See also the recent: Directions for E-Extension at the Land Grants and  our India page

Agricultural Extension on the Web
John G. Schmitz

University of Illinois

 

 

Introduction
DSpace and related projects are building web-based collections of 'open content' in the public domain. While land grants routinely post 'open content' for extension, the DSpace partners led by MIT have bet the farm. Should other land grants join DSpace? What are the global uses of open extension content?

 

The web was first used to deliver agricultural content to rural US farmers almost ten tears ago. The problem is that this use of the web remains at an early stage around the world. It is likely that the Web will expand gradually to many more rural areas of the world because farmers demand it, needed technologies are getting better, and economies of scale are lowering costs. But in the absence of other changes, most farmers will not be reached by the web in the short-term. There are many variables that impact farming that we cannot control; we can control the creation of information banks to help farmers deal with the variables. There is no global agricultural library in a strong sense, and there could be. 

 

The cost of computers and availability of internet connections for rural farmers is the big problem. This is the Access issue, but is not the only one. Extension services and other content providers face high costs to develop and maintain web resources. Content might be kept offline to protect print sales or it may be posted only at a fee. When content is online and free, its posting is often uncoordinated with other providers, making it harder to find and utilize. Full text content, databases and decision tools remains relatively rare.The content side of the farmers digital divide must be addressed as well as the access side. One can argue that this puts the cart before the horse, but we have to prepare for the time when access is there. Bolstering the content side might even speed solutions on the access side.

 

Access is improving in places you least expect. Cyber kiosks run by local entrepreneurs are appearing in some villages in India offers several examples and the ITC company has already connected 1600 villages. The home-grown and low cost Simputer is being adapted for rural use. A recent report from Digital Dividend highlights many examples where NGO's and private concerns have sustained themselves by providing quality information services to large numbers of the rural poor. Farmer demand for internet information is increasing, creating market niches to be filled. A soybean farmer in Tamil Nadu, India says he needs the internet in his village because "Mujhe Chicago market ka bhav chahiye" (I want the price in the Chicago market). The creator of the e-Chaupal in India (Sivakumar,  2000) says the farmer asks for four main things: "Knowledge of farm practices, accurate weather information for planning operations, pricing information that helps them buy inputs low, and pricing information to help sell yields high." Economies of scale will decrease the costs of internet access to the farmer in highly populated areas like India. It is likely that the Web will expand to many more rural areas of the world because farmers demand it and because needed technologies are getting cheaper and better.

 

What can be done to speed needed changes and reach farmers sooner? This paper tries to identify possible answers. Recommendations for web-based extension are provided to help organizations quicken their transition to web-based delivery in section one. Trends in web-based extension are reviewed in the second section to guide longer-term planning.  Section three covers key policy issues that impact web-based extension and offers positions on the issues designed to help.

 

 

Section One - Recommendations

The following recommendations are based on nine years managing of a small web development lab at the University of Illinois. Sometimes longer time-frames and higher costs are unavoidable, but many projects can be created with less time and resources than anticipated.

 

1. Conduct Informal Strategic Planning

Follow these basic steps of group problem-solving to develop your plan: Set goals, benchmark, brainstorm, prioritize ideas, and develop an action plan. Include farmers, agribusiness and Govt. officials in the process. Post and update your plan to guide development and show progress. Acknowledge contributions to the site by staff and stakeholders.

 

2. Prototype and Revise Sites

Favor rapid prototyping and formative evaluation of Web sites rather than long, drawn-out stages of design and evaluation. Don't be afraid to post preliminary content and Web page designs. Unlike the print world, Web 'publishing' is a continuous process of creating and refining documents and page designs. Be flexible and let the process evolve. Typically short fact sheets and brochures go online first, then longer publications. Eventually you can develop decision tools, databases and other interactive features. 

 

3. Identify Content

Content is king: There is no substitute for having quality content from internal and external sources ready-to-go. Practical coverage of specific crops and growing areas is a must. Examples of high demand content include: Climate and weather, variety testing, pest management, soil treatments, current market prices, and government regulations and programs. List internal content you have in-hand and prioritize it for posting. List and evaluate available external content to which to link.

 

4. Create an Online Crop Bulletin

Bulletins of timely crop and pest information during the growing season have proved popular with Illinois farmers. Compiled from routine reports of field staff, these bulletins can be inexpensively produced and delivered by using e-mail and the Web. The bulletin will also serve as an entry point to attract users to your full range of online content.

