Tuesday, December 30, 2008

24 th dwc answer

The Social and Economical Impact of ICT.

A)How would ICT help NZ maximize its potential in human capitals in these following categories:

Ageing population – ICT could help maximize potential human capital in this category by allowing ageing people to develop economically by helping them open online business or something related to e-commerce so they can work from home or at the very least monitor the work from home. They could also work for companies which allow them to work from home as they would be connected to the Internet and would be able to work as if they were in the office itself. In this way, they could contribute to the economy even though they may be restricted by physical barriers.

Low population growth – ICT could also help people to be more connected socially. Nowadays, the popularity of social networking sites such as Facebook and Myspace is booming and people can connect here online and find more friends which in turn could lead to romantic relationships. Also, all regular websites nowadays have the comments section and here also while leaving comments on the same website, it is possible to find a love interest with a common interest.

Increased proportion of Maori and Pacific Island peoples – Maori and Pacific Island peoples can benefit a lot from ICT. ICT leads to enterprise and employment generation which can help increase the potential of Maori and Pacific Island peoples. Maori and Pacific Island peoples can become more contributive to the economy of the country through the various benefits provided by ICT.

More youthful nature of Maori and Pacific Island peoples – The Maori and Pacific Island peoples are mostly young. Such young people have a better understanding of ICT and can utilize the systems in a much better way. The benefits of ICT can be optimally utilized enabling the human capital of the area to reach their highest potential.

Negative net migration – New Zealand has a low population growth but has the benefits of negative net migration. More people in the country will mean that more people are available to utilize ICT effectively and efficiently for the benefits of all. More people are there to reap the benefits of ICT taking human capital to a much higher potential.

Increasing income disparity – ICT could help people to find new revenues of income stream because the potential is limitless. The disparity arises because those that have access to ICT are more open to new ways of maximizing their revenue and can find new ways to make revenue so once others are connected, they can also find new ways to do so. Those that have the benefit of ICT have a huge advantage over those who don’t as they have access to vital information beforehand in terms of business news or in new ways of doing something.

Less than ideal skill base – ICT could enable those that are working during the day to go online and take courses whereby they can learn a new skill which can benefit them in the real world. There is also a massive amount of information available online regarding each and every subject in detail so with proper research, it is possible learn many new skills such as learning new languages and so on.

Narrow export base – New Zealand currently has a narrow export base which is one of the areas where improvements can lead to a much better economy. ICT can lead to an increase in the number of commodities available for export through enterprise development and better contacts with the outside world. When the total amount of exports is more than the total amount of imports, the economy will improve maximizing human potential.

B)What are ICT accessibilities of New Zealanders?

Access to ICT does not only mean having the ability to use ICT, it also includes ways to use ICT in the most beneficial way. It can be said that this definition of access to ICT is not a narrow perspective but offers a much wider viewpoint. ICT in New Zealand can be accessed through many locations such as home, school, work and so on. The people should not just be passive users of ICT but should also contribute information to ICT. People with access to ICT will have an advantage over people without access to ICT in this modern world increasing the social divide. New Zealand started out quickly in the race for ICT but it could not be available to everyone due to technological and financial reasons. The main reason for low access to ICT would have to be financial. More than 97% have access to telephone, nearly 30% have computers and internet use is about 50%.

C)How ICT used for Education in NZ?

Teachers who have access to ICT have vast amounts of information available on their particular subject. They can research their topics online and find more and better material to teach their students. They can be better equipped to transfer information to their students in the classroom. Teachers can have up to date information about their subject matter instead of teaching the same old material to their students. Students can research their work online. They can gain more information than is taught to them in the classroom. They can use the internet as an additional tool for their education. People who, for some reason, cannot go to a proper educational institution can take online courses. This is how New Zealand uses ICT for education.

Monday, December 29, 2008

December 24th News card

http://www.shvoong.com/medicine-and-health/1673884-health-techenology/

>

HEALTH AND TECHENOLOGY

How laptops cause infertility in men. Business men and teenage boys could be risking their fertility by using laptop computers, research suggests. Drug use, alcohol, smoking, obesity, chemicals and radioactive materials have been linked to decrease in sperm count. Now the growing popularity of laptops could also negatively influence sperm production. Men, who balance laptops on their thighs while working, may unwittingly jeopardize their chances of having children. Heat generated by the laptop is transferred to the scrotum, where temperature can rise several degrees, putting the users within the danger zone for testicular dysfunction. And for the growing segment of the working world for which laptops are almost indispensable, a dilemma may emerge on whether to be productive at work, or at bedroom. To keep the testicles at the ideal temperature –and for greater comfort-men naturally sit with their legs further apart than women. When working on a laptop, however, they will adopt a less natural position in order to balance it on their laps, which results in a significant rise in body heat between their thighs. The combination of heat generated by the computers, and the posture needed to balance the equipment on the lap leads to raise in temperatures around the scrotum.Past research shows that higher scrotal temperatures can damage sperm and affect fertility. And the introduction of new technologies such as Bluetooth and infrared connections-which provide wireless links to the internet-has resulted in a growing number of men using the machines on their laps other than at a desk. Laptops can reach internal operating temperatures of over 70 degrees celsius.With the increased popularity in use of laptops; it is prudent that we revisit notes of some past studies. A research project from the state university of New York found that the heat from a Laptop can elevate the scrotum temperature by up to 2.8 degrees, killing the sperms. Scrotal temperature increase of more than one degree Celsius above baseline temperatures can have negative effects. This is a worrying situation to the significant proportion of over 200 million people who use laptops worldwide daily. Since laptops have become more popular with young men and teenage boys due to continued improvements in power, prize and size, it is important to be safe than sorry. Meanwhile, it may be worth placing your laptop on the table or moving it as far away from your testicles as in workplace.

ICT Professional jobs New Zealand

26 - ICT Professionals

ICT Professionals perform analytical, conceptual and practical tasks which support the efficient and secure provision of information and communication technology (ICT) services to government, commercial and industrial organisations, and individuals.

More than 30 of New Zealand's ICT companies have agreed in principle to set up a new association whose first priority will be to address an anticipated serious skills shortage.

Sunday, December 21, 2008

home work 7

Home work for 24th of Dec,08

Since the building of A41,42 will be closed for Staff to join "Staff of the Year Award Presentation" We'll make our class online only. The student ,who post the following home work within 30th of Dec,08 will get 100% attendance. Those who post after 1st of January 09,will get 50% of attendance.

Merry Christmas and Happy New Year..See You Next year...

Home work for 24th of Dec,08:

1.Read the posted article and answer these following quetions .You may use other sources of Information to support your answers with references in APA styles;
a.How would ICT help NZ maximizing potential her human capitals in these following categories

• Ageing population
• Low population growth
• Increased proportion of Māori and Pacific Island peoples
• More youthful nature of Māori and Pacific Island peoples
• Negative net migration
• Increasing income disparity
• Less than ideal skill base, and
• Narrow export base.
b.What are ICT accessibilities of New Zealanders?
c. How ICT used for Education in NZ?


http://www.med.govt.nz/templates/MultipageDocumentTOC____16813.aspx
The Social Impact of Information Technology
print this page


[ Last Updated 20 February 2006 ]

Short Description A Briefing to the Minister for Information Technology.


