty tenure might even reside with a consortium and not with the individual institutions. Other types of consortia could combine the resources of universities and industry, universities and federal facilities – such as national laboratories – or a combination of all three. The aim is not to create new bureaucracies and expense, but to facilitate high-quality research and teaching that is both effective and efficient.

The National Science Foundation has taken the lead in funding experiments in research and education resource-sharing, and in creation of virtual research and education teams. Such experiments also should be encouraged through the Engineering Research Center (ERC) and Science and Technology Center (STC) programs. Lessons learned by the NSF Engineering Education Coalitions in creating “virtual” research and education teams should be applied to these experiments.

To ensure high-quality research and education, federal funding for science and technology must be distributed through open competition, based on peer review. To enhance technology transfer and industry-university research partnerships, universities, corporations and federal agencies should ensure they have flexible and negotiable policies governing intellectual property rights.

Federal agencies that fund research and education should explore ways of encouraging educational institutions, research organizations, federal laboratories, and industry to share resources. They should provide special consideration for funding projects that are developed by consortia of institutions.

Federal funding for science and technology should be allocated in open competition, based on peer review.

To enhance technology transfer and industry-university research partnerships, universities, industries, and federal agencies should develop flexible and negotiable policies governing intellectual property rights.

Engineering education today is adapting to the changing context of engineering practice, but more can be done to speed and improve the process. A crucial means of accomplishing needed change is through partnerships with industry, government, and the broader educational communities. The policy statements and action items developed in this project are intended to help ensure that engineering education will be RELEVANT, ATTRACTIVE and CONNECTED well into the next century. Get payday advance for make payment when you buy a book.

Engineering colleges must be more effective and visible partners within the broader university community. This partnership should be enhanced for non-classroom activities as well as for formal research and education. Engineering colleges, their faculty and students have much to offer the broader campus community. For example, engineers can provide the real-world context to show non-engineering students the applications of the mathematical and scientific concepts they are learning. Engineering educators and their colleagues in science can also provide leadership in helping their campuses initiate computer networking and make effective use of the information super highway. Industry can help foster this cross-campus interaction by bringing multifaceted problems to the university that require the talents of several disciplines to solve. Industry representatives who sit on university advisory boards should also stress this approach in their recommendations to the institution.

Conversely, engineering education programs have much to gain from other disciplines. New insights can be provided, for example, by chemistry in developing environmentally friendly technologies, by political science in teaching the value of issues advocacy, by art in designing new consumer products, by business in aiding the understanding of international trade issues, and by law in treating intellectual property rights. Both engineering students and faculty would benefit from such interdisciplinary collaboration.

Engineers working with other colleagues across the university can also promote technological literacy for all students. Engineering colleges should accept responsibility for providing technical literacy programs to liberal arts students. Activities can include developing and teaching courses that provide laboratory or design experience for non-engineers, examine the history of science and technology, or discuss the interaction of technology and society.

At the same time, student participation in university-wide activities, such as student government, professional societies, athletics, and performing arts can help them develop the leadership and communications skills that are an important part of an engineering education.

Engineering deans should actively encourage their faculty members to participate in research, educational and leadership activities beyond the engineering college. Industrial advisory board members should stress cross-campus interaction in their recommendations to the college. Activities should include connections with such units as the schools of business, medicine, arts, sciences, and education.

Engineering deans and faculty should actively encourage students to participate in university-wide activities. These activities can include participation in student government, student professional societies, athletics, performing arts, debate, study abroad, and similar activities. The aim is to promote leadership and communications skills as well as a sense of the integration of engineering into the broader world.

Engineering deans should take responsibility for helping non-engineering majors on their campuses better understand the importance and relevance of technology in their lives, and seek to better equip those students to prosper in an increasingly technological world. Engineering schools may develop specific courses, seminars, guest lectureships, and cross-campus projects. Use payday loan for better loans management

Employment practices among major corporations are changing dramatically; few future engineers will experience lifelong employment with a single corporation or organization. Many may perform professional work as consultants or serve as contract employees on specific projects. To adapt to this new work environment, engineering graduates must understand that career-long learning is their own responsibility and must acquire the skills for self-learning. Although many engineering colleges offer continuing education, such programs are often degree-oriented and constrained by the academic-year cycle.

To be relevant to new graduates, as well as to practicing engineers at every stage of their careers, engineering colleges must re-think and repackage continuing education programs. They should focus their offerings on providing students with new capabilities, as well as degrees. Courses should take various forms ,with some targeted to business and financial management ,and be adaptable to the time constraints of working engineers. In this regard, it will be crucial that continuing education programs take full advantage of the evolving National Information Infrastructure (NII).

