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Indian students in Intel International Science and Engineering Fair

Five teenagers, three individuals and one team of two, have done India proud by winning 2 grand awards and 5 special awards and 1 governmental award at the Intel ISEF, the world’s largest pre-collegiate science competition. Four of the six projects are chosen from over 150 that participated at the Indian leg of Intel ISEF, the Initiative for Research & Innovation in Science (IRIS).

Intel has entered into a partnership with Department of Science and Technology (DST) at Confederation of Indian Industries (CII), resulting in merger of two programmes, Intel Science Talent Discovery Fair and “Steer the Big Idea” into one program ‘IRIS – Initiative for Research & Innovation in Science’. IRIS 2007 has been initiated in March 2007 by inviting project synopses from participants in three categories from age 10 – 35 years. The truly innovative projects are then exposed to a much larger world of science and education. They represent India and showcase their work to the international scientific community at the largest pre-college science fair in the world – the Intel International Science and
Engineering Fair – Intel ISEF held every year in USA.

The event participation in 2007 has been a huge success for the Indian contingent comprising of Vaishnavi Viswanathan for category Environmental Science, Rishin Behl for Category Engineering, Aavishkar Apoorva Patel for category Physics, and Ram Raghunathan for category Computer Science. As team projects the winners were – Tanay Delima and Nikhil Khosla in Physics, and Rehan Netarwala & Sarvesh Nevetia in Engineering.

Tanay Delima and Nikhil Khosla, Mumbai
Tanay Delima and Nikhil Khosla, both 15, from Dhirubhai Ambani International School, Mumbai has won Fourth prize of $500 in Team Category for Physical Sciences for there project ‘A Novel Advanced Brake Light Warning System to Prevent Vehicular Tailgating Accidents’.

Tailgating accidents account for 65% of all vehicular accidents. The aim of this experiment was to find out whether it was possible to prevent these tailgating accidents by giving the driver in the rear vehicle additional time to apply his brakes and thereby bring his car to a safe stop when the car in front stopped. Presently, the rear brake lights come on when the brakes are applied. They wondered whether, if an additional rear light of a different color came on when the accelerator was released prior to the brakes being applied, it would indicate to the driver in the car behind of a possible intention to stop, and he would then get that additional time required responding and bringing his car to a safe stop.

In this experimental setup, the subject was asked to stop the rear car with the brake pedal when he saw the brake lights of the car in front come on. The brake lights of the car in front operate in two modes. In mode 1 they come on when the brakes are applied like in all cars today. In mode 2 an additional yellow rear light comes on when the accelerator is released prior to the brakes being applied.

The distance taken by the subject to stop the rear car in the two modes was observed and the data analyzed. Conclusion: it was indeed useful for the driver at the rear to be able to detect when the front vehicle driver’s foot was taken off the accelerator.

“I realized the competition at the International level is nowhere close to what I experienced at IRIS National level. Meeting so many people was overwhelming. Regarding support from Intel we had received guidance at the coaching camp which helped in improving our project and also our presentation skills…”- Nikhil Khosla

Ram Raghunathan, Chennai
Ram Raghunathan, 16, from Sishya School, Chennai has won second prize of $500 for Computer Science in Individual Category for his project  FDIS: A Fast Frequency Distribution Based Interpolation Search Algorithm for Sorted Arrays.

Search of sorted arrays is a fundamental operation in computer science. In this project, Ram presents a novel search algorithm that utilises frequency distributions of data in the array paired with interpolation search to conduct the search more efficiently. The numerical experimentation showed FDIS performs significantly better than both Interpolation and Binary search algorithms on average number of searches and average time taken for the search. The worst-case performance of FDIS is better or not significantly different from that of Binary and Interpolation. I also analysed the impact of array size, frequency table size, and shape of data distribution on the performance of FDIS, relative to the other two.

Vaishnavi Vishwanathan, Mumbai

Vaishnavi Vishwanathan, 15, from Modern English High School, Mumbai has won second prize of $500 U.S. Savings Bond in Individual Category for Environmental Science for her project of ‘Termite Malady ? – A Herbal Remedy!!’

Termites are a major cause of destruction of property; especially wood, paper etc. They multiply very fast. Hence, controlling them is very difficult. They grow and reproduce under moist conditions. Termites are mainly cellulose degraders. Dead trees are also known to inhabit termites. Heritage buildings built close to 100 years ago are also known to inhabit termites. These buildings are meant to stand for years and hence one would have to spend lakhs of rupees in treating them.

As a part of the research on natural product efficacy against termites, I studied two main parameters:  The effect of Kusha root extract on controlling termite population The use of Kusha root extract as a wood preservative Wood samples were therefore treated with Kusha root extract. The results showed that the presence of Kusha root extract led the termites to exhibit a “lingering behavior”. They remained on the surface, all clumped together and unable to organize themselves. Hence they could not reach potential food sources through tunneling activity or building shelter tubes.

The study thus led her to conclude that the Kusha root extract is effective in controlling termites

” …Throughout my project the person who was constantly at my side was my guide Sitalakhsmi Parmeshwaran. She was my strength and motivator behind my success. Intel’s panel of scientists has helped me in reaching at this point…”- Vaishnavi Vishwanathan

Sarvesh Nevatia and Rehan Netarwala, Mumbai
Rehan Netarwala Sarvesh Nevatia, both 17, from Jai Hind College, Mumbai at the ISEF in the Physics Category for their project spherical wheels – a new revolution. Spherical wheels are here to radicalize the world. They can be used in robotics, trolleys, tractors, forklifts and wheel chairs. Our spherical wheels work on the principle of a computer mouse. Each sphere is held in place by three rollers, two of which are powered. When the rollers rotate, the adjacent sphere rotates due to friction. The spherical wheel’s speed and direction is controlled by the individual speed of each roller. Through this, multidirectional motion can be achieved. Acceleration, kinetic energy and power of a sphere are greater than that of a cylinder hence a spherical wheel is more efficient.”

Rishin Behl, Mumbai

Rishin Behl, 18, from Kendriya Vidyalaya, Mumbai has won total 5 awards at ISEF. Second prize of $1500, first prize is $1000 & a trip to SEG International Exposition, second prize is a trip to China for a week to attend the 22nd China Adolescents Science and Technology Innovation Contest to be held in Kunning Yunan Province , third prize of $1,000 U.S. Savings Bond , full tuition scholarship awards by University of Mexico in individual category for Geophysics  for  his project ‘A Novel Design for Magnetic Levitating Seismograph’.

Aavishkar Patel, Bangalore

Aavishkar Patel, 17, from Kendriya Vidyalaya , Banglore at ISEF in Individual Category for his project ‘A Coupled Oscillator Model For Grover’s Quantum Database Search Algorithm’.

Grover’s database search algorithm is the optimal algorithm for identifying a desired object from an unsorted collection of items. Although it was discovered in the context of quantum computation, it is simple and versatile enough to be implemented using any physical system that allows superposition of states. Analysis was done of a mechanical realisation of the algorithm using coupled simple harmonic oscillators, and construct its physical model for the simplest case of 4 identical oscillators. The identification oracle is realised as elastic reflection of the specified oscillator, and the over relaxation operation is realised as evolution of the system by half an oscillation period. The sensitivity of the algorithm to changes in the initial conditions and damping was explored, both analytically and experimentally. The amplitude amplification provided by the algorithm enhances the probability of the desired object in the quantum case, while it enhances the energy of the desired oscillator in the mechanical case. The focusing of energy into a specific oscillator can have interesting applications in processes that need crossing of an energy threshold for completion. This mechanism may be useful in nanotechnological devices.