Document Status
• Archived
A Briefing to the Minister for Information Technology
17 December 1999
Contents
• Introduction
• Background
• ICT as an Enabler of Social and Economic Well Being
• Demographic Imperatives
• Access to ICT
• Integrated Within Overall E-Commerce Strategies
• New Zealand's Situation
• Progressing the Issues
Introduction
1. This overview summarises a discussion paper that is being prepared on the social and economic implications of limited access to information and communication technologies (ICT), that is, issues which arise from individuals, communities and locations not having optimal access to ICT.
2. The paper looks at why an ICT literate population with optimal access to and use of ICT is important for New Zealand's economic and social well being. The paper explores available information on the likely nature of New Zealand's issues around lack of access to ICT (digital divide) and information from overseas, which is useful for thinking about the New Zealand situation. The paper suggests how government could progress towards a better understanding of the nature of a digital divide in New Zealand and the best means to resolve it.
Background
3. The Internet in particular and ICT generally are key components in New Zealand's efforts to become an information-driven, knowledge based economy. As more of the world comes online, the Internet offers New Zealand an unparalleled opportunity to diversify and become more competitive as a trading nation: to increase entrepreneurialism and employment. Its importance is reflected in government's focus on promoting e-commerce and e-government.
4. The success of e-commerce and e-government increasingly rests on there being e-citizens and e-communities, that is ICT literate people and a "wired" country. E-citizens are ICT literate people with optimal access to ICT. A large e-citizen base provides most likelihood of developing the entrepreneurs, knowledge workers, managers, consumers, students and innovators, essential for a thriving knowledge economy.
5. E-commerce growth (which includes government business) is outpacing expectations with one commentator - Nicholas Negroponte - forecasting over a billion people on the Internet by the end of next year. The global online population this year is over 200 million. Recently it was estimated that the American Internet economy contributed 1.2 million jobs and over $301.4 billion dollars to the American economy overall. A recent Australian study found that e-commerce could boost employment by 0.5 percent and drive up real wages by 3.5 percent. Conversely wages for those not skilled in ICT are likely to be lower and employment options increasingly limited - across sectors.
ICT as an Enabler of Social and Economic Well Being
6. ICT enables individuals and communities (cultural, ethnic, shared interest and geographical) to enhance their social and economic well being, and participate more actively in society and the economy, internationally as well as nationally. Enterprise/employment creation, health, education/ learning, access to justice, interactions with government, and personal contact between people are increasingly being ICT enabled. Over time they will be ICT dominated.
7. To compete globally, not only against developed nations such as the US, Britain, Canada, Ireland and Australia but also developing nations utilising ICT and the Internet to great effect (such as India, Mexico, East Caribbean), New Zealand needs to maximise the number of people/ businesses/places utilising ICT effectively.
Demographic Imperatives
8. Certain features of our demographic and economic profile suggest that if we wish to achieve growth rates similar to our competitors and improve employment opportunities, we will need as much of our human capital as possible, in all locations, to be maximising their potential. Pertinent demographic and economic factors include our:
• Ageing population
• Low population growth
• Increased proportion of Māori and Pacific Island peoples
• More youthful nature of Māori and Pacific Island peoples
• Negative net migration
• Increasing income disparity
• Less than ideal skill base, and
• Narrow export base.
Optimal access to ICT and ICT literacy are increasingly essential for maximising human capital potential.
Access to ICT
9. Access to ICT is defined quite broadly. It covers not only the issues around physical and financial access for the broadest range of people and locations but includes also having all groups in society seeing the relevance and potential for benefiting from ICT, and there being meaningful content.
10. Access can be through home, school or work, or through a range of community locations. It includes an adequate technical infrastructure in all parts of the country, and people developing the skill base necessary for optimum use of ICT. Becoming, as one commentator has put it "cyber-authors" rather than cybercouch potatoes: people who use ICT to improve their economic and social circumstances rather than just passively consume ICT provided content.
11. The digital divide is the gap between the information haves, i.e. those who have adequate access to ICT such as computers and the Internet, and the information have-nots, i.e. those who have limited or no access for either socio-economic or geographical reasons, or because of disabilities. As use of ICTs is becoming increasingly integrated into the normal processes of daily and business life, the negative impact of the digital divide on the cohesion of society is likely to become much more acute.
Integrated Within Overall E-Commerce Strategies
12. In order to establish and retain lead positions for their countries in the electronic revolution, lead knowledge economy nations have integrated national access to ICT as a key part of their overall information society/economy strategy. They seem universally of the view that only with a fully ICT literate population will their nations be truly competitive. Having sections of the population and areas unable to access ICT is viewed as posing threats to both social and economic development, and ultimately national cohesiveness. Accordingly they have developed a range of policy responses and solutions to increase the likelihood of having a fully ICT literate population.
13. However recent research from the United States suggests that despite a concerted effort by governments, the ICT industry and community leaders to open up access to ICT, the digital divide has actually widened over time. In America it is likely to be Blacks, Hispanics, low-income families, the unemployed, sole parent households (particularly those headed by females), and people living in the inner city and rural areas who are experiencing the digital divide.
14. The issue is deemed so significant that the US government held a national summit earlier this month to explore how to overcome it. President Clinton will focus his next set of New Market visits (to communities which have not participated in America's economic growth) on the digital divide, and look for partnerships between the private and public sectors to enable more children and adults to utilise ICT to best effect.
New Zealand's Situation
15. While New Zealand has a record of early adoption of ICT (ATMs, videos and the Internet) adoption of new technology cannot be imposed nor will it necessarily be financially possible for all. For people who can prioritise their income to include ICT, for them to do so may require them to better understand both the push factors (decreased opportunities in industrial age occupations) and the pull factors (increased opportunities for learning, entertainment, employment, leisure, purchasing, social and family contact). However, there are likely to be groups of people and people in certain locations who, despite understanding the push/pull factors, are unable to gain adequate access to ICT, either at home, work or through a community access site, or develop ICT literacy, for a number of reasons. If overseas evidence holds true for New Zealand, reasons will largely centre on cost.
16. While information on different groups' ability to access ICT in New Zealand is limited, what information we do have suggests that any digital divide occurring in New Zealand is most likely to be amongst the following groups and areas:
• Māori
• Pacific Island peoples
• those with lower incomes
• sole parents
• people with low or no qualifications
• those who are unemployed or underemployed, and
• those in locations without a sound telecommunications infrastructure, such as parts of rural New Zealand.
17. Internet connectivity is usually through land-based telephone wires (although this is changing). While over 97 percent of New Zealanders have access to the telephone, this percentage is less for Māori, Pacific Island and low income families. While the 1998 HES survey showed nearly 30 percent of New Zealand households overall had computers, only 23 percent of Māori households and 17 percent of Pacific Island peoples households had computers.
18. Internet use is around 50 percent overall but is less for those on low incomes and those with fewer educational qualifications. Variations in Internet use are best explained by age, household income and employment status. Very little Internet access information is available on ethnicity and none that correlates education, income and ethnicity, or looks at location against income.
19. While a recent study showed that 43 percent of farmers had computers, a reason that fewer use the Internet is that electric fences interfere with the sending of data down telephone lines which makes e-mail and data transfer difficult if not impossible.
Progressing the Issues
20. If, from a government perspective, it is agreed that the move to an information-driven knowledge based economy and society, and a more socially inclusive society, is advanced by all of New Zealand having widespread ICT literacy and access, then several issues have to be considered.
21. The first is whether widespread ICT literacy and access will happen as a result of a competitive ICT market producing goods and services which all can and want to access. Currently there is no robust information on whether or not this is likely to happen. A point to note here is the extraordinary pace of ICT research and development which means that changes in the nature and costs of Internet access happen rapidly.
22. If an ICT inclusive society were to be added to other crucial elements of progress which government plays a role in advancing, namely economic growth, social stability and good governance, and enhancing ICT literacy and access were an agreed way of achieving this, then the question arises about the best way to do this: the respective roles of government, the private sector, the community sector, and groups and individuals themselves.
23. The first step to progress this issue is to undertake research on the nature of any current or likely future digital divide in New Zealand. Research would include the current situation re. technical infrastructure, and community-based access to ICT, and assessing relevant overseas strategies and solutions, and testing out some possible responses.
24. With sound information about the problems, opportunities and options, government will be well placed to develop an effective strategy to ensure all New Zealanders, and all areas in New Zealand, have adequate access to ICT and maximise ICT literacy. With an ICT literate population and widespread access to ICT New Zealand will be on a sounder footing to compete with other knowledge economies and promote an inclusive society.


http://www.med.govt.nz/templates/MultipageDocumentTOC____16813.aspx

Friday, December 19, 2008

E learning tools

http://www.horton.com/html/toolslist.aspx Kay


Blogging tools
Collaboration tools: Application sharing
Collaboration tools: Audio conferencing

Messaging guide

Most effective collaboration systems center on the exchange of simple text messages through e-mail or discussion groups. Even when audioconferencing and videoconferencing are available, many learners still prefer the simplicity, convenience, and record keeping of text messages.

This example is a guide to messaging. It is written to learners but applies to instructors as well.


Collaboration tools: News reader


Jewelry by Katherine Horton

Before working for William Horton Consulting, Katherine Horton was an internationally recognized jewelry designer and craftsman. From this page you can launch collections of photographs of her work.


Teaching

Photograph of Bill Horton speaking.We share our knowledge and stimulate your own through the classroom training courses we offer. Our courses are listed to the left in the table of content. Select a workshop that interests you to see a description, topics available, and customization ideas.

Here are some of the questions we frequently get from clients:

What standard workshops are available?

Each of our available workshops is described in detail. Select a workshop from the menu to the left to learn more. Or, click the next button at the lower right of this window to browse our workshop offerings.