 

5. Post Handbooks for Farmers

For example, the online Illinois Agronomy Handbook offers full text chapters, interactive tools and databases. Calculators for nitrogen rate, limestone, seed drop rate, replant decisions, stand counting, and yield estimation allow users to plug in values and to save results for later use. Large databases with climate and soil information provide inputs to calculators. The Nutrient Management and Soil Plan applications help farmers manage nutrients based on soil test results, soil type, crop, anticipated yield and federal rules. The Agriweather Toolbench estimates precipitation, temperatures, corn growth stages and pest emergence for specific locations. Pages for each Illinois county offer localized resources. Wireless Web access enables the use of some calculators and databases in the field.

 

6. Don't Re-invent the Wheel

While content availability can be a barrier to Web-based extension, the process of basic Web design and programming is not. Base your designs on sites you like. Study the HTML source code of existing sites and public domain repositories. You can utilize and adapt the code for your own site. Make your site searchable at no cost by adding Google, Excite or other search engines.

 

7. Consider Outsourcing Initial Work

There is no lack of talented Web development experts to maintain a Web server, design sites, post content and create interactive features. Many charge reasonable fees and complete work promptly. They do not need to be on-site; telecommuting does not work for some professions but it works for Web production.

 

8. Start a Web Production Team

When you form your own team, hire individuals with multiple skill sets that "can do it all."  Or nearly so, programming and design skills do not often mix in the same person. Keeping your core staff small saves funding and helps avoids the bureaucracy created with larger production teams. Add teen-age interns to your team, harnessing their energy and expertise. Nurture a strong everyday relationship between your Web team and your content specialists.

 

9. Plan for Convergence of Media and Reusability of Content

Capture synergies by delivering the same content over multiple media. This strategy is central to the much discussed convergence of traditional media (Snail mail, radio, print, and TV) with new media (e-mail, CD-ROMs and the Web). Insure that your production process routinely produces content in multiple media. You should aim at a modular approach that lets you re-use content in other programs. You can also transfer online content designed for residential instruction to extension and vice-versa.

 

10. Adopt Standards of the World-Wide Web Consortium ("W3")

W3.org oversees the Web. Following W3 standards makes your Web site as accessible and functional as possible.  For example, their meta-data standards help insure that your content is highly searchable. A caveat is that page design for display in Internet Explorer is a de facto 'standard' given their enormous market share among Web users. Design for compatibility with Netscape is important when feasible. Design for accessibility is important, sometimes even the law. Enter your URL at bobby.org to receive a free report on the accessibility of your site.

 

11. Make Web Server Policies

Adopt a strategy to manage staff log-ins and passwords to the Web server. Decide which software is best for your staff to create web documents. For example, FrontPage is easy to use but requires special web server extensions and creates non-standard source code. Dreamweaver is more powerful and follows W3 standards but novices often find it difficult.  Plan a URL scheme before your URLs multiply and get out of hand. Insure their stability, consistency, elegance and intuitiveness. Gradually set standards for Web design including official logos, footers and acknowledgements. Consider use of free open source software like Linux and Apache. Monitor server security issues such as hackers and viruses and make sure your server software is routinely updated with security 'patches.' Provide search capability to your web site by using the free search capability offered by google.com and other search engines.

 

12. Market your site

Submit your site to major portals like Yahoo and to portals specific to Agriculture. Add meta-name entries to your source code to attract search engines. Since 'preferences' of search engines vary, review the site http://www.searchenginewatch.com to understand how to tailor meta-names for various search engines. Type keywords from your site into different search engines to check your visibility.

 

13. Create both National and Regional Portals

Begin with a national portal but plan and create local portals. The national portal aggregates content into a comprehensive knowledge-base of extension information. For example, the Agricultural Gateway to India is a national portal that includes listings of regional and local portals. Several models of community Internet projects provide guidance for planning local portals. For example, perhaps the earliest effort was the M.S. Swaminathan Research Foundation's village knowledge centers in Pondicherry, India. The TARAhaat portal and Babhaleshwar KVK web sites in India also offered early examples of community portals. Newer projects on the scene include Drishtree and n-Logue.

 

14. Site Design Considerations

Ease of navigation, quick download and good searchability of your site are key design goals. A comprehensive, regularly updated site index is a must. Design for a lowest common denominator equipment but support higher end users. Assign someone to maintain top level pages to keep the site dynamic. Have a "What's New" section. Create multi-lingual versions of your most valuable content.