Intel is glad to provide a platform to such deserving students to display their skill and knowledge at the International level.

Bridges to the Future in India

The central philosophy of the Bridges to the Future Initiative (BFI) Programme is to bridge the digital divide between the ICT haves and ICT have-nots, by extending learning opportunities to those most in need. Consequently, BFI seeks to build educational and learning programmes that will enable the less-advantaged learners to employ and utilise ICTs, to both acquire knowledge and to improve their lives through better economic opportunities.

The BFI concept was developed by the International Literacy Institute (ILI), University of Pennsylvania, Philadelphia, USA. ILI has been engaged in developing literacy programmes, both in the developed and the developing countries, for over two decades. ILI has been in the forefront of using ICT in education, especially for literacy, in its wider connotation. Apart from developing ‘functional’ literacy programmes for learners from different cultural, linguistic and educational backgrounds, ILI has been successfully engaged in developing computer assisted instruction (CAI) learner and teacher-training packages using multimedia. As an international resource center for planning, implementation and evaluation of literacy projects, ILI has been actively participating in the literacy projects and programmes in a large number of countries in Africa, Asia, Europe, North America and Latin America. Through its Summer Literacy Training Programme (SLTP), the ILI has trained literacy planners, administrators and field-functionaries from over 75 developing countries. The BFI programme is a culmination of the long experience of the ILI in literacy and ICT.

Support behind the project
Infrastructural and technical support for BFI-India has come from the State Government of Andhra Pradesh and the University of Pennsylvania. Core and continuing project support has been provided by JPMorganChase, with additional assistance from the World Bank, Spencer Foundation, Unicef, U.S. Department of Education, UNESCO (United Nations Educational, Scientific and Cultural Organization), ICICI Bank, IIIT-Hyderabad, Azim Premji Foundation, and Byrraju Foundation.

Outreach
The BFI concept has been accepted and adopted by several countries, notably Mexico, Ghana, South Africa and India. The programme has been initiated in South Africa, while in India BFI is being run in the pilot mode in Andhra Pradesh. Various other Indian States that have shown an interest in adopting the BFI strategy.

BFI – India
At the preparatory level, BFI was discussed with the Government of India (GOI) as early as 2000. The National Literacy Mission (NLM) of the GOI, at that time was looking at BFI as a programme of training of literacy workers who numbered several hundred thousands. The BFI model was seen as most appropriate for the NLM’s project of Continuing Education Centers (CECs). Even as these discussions were in progress with regard to the availability of ICT infrastructure at these CECs, the Government of Andhra Pradesh (GOAP) was able to provide ten computers each in 1000 high schools throughout the State for imparting computer literacy to high school students and teachers. In discussions with GOAP, it was determined that there would be great educational potential in this ICT infrastructure if these schools could remain open to the local communities after school hours for literacy and vocational education in AP state.

BFI – Andhra Pradesh

Once the GOAP agreed to making the 1000 high school computer labs available for community learning, ILI (working in close  partnership with UPIASI and others) developed a three-strand prototype multi-media software to address 1) the learning needs of out-of-school children (10-22 age-group), called Learning for School, 2) the learning needs of semi-literate or illiterate youth (particularly young women) for life-skills and vocational training, called Learning for Life, and 3) to facilitate the GOAP’s programme of egovernance for the common  citizens, called e- Governance. The software module was designed to be fully interactive and therefore, the learners could learn, without a formal teacher, at their own pace. It was decided to try out this experimental multi-media software in Hyderabad to study its acceptability and to measure its impact on the community users.

This experimental phase of BFI was launched in Hyderabad, Andhra Pradesh (AP) in October 2003. By December 2003, it was clear that out-of-school children and young women found the computer driven learning sessions highly motivating. Early indications showed that the BFI model could become a powerful learning tool.

Andhra Pradesh has an ongoing programme of bringing all out-of-school children into the formal school. This has been attempted through intensive ‘bridge courses’, which are designed to prepare these children in the shortest possible time to reenter school.  GOAP saw the BFI model as an effective tool for addressing the problem of children who had dropped out of school or had not enrolled at all in order to bring them back to school. The ILI, therefore, decided to limit the BFI focus in AP to address this problem exclusively and develop modules in greater depth and breadth under the Learning for School strand. A BFI team was formed to plan and develop (under the guidance of Professor C.J. Daswani, formerly Professor and Head of Non-formal Education, NCERT, New Delhi, and Senior Adviser, ILI) a series of multi-media modules in Telugu for the out-of-school children in AP. GOAP has contributed by making available the services of four experienced teaching-learning materials writers to work on this team

asia

Philippines initiates project for public high schools
The Commission on Information and Communication Technology (CICT), Philippines has initiated the iSchools Project to support the effort of the government and the Department of Education (DepEd) in integrating information and communication technology (ICT) education in public high schools.

The project focuses on strengthening classroom learning and instruction by expanding access to various sources of information. The components of the project include to conduct trainers’ training to ensure quality during the educators’ training implementation phase; the stakeholders’ mobilisation and project briefing; the provision of an Internet laboratory; conduct educators’ training; content development; monitoring and evaluation; applications development; the computer maintenance, trouble shooting and recycling; capacity-building program for DepEd ICT coordinators; educators’ congress; and the project close-out activities. The content development includes the initiation of training on web development among teachers and selected senior students that will enable them to create local educational content.

ADB provides over 1 million texts to schools in Indonesia
The Asian Development Bank (ADB) is providing more than one million textbooks to senior secondary schools across Indonesia’s Aceh province and Nias island as part of ADB’s Grant for the Earthquake and Tsunami Emergency Support Project (ETESP).

Support for practical science and information communication technology education in senior secondary schools is the focus of the education component of the ETESP grant. The textbooks on biology, chemistry, physics, information and communication technology, English and mathematics will replace outdated editions and replenish chronic shortages of the new 2006 curriculum textbooks being introduced to the schools in 2007.

Harvard unveils ambitious plan focusing on South Asia
Harvard University has unveiled an ambitious plan focusing on South Asia which envisages partnerships with institutions and organisations to advance teaching and learning in the region and increasing number of students from there.

The project entails a host of new courses and programmes through which students will be exposed South Asia’s cultures, histories, opportunities and challenges. It will be pursued with collaboration and coordination across the entire university, including Harvard College and Harvard’s 10 academic units. Students from South Asia represent one of the largest groups who come to Harvard from outside of the US. The numbers from India alone already exceed those from Germany, France, and Japan or the UK.

Pakistan to invest billions to establish universities
The Central Development Working Party (CWDP) of Pakistan is likely to recommend and take up 40 developmental projects worth billions of rupees in 10 sectors at a meeting including education, governance, physical planning and housing, information technology, transport and communication, nutrition, water resources, higher education commission, science and technology and energy.

The Higher Education Commission (HEC) is working on four projects relating to the establishment of engineering universities. The first project is the establishment of a university of engineering science and technology Pakistan (UEST) in collaboration with China, worth INR 49.120 billion. The second project is the establishment of a UEST in collaboration with Germany worth INR 51.024 billion. Two other universities are to be established in collaboration with Austria and Italy. The costs of these projects are INR 49.894 billion and INR 47.648 billion respectively.