Can workshops be customized?

All our workshops can be customized to better meet your needs. Our standard workshops can be templates, or starting points, for a customized workshop. Many of our clients request that we extend or focus our training to more closely address their particular needs. To do this we can:

  • Combine modules from different workshops.
  • Combine a workshops with consulting on specific projects.
  • Change the name of our workshop offerings or modules to better reflect your terminology.
  • Design and conduct the workshop for video broadcast or tapings. (This option requires a special agreement.)
  • Review your company's documents and computer screens and incorporate them as examples and exercises.
  • Create a workshops for your unique situation, showing how to apply general design principles within the constraints of your product line, authoring system, or style guide.

What must you provide?

We have prepared a check list to help you get ready. It covers room setup, audio-visual requirements, and other logistical issues. Download the checklist and print it out for reference. (125K PDF. Requires the Adobe Acrobat Reader.)

Back to top

How are workshops booked?

To learn more about how to bring one of our workshops to your site, call us at +1.303.545.6964 or e-mail us at william@horton.com.

Smart Phone

Smartphone

From Wikipedia, the free encyclopedia

Jump to: navigation, search
The Nokia E71 smartphone running S60 3rd Edition, Feature Pack 1 UI on the Symbian OS v9.2

A smartphone is a mobile phone offering advanced capabilities beyond a typical mobile phone, often with PC-like functionality. There is no industry standard definition of a smartphone.[1][2] For some, a smartphone is a phone that runs complete operating system software providing a standardized interface and platform for application developers.[3][4] For others, a smartphone is simply a phone with advanced features like e-mail and Internet capabilities, and/or a full keyboard.[5][6]


Definition

There is no agreement in the industry about what a smartphone actually is and definitions have changed over time.[2] According to David Wood, EVP at Symbian, "Smart phones differ from ordinary mobile phones in two fundamental ways: how they are built and what they can do."[7] Other definitions put different stresses on these two factors.[citation needed]

Most devices considered smartphones today use an identifiable and open operating system, often with the ability to add applications (e.g. for enhanced data processing, connectivity or entertainment) - in contrast to regular phones which only support sandboxed applications (like Java games)[citation needed]. These smartphone applications may be developed by the manufacturer of the device, by the network operator or by any other third-party software developer, since the operating system is open.[citation needed].

In terms of features, most smartphones support full featured email capabilities with the functionality of a complete personal organizer. Other functionality might include an additional interface such as a miniature QWERTY keyboard, a touch screen or a D-pad, a built-in camera, contact management, an accelerometer, built-in navigation hardware and software, the ability to read business documents in a variety of formats such as PDF and Microsoft Office, media software for playing music, browsing photos and viewing video clips, internet browsers or even just secure access to company mail, such as is provided by a BlackBerry. One common feature to the majority of the smartphones is a contact list able to store as many contacts as the available memory permits, in contrast to regular phones that has a limit to the maximum number of contacts that can be stored.

History

Apple iPhone

The first smartphone was called Simon; it was designed by IBM in 1992 and shown as a concept product that year at COMDEX, the computer industry trade show held in Las Vegas, Nevada. It was released to the public in 1993 and sold by BellSouth. Besides being a mobile phone, it also contained a calendar, address book, world clock, calculator, note pad, e-mail, send and receive fax, and games. It had no physical buttons to dial with. Instead customers used a touch-screen to select phone numbers with a finger or create facsimiles and memos with an optional stylus. Text was entered with a unique on-screen "predictive" keyboard. By today's standards, the Simon would be a fairly low-end smartphone.

The Nokia Communicator line was the first of Nokia's smartphones starting with the Nokia 9000, released in 1996. This distinctive palmtop computer style smartphone was the result of a collaborative effort of an early successful and expensive PDA model by Hewlett Packard combined with Nokia's bestselling phone around that time and early prototype models had the two devices fixed via a hinge; the Nokia 9210 as the first color screen Communicator model which was the first true smartphone with an open operating system; the 9500 Communicator that was also Nokia's first cameraphone Communicator and Nokia's first WiFi phone; the 9300 Communicator was the third dimensional shift into a smaller form factor; and the latest E90 Communicator includes GPS. The Nokia Communicator model is remarkable also having been the most expensive phone model sold by a major brand for almost the full lifespan of the model series, easily 20% and sometimes 40% more expensive than the next most expensive smartphone by any major manufacturer.

The Ericsson R380 was sold as a 'smartphone' but could not run native third-party applications.[8] Although the Nokia 9210 was arguably the first true smartphone with an open operating system, Nokia continued to refer to it as a Communicator.

In 2001 RIM released the first BlackBerry which was the first smartphone optimized for wireless email use and has achieved a total customer base of 8 million subscribers by June 2007, of which three quarters are in North America.

Although the Nokia 7650, announced in 2001, was referred to as a 'smart phone' in the media, and is now called a 'smartphone' on the Nokia support site, the press release referred to it as an 'imaging phone'.[9][10][11] Handspring delivered the first widely popular smartphone devices in the US market by marrying its Palm OS based Visor PDA together with a piggybacked GSM phone module. By 2002, Handspring was marketing an integrated smartphone called the Treo; the company subsequently merged with Palm primarily because the PDA market was dying but the Treo smartphone was quickly becoming popular as a phone with extended PDA organizer features. That same year, Microsoft announced its Windows CE Pocket PC OS would be offered as "Microsoft Windows Powered Smartphone 2002".[12] Microsoft originally defined its Windows Smartphone products as lacking a touchscreen and offering a lower screen resolution compared to its sibling Pocket PC devices. Palm has since largely abandoned its own Palm OS in favor of licensing Microsoft's WinCE-based operating system now referred to as Windows Mobile, although WinCE and Palm OS together now amount to 10% of the smartphone market.

In 2005 Nokia launched its N-Series of 3G smartphones which Nokia started to market not as mobile phones but as multimedia computers.

Out of 1 billion camera phones to be shipped in 2008, smartphones, the higher end of the market with full email support, will represent about 10% of the market or about 100 million units.[citation needed]

The Smartphone Summit semi-annual conference details smartphone industry market data, trends, and updates among smartphone related hardware, software, and accessories.

Android, a cross platform OS for smartphones is scheduled for official release on October 22, 2007

[edit] Operating systems

Market share of Smartphone operating systems (As of November 2008)

Operating systems that can be found on mobile devices include Symbian OS (45% of market[13]), RIM's BlackBerry (17% [14]), Windows Mobile (12%[15]), Familiar Linux (7.3%[16]), Palm OS (2%[17]), The Ångström Distribution, and the Darwin (iPhone OS) (0.3%[18]). The Open Handset Alliance's Android is a recent smart phone addition touted by Google and T-Mobile (which launched the G1 phone on October 22, 2008). The OHA hopes Android will gain 4% market share by year's end.[19]

The most common operating systems (OS) used in smartphones are in Q3 2008:

Thursday, December 18, 2008

E learning

Free elearning trial

http://www.knowledgepresenter.com/assets/downloads.htm

TOOLS

http://www.horton.com/html/toolslist.aspx Kay

http://www.authorgen.com/ lester

http://communication.howstuffworks.com/elearning12.htm Bussakorn

http://trades.flexiblelearning.net.au/e-learntools.html neet

http://www.rsc-ne-scotland.ac.uk/teaching/free_elearning_tools2.pdf

http://www.c4lpt.co.uk/Directory/

http://www.c4lpt.co.uk/Showcase/

http://www.c4lpt.co.uk/recommended/top100.html

http://www.aishe.org/events/2005-2006/conf2006/proceedings/poster-08.pdf

http://www.kineo.com/shop/reports/kineo_50ideasforfree_elearning.pdf Math


Definition of E learning


1. Education via the Internet, network, or standalone computer. e-learning is essentially the network-enabled transfer of skills and knowledge. e-learning refers to using electronic applications and processes to learn. e-learning applications and processes include Web-based learning, computer-based learning, virtual classrooms and digital collaboration. Content is delivered via the Internet, intranet/extranet, audio or video tape, satellite TV, and CD-ROM.*

e-learning was first called "Internet-Based training" then "Web-Based Training" Today you will still find these terms being used, along with variations of e-learning such as elearning, Elearning, and eLearning.

2 e-Learning is the use of technology to enable people to learn anytime and anywhere. e-Learning can include training, the delivery of just-in-time information and guidance from experts.