 

15. Try Web Delivery of Traditional Programs

Traditional face-to-face programs can be supplemented or replaced with Web-based versions. As supplements they can serve as a primer and follow-up to normal face-to-face programs. As replacements, they can deliver content by slides annotated with voice and by more production-intensive streaming media. Consider use of "virtual classroom" software that offers easy creation and delivery of online programs with presentations, discussions and quizzes.

 

16. Require Extension Staff to Produce and Post Content

Web production is becoming as common in the everyday workflow as phone calls, word processing and PowerPoint. Content specialists do not need to be Web specialists but they do need to be able to routinely post content. Content saved as a print document can be easily saved as HTML. Provide a standard design template that allows them to create, post and maintain content without worrying about design. Content specialists can even record multimedia presentations from their desktop. Multimedia created on the desktop won't win awards for technical production but it might for delivering timely content.

 

17. Require Extension Staff to Utilize Internet Communications

Staff should routinely utilize e-mail, messaging and even voice/video over IP. It complements your Web-based programs and captures efficiencies. Communications will be speedier, electronic archives can be maintained and ties to clients and stakeholders strengthened.

 

18. Train Extension Staff to use the Web

Deliver training on key software over the Web whenever possible. Use existing online tutorials such as ones produced by the Land Grant Training Alliance.  Provide a virtual help desk for staff (and site visitors) that receives and replies to instant messages and e-mail requests for help on software issues. Always archive the replies into lasting FAQs.

 

 

Section Two - Trends

Almost ten years have passed since Agricultural Extension began to use the web for public outreach. Enough time has passed to know the most basic preferences of citizens such as ease of navigation, single point of contact and localized information. We also have a strong idea of the higher end capabilities that user's desire. Recent trends in web-based extension reflect this knowledge and highlight emerging capabilities.

 

Data Visualization

The use of visualization technologies like Global Information Systems (GIS) has begun on some extension Web sites. Extensive databases of GIS data for a region are compiled from sources like water, geology, and natural history surveys. Before these Extension services combined such data and made it Web-accessible, it was not possible to view data layers created by multiple units of a state government in one place. Plans are being made to upgrade GIS systems now in use to support farmer's use of precision agriculture technologies.

 

Simulation

Simple Web-based simulation tools are a reality but it will take longer to create robust systems that allow farmers to run complex simulations. Farmers would enter their own data into a simulation engine in order to model crop growth over the growing season based on inputs like climate, soil types, seed type, and soil treatments. Projections of the bottom-line of alternative planting scenarios would also be calculated. Impact on natural resource systems is being worked on too, allowing farmers to assess impacts of soil treatments and other inputs on watersheds.

 

Ubiquitous Access

Farmers would be able to access your documents, tools and databases anytime and anywhere. AIM Lab has prototyped this capability in the delivery of climate information and agronomy calculators to cell phones and PDA units like the Palm and PocketPC.

 

Digital Library Systems

On-line documents grew rapidly at many extension web sites in the 1990's, but these were often posted haphazardly, without meta-data and on different servers, or hidden from search engines in databases. Extension services are now taking steps to create digital libraries of their content. It is wise to consider needed document management strategies such as meta-data and archiving early in your efforts. Distributed digital libraries are a key goal for the coming decade, allowing farmers to transparently search for resources across multiple extension sites, and effectively creating a world-wide library of food, agricultural and natural resource information.

 

Integrated Farm Management Systems

Web-based decision aids for farmers have multiplied in recent years and now they are being integrated into farm management systems. Users gain the value of one-stop shopping for needed tools and information. The tools can even be designed to pass values entered in one tool into other system tools and to securely save data for future sessions. Next generation systems will go much further. For example, knowledge management capability will help farmers store and harness large amounts of information. Visualization and simulation capability will be integrated into the systems, easing their routine use. Data needed for visualization and simulation won't have to be located; it will be automatically drawn from the knowledge-base. Expert systems will help identify pest species and suggest strategies to manage them. Other systems will help manage financial risk or optimize weather predictions. Integrated farm management systems represent an advanced example of cognitive augmentation (technologies that aid everyday thinking). Spreadsheets 'augment' our minds by structuring and calculating the 'numbers' for us, but the combination of a wide range of dedicated and integrated decision aids tied to a  powerful knowledge-base is a major advance. Farming decisions involve large amounts of information from different disciplines, constant uncertainty and high financial risk; systems are coming soon to help.