Manipal group buys 50% in online varsity
Manipal Universal Learning International, part of the education arm of the Manipal group—has acquired a 50% stake in U21 Global, an online varsity, for an undisclosed sum.

The Mauritius-based Manipal Universal bought the stake from Cengage, which was earlier called Thomson Learning. The remaining 50% of the shares are held by a network of 20 leading universities including University of Nottingham, National University of Singapore, University of Melbourne, University of Virginia, University of Auckland and Waseda University.

The Singapore-headquartered U21 Global started operations in 2001 and currently offers management education courses. It has 4,000 students from 60 countries. Around 25% of the students are from India. The courses are targeted at the upper end of the online management education market with Indian students paying a fee of $10,000 (INR 4 lakh) for an MBA course. Manipal group plans to invest $5 million in operating the varsity.  Manipal group operates two universities—Manipal University and Sikkim Manipal University—apart from around 30 institutions in India. It also has colleges and university campuses in Antigua, Dubai, Malaysia and Nepal. It has about 125,000 students from 52 countries studying in various undergraduate, graduate and doctoral programmes.

Corporate Diary: Dec 2007

PARTNERSHIPS

NIIT, NComputing team up for low-cost education in schools

IT training and global talent development company NIIT has entered into an alliance with US-based NComputing Inc, a provider of virtual PC solutions, to enable schools across India to offer affordable computer education to students.

NIIT, which offers computer and computer-aided education to 1.5 million students in over 5,000 schools, would bring its expertise and reach in schools while NComputing would offer its technology. The new partnership aims to promote NComputing’s shared computing solution from the Kindergarten to 12th standard education system.

NIIT partners with US company to introduce Math Lab
NIIT Ltd, an Indian IT training company, has announced an alliance with the US-based Key Curriculum Press Inc, a provider of software research and development for Mathematics Education, to introduce ‘Mathematics Laboratories’ in Indian schools.

‘Math Lab’ is intended to enable school students to learn and explore mathematical concepts and verify mathematical facts and  theorems using technology tools such as ‘The Geometer’s Sketchpad’, together with hands-on activities using a variety of mathematical models.

TutorVista announces acquisition of Edurite Technologies
TutorVista.com, the lonline education leader has announced its acquisition of Edurite Technologies – a domain expert in the Indian education segment and developer of education course materials.

With this acquisition, TutorVista has jump started its operations in India. This partnership will allow leveraging education content, technology and Internet marketing expertise to bring affordable education across the country. TutorVista has over 150 students studying in their pilot tutoring center in Bangalore and are looking at expanding to over 50 centers across India in the next 12 months. Edurite has over 100 multimedia curriculum based products for institutions and retail segment. Edurite course material is available for all the leading national and state syllabi, such as CBSE, ICSE, SSC, SSLC and so on. Equipped with an in-house library of Reusable Learning Objects, Edurite has created over 5000 animations and 200 hours of video and several diagrams which can be used to suit any curriculum.

The new entity will be known as TutorVista Education India Pvt. Ltd. and will be monetized separately. Purushotham, President – Education Programs, TutorVista will be leading the charge for Education Programs He was heading NIIT’s education business
till 2002.

eSquareworld Academia partners with HughesNet Global Education
eSquareworld Academia, part of eSquareworld, Dubai-Knowledge Village based education provider and HughesNet Global Education,
a division of Hughes Communications India – a leading provider of broadband satellite networks and services, have announced to join hands to set up the first Interactive Onsite Learning centre at Dubai Knowledge Village.

The courses currently being offered from IIM Calcutta are the Executive Programme on Leadership for Young Managers and the Executive Programme in Sales and Marketing. Designed by management experts and acclaimed by the industry, these courses have been thoughtfully designed with structured online modules ensuring flexibility for the students and cutting-edge curriculum and certifications from some of the best institutes in India. The students will be able to interact with the instructor in real time using a high end multimedia personal computer that is used at all the HughesNet Global Education centres. Subsequently the Dubai centre will also offer the courses from the other institutes of India like Indian Institute of Management, Kozhikode; XLRI, Jamshedpur; Indian Institute of Technology, Delhi; Indian Institute of Foreign Trade; and Mudra Institute of Communication (MICA), Ahmedabad.

Blackboard partners with Sony for smart card
The US based education technology developer Blackboard has partnered with Sony to deliver support for Sony’s smart card technology in its Blackboard Commerce Suite for use with campus
ID cards.

Blackboard will support the FeliCa contactless IC card technology from Sony. A contactless IC card is type of smart card with integrated circuits that uses radio frequency to communicate with card readers and, in this case, card writers as well, allowing  data stored in the card itself to be updated. This will allow students to use a single card for payments, ID, security access, and various other transactions. FeliCa technology is currently used in about 250 million cards and mobile phones.

IBM joins hands with business intelligence tech. firm Cognos

IBM has entered into a definitive agreement to acquire the US based Cognos, a firm that provides business intelligence technologies to K-12 and higher education and other sectors.

The deal is still dependent on shareholder and regulatory approval and other conditions but is expected to close in the first quarter of 2008 and is valued at about $5 billion. Cognos is a provider of several technologies used in education, including alumni management, enrollment and tuition planning, finance, human resources, marketing, and other business intelligence and performance management solutions based on open standards and built on a service-oriented architecture (SOA).

PRODUCTS and Projects

Online tool to help students evaluate themselves
Learnsmart India, a joint venture between BodhTree Consulting and Unified Council, will expand its academic-oriented projects targeting students from standard I to standard 12.

The company that has launched www.24X7guru.com, an online diagnostic and self-assessment tool for the high school and intermediate students, is planning to add state syllabus by next month. The online learning initiative started off with CBSE and ICSE syllabi. Initially, it had 4,000 students and now the number has increased to 4.5 lakh. It sets a target to cater to one million students by 2008-09. Learnsmart will add six states’ syllabi by January and International Baccalaurete by December. It will launch another academic-oriented product in next year, which will be five times bigger than the ongoing venture.

Venture capital funds online education, e-Learning in India
Indian companies received more than $74 million (INR290.8 crore) venture capital funding in October 2007. Deals included investments in sectors ranging between e-Learning, digital media and engineering solutions outsourcing.

Online education and e-Learning services emerged as the flavour of the season as venture capital firms struck three deals in this space in the last month – Mumbai-based Hurix Systems Pvt. Ltd received $5.1 million from Helion Venture Partners; TutorVista.com, an online tutorials company started by serial entrepreneur K. Ganesh, received $2.5 million from Manipal Education Group; Mumbai- ased e-Learning services company 24×7 Learning Solutions Pvt. Ltd received $4 million from Capital18, the venture capital arm of media group Network18. All three companies have had earlier rounds of funding.

Why students feel nervous when examinations are round the corner? The reason is simple either they haven’t prepared well or don’t know how far they do it better. This is where the concept and the online venture plays a vital role in eliminating fear in the minds of students. The total investment in the venture is expected to touch $7.5 million by March 2009. Learnsmart India is mulling over a plan to spread 24X7guru.com concept to other countries. The online project is aimed at enlightening the students right from understanding concepts to several application methodologies of what they studied.

YouTube moves into education

Richard Muller, a professor at the University of California at Berkeley is offering semester-long course on YouTube with help from Berkeley University and Google’s video-sharing site.