Industry should require and pay for engineering employees to take courses to sustain their technological and managerial competence, just as it pays to maintain its other assets.

Federal agencies that fund education should help universities and their industrial partners identify creative approaches to lifelong learning by funding pilot projects and experiments.

Engineering colleges should create innovative advanced degree programs, including practice-oriented degrees. Such degree programs might include course material on engineering systems; finance and accounting; and technology policy, management and decision-making. Courses should feature team-based activities and case studies. In some instances, engineering schools will develop such degree programs in collaboration with business schools and industry.

Engineering colleges, in collaboration with industry, should develop innovative ways of providing continuing education to practicing engineers by instituting non-degree, career-enhancing programs. This will be facilitated by new communications technologies.

Through its accreditation process, the U.S. engineering education system has continually reexamined and re-energized the engineering curricula. Engineering fundamentals have been and will continue to be the core of the engineering curriculum. But because engineers now operate in a world where their accomplishments are often more limited by societal considerations than by technical capabilities, they are engaging in a wider range of activities throughout their professional lives. Thus, engineering education must take into account the social, economic, and political contexts of engineering practice; help students develop teamwork and communication skills; and motivate them to acquire new knowledge and capabilities on their own. Because many modern engineering projects require a combination of several disciplines, students also need exposure to the integrative field of systems engineering.

In essence, an engineering education today aims to prepare an engineer to be successful in the changing workplace. It aims to equip students with technical knowledge and capabilities, flexibility and an understanding of the societal context of engineering.

Engineering schools should not seek to develop these contextual and process skills through separate courses, but by incorporating them into existing curricula and through non-classroom activities. Coursework should feature multidisciplinary, collaborative, active learning; and take into account students’ varied learning styles.

One factor that will promote development of students’ “process” skills is widespread use of multimedia, worldwide information networks. Using this resource, students can access new information and coursework, as well as interact with other students, researchers, practicing engineers in industry and government, and experts from around the world. These changes in the teaching and learning environment will make engineering education more attractive to both students and faculty, if faculty are given the opportunity to stay up-to-date.

Finally, all engineering colleges must address the issue of ethics. While ethics is a complex and difficult topic, engineering administrators and faculty must help students understand that throughout their careers they will encounter ethical issues which they will need to recognize and deal with rationally. Whether engineers are conducting engineering research, managing a company, or building bridges and office buildings, their decisions affect the lives and property of the greater community. Students must understand the importance of upholding that public trust.

While recognizing and encouraging diverse institutional missions and changing industry needs, colleges of engineering must re-examine their curricula and programs to ensure they prepare their students for the broadened world of engineering work. This process has begun among most engineering colleges and must be accelerated with the aim to incorporate:

• team skills, including collaborative, active learning;
• communication skills;
• leadership;
• a systems perspective;
• an understanding and appreciation of the diversity of students, faculty, and staff;
• an appreciation of different cultures and business practices, and the understanding that the practice of engineering is now global;
• integration of knowledge throughout the curriculum;
• a multi-disciplinary perspective;
• a commitment to quality, timeliness and continuous improvement;
• undergraduate research and engineering work experience;
• understanding of the societal, economic and environmental impacts of engineering decisions;
• and ethics.

In early times, the practice of engineering was that of a trade or craft with training occurring through some form of apprenticeship. As it developed into a profession and more recently as an academic discipline, it took on the shape of other academic disciplines, with preparation being an education rather than a training. An important turning point in the Unites States was the land grant college act (Morrill act) of 1862 which established an institution for the teaching of agriculture and the mechanical arts (engineering) in each state. This officially legitimated engineering in higher education although it still had the form of training. Interestingly, this act came into being during the American Civil War and was signed by Abraham Lincoln.

World-War II was the second turning point when it was discovered that many of the technical innovations necessary for that effort came from scientists, mathematicians, and theoretically educated engineers rather than traditionally trained engineers. Most engineers prior to that time had been trained to develop and apply ideas already in existence, not to create new solutions to new problems. After WWII, the university curricula in engineering became much more scientific and mathematical. It took on more elements of an education rather than a training. It slowly became a real academic discipline in its own right rather than only an application of other disciplines. However, it retains the integrating role of applying the physical and life sciences using some of the tools of the social sciences, law, and policy and the values derived from the humanities, letters, arts, and business.

We are now going through a third transition in engineering in response to many factors in society and in technology itself. In the larger picture, society went through the agricultural phase, the industrial phase, and now the information phase. These three phases of civilization created and were created by the most powerful and applicable technologies of the time. Engineering is and will be the creative element in the information age as it has been in preceding ages.