3. No single e-learning method is best for every learning need. You will most likely need to use several e-learning technologies as well as traditional learning methods. A blended learning program combines e-learning and traditional learning methods. Blended learning can provide the convenience, speed and cost effectiveness of e-learning with the personal touch of traditional learning.


4. Allison Rossett (2001) defines elearning as: Web-based training (WBT), also known as elearning and on-line learning, is training that resides on a server or host computer that is connected to the World Wide Web.

She considers WBT or elearning as belonging to Technology-Based Training -- training that is delivered partially or entirely through electronic hardware, software, or both (p. 161).

These two definitions are perhaps come the closest as to how most learning professionals define elearning.

Another one that pretty much stays within the "network" framework" is Clark Adrich (2004). He defines elearning as a broad combination of processes, content, and infrastructure to use computers and networks to scale and/or improve one or more significant parts of a learning value chain, including management and delivery. Originally aimed at lowering management cost while increasing accessibility and for measurability of employees, elearning is increasingly being used to include advanced learning techniques such as simulations and communities of practice and to include customers and vendors as well.


5. There may be other definitions, but I define e-learning (also called elearning or eLearning) as:

The delivery of a learning, training or education program by electronic means. E-learning involves the use of a computer or electronic device (e.g. a mobile phone) in some way to provide training, educational or learning material. (Derek Stockley 2003)

E-learning can involve a greater variety of equipment than online training or education, for as the name implies, "online" involves using the Internet or an Intranet. CD-ROM and DVD can be used to provide learning materials.

Distance education provided the base for e-learning's development. E-learning can be "on demand". It overcomes timing, attendance and travel difficulties.

An e-journey is one type of e-learning or online training. Blended learning is e-learning combined with other training methods.

My way of understanding of E learning..

Learning by technology supported education. Described an online computer-delivered lecture learning experience that uses a wide spectrum of technologies, mainly Internet or computer-based, to reach learners.

Tuesday, December 9, 2008

JSD..... HOME WORK

JSD
What Research Says:
Training Teachers for Using Technology
By Glenn A. BrandJournal of Staff Development, Winter 1997 (Vol. 19, No. 1)
Increased access to information through new technologies, along with the need to prepare children to compete in an emerging information-based global economy, promises to fundamentally reshape school practice as we move into the next century (Harvey & Purnell, 1995; Jonasson, 1993). Despite increased access to computers and related technology for students and teachers, however, schools are experiencing difficulty in effectively integrating these technologies into existing curricula.
According to the U.S. Congress, Office of Technology Assessment (1995), the lack of teacher training is one of the greatest roadblocks to integrating technology into a school’s curriculum. That same report revealed that most school districts spend less than 15 percent of their technology budgets on teacher training and development.
Such a figure makes it easy to understand Moursund’s (1992) contention that current educational systems have done a miserable job empowering teachers to appropriately and effectively use computer-related technology in the classroom.
A review of the recent literature on professional development of teachers and educational technology provides insights into well-structured staff development programs on educational technology.
Time. Teachers must have substantial time if they are going to acquire and, in turn, transfer to the classroom the knowledge and skills necessary to effectively and completely infuse technology into their curricular areas (Boe, 1989; Hawkins & MacMillan, 1993; Kinnaman, 1990). However, Harvey and Purnell (1995) suggest there is overwhelming sentiment that schools have yet to create the kind of training and practice time teachers need in order to learn how to effectively integrate technology into the curriculum.
Although training and development time varies according to individuals, Guhlin (1996) states the time required is whatever satisfies a teacher’s need for exploratory learning. That learning includes what the teacher needs to learn to effectively use the computer as both a personal and instructional tool.
When should such training be allocated? Shelton and Jones (1996) suggest that teachers need considerable training and development time outside the school day so they can concentrate on instruction and training objectives without having to deal with the normal school day demands. Therefore, training should be provided outside or away from the normal school day–for example, at a satellite location or in an area removed from regular school activities. When this is not possible, training should be provided in smaller modules either before or after school.
Take into account varying needs. When designing staff development sessions on technology, individual differences must be addressed and individual strengths supplemented (Boe, 1989; Browne & Ritchie, 1991; Shelton & Jones, 1996).
Even when professional development opportunities for technology are available, personal anxiety associated with such opportunities results because teachers arrive at the learning environment with an immense range of abilities and specific developmental needs. As a result, classroom teachers should be involved from the beginning in planning the development sessions so they can be certain their specific needs will be addressed (Guhlin, 1996).
A training program that takes varying needs into account might (Pope, 1996, Shelton & Jones, 1996):
• Identify teachers’ current interests and needs before the instructional session;
• Provide training geared to the identified needs of the target audience of teachers;
• Supplement participating teachers’ strengths; and
• Promote diversified instructional strategies to fit the various learning styles.
Flexibility of professional development opportunities. Staff training programs designed for the technological development of teachers are effective when programming offers flexibility and is not based on a "one size fits all" philosophy.
Teacher training programs must not expect that all participants will leave with the knowledge and skills to facilitate the transfer of learning to their individual classrooms. Browne and Ritchie (1991), Harvey and Purnell (1995), and Stager (1995) state that, instead, effective staff development for technology requires flexible content and opportunities.
Flexibility can be provided by (Browne & Ritchie, 1991; Harvey & Purnell, 1995; Kinnaman, 1990; Pope, 1996; Stager, 1995):
• On-site programming which allows for flexible scheduling;
• Opportunities to complete the development sessions on the learner’s own schedule and, if necessary, on their own time;
• Opportunities to participate in a combination of learning opportunities such as traditional workshops and in-class collaborations;
• Sessions built around smaller groups, and not limited to large group workshops and classes; and
• Instructional variety to teach knowledge and skills.
Provisional support. One of the most effective ways to align staff development with the district/school goals is to invest in someone with experience in both technology and curriculum (Kinnaman, 1990). Shelton and Jones (1996), Guhlin (1996), Stager (1995), Pearson (1994), Kinnaman (1990), and Persky (1990) all identify the virtues of having a full-time technology resource teacher in the school or district to bring technology into the basic fabric of the curriculum.
Having a technology resource teacher is especially beneficial for novice users, or those at the emerging stage of technological use and understanding.
Novice computer users are more likely to begin integrating technology into the curriculum when they have someone to whom they can turn for knowledge about computers as well as for emotional support and reassurance (Pearson, 1994; Persky, 1990). Whether this person is at the site or the district, just having someone in such a role can be a valuable asset in creating, implementing, and directing a global vision for integrating technology into schools.
In addition to these critical facets, such a coordinator can fulfill other functions as well. He or she can:
• Ensure that school/district objectives are met;
• Take on responsibility for aligning and organizing staff development;
• Support teachers both emotionally and technically;
• Work with a core group of teachers representing the district’s subject areas and grades;
• Coordinate time for teachers to explore and learn the new technology; and
• Act as the essential link for empowering all teachers to effectively use technology and integrate it into the overall curriculum.
Collaborative development. The environment in which the effective technological development of teachers occurs is built around collaborative learning. Because teachers vary in their level of expertise at the time of their training, the context which surrounds their technological professional development must provide a non-threatening environment that is sensitive to the individual teacher's level of expertise and experience (Browne & Ritchie, 1991; Shelton & Jones, 1996).
As a result, Stager (1995), Browne and Ritchie (1991), and Persky (1990) suggest that collaborative problem solving and cooperative learning must undergird the approach to technology learning for teachers.
Although a number of collaborative learning approaches are available, peer coaching and modeling have been most effective in transforming workshop information to classroom application and practice (Browne & Ritchie, 1991; Kinnaman, 1990; Persky, 1990).
Peer coaching, usually established in a one-to-one tutoring situation, is effective because it does a better job of addressing the unique learning needs of individuals (Browne & Ritchie, 1991). Examples of such coaching include pairing a novice and experienced mentor teacher or grade-level and content-specific teachers.
Modeling enables teachers to observe expert performance. It helps teachers overcome the insecurity and fear of applying what they have learned in workshops. Teachers who learn with "trainers" who model good use of technology often are less fearful and more confident about using technology in their classrooms (Browne & Ritchie, 1991). When an expert teacher provides the instruction, the teacher-learners also have a benchmark for measuring their own progress.
Remuneration and teacher recognition. If teachers are to feel good about taking time from their schedules to acquire new computer skills, they must be provided incentives, remuneration, and recognition rather than road blocks (Kinnaman,1990).
Studies in the business sector indicate that providing workers with highly developed technological training fails if the employees don’t receive adequate incentives (Moursund, 1992). Guhlin (1996) and Stager (1995) have echoed this need in education to support and celebrate initiatives, in turn recognizing teachers who demonstrate effort and commitment to educational computing.
Although the means of such recognition could vary, possible incentives to facilitate teacher recognition include:
• Encouraging teachers to share their experiences through writing magazine articles, sharing at conferences, leading of workshops, or other means;
• Encouraging and financially supporting teachers to attend related conferences at the board’s expense;
• Giving progressive teachers additional access to hardware and software;
• Allowing teachers opportunities to earn extra computers for their classroom;
• Providing copies of the software and manuals that teachers are trained on; and
• Instituting computer purchase assistance programs and summer and weekend loan programs (Guhlin, 1996; Kinnaman, 1990; Stager, 1995).
Sustained staff development. To help teachers properly complete the "learning cycle" of computer-related professional development, training must be ongoing and systematic (Kinnaman, 1990).
In a study examining what hinders or promotes successful integration of technology into the middle-school curriculum, Persky (1990) noted that using technology is not easy and that learning how to effectively use technology in the context of the classroom does not happen overnight. The need to allot time for continual learning is echoed in studies outside of education, which suggest that providing workers with high technology on the job ultimately fails if employees don’t receive adequate training and continuing, on-the-job support (Moursund, 1992).
Further, this need for continuing support means teacher training must be ongoing and not limited to "one-shot" sessions (Hawkins & MacMillan, 1993; Kinnaman, 1990; Shelton & Jones, 1996). Harvey and Purnell (1995) stated that teachers want sustained staff development rather than short-term training and development programs in technology.
Link technology and educational objectives. The technological training must have an instructional focus that guides teachers to think first about their curriculum and then helps them address how to integrate technology into the curriculum (Guhlin, 1996; Persky, 1990).
Teacher training often isolates technology as a separate discipline and focuses on training for specific computer applications, such as word processing (Persky, 1990; Shelton & Jones, 1996). Focusing on this skill development, however, is problematic since it offers teachers little opportunity to transfer their learning into their classrooms (Shelton & Jones, 1996).
Modern staff development must do more than simply help teachers embrace technology; it must also anticipate the classroom change that will accompany its widespread use (Browne & Ritchie, 1991; Guhlin, 1996; Kinnaman, 1990; Persky, 1990; Stager, 1995). This notion of technology as separate and isolated needs to be significantly altered so that teachers understand how technology can support educational objectives (Boe, 1989).
If educators are going to be convinced to change their practice by integrating technology into their teaching, they must see the relevance of technology to what they do in the classroom (Browne & Ritchie, 1991; Shelton & Jones, 1996).
Intellectual and professional stimulation. The model of staff development for technology must put the teacher/learner at the center of the learning experience and provide a meaningful context for learning (Stager, 1995).
Teachers need instruction that engages them and forces them to reflect on the benefits and limitations of teaching with technology (Persky, 1990; Shelton & Jones, 1996). When teachers engage with others in ongoing reflection about what they have learned about the instructional use of technology, they are more likely to critically evaluate their own pedagogical practice and redesign their instruction.
Given the findings by Harvey and Purnell (1995) and Hawkins and MacMillan (1993), the need to provide meaningful contexts for effective teacher learning is not surprising. They found that teachers grew in their use of technology when there was substantial effort and personal interest in the training and when they were involved with programs that advanced them both intellectually and professionally. Ultimately, such stimulation will lead to the empowerment of teachers concerning their individual technological use and development.
Clear administrative message. If the technological development of teachers is to truly be effective, administrators must not simply pay lip service to the cause. They must take supportive action (Persky, 1990).
Preparing teachers for schooling in the emerging information-based society requires a new vision of teaching and associated expectations for staff development. Administrators must communicate this vision so all educators in the system understand it, and they must support teachers pursuing training in this area (Boe, 1989).
The administrative message must provide a clear, articulate philosophy regarding how the new technology will be used and how the culture of the school is likely to change. Stager (1995) states that this message must clarify the curricular content and traditions valued by the school as well as specify the outdated methodology and content that will be replaced as technology is introduced. This will illuminate for those skeptics the need to change and the need to get themselves "professionally developed."
School administrators can supplement the technological development of teachers by:
• Establishing flexible schedules so teachers can practice what they have learned (or to continue their learning);
• Encouraging and facilitating team teaching and peer coaching;
• Allowing teachers to visit each other’s classrooms to observe technology integration; and
• Scheduling regular meetings among teachers using technology to plan and evaluate instruction (Persky, 1990).
Conclusions
Technology is being integrated into school curriculums in many schools across North America as a result of effective staff development. If technology is to be used by students, then teachers must possess the confidence, understanding, and skills to effectively incorporate technology into their teaching practices. This will only occur by providing adequate training and development of teachers.