Berkeley University is the first university which is bringing higher education to the web in this manner. While Harvard University is bringing a law course through its extension program. Berkeley has opened the virtual doors of its university to the world at large. Under its partnership with YouTube, students can also view other parts of the university like campus life and events. Berkeley has its own 30-second promotional video, called “You see Berkeley,” on its YouTube page. The content also works as a marketing tool to help strengthen alumni ties and expand community outreach. Berkeley has also launched a podcasting partnership for courses with iTunes. Currently, Berkeley has 1.3 million views and 700,000 downloads on its three channels run on its page.

Ford India launches education project

Ford India in association with Confederation of Indian Industry
(CII) has launched an educational project to improve the educational infrastructure and quality of education of government-aided schools in Tamil Nadu.

The project would provide education, guidance and counseling to children at an important stage of their life with the help of both parents and teachers. For students, the module aims at motivation towards studies, holistic development by renowned trainers and successful people from corporate and public circuits, facilitating students to develop skills such as memory, reading, writing and concentration skills. For teachers in the government-aided schools, the project would provide training through workshops. Apart from educating parents on psychological impact of the primary system on the growth and development of the child, the programme would enlighten them on their roles and responsibilities as parents, the impact of education on the child’s future and career opportunities and their role in career planning..

How to Get Started

 

Shuchi Grover

Educational Technologist
shuchi_grover@post.harvard.edu

My first two articles in this 3-part series on Blogging in Education have hopefully set the stage for teachers to try out this new (web 2.0) technology tool to begin online publishing, conversations and collaboration with their students and/or with other teachers.

Itching to start blogging? Off we go…
The first step in getting started with blogging is for you, the teacher, to familiarise yourself with the idea, and dynamics, of blogging. The best way to do this would be to start a personal blog that you may use to pen (or rather, type) personal thoughts and opinions, or to reflect on your teaching through publishing your thoughts and ideas about your profession. You could, at the same time, also become a part of an existing community blogging forum, to get a sense for commenting on others’ ideas, while also receiving, and responding to, comments on your own ideas and opinions. It is important for a teacher to get a good sense for both experiences – ‘personal’ as well as ‘group’ blogging. For the latter, you may consider joining educatorslog.in (http://educatorslog.in) described in the 1st article of this series. It takes only a few minutes to select a user name, password and email address for verification; and once you’ve confirmed your existence through responding to the verification email, you are ready to become a “blogging” member of the educatorslog.in community forum, and start commenting on existing posts from other members, as well as posting your own ideas and opinions on issues of education in India, or sharing resources that other teachers may find useful and relevant to teaching in India.

To create your own personal blog, you could use of the many free, easy-to-use blogging tools widely available on the Internet. Among the most popular are blogger.com (from Google), wordpress.com, edublogs.com and livejournal.com. ‘Signing up’ is usually as simple as selecting a blog title and a blog name (that will appear in the web address of the blog), and providing an email address for verification. The rest of the settings may be set later once you’ve created your blog. These include personalisation details such as the appearance and color scheme of the blog, a profile/description of the author of the blog, and links to your other favorite websites that you’d like to share on your blog site, among many other things. The process of actually signing up for, and creating a blank blog (as well as publishing your first “Hello World” post) should take you no more than 5 minutes! That’s it! No hassles related to downloading and installing software of any kind, or paying for site-hosting for your blog. It cannot get easier than this!

Anyone can post comments on just about any blog. However, in order to start a group blog for your class or the teacher community in your school to participate in as co-contributors, you could consider creating a blog on blogger, edublogs or wordpress (as described above for your personal blog), and then “inviting” members (your students or your teacher colleagues). Anyone who already has a user name with that blogging service (e.g. blogger) can accept the invitation, and then start publishing posts (in addition to just comments) on the group blog.

Free blogging tools such as these, however, do not allow completely private blogging spaces, and blogs created on these are usually visible to anyone on the world wide web. For a group blog that is completely private – accessible and viewable only to the members who have been invited or added, teachers may want to consider Classblogmeister – a blogging platform created by David Warlick, an active educator blogger based in the U.S., under the aegis of The Landmark Project. Classblogmeister (http://classblogmeister.com) was designed specifically for teachers to use with their classes, and as such, provides a “controlled environment” that has tools that allow teachers to comment privately on student work, and also moderate all comments made on the group blog.

So let’s usher in the era of “education 2.0” in our classrooms in India … and get started with blogging! Here’s to blogging and learning!

CORE-ECS Extends Solution to Improve Collection, Management, and Reporting of Student Data

Fives years ago, in the midst of a winter that seemed determined not to end, CORE-ECS visited the offices of the Michigan Department of Education’s Office of Special Education and Early Intervention Services (OSE-EIS).  The Office was in need of a student data collection system that would significantly improve the collection, management, and reporting of Special Education student data.

A centralised, Web-deployed application
CORE-ECS proposed a web-deployed solution, CORE-ECS Bright IDEA with a centralised back-end database that would allow OSE-EIS to have immediate access to all Intermediate School District, LEA and School level data. The Michigan Department of Education had previously relied on data trickling upward to the State as unverifiable summary data.  However, as each LEA maintained its own student data tracking system, OSE-EIS was unable to reconcile duplicate records across LEAs.

The centralised, web-based approach allows for a significant reduction of duplicate student data as all student data is stored in the same database.  Additionally, every student record is assigned a statewide Unique ID via the CORE-ECSUniqueID component. Every new student record is verified against the existing data to prevent the creation of a duplicate record.

Another significant advantage of the centralised approach is that while local users can access their own data any time they wish, state-level users can do the same in order to perform compliance audits, verify service provision information, and generate Federal and State-level data.

Available anywhere IEPs
One of the primary challenges facing most LEAs in Michigan as well as in North Carolina, where CORE-ECS customised a version of Bright IDEA for the North Carolina Department of Public Instruction’s Exceptional Children Division (ECD), was the transfer of records across LEAs via a paper-based system. Often, students presented themselves at a new LEA without informing the previous LEA of their departure.

CORE-ECS’s Bright IDEA solution allows not only the student data to be instantly accessible at the new LEA but also the student’s IEP – eliminating days, weeks, or months of waiting for paperwork. This ability to instantly access a student’s IEP allows LEAs to adhere to State and Federal regulations that allow the use of an existing IEP to provide services in a new LEA.

However, the focus on compliance does not end there. ECS’s innovative electronic IEP, known as the Form Assistant validates IEP data as it saves each section of the IEP.  The system enables users to follow the required IEP process but still provides the flexibility to complete certain sections of the IEP as and when data is available. For instance, the solution provides Warnings when IEP developers must ensure that parental notifications are sent along with the completion of a specific form, but does not prevent the user from completing the form.  Similarly, the system generates an Error and the user must complete any required information if the final IEP will be out of compliance when saved.

A complete solution
Features such as the Online/Offline Electronic IEP, Web-accessible caseload management, and Cross-LEA student data availability make CORE-ECS’s Bright IDEA solution ideal for local users trying to perform daily student data management tasks. These features, along with the ability to automatically generate Federal Child Count tables, the ability to submit local Child Count data at the touch of a button, and the ability to view any IEP across the State, also makes CORE-ECS Bright IDEA the ideal statewide Special Education solution.

Smart Teaching and Learning Inside the Classroom

Worldwide there has been a strong push to get educational technology into the hands of teachers and students – yet it remains a reality that most teachers across the world continue to struggle with their day to day challenges in classrooms and remain completely un-impacted by technology even today.