 

 

 

Section Three - Policy

The first decade of the Web provided many lessons to the extension community. The above section provided a sub-set of these lessons identified for practical application in beginning web efforts. The first web decade also highlighted the need for new governmental and institutional policies responsive to the new realities created by the Web and designed to exploit its potential. Four needs for policy changes are identified and discussed in this section. 

 

Collaboration between Content-Providers

Extension services around the world will better reach and help farmers if government, NGOs and Agribusiness collaborate to contribute content. All too often however, extension staff seeking needed content face recurring problems. Extension is part of Agency Y and needs content from Agency X but X does not talk to Y because they compete for the minister's attention and funds. Or Agency X will say that "We will post the content that we think best on our own server and when we are ready, thank you." Or boundaries between counties and states block coordination but are agriculturally meaningless. Or agribusiness content like Agriwatch.com is not included since government agencies historically do not work with business even if the content is unique and reliable. Or a network administrator decrees that an extension server cannot host web content from a NGO for fear of over-blown security issues.

 

So a wealth of needed content exists in regions around the world yet it is often inaccessible over the Web. When the information is Web-accessible, it is scattered and unsearchable, with no central portal to guide farmers.

 

One might imagine this problem is restricted to only some countries but the US faces it too, especially the failure to centralize public content maintained by state and federal agencies. Online agricultural outreach is exploding in land grant universities but with little coordination. For example, there is no master web index of available full text information to browse and no effective way to search online holdings. The beginnings of needed coordination are present through some efforts but the available content is small. Other problems are the lack of technical standards, redundancy of holdings and absence of integration where it is clearly appropriate. The great gains in technology and access have not been matched by coordinated efforts to create and organize online content for farmers. The problem occurs within as well as across institutions.

 

Turf battles, public-private issues, political boundaries, network policies, bureaucracy and organizational inertia, risk-adversity and other barriers impede the distribution of knowledge to farmers. Arguably extension services are in the best position in the US and around the world to unlock and centralize content from sister agencies and from other sources, but only if extension focuses on this role and actively seeks the collaboration of content providers.

 

It is curious that this goal has not enjoyed a higher priority on the agenda when so many countries vigorously protect and subsidize their farmers and depend on their success to feed their population, bolster their GNP and increase international exports. Investment in web-based delivery needs to be better 'sold' to politicians, government administrators and funding agencies. Anticipated efficiencies and long-term savings in delivery can be promised but a new argument needs to be made too. The systematic distribution of knowledge to farmers over the Web is an essential component of national agricultural policy. It can be replied that agricultural education and extension already are heavily funded priorities. What's new is the opportunity to strongly focus on Web delivery, coordinating all available content to do so. Supporting small farmers and bolstering the agricultural economy are key justifications to do so but the imperative to feed growing populations and promote sustainable farming round out the position. In his book on land grant universities, Campbell (1995) recalled a quotation of Nehru on the wall at ICAR headquarters in Delhi: "Most Things, except Agriculture, Can Wait."

 

Open Content

Open content is a recent term that comes from the older term 'open source.'  Advocates of open source create software that is free for public use while open content proponents build repositories of free content. While open content is a new term, the practice goes back to the early days of the Internet when efforts like Project Gutenberg began posting e-books on-line. MIT is the leading example of an academic institution that is committed to open content. Their OpenCourseWare project posts MIT course content in the public domain and aims at posting all their courses by 2005. MIT also leads the DSpace consortium that combine open content from member institutions. The term "institutional repositories" refers to these growing collections of open content within and across universities.

 

The problem of this section is the absence of an open content respository for farmers. For example, there still is no central index for browsing content from the land grants or a search function to discover it. USDA posted a provided a clickable national map several years ago that looked like a promising start, but even now it only links to the top level pages of state land grants. A project called AgNIC goes further. Funded by USDA and overseen by the National Agricultural Library, it is developing key standards for a national digital library of agriculture.  The project remains in an early stage however and the holdings fall far short of realizing such a library. We also have not yet seen the emergence of researcher communities in agriculture that build repositories of open content, as the physics community did.

 

The shortcomings of online collections at individual land grants are not the fault of individual staff. It is not part of their duties. There are broader reasons. Cultural and institutional shifts take time. New initiatives and technologies are viewed with caution until they stabilize. New tools and training programs have to be planned and purchased.  There is no requirement or strong incentive for individual land grants to contribute and maintain documents in the collection. Declining funding for extension shifts more salaries to soft money sources. Staff have to spend more time on work-for-hire effectively, and less on the core mission. Documents sales have to be used to help fund salaries too. New initiatives of any kind are less likely and especially those that have significant start-up costs and no revenue model. MIT tells us that their project offers content " for the good of mankind. There is no revenue model." But revenue models are more and more important at land grants today.