References
Boe, T. (1989). The next step for educators and the technology industry: Investing in teachers. Educational Technology, 29(3), 39-44.
Browne, D.L., & Ritchie, D.C. (1991). Cognitive apprenticeship: A model of staff development for implementing technology in schools. Contemporary Education, 63(1), 28-33.
Guhlin, M. (1996). Stage a well designed saturday session and they will come! Technology Connection, 3(3), 13-14.
Harvey, J., & Purnell, S. (1995, March). Technology and teacher professional development. Report Prepared for the Office of Educational Technology, U.S. Department of Education. Santa Monica, CA: Rand Corporation
Hawkins, J., & MacMillan, K. (1993). So what are teachers doing with this stuff? Electronic Learning, 13(2), 26.
Jonasson, H.G. (1993). Effective schools link professional development, teacher supervision, and student learning. The Canadian School Executive, 12(8), 18-21.
Kinnaman, D.E. (1990). Staff development: How to build your winning team. Technology and Learning, 11(2).
Moursund, D. (1992). Empowering teachers. The Computing Teacher, 20(4), 6.
Pearson, K. (1994). Empowering teachers for technology. The Computing Teacher, 22(1), 70-71.
Persky, S.E. (1990). What contributes to teacher development in technology. Educational Technology, 30(4), 34-38.
Pope, S. (1996). Singing the praises of on-site training. Technology Connection, 3(3), 16-17.
Shelton, M., & Jones, M. (1996). Staff development that works! A tale of four T’s. NASSP Bulletin, 80(582), 99-105.
Stager, G.S. (1995). Laptop schools lead the way in professional development. Educational Leadership, 53(2), 78-81.
U.S. Congress, Office Of Technology Assessment. (1995). Teachers and technology: Making the connection. OTA-EHR-616 (database online). Available at: http://www.wws.princeton.edu/ota/disk1/1995/9541.9541.html.

About the Author
Glenn A. Brand is a computer teacher with the Peel Board of Education, Fairwind Senior Public School, 5235 Fairwind Dr., Mississauga, Ontario, Canada, L5R 3L2, (905) 507-3877, fax (905) 507-3881, (e-mail: gbrand@oise.utoronto.ca).

[THIS WILL BE A BOXED ITEM, PLACED NEAR THE END OF THE ARTICLE.]
Consider this:
• What are the needs for staff development in technology in your school or district?
• How might the elements of effective staff development (see the box in this article) be applied in your school or district?
Elements of Effective Staff Development for the
Technological Development of Teachers
A number of elements help define an effective staff development program for teachers focused around technological development. They include:
1. Provide sufficient learning time so teacher will learn to use computers effectively for personal and instructional uses.
2. Address individual teacher differences and supplement individual strengths, being sensitive to each teacher’s expertise and experience.
3. Allow flexibility in programming and instructional learning opportunities.
4. Invest in individuals who are experienced in both technology and curriculum at either the school or district level.
5. Design instructional environments around collaborative problem solving and cooperative learning.
6. Support and celebrate a teacher’s commitment to educational computing by providing incentives, remuneration, and recognition.
7. Provide training and related instruction that allows time for continued, ongoing learning, and on-the-job support.
8. Avoid isolating technology as a separate discipline. Provide an instructional focus that illustrates how technology can support educational objectives.
9. Design instruction and activities that engage teachers both intellectually and professionally.
10. Develop school administrators who encourage the technological development of teachers.

Wednesday, December 3, 2008

ICT (1) Have u been paying attention?

Supit Karnjanapun Ph.D.Assoc.Prof.Graduate School of Education


Have you been paying Attention?


How do your students learned?


Are they?


Interpersonal,


Logical


Spatial,


Intrapersonal,


Musical


Linguistic,


Naturalist


Or Bodily-Kinisthetic Learners?


The Survey Results of Asian Youths found that….