The Primary reason for this is that most technology integration initiatives developed for schools ignore to look at the specific pain areas and real life challenges that teachers experience in classrooms.

Not only should the solution address the pain areas of the teacher but also follow a path which blends seamlessly with their own individual traditional teaching styles. There is a need to provide them with digital content that is mapped precisely to curriculum. The method also needs to be simple, minimally invasive, user friendly and have minimal dependence on teachers own skills. Equally essential is on going handholding support from training to maintenance.

Smart Class was launched by Educomp on a limited pilot basis early 2004. In the initial stages a soft launch across a few select geographies confirmed that the promised value proposition and the model of delivery offered by smart class had phenomenal acceptance amongst private schools of all categories.

Smart class was conceived and developed around the ideology that for technology to become an integral part of day to day teaching and learning practices in schools, it needs to move right in to the classrooms where students and teachers spend over 80% of their teaching learning time.

At the very initial phase of launch of smart class for Indian private schools some of the most reputed schools in India such as the DPS R K Puram, Bal Bharati School, Pitampura in Delhi and Padma Seshadri Group of schools in Chennai were amongst the first to adopt the programme. Smart class has now been adopted by over 500 schools across India and is at the threshold of bringing in a rapid transformation of moving technology into classrooms in private schools in India.

Smart class Programme Overview
Smart class is powered by a vast repository of “instructor led” digital presentation materials such as animations/video clips, etc. which are mapped to curriculum guidelines adopted by the school. The content modules are made available to the teacher’s right inside the classroom as and when they need them as per their own pre specified time tables. A powerful application engine enables teachers to search/ select/ view / prepare lesson plans and use the content modules in class.

A knowledge center is set up inside the school campus equipped with a server connected to all classrooms. The classrooms are equipped with PCs for the teacher and a display mechanism to broadcast instruction materials for a group of students in class.

Students acquire a greater understanding of the concepts taught in the class through engaging visuals and digital presentation materials used by the teacher. There is a deeper internalizing of abstract concepts that results in better recall and therefore directly impacting students academic grades.

Delivery model
The entire programme is delivered to schools by Educomp on a turn key basis. The programme deliverables involve all elements such as the repository of mapped digital content resources, training for teachers, provision, installation and maintenance of all supporting infrastructure such as hardware, software, accessories, networking besides full time in campus manpower to provide day to day hand holding support to teachers.

The programme is made affordable for all private schools in India by helping schools to align all investments made for the program to a nominal subscription fees collected from students over a five year term.

From Structuralists to Instrumentalists

Ayse KOK

founder and Executive Director
Camp Rumi, Istanbul, Turkey
ayshe.kok@gmail.com

The purpose of this literature review is to provide information about several ICT initiatives undertaken in education on a global basis in order to overcome the digital divide and summarise the findings of these initiatives. Due to the limited scope of the study, the bulk of the review mainly concerns initiatives undertaken in secondary schools from 1990 onwards, though general information regarding other areas of digital development has been included where relevant.

This literature begins with a description and definition of the digital divide. The paper then provides a theoretical framework and organises the results of the literature review for sections like-

  • Descriptive case studies
  • National policies
  • Country comparisons and
  • Empirical studies

Defining the digital divide
The term digital divide was first coined by Lloyd Morrisett, president of the Markle Foundation (Hoffman, et al., 2001). According to Hoffman et al., Morrisett vaguely conceived of a divide between the information-haves and have-nots. While Morrisett is credited with the term, the coupling of ICT and inequality is not new. This belief is also evident in Compaine’s (2001) claim that: “Before there was a ‘digital divide’ there were the ‘information haves and the have-nots.” (Compaine, 2001).

The marked gap between the number of countries that are high-level ICT participants and the number that are low-level ICT participants has been referred to as the global digital divide (World Economic Forum, 2000). So, an uneven pattern or gap of ICT diffusion between industrialised countries and least developed countries exists as measured by the number of phone lines per inhabitants (teledensity), the number of Internet hosts, the number of Internet users, the number of households that own computers, and the number of cell phone users (Campbell, 2001).

The global digital divide, as well as the digital divide within countries, is also referred to as the ‘technological divide’ (Rice, 2001).

In a similar vein, according to an ITU (2002) report, the digital divide is not only defined in terms of lack of access to telephone services, but also in terms of lack of access to ICT.

OECD (OECD, 2001) roughly frames the digital divide as: “the gap between individuals, households, businesses and geographic areas at different socio-economic levels with regard both to their opportunities to access ICT and to their use of the Internet for wide variety of activities.” So, the digital divide reflects various differences among and within countries.

According to Alcántara (2001), the digital divide is an integral part of a much broader and more intractable development divide. People in low-income countries are limited not only by their lack of access to modern means of communication and sources of information, but also by a complex network of constraints ranging from unresolved problems of poverty and injustice in their own societies (Alcántara, 2001).

Van Dijk (2003) distinguishes four kinds of barriers to access and the type of access they restrict:

1. Mental access”: This type of access is restricted by a lack of elementary digital experience caused by lack of interest, computer anxiety, and unattractiveness of the new technology.

2. “Material access”: This is restricted if there is no possession of computers and network connections.

3. “Skills access”: A lack of digital skills caused by insufficient user-friendliness and inadequate education or social support limit skills access.

4. “Usage access”: Lack of significant usage opportunities restrict usage access.

In the light of these definitions, there appears to be a converging viewpoint that the digital divide is not just about access to technology, nor necessarily of high cost, but has a socio-economic component (ITU, 2002).

Although it is beyond the scope of this study, it should be noted that the legal, political, and economic circumstances under which a country operates gives some indication of a country’s e-Ready condition. Therefore, it is claimed that under the right circumstances, ICTs can greatly expand a country’s economic growth, create or enhance a country’s participation in global markets, dramatically improve human welfare and human capital, and promote political accountability (United Nations Development Programme, 2000).

The digital divide in educational context

Many parts of the world are undergoing a digital revolution in the area of ICTs (Commission of the European Communities, 2001). Similarly, it has been stated in a United Nations Report (2000, p. 3) that “the world is undergoing a revolution in ICTs that has momentous implications for the current and future social and economic situation of all countries of the world”. This report also identifies several important benefits to countries and their populations from the wide application and use of ICTs, including the direct contribution of the ICTs tremendous potential for improving education, including distance learning and training (Rice, 2003).

The OECD (2000) has defined the digital divide for students in three ways:

  • Missing Link: In remote rural or poor inner-urban areas where telecommunications are limited and/or expensive and for students who have disabilities.
  • Wasteland: Groups who find the technology isolating and mechanical, for example, females and some minorities.
  • Foreign language: High poverty homes lacking equipment and language skills.

Furthermore, the following four important factors to bridge the digital divide have been cited in an ITU report: (ITU, 2002):

  • Awareness: The state and individuals should be fully aware of the importance of digital technologies and their applications.
  • Accessibility: Infrastructure should be expanded and improved in order to provide the necessary connectivity for effective use of ICTs.
  • Availability: ICT must be offered within reasonable proximity, with appropriate hardware and software.
  • Affordability: Means should be found to provide low-cost services to users, low-cost equipment, and training on the effective use of ICTs for national and individual development.