 

One can speculate that publicly funded colleges will follow MIT in the long run anyway. The land grants face an even greater impetus to do so since it is part of their  mission to disseminate knowledge. Federal funding in the future could very well include mandates that publically funded content be posted and deposited into a national repository. Can the process be speeded up?

 

A rudimentary digital library for agriculture has been possible for ten years and is a much easier task today. Any document now posted on the Web by land grants could be made  searchable and browsable very quickly. For example, a  new software package called VIAS offers capability that could be described as "digital-library-in-a-box."  This NCSA-created package automatically locates and indexes a set of URLs entered, creating a distributed library of resources on-the-fly. It is important to appreciate the potential of this class of technologies. One might picture the need for large mainframes to realize a digital library, a central brain that remote terminals access to retrieve desired resources. But in fact little centralized equipment and software is necessary. The key prerequisite is the Web. Each resource on the web has a unique address and we access it by entering the URL, or searching for it via keywords, or scanning portals like Yahoo, or by following trails of links.  The fact that we use these methods shows that a library of world resources is already there, if only in a weak sense.

 

A striking example of this technology is provided by the P2P (Peer-To-Peer) music sharing technologies used around the world. Users connect to each other's computers (their peers) instead of a central server to exchange music files. Millions of users search and exchange millions of music files every day with the systems. The meta-data that is attached to each song is the electronic equivalent of a card in the library catalogue that provides title, creator, and keywords.  It is a hallmark of any digital library to have such a card for each resource and it explains why teenagers using P2P networks have no problem finding the music they want every night. Any search engine relies on meta-data to find a resource. This method is not different in principle from a manual search of drawers of paper library cards; the difference is that computers search the catalog much faster. On P2P networks, another difference is that resources stored around the world that can be immediately identified and downloaded. It turns out then that the P2P networks now widely in use exemplify the global transparency that digital library designers strive for; you can find resources wherever they are located. 

 

The systems are interesting because they offer a quick way to build digital libraries for Agriculture. The P2P example suggests that the web servers of land grants and government agencies (and hopefully non-profit groups and agribusiness too) could be harnessed as easily as the teenagers' computers in their bedrooms were utilized to share music. The high quality content that is created everyday by the land grants could be made transparent to citizens, as if it were all stored on the same central server.  It would constitute a land grant information system offering content that spans farming, natural resources, food and nutrition, companion animals, family and child development, and consumer economics.

 

The first example of a digital agriculture library was demonstrated soon after the release of NCSA Mosaic (Mayer-Kress, 1994).  Mayer-Kress had a Next Machine in his lab that offered unique capabilities for exploiting the nascent web. Using the objected oriented technology Next provided, he could create clickable concept maps on-the-fly that drew together online world resources on food and agriculture. His colleagues around the world accessed the resources during live tele-conferences exploring solutions to global hunger. The success of P2P as a global system reminds us of the lesson first demonstrated by the Internet and the web. There is no technical reason to stop at national boundaries. A music file from be downloaded from Asia as easily from the house next door (though more slowly). The Mayer-Kress research has a lineage that stretches back to H.G. Wells  (1937) and Vannevar Bush (1945). Both authors wrote on the possibility of microfilm technologies to store and distribute world knowledge. A half-century later, humans have the technology and much of the content that is needed to build a global digital library for agriculture. What are still needed are the policies that will draw domestic and international content-providers together in the effort. While many standardization issues remain, the technologies exist as well as many prototypes.

 

Infrastructure for Web Delivery to Rural Areas

Many agencies and funding entities have been slow to adopt the Web and have continued costly projects that could be better spent on Web delivery. In particular, satellite-delivered video is expensive to produce and deliver and can only reach brick and mortar endpoints. Creative, coordinated funding is needed to explore and jump-start web technologies to connect the rural world. Sustainable models are out there such as M. S. Swaminathan's Pondicherry project and N-Logue's new Chiraag model for community kiosks, both in India. Unlike the expensive and challenging efforts to make different video systems in a state or country inter-operable, technologies that connect users to the Web can differ greatly yet all provide the same essential connection. For example, entrepreneurs are beginning to provide low cost access to the Web via cyber kiosks in rural villages.  The end result is the same web access. Of course, the reliability of the service requires constant power to the kiosk and network, and the speed of the connection will vary by technology. Broadband access is another question; the most challenging issue that faces web-based extension is the need for affordable broadband access for the rural world.