•90% owned Cellphones
•Spent at least 3 hours talking on CP
•Average almost 1 hour playing VDO games daily
•Thais spent more than 1 hour playing games!!


In U.S.A today..


Average College graduates have Spent:
•Over 10,000 hours playing VDO games
•Over 10,000 hours talking on Cellphones
•And roughly 20,000 hours watching TV.


Children and teens spend 2.75 hours a week using home computers.


•70% of 4-6 year-olds have used a computer.


•In any given day,68% of children under two will use a screen media,for an average of just over 2 hours(2:05)


•Why???

“Richness”,


How much richness your curriculum provide?


Do your students….


Remember?


Understand?


Apply


Analyze,


Evaluate


And Create?


What do your students Create?


“These teens were born into a digital world where they expect to be create,consume,remix,and share material with each other”


Are you reaching your students?


“We have learned to ‘play school’.We study the right facts the night before the test so we acieve a passing grade and thus become a successful student.”


“It’s not attention deficit-I am just not listening!”


Are you engaging them?


“When I go to school,I have to ‘power down.’.


One researcher claims that,on average students in class only get to ask a question once….


Every 10 hours!


Why don’t we pause for the next 10 hours to see how that feel?


Do any of your students use Google?


Did you know that there are over 2.7 billion searches performed on Google each month?


To whom were these questions addressed B.G.?(Before Google)


Why not use the technology that our students love to create more effectively?


Why not use the technology that our students love to engage more effectively?


Why not use the technology that our students love to teach more effectively?


Did you know that our Digital Learners have sent and received over 200,000 emails or IM..


Did you know that our Digital Learners have sent and received over 200,000 emails or IM..


By the time they graduate from college!


We accused them not reading (as much as our own generations??)


But 200,000 written messages sure seems like a lot of time spent with the 3 R’s!


Rigor,Relevance.& Relationships


How are you using the new WWW to teach your students?


WWW:WhateverWheneverWherever


Consider theses way to use Internet in teaching…


Blogs WikisPodcastsOnline CollaborationOnline teachingOnline LearningWeb CamGPSGeocatching GamesGIS


Google EarthWebQuestsE-portfoliosVirtual ManipulativesVirtual Pen-PalsVirtual ToursWritingReadingReflection


And those evil cellphones?


Did you know that over 1.5 billion,all over the world,are walking around with powerful computers in their pockets and purses?


“When you loose your Mobile,you loose part of your brain.”


“Phones have become an interestingly enabling tool.Invented to connect us all together,it has become something much more…”


Since your students already know how to use these technology,why aren’t you using it to teach?


Think of the ways you can use cellphones to teach……..


Language


Poetry


Literature


Public Speaking


History


Math


Story Telling


Geography


Writing


Text Messaging(SMS) alone could be used for……


Pop quizzs


Student Polls


Spelling Bees


Math Experiments


Science Experiments


Book Reports


Book Reports


Peer tutoring


Class presentations


Imagine giving your class this assignment:


“Class,you’ve got 10 minutes to receive a text message from anyone outside of this school…”


Please find out:


•What they had for breakfast
•What the weather is like where they are
•The one thing they last purchased

Bonus point will be given for messages received from people outside Thailand


Using languages other than English.


Talk about acquring useful data!


This data could then be used in nearly any class


To teach a wide variety of skills:


To teach a wide variety of skills:


Graphic Data


Food Preparation


Predicting Economic Trends


Cellphones to teach?


Absolutely


Did you know….


Only 28% of 12th grade high school students believe that school work is……


Meaningful


21% believe that their courses are interesting….


And a mere 39% believe that school work will have any bearing on their success in later life


And these are the opinions of students that will actually graduate!


How do the nearly 50% of students that don’t graduate feel about the schools they once attended?


ENGAGE them,don’t ENRAGE them!


Perhaps they wouldn’t hate school if they could use iPods in class


There are nearly 90,000,000 iPods in USA


iPod+Podcasting=Anytime Learning


Did you know that there are over 90,000 unique video and audio podcasts currently being served to over 1.6 million subscribers?


If you can’t reach your students by speaking directly to them….


Teach them via Podcast!


Why not,where there are already thounsands available for you to use….


In every subject imaginable


Even basket weaving!Fishing how to!


“If you can’t beat ‘em, joint ‘em!”


“If you can’t beat ‘em, joint ‘em!”


In conclusion,hopefully you’re seeing the point ……


“How do we turn our classrooms into learning engines? Pay attention to our children’s intensively rich information experiences.”


If you are not using GPS to teach


If you are not using Blogs to teach


If you are not using emails to teach


If you are not using Wikis to teach


If you are not using the Internet to teach


I would like to thank:http://t4.jordandistrict.org/for the original work posted on youtube.com


If there are images in this attachment, they will not be displayed. Download the original attachment
Assoc.Prof.Dr.Supit Karnjanapun
Ten Lessons for ICT and Education in the Developing World
knowledge and information have become the most important
currency for productivity, competitiveness, and increased wealth and prosperity
Quality of Education???
Changed World with Unchanged Classrooms today’s information and knowledge-driven world, a whole new set of skills is required.
New Skills for the Networked World
workforce that understands how to use technology as a tool to increase productivity and creativity.
These skills include “information reasoning,”
reliable sources of information are identified
effectively accessed
understood
contextualized
communicated to colleagues
skills necessary to collaborate
. work in teams,
share information across global networks
interact with others across culturesand languages.
flexible and able to learn quickly
learn how to learn, and quickly acquire new skills.
Those Skills???
not easy to find
challenge to develop
How do nations prepare students for such a world
World Links—A Model for Networked Learning
(www.worldbank.org/world links)
information, technology,
and knowledge.
1.provide developing country with sustainable solutions for mobilizing the necessary technologies, skills, and educational resources 2 prepare students and teachers to enter the Networked World.
collaborative learning
helps ministries of education pilot and learn from this implementation of Networked Learning
World Links is bridging the gap in skills, knowledge, and educational opportunities between industrialized and developing nations
between rich and poor students within developing countries
key failures was that schools were provided with expensive equipment but with little or no support for teachers’ professional development, national ICT-in-education policies, or community involvement
10 lessons
Lesson #1: Computer labs in developing countries taketime and money, but they work
Lesson #2: Technical support cannot be overlooked
Lesson #3: Noncompetitive telecommunications infrastructure, policies, and regulations impede connectivity and sustainability
Lesson #4: Lose the wires
Lesson #5: Get the community involved
Lesson #6: Private-public sector partnerships are essential
Lesson #7: Link ICT and education efforts to broader education reforms These examples of private-public partnerships to equip labs
Lesson #8: Training, training, training
Lesson #9: Technology empowers girls
Lesson #10: Technology motivates students and energizes classrooms
Thanks for Your Attentiions

Trends and shaping (ICT)