Even within the poorest population sectors and countries, ICT is now too cheap to ignore since literacy and technology are becoming increasingly inter-dependent

In their article “New Technologies for Literacy and Adult Education: A Global Perspective”, Kozma and Wagner (2003) put forward that there are ICT digital divide programmes that can widen the divide, by investing in the top end (easier to reach) parts of the spectrum of the disadvantaged population. Thus, it is suggested here that if the UN Decade, which refers to the the years 2003-2012 as proclaimed by the United Nations General Assembly (UN, 2002a) to be the United Nations Literacy Decade, is to succeed, it must also try “to reach the unreached, to reach those at the bottom end of the literacy divide, and to pay attention to how ICTs can make a special contribution” (Kozma, Wagner, 2003). They conclude that even within the poorest population sectors and countries, ICT is now too cheap to ignore since literacy and technology are becoming increasingly inter-dependent (Kozma, Wagner, 2003). Besides, private sector involvement is essential in order to take advantage of the latest ICT tools (Kozma, Wagner, 2003).

Theoretical lenses

According to Trujillo (2000), regardless of the source, or quality of the study related to the digital divide, one can distinguish different paradigms whose assumptions and characteristics reflect one of the following viewpoints:

From a “structuralist” view, the structure of the social actions, attitudes, and processes determine the use, or non-use of information technology within a society (Trujillo, 2000). On the other hand, Trujillo (2000) notes that the “instrumentalist” approach considers ICTs as a powerful instrument with the ability to act as a catalyst to the “desirable” change in the structure of society. Besides, from each point of view, there is an assumption regarding the positive or negative effects of information technology on a society’s development (Trujillo, 2000).

According to Norris (2001), optimists believe in the positivist role of the Internet for transforming poverty in developing societies, while sceptics believe that new technologies alone will make little difference one way or other (p.9). On the other hand, pessimists emphasise that digital technologies will further exacerbate the existing North-South divide (Norris, 2001).

Similarly, Tambo (2003) states that the question of the digital divide is much more to do with national economic performance than with mainstream development objectives and poverty reduction and he broadly defines the following categories:

?”Digital optimists” have argued that ICTs offer developing countries including the LDCs, an opportunity to “leapfrog” stages of technological development and compete in ICT and knowledge areas with industrial countries on more equal terms than they have done in the past.
On the contrary, “digital pessimists” believe, that digital divides are likely to grow over time as ICTs become increasingly pervasive in industrial countries while most developing countries, particularly LDCs, lack the expertise to follow.

Results of literature review

As Adeya (2002) claims, the importance of ICTs and education is a topic that runs across all thematic areas on ICTs and development.

Trujillo (2000) argues, the discussion regarding the digital divide has been spurred by the recent availability of official international and national statistics.
Over the last two years, international agencies have produced several reports and published books that described the digital divide. To exemplify, the International Telecommunication Union (ITU) reports on the access indicators of the information society worldwide (ITU, 2003), OECD’s studies that review evidence for links between ICT and a country’s economic growth (Tambo, 2003) and its published papers regarding the ICT developments in education in LDCs (Kozma, Wagner, 2003); UNESCO’s reports about the use of ICT indicators in education (UNESCO, 2003) and European Commission’s country reports (European Commission, 2005) regarding the modernization of education include several national statistics.

Trujillo (2000) claims that, “most of these described statistics that stated how access to the Internet ran along the fault lines of national societies, dividing educated from illiterate, men from women, rich from poor, young from old, urban from rural”. Monitoring the use of ICTs and the Internet became a priority for those interested in studying the digital divide (Trujillo, 2000).

Case studies

Information regarding the empirical studies on information technology and development were obtained from the web pages of several international organisations, such as the World Bank Institute, UN, UNESCO, UNICEF, ITU, EU and OECD that currently fund or carry out development projects with a component from the ICTs.

As Norris (2001) states, these international organisations raised concerns about the growing global digital divide and there is a need to overcome this disparity before the situation rigidifies “into a new virtual Berlin Wall splitting rich and poor worlds”.

In this context, OECD produced reports consisting of descriptive case studies such as “Schooling for Tomorrow” (OECD, 2000) which confirm that technologies themselves can be a powerful influence in the educational arena. Moreover, OECD’s published papers that present how technology can support the development of both youth and adult literacy (Kozma, Wagner, 2003) include several case studies.

The proceedings from the forums of the UN ICT Task Force that depict the contribution of ICTs to education initiatives (Bracey, 2005); UNESCO’s studies regarding the ICT integration into schools (Haddad, Draxler, 2001) and its published books such as Pelgrum and Law’s (2003) “ICT in Education Around The World: Trends, Problems and Prospects” can be cited as instrumentalist studies illuminating several case studies.

Another example for case studies has been provided by the authors Hepp, K., Hinostroza, S., Laval, M., Rehbein, F. (2004). They have demonstrated in their study “Technology in Schools: Education, ICT and the Knowledge Society” that introducing ICT into the schools, without a proper staff development plan and without a pedagogical perspective, is a low-return investment.

Hinostraza, Guzman and Isaacs (2002) claim that educational projects such as those using the framework of application of SITES (a worldwide assessment of the use of ICT for learning) that connect students and teachers from different countries might expand students’ horizons by allowing them to know and interact with people from other cultures and they can also stimulate group work and social interaction (Hinostraza, Guzman and Isaacs, 2002).

More insights from a few cases

WorldLinks, GeSCI and Enlaces both deserve particular attention because of their extensive experience with ICT in many developing countries around the world (Hinostraza, Guzman and Isaacs, 2002).

World Links

The World Bank Institute launched the World Links for Development, or WorLD  Programme in 1997 “to expand access to digital learning resources and address the growing digital divide between the technology haves and have-nots” (Cossa, Cronje, 2004). The aim of the WorLD Programme is to link secondary school students and teachers around the world in order to improve education in developing countries and help develop skills that youths need for obtaining jobs in the 21st century.

The WorLD Programme has five components (Kozma, 2002):

  • Internet connectivity for secondary schools in developing countries
  • Training in the use of technology to improve teaching and learning
  • School-to-school partnerships, as well as regional and global partnerships with public, private, and non-governmental organisations
  • Telecommunications policy advice for the education sector
  • Monitoring and evaluation

With direct reference to education, Hawkins (2002) writes about World Links for Development Programme’s experiences in connecting schools to the Internet and conceptualises the story into ten practical lessons that policy makers and business and community leaders should consider as they plan to incorporate the Internet in the educational process. These lessons are (Hawkins, 2002):

  1. Computer Labs in developing countries take time and money, but they work.
  2. Technical support cannot be overlooked.
  3. Non-competitive telecommunications infrastructure, policies, and regulations impede connectivity and sustainability.
  4. Wireless technology is most effective for connecting schools in developing countries.
  5. The community should be involved.
  6. Private-public sector partnerships are essential.
  7. ICT and education efforts should be linked to broader education reforms.
  8. The professional development of teachers sits at the heart of any successful technology and education programme.
  9. Technology empowers girls.
  10. Technology motivates students and energises classrooms.

GeSCI

GeSCI has been established in 2004 by UN ICT Task Force to harness the power of new technologies to strengthen education and communities around the world (Bracey, 2005). In partnership with governments, the private sector, and civil society, GeSCI cultivates the growth of ICT in secondary education environments (Bracey, 2005).

As the UN Secretary General Kofi Annan (2005) states “GeSCI matches the power of ICT with educational need, and has the potential not only to improve education, but also to empower people”.