 

Coordination between Funding Agencies

Agencies that fund agricultural extension and related missions must better coordinate short-term efforts. The World Bank, FAO, UNESCO, USAID and private foundations like Ford and Rockefeller do great things to aid rural development but too often independently. Redundant programs are created, efficiencies are not exploited and potential synergies are lost. Examples of successful coordination are there, but many times reported collaborations do not appear substantial.

 

Competition is a key reason that coordination is rare, whether it is government agencies, world development organizations, foundations, or NGO's. Needed and obvious chances to coordinate are blocked by competition. Agencies and foundations want to tell their board of directors, membership and the public that they were the first or the best. Competition makes the world go around, but in areas where starvation is rampant, the needs of small farmers outweigh the benefits of competition. One element in bringing together entities is to boost awareness of relevant programs that are planned or already in place. For example, the World Resource Institute's Digital Dividend project is cataloguing development projects in India that utilize ICT's to help agencies and foundations find common ground.

 

 

Conclusion

Meetings held in 1871 brought together representatives of the newly formed "Agricultural Colleges founded on the national grant of lands." Mr. McAffee, head of the Agricultural Farm at the University of Wisconsin, raised this question at the meetings, "...how best to get a knowledge of the work of these industrial institutions...before the people."  These institutions were created by the Morrill Act that Lincoln signed in 1862--a national infrastructure for public education--and are now referred to as the Land Grant Universities

 

McAffee's question concerns how to best do outreach. Faculty could give public lectures on campus or by traveling to different areas of a state. Options evolved to include horse-drawn traveling museums, radio, film, TV and other extension technologies. The options changed dramatically in the early 1970's by the military-created Internet. E-mail became possible and early information systems like Gopher. The World Wide Web followed in 1991, the usage of which scaled up exponentially with the release of the first graphical web browser, NCSA Mosaic.

 

How quickly will the web delivery of agricultural extension scale up in the next ten years? Will a gradual or accelerated scenario occur? The first decade of Web-based extension provided examples of projects and strategies that took the fast-track and offered policy lessons that can speed future efforts. Agricultural Extension services around the world have a historic opportunity to help farmers alleviate hunger, protect the land and run profitable operations, in the short-term.

 

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References

Bush, V. (1945). As we may think. The Atlantic Monthly, 176(1), 101-108, from http://www.theatlantic.com/unbound/flashbks/computer/bushf.htm

 

Campbell, J.(1995). Reclaiming a Lost Heritage. Ames, IA: Iowa State University Press.

 

Hatch, R. (1967).  An early view of the land grant colleges. Urbana, IL: University of Illinois Press.

 

Hoeft, R., & Nafziger, E. (2001).  Illinois agronomy handbook. Urbana, IL: University of Illinois Extension, from http://www.aces.uiuc.edu/iah

 

Mayer-Kress, G. (1994).  A tele-conferencing experiment with WWW/Mosaic (Report 94-25). Urbana, IL: Center for Complex Systems Research, University of Illinois, from http://archive.ncsa.uiuc.edu/SDG/IT94/Proceedings/CorInfSys/gmk/Mayer-Kress/HungerConf.html

 

Reeves, Timothy (2001).  Science and sustainable food security global public goods for poor farmers - myth or reality?  Talk at the University of Illinois.

 

Sivakumar, S. (2000). "E-chaupal: An integrated concept as a model solution". SAARC Oils and Fats Today.

 

Wells, H. G. (1937).  The world brain. London: Methuen, from http://sherlock.berkeley.edu/wells/world_brain.html

 

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Contact

 

AIM Lab, College of Agricultural, Consumer and Environmental Sciences
University of Illinois at Urbana-Champaign

Address - 528 Bevier Hall, MC-184, 905 S. Goodwin Avenue, Urbana, IL 61801 USA  

Phone - 217 244 2291 office, 217 622 3366 cell, 217 398 9664 home

Messenging - AOL jgfschmitz, Yahoo aimlab2002,  MSN  jschmitz@uiuc.edu

E-Mail - jschmitz@uiuc.edu, jgfschmitz@ameritech.com (personal)

Web - http://web.aces.uiuc.edu/aim/john/jgs.htm

 

Document URL

http://web.aces.uiuc.edu/aim/john/CISCE2002.html