Educational Trends Shaping

School Planning and Design: 2007
National Clearinghouse for Educational Facilities
National Clearinghouse for Educational Facilities
1090 Vermont Avenue, N.W., Suite 700, Washington, D.C. 20005–4905 888–552–0624 www.edfacilities.org
Kenneth R. Stevenson
Department of Educational Leadership and Policies
College of Education
University of South Carolina
In 2002, NCEF published Ken Stevenson’s Ten
Educational Trends Shaping School Planning and Design,
which received considerable attention and has been
downloaded from the NCEF website by thousands of
users. Here is an update by the author, with the ten
trends expanded to twelve.
This publication, like its predecessor, examines
educational trends potentially influencing the planning
and design of school facilities. Although we
can’t know exactly how such trends might play out in the
future, their thoughtful consideration during the planning
and design process could have a profound effect on how
successfully a new or renovated school will perform over
its useful life. The trends were identified by reviewing
the latest research on school facilities and student outcomes;
current issues, problems, and initiatives in the
educational field; emerging demographic patterns; and
my previous work on this subject (Stevenson, 2002).
Trend One: “School Choice” and
“Equity” Redirect Facilities Planning
When public education was the only choice for most
children, planning for school enrollment was a relatively
simple process. Schools traditionally operated within
fixed geographic boundaries; planners used local demographic
data in combination with enrollment projection
techniques to estimate the number of students a school
was likely to serve. However, one of today’s educationalreform
trends is school choice—as opposed to school
assignment—rendering ineffective the traditional demographic
method of projecting school enrollment numbers.
Parents and policymakers around the country, unhappy
with public education, have attempted to dismantle what
they consider to be a public monopoly over the delivery
of K–12 schooling. Increasingly, they have pushed for
vouchers and tax credits that permit parental choice and
offer alternatives to the local public school.
In response, school districts have begun to move away
from the “if you live on this street, you go to this school”
rule. Instead, they offer parents options ranging from
magnet schools to charters (Shostak, 2004). One result
is that by 2005 there were approximately 3,400 charter
schools in the United States serving about 800,000
students (Carpenter, 2005). Increasingly, school systems
have embraced the concept that parents and their children
should have some choice about which school a
child attends.
What result for schools has the movement from prescribed
attendance zones to school choice created?
Great uncertainty. School planners are uncertain how
many students will actually show up at a particular
school and uncertain about what amenities that school
needs. A magnet school for the arts, for instance,
requires distinctly different spaces and equipment than a
school that emphasizes science and technology.
Growing numbers of educators and policymakers have
begun to realize that “identical” school facilities do not
translate into “equal opportunity” for students. While some
students function measurably better in one kind of environment,
others perform more effectively in another; the differences
depend on student talents, abilities, and needs.
The focus has shifted away from developing district-wide
plans providing equal facilities and toward plans providing
specialized facilities that meet schools’ individual
program needs. In the past, a good district facilities
plan provided schools with similar features as a matter
of fairness and equality. If School A had two gyms,
the facilities plan ensured that School B also had two
gyms. Today’s trend calls instead for equity, defined as
sufficient amenities to support and maintain the unique
program and intended audience of a particular school.
As a result of school choice and equity trends, planners and
educators may increasingly find themselves challenged to
develop individualized renovation and construction plans
that support a particular school’s distinctive mission.
Educational Trends Shaping School Planning 2
and Design: 2007
National Clearinghouse for Educational Facilities
1090 Vermont Avenue, N.W., Suite 700, Washington, D.C. 20005–4905 888–552–0624 www.edfacilities.org
Trend Two: Small May Trump Large
The educational literature abounds with articles that promote
the virtues of small neighborhood schools (Raywid
1998; Cotton 2001; VanderArk, 2002; Toch, 2003).
Some states—notably, Florida—have even tried unsuccessfully
to mandate uncommonly low school enrollments
(Matus, 2005). In the next 25 years it may not
be unusual to see elementary schools housing an average
of 200 students, middle schools with no more than
400 to 500 students, and high schools with 500 to 750
students.
Supporters of the trend argue that small schools are
particularly good at improving the academic achievement
for students who have not done well in traditional
settings, and that small schools have higher graduation
rates, promote greater student involvement in co-curricular
activities, and experience improved student behavior
(Wasley, 2002; et. al.). Supporters also believe that
since children are better known to teachers and administrators
in small schools, they are safer and receive more
individualized instruction.
Will the interest in smaller schools continue? That
depends on at least two considerations. First, research
findings are mixed about whether small or large schools
actually produce better academic results (Stevenson,
2006a). Second, even if small schools are found to produce
superior academic outcomes, the cost of building
them may be too great. Many communities have aging
populations who have no direct school contact and may
be reluctant to levy school tax increases. This could
have a dramatic negative effect on the small schools
movement. The counterargument contends that if small
schools demonstrably produce higher graduation rates,
in the long run they cost communities less than do large
schools.
For this combination of reasons, planners and educators
need to discuss optimum school size when developing a
long-range facilities program.
Trend Three: Reduced Class Sizes?
Maybe
There is also substantial interest in smaller class sizes
(Achilles, 2003). Significant research demonstrates that
smaller-class benefits not only include enhanced academic
performance but improved student behavior and
teacher morale (Finn & Pannozzo, 2003). A few studies
further suggest that such classes particularly benefit atrisk
students (Nye, Hedges, & Konstantopoulos, 2004).
Future growth of the movement to lower teacher-pupil
ratios depends on at least two factors. First, smaller
classes cost more because they require not only more
classrooms but also more teachers. As in the case of
the smaller-schools trend, an aging population may be
reluctant to support increased school taxes. Second,
not all research supports the contention that small class
size is better. In a recent review of 19 class-size studies
by the Center for Public Education (2005), some studies
found no linkage between student achievement and
lower teacher-pupil ratios. As Schneider (2002, p. 16)
stated succinctly, “The class size debate is unresolved,
although few would argue against smaller classes where
possible. This is an educational issue that has serious
impact on school planning and design, since smaller
classes require more classrooms or more schools, a
fact that may seem self-evident but is often lost in the
debate.”
Political pressure to reduce the number of children in a
classroom will persist, however, because many parents,
teachers, policymakers, and certain researchers are convinced
smaller class sizes can enhance learning, teaching,
and the general quality of life within schools. Before
building new schools or adding to existing ones, planners
and educators should thoroughly explore how to optimize
class size, while bearing in mind the possibility of a
diminishing tax base and conflicting research about what
the definition of “optimal” class size should be.
Trend Four: Technology Goes
Big Time
School districts will need to develop effective methods
to control costs caused by more-numerous neighborhood
schools, lower teacher-pupil ratios, higher energy
costs, and reduced tax revenues. One solution would be
by means of virtual education, or “e-schooling” (Berge
& Clark, 2005). Students seeking more specialized or
advanced courses would take classes via closed circuit
television or the Internet. Since these are packaged
courses, they would require fewer personnel, a cost
savings for the school.
Another cost-control possibility may be the use of computers,
networks, and software to deliver basic educational
programs within the school (Snyder, 2004). For
example, instead of four teachers delivering instruction
Educational Trends Shaping School Planning and Design: 2007 3
National Clearinghouse for Educational Facilities
1090 Vermont Avenue, N.W., Suite 700, Washington, D.C. 20005–4905 (888) 552–0624 www.edfacilities.org
to 100 fourth-grade students, schools may have one
master teacher and a team of teaching assistants who
help students use packaged courses to gain knowledge
or skills in a particular subject. The master teacher works
like a doctor, diagnosing and determining treatment,
assigning all but the most complex educational intervention
procedures to others. While this approach has been
discussed for 20 years, advances in technology have
made the likelihood of this instructional model not only
possible but also probable.
There needs to be substantial conceptual rethinking of
school buildings and the spaces they contain. Teacher
preparation and staff development for the effective
use of technology will become high priorities (Davis &
Roblyer, 2005). Planners and designers should create
the most flexible school facilities possible to accommodate
the shifting landscape of instructional practices and
technology.
Trend Five: The Mission May Change
In many cases, school buildings must accommodate
a change in mission. Schools attempting to maximize
standardized achievement test scores, for instance, may
need to modify their curricula (Dillon, 2006). Students
with academic difficulties may be required to take
additional courses in their problem areas. To enhance
their scores on state or national tests, students may be
required, for instance, to sign up for a second course in
math rather than taking art as an elective. Even students
doing well in math or science may be encouraged to
take more math and science, rather than non-academic
electives, to raise their school’s academic profile. As
schools increase the focus on traditional academic subjects,
demand for music, art, vocational courses, and
even physical education may diminish. It is possible to
envision some schools comprised primarily of academic
classrooms, with few spaces for “non-essential” subjects.
Indeed, in some charter schools this is now the
case.
Or, paradoxically, traditional academic classrooms may
largely disappear, replaced by holistic learning labs and
exploratory centers (Butin, 2000; Keep, 2002). To support
this approach, classrooms must be multi-purpose,
allowing a blending of traditional instruction with meaningful
and diverse hands-on, lab-type experiences that
include anything from potterymaking to dramatic arts.
Schools in this mold provide a physical environment that
stimulates creativity and fosters a sense of belonging
(Jarman, Webb, and Chan, 2004).
Regardless of their educational focus, many schools
are being opened for community use (Sullivan, 2002;
Bingler, 2003). Classrooms used during the day by
students may be occupied by community organizations
at night. Adults in the neighborhood may drop by the
school health room for a blood pressure check with the
school nurse. Seniors may walk school corridors after
hours for exercise. When a school’s mission includes