With reference to GeSCI initiative, Dufborg (2005) states that the integration of ICT into secondary education systems is of particular value to developing countries because it gives them an opportunity to leapfrog inherent limitations and to acquire new resources.

Similarly, deriving from the GeSCI experience, Twinomugisha, Callan and Bunworth (2005) have developed a framework regarding the deployment of ICT in education. Twinomugisha, Callan and Bunworth (2005) have based their approach on the following key considerations:

  • There should be a focus on educational objectives since ICTs are a tool and not an end in themselves.
  • Installing ICTs in schools is part of an integrated, comprehensive and on-going system.
  • Benefits, feasibility and long term costs should be considered.

CTCs and Enlaces

CTCs or “telecentres” are used to increase access to technology and promote the use of technology in education in urban and rural areas and economically distressed communities.

In the literature, there exist many case studies that provide a description about these CTCs that focus on youth at the secondary school level (Michalchik & Penuel, 2003; Davies, Pinkett, Servon, & Wiley-Schwartz, 2003; Wagner, 2001; Best, Maclay, 2002). Especially, in developing countries, telecenters have also received a great deal of attention, particularly as a way of providing greater technology access, with the broader goal of increasing economic development (Proenza et al., 2001).

To exemplify, the Enlaces Project being an ICT initiative of the Chilean Educational Reform provide all of the nation’s secondary schools with computers (Hepp, Hinostroza, Laval, Rehbein, 2004). The programme provides schools with computer labs, community access to technology, access to an education portal on the Internet and training in the use of technology (Wagner, Kozma, 2003).

The results of the study of (Hinostraza, Guzman and Isaacs, 2002) show that these projects did not provide evidence of having impact on students’ learning as defined in the national curriculum. However, they show that students participating in these projects had the opportunity to develop abilities defined as cross-curricular and practised ICT related skills (Hinostraza, Guzman and Isaacs, 2002).

National Policies

Needless to say, there have been several implications of country specific policies on a national level in the use of ICTs. This group of studies shares the assumption that the impact of IT adoption on a country’s development including education is positive, and therefore analyzes different policy scenarios that would favor faster diffusion of ICTs (Kozma, Wagner, 2003; Kozma, 2002; Jhurree, 2005, Lim, 2002; Cossa, Cronje, 2004; Leask, Kington, 2000; Monstad, 2004).

Similarly, Kozma (2005a) has explored in his paper “ICT, Education Reform and Economic Growth”, the relationships between ICT, education, and economic and social development. Kozma (2005a) suggests how policy makers can best connect technology and education reform to sustained, equitable economic growth.

International agencies such as the World Bank Institute’s report provide implementation strategies for support of ICT in education in developing countries (World Bank, 2002) and proceedings of the World Summit on the Information Society address barriers in the area of education (WSIS Civil Society Plenary, 2003).

One of the organisations that has been consistently studying the relation between IT and country’s economic growth is OECD. A series of OECD studies have been carried out by the OECD’s Development Centre intended for the design and establishment of economic policies (OECD 2000). However, these studies focus on OECD member countries, and only occasionally include data from developing countries for comparative purposes.

Cossa and Cronje (2004) discuss in their article “Computers for Africa: Lessons Learnt from Introducing Computers into Schools in Mozambique” a research undertaken to document the process of introducing and using information and communication technology (ICT) in the secondary schools of Mozambique in the last three years of the 20th century. Their study shows that, in spite of the extreme socio-political background and relatively low levels of training, the project has been reasonably successful (Cossa and Cronje, 2004).

As Alcántara (2001) claims, at the national policy level, no single ICT strategy is likely to prove most effective in all cases. Furthermore, Alcántara (2001) maintains that: “In the process of designing an appropriate local strategy for using ICTs to the benefit of disadvantaged groups, success will depend at least as much on understanding the structure of economic and political constraints affecting people’s livelihood as on remedying immediate problems of access to ICTs” (Alcántara, 2001).

Country comparisons

According to Trujillo (2000), one of the reasons that studies dealing with cross-country comparisons between the link of information technologies and national development are less frequent, may be due to the fact that comparisons among countries require agreement on an underlying theoretical conceptual model that does not yet exist.

In their book “Computers in Third-World Schools”, Hawkridge, Jaworski and McMahon (1990) have looked at experience in African, Asian and Arabic-speaking countries that already have computers in some of their schools and have identified the rationales commonly deployed by Ministries of Education and international agencies. Deriving from these experiences, Hawkridge, Jaworski and McMahon (1990) justify using computers in schools by defining the following four rationales in the related chapter “Do Schools in Developing Countries Need Computers?”:

Likewise, Kozma (2005b) identifies in his paper as mentioned above- “National Policies that Connect ICT-Based Education Reform to Economic and Social Development”- a systemic framework of types of development that can be used to connect ICT-based education reform to national social development goals. For this purpose, Kozma (2005b) demonstrates three national case studies, namely, Singapore, Finland, and Egypt.

Furthermore, Alcántara (2001)’s paper “The Development Divide in a Digital Age” discusses the role that ICTs can play in improving the level of education.

Empirical research

Abbott (2001) quotes in his book “ICT: Changing Education” from Selwyn (1998) who claims that “IT’ s benefits to schools have largely remained unchallenged”. Selwyn (1998)’s argument to this effects is worth quoting at length: “There is an emphasis on quantitative and case study research in this area at the expense of qualitative and ethnographic approaches … Societal belief in IT as a technical fix has blighted the successful integration of ICT into the educational system over the last twenty years”.

Regardless of taking a positive or negative, instrumental or structural approach, the systematic exploration of the effects of the global digital divide (Trujillo, 2000) on national education process seems to be a logical first step

On the contrary, some argue that discussions on the nature and characteristics of the digital divide are not supported by empirical research literature and that existing empirical research regarding the effects of the global digital divide and development in the developing world is modest (Trujillo, 2000). Yet, there are some studies that are worth to mention.

To begin with, Arquette (2001) explores in his research paper “Assessing the Digital Divide” the various discursive approaches to framing the research on the digital divide. From a meta-analysis of the different discursive frameworks, Arquette (2001) proposes the Information Intelligence Quotient (IIQ) as a tool for assessing the state of a target community’s information and communication system development. Although the results can not be easily applied into the area of education, his results provide descriptive evidence that regardless of discursive framework, there is a digital divide (Arquette, 2001).

In his book “Access Denied in the Information Age”, Stephen (1998) focuses on how technology is utilised. Using an analysis of his empirical data, Stephen (1998) claims that ICTs might provide the opportunity to reduce the unit cost of education to the point where the society could afford to provide open and equal access to learning opportunities for all members throughout their lives.

Time for more studies

A preliminary conclusion drawn from the reports produced by international development agencies, studies that measure the diffusion of ICT in the developing world, and the few empirical studies that evaluate the relation between information technology and development is that the global digital divide exists and is diverging (Trujillo, 2000).

Furthermore, there exists a general lack of information in the literature regarding the relationship between the measurement of ICT and a country’s educational development. Regardless of taking a positive or negative, instrumental or structural approach, the systematic exploration of the effects of the global digital divide (Trujillo, 2000) on national education process seems to be a logical first step.

In the literature, there has been also a mention of the possibilities for further research:

Adeya (2002) suggests that more studies are needed that focus on the social analysis of the use of ICTs to understand what kinds of assumptions are made about social relationships between people, support structures for the range of technological options, and how these may restructure the education and the social life.