greater community use, its classrooms and common
spaces do double duty.
Educators and planners need to keep in mind that
school missions change, and when they do spatial
requirements change with them. To the extent possible,
new schools should be planned and designed as flexibly
as possible to accommodate such changes.
Trend Six: Classrooms Are Being
Reconfigured
Traditionally, the number of students assigned to a classroom
has been largely related to creating a balanced
class for the teacher. Increasingly, however, students
are being grouped by learning styles (Porterfield, 2005).
This trend may affect school design in two ways. First,
it requires a variety of classroom sizes and configurations
to accommodate different learning styles or tasks.
Second, entire schools may be devoted to specialized
learning styles (Tileston, 2000).
For instance, students who are visual learners would
attend schools designed to support visual media.
Students who are kinesthetic learners would attend
schools designed to support physical activity. The critical
point for planners and educators is that the “one-sizefits-
all” classroom model is disappearing, and a quest
for more flexible and adaptable classroom configurations
should be part of the school planning process.
Trend Seven: Schools Go 24/7
Students are often required to spend more time at
school due to improved-education demands by policymakers
and society in general (Farbman & Kaplan,
2005). To better serve at-risk students—particularly at
the high school level—and to use buildings and classrooms
more efficiently, a greater number of districts are
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implementing “twilight schools” and year-round schooling
(The Principals’ Partnership, nd). In some schools, nontraditional
students attend classes before or after work
or on weekends. When school buildings are not being
used for school functions, they often remain open to
serve community interests.
Increased school use causes more rapid wear of building
materials and equipment, so schools that are occupied
during the summer lose critical down-time for making
major repairs. Clearly, durability, energy efficiency, and
life-cycle maintenance must be major considerations
when planning and designing schools for extended use.
Trend Eight: Paper Is Disappearing
Paper-based learning materials may largely disappear
from the classroom, particularly in the higher grades.
Many reference materials, including journals and magazines,
are available now in electronic form or through the
Internet (Beare, 2001). Textbooks and workbooks may
be placed online, with students accessing them through
laptop computers at school or home (Simon, 2001).
Assignments may be submitted, graded, and returned
electronically. Enrichment and remedial instruction may
be individualized through use of academic assessment
software that provides each student with electronic
assignments tailored to his or her past performance and
learning style.
In the digital age, it is more important than ever to consider
the adequacy of electrical service, the number of
Internet connections, type and configuration of local and
wide-area computer networks, and the size and design
of classrooms and media centers. Increased use of computers
and other electronic resources affects the visual,
thermal, acoustical, and physical needs of these spaces.
Controlling glare that interferes with viewing computer
screens, installing sufficient cooling to overcome the heat
produced by electronic equipment, and providing laptop
charging stations and adequate sound treatment are
critical to providing an adequate learning environment.
In addition, schools may need additional secure storage
to accommodate an array of expensive e-learning tools,
such as electronic whiteboards. Educators and designers
need to be creative about how schools will accommodate
the e-instruction of tomorrow.
Trend Nine: Grade Spans Are
Changing
Substantial research indicates that each transition to a
new school has a negative effect on student learning
(Renchler, 2000). Some school districts are seeking to
reduce school changes by adjusting grade span configurations.
The K–8 school is staging a comeback. Some districts
are seriously considering a return to K–12 schools,
where all grades are under one roof. Revisiting the K–12
school is part of the idea of a neighborhood education
center where students can go to the same school near
their home, from kindergarten through high school
graduation.
Other school districts are moving in the opposite direction.
While K–5 or K–6 has been the standard elementary
pattern for years, more districts are splitting this
configuration to create primary and intermediate schools
(McEntire, 2002, updated 2005). The argument for this
approach is that the whole faculty of a primary school,
for example, will focus on educational techniques supportive
of early childhood education. Similar initiatives
include stand-alone sixth- and ninth-grade centers.
Changing traditional grade groupings affects the layout
and location of all the schools in a geographic area.
Hence school districts need to examine this subject
carefully before altering grade groupings.
Trend Ten: Special Education
Has Gone Mainstream
The Individuals with Disabilities Education Act of 1997
required students with disabilities to be taught along with
their non-disabled peers “in the least restrictive environment
possible” (Amerman and Fleres, 2003, para. 1;
Ansley, 2000; Abend, 2001). Many schools, however,
continue to be constructed and operated in ways that
physically and socially isolate disabled children from their
non-disabled peers.
A traditional school layout is easily identified because it
has a separate wing or pod for special-needs students.
Special education children who do get included in
standard classroom activities often travel from one end
of the school to the other to get to their classrooms.
These classrooms are designed for one teacher and 20
to 25 students, so when a special education teacher
attempts to work with a mainstreamed special-needs
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child in a classroom setting, the lack of appropriately
designed space creates conflicts with the ongoing
instructional activities of the primary teacher. In such
cases both the primary and special education teachers
feel their children have been slighted.
This is no small concern. Currently nearly seven million
students ages six through 21 have been identified
through IDEA as requiring special instruction (Adams,
2006). That is, approximately 12 out of every 100 students
in school must be provided with special services
to address their disabling condition in a way that allows
them to be socially, emotionally, and physically a part of
the school as a whole. Most experts agree that the percentage
of students identified as disabled will continue
to grow in the coming decades.
What does this mean for planners and educators?
Schools housing disabled students should be designed
or modified with these children in mind, and should
include a seamless interface between special education
services and standard classroom instruction (Abend,
2001). Special classrooms for most, if not all, classifications
of disabilities should be intermingled with general
instructional spaces. Classrooms and laboratories should
be designed so that disabled students and their teachers
are comfortably and effectively included in the instructional
activities that support the school’s curriculum.
Trend Eleven: Early Childhood
Programs? Plan On Them
In many school districts, mandatory kindergarten for
five-year-olds was unusual until a few years ago. Now
talk abounds of expanding early childhood programs to
include three- and four-year-olds and, in some cases,
babies and toddlers (Wilen, 2003). At a time when highstakes
testing drives educational accountability, one key
argument for universal schooling of pre-kindergarteners
is this: Children who do not come to school ready to
learn are destined to struggle throughout their educational
experience, and are more likely to fail.
While not everyone agrees that such early intervention
is necessary, many states are either considering
or actively pursuing no-cost, high-quality preschool for
all three- and four-year-olds (Pascopella, 2004, para.
4). With increased national attention on the pre-school
years, educators and design professionals should carefully
consider how and when to provide sufficient space
to house this new population. The design of such facilities
needs to ensure that age-appropriate developmental
activities, many of which require considerable space and
storage, can be carried out effectively in early childhood
classrooms.
Trend Twelve: School Is Where the
Hearth Is
The preceding trends suggest ways schools are changing,
but another scenario exists: Schools as we know
them will disappear altogether (Northwest Educational
Technology Consortium, 2002; Stevenson, 2006b). With
the rapid development of technology and the increasing
lack of confidence parents have in public education, the
disappearance of the brick-and-mortar structure called
school is not implausible.
Imagine a child entering a quiet place at home where
teachers and fellow students are present only on a
computer screen. The child has access to lessons prepared
by the most knowledgeable professionals in the
world and can interact electronically with teachers and
students anywhere, on any appropriate subject. This
virtual classroom is already a reality. Parents who homeschool
increasingly use electronic media and the Internet
to access instructional materials. Students in remote
areas of Canada and Australia, hundreds of miles from
a school building, attend school by logging on to their
computers. Technology allows high school students in
rural Kansas to take a course online from “classrooms”
anywhere in the world.
Begging the question of who—or what—will assume
responsibility for the socialization process traditionally
assigned to schools, should school buildings be designed
as traditional learning environments or as production and
broadcast centers? Considering that schools have a life
span of a half century or more, school districts might
give at least some thought to how its buildings someday
might be adapted to alternative educational, community,
or private sector use.
Examine Trends and Question
Authority
These twelve trends have the potential for making
schooling in America unrecognizable within a few
decades, so it behooves educators and planners to ask
continually:
Educational Trends Shaping School Planning 6
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• What is emerging in educational practice that
affects the ways we think about schools?
• How is the demographic composition of our community
changing the way education should be
delivered?
• What will future taxpayers be willing to support?
• Can education be delivered in a more efficient,
effective manner?
The quality of answers to these questions will determine
how well tomorrow’s school facilities will support the
educational needs of the twenty-first century.
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Educational Trends Shaping School Planning 8
and Design: 2007
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About the Author
Kenneth R. Stevenson is a professor at the University of
South Carolina where he chairs the Department of
Educational Leadership and Policies in the College of
Education. He is also an educational planner and consultant
to school districts for educational management,
school facilities, and technology evaluation.
Acknowledgments
The author wishes to acknowledge the research assistance
of Toni Giacopelli in the development of this
publication, reviewers Pamela Loeffelman and William
Brenner, and editor and graphic designer Marcia
Axtmann Smith.
Sponsorship and Copyright
Published by the National Clearinghouse for Educational
Facilities (NCEF), under a grant from the U.S.
Department of Education. ©2006 by the National
Clearinghouse for Educational Facilities. All rights
reserved.
Availability
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