Moreover, Wijewardena (2002) suggests that the study of the digital divide must move away from ad-hoc analysis methods to a more technical approach with policy prescriptions being guided clearly by understanding of the underlying causes of the digital divide. Wijewardena (2002) also states that narrowing the digital divide should be a key goal of public policy.

To conclude, the issues outlined in this paper are not unique to developing countries since schools around the world face the same challenges and by and large the same lessons apply (Hawkins, 2006). Advantage should be taken of the power of technology to improve the conditions in the educational area. As Hawkin (2002) states if together this transformation could be begun, “schools a hundred years from now will sit at the heart of a learning society and allow youth from any country in the world-rich or poor-to have the same opportunities to create a better world”.

A Year On The e-Learning Way!

With the push toward Web 2.0 technologies, Time magazine last year named “you” as the person of the year for 2006. In the world of education, this signifies the growing attention toward personalising and customising learning and placing the learner at the centre of all learning activities. In the year 2007, we further recognised this, by thinking about the learner within e-Learning, not simply technology.

A myriad of new technologies impacted our lives and education in 2007. Not only technologies, the year created a chronic condition in information overload. Researchers continued to progress towards determining the instructional design features, intelligent tutoring systems, virtual reality, and multimedia environments. Coming back home, India has promoted through a multi-pronged approach to ICT education revolving around increasing the availability and improving the quality of education. Many states set up Indian Institutes of Information Technology (IIITs) as centres of excellence. Research and development in the emerging areas of technology and supercomputing are being pursued. There seems a continuous upgradation of standards at the school level with emphasis on physics, mathematics and English. Despite considerable growth in the numbers of computers acquired by schools, the incorporation of ICT into the educational curriculum has been promoted as a key step in bridging the digital divide.

The Internet subscribers base is increased to more than 35 million by 2007 from just four million earlier. PC penetration is expected to become 20 per thousand by 2008 against 5.8 at present. Connectivity to Government Senior Secondary Schools (Vidya Vahini) and upgradation of IT infrastructure in the higher learning institutions (Gyan Vahini) has taken the first row seat.  Steps are taken to address the issue of lack of qualified faculty and poor infrastructure in the academic institutions. Promotion of distance education, emphasis on postgraduate and continuing education and research has received adequate attention.

The system is made more demand driven by allowing the private sector to fill the burgeoning demand for both school and higher education. Increased school/university-industry partnerships to translate research into applications has yielded more economic value. Lifelong learning programmes are used to meet the learning needs of all, both within and outside the school system, including using distance learning technologies to expand access to and the quality of formal education and lifelong training programmes. The online tutorials and examinations, assessment systems, are flourished during the year, extending the horizon of education and skill building.

While many States have developed state-specific policy on ICT in School education, the need is felt for putting in place an enabling policy for use by all stakeholders at the national level. The Ministry of HRD  has taken the initiation to formulate a National Policy on School Education, while developing a set of policy objectives, guidelines, and practices, by following a consultative and a participatory process with all stakeholders.

Today when we are approaching the close of the year, we will realise that India’s achievements and enormous potential are yet to be unleashed. The time now recommends an India-led process to coordinate and integrate reforms, combining those in the economic and institutional regime with the many initiatives in education, innovation and ICTs.

No denial to it that there happened a shift from knowledge in the classroom to knowledge everywhere. This shift is radical, but progress is not. Today’s knowledge everywhere is an evolution, not revolution. Revolution is too strong a word for where we are today. 2008 is just round the corner. How will we use the year 2008 for pilot projects, continuous improvement, measurement, and change management? How will we bring knowledge and support closer to where it is needed and advance this worthy revolution? Let me leave the thread here for you to think and wait, for what all will dominate and paint the ICT and Education landscape in 2008.

The New year also brings the time to celebrate the 2nd Anniversary of Digital Learning and we are glad to invite you to be a part of this celebration through our Anniversary Special issue in January 2008. Till then, happy reading!

world

Nigeria introduces ICT into primary school curriculum
Nigerian introduces Information and Communication Technology into the primary school curriculum following the launch of a new basic education curriculum for primary and junior secondary schools in the country.

The new curriculum, which has been approved by the National Council of Education (NCE), is aimed at addressing, among others, issues of value re- orientation, poverty eradication, critical thinking, entrepreneurship and life skills. A major feature of the new curriculum is the phasing out of primary science and integrated science, to be replaced by Basic Science and Technology.

Rwanda takes ICT to street kids
Rwanda will launch an extensive campaign aimed at taking Information and Communication Technology (ICT) to street boys in the country.

The project, initiated in Africa by One Laptop Per Child (OLPC) is aimed at equipping every Rwandan child with a laptop. The laptops would also be given out to children in all primary schools in the country. Last month’s Connect Africa International summit on ICT, set the goal of ensuring Internet access to every African by 2012. At least US$ 300 million will be invested in projects which will promote Information and Communication Technology in Africa.

iPods to train teachers in Zambia
Education Development Centre (EDC), As part of a creative pilot project,  has distributed iPods to sixth grade Zambian teachers experienced with EDC’s interactive radio instruction (IRI) and trained them in their use.

The initiative is to enhance professional training in Mathematics, Science, and English. The iPods are loaded with the IRI lessons as well as with audio and video training materials designed to support teachers in their presentation of complex topics. Using the iPods in combination with a foot- or solar-powered generator and a set of speakers, the teachers can also broadcast the IRI lessons without being tied to the radio broadcast schedule.

Education policies of meager benefits!
The recently published Lancaster University’s research into the government’s specialist schools programme and the Excellence in cities initiative has concluded that, the education policies costing billions, have been of meager benefits.

The research pointed out the educational resources appeared to have been allocated inefficiently and inequitably in the programme, since most resources had gone to schools with higher proportions of better-off children. While there had been an improvement in exam results, only a third of the improvement could be attributed to government policy. The response of the Department for Children, Schools and Families was defensive, accusing the report of not looking at the whole picture. The same defensive reaction was evident this month when Cambridge University published its interim reports from a wide-ranging, independent, two-year review of primary education in England. They demonstrate that the initial sharp rise in primary school test results between 1995 and 2000 is now understood to be largely a result of teaching to the tests, and not to a dramatic improvement in learning. It points out that the Qualifications and Curriculum Authority and the government’s own Statistics Commission accepted the rises were overstated. The review also finds that the primary curriculum has narrowed in response to the testing; that statutory tests make it harder, not easier, to judge pupils’ progress; that there have been rises in test-induced stress among pupils; that the results of the tests are unreliable in up to a third of cases; and that the gap between the highest and lowest achievers in Britain is wider than in many other countries. The reports conclude there has been a genuine, although modest, improvement in children’s numeracy. It cannot say the same about literacy.

Chilean president signs education reform pact
Chilean President has signed an education reform pact after a debate involving all the country’s political parties.

The National Education Reform Accord, which is to be submitted to the legislature for approval, proposes a general law of education to replace the existing national law on teaching, which was instituted in March 1990 under former Chilean military leader Augusto Pinochet. The move marks a triumph for the thousands of high-school students that have been campaigning for education reform since March last year. The provisions of the newly proposed law include quality education as a constitutional obligation instead of a guarantee of access to education, and the creation of the Education Overseer and the Education Quality Assurance Agency.

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