Tuesday, February 28, 2006

Information Architecture... who coined that thing?

Currently we are getting surrounded by people calling themselves Information Architect. Hell, yeah, I call myself one! So where did that word come from? Quite some years ago (1997) I happened to be working on a project with John Thackara in Amsterdam. Bringing together people from two different fields: knowledge management and (interface) design. From the world of design we had quite an odd bunch of people: io360 from NY, Perspecta from Cambridge MASS, PlumbDesign, ... those people got me thinking about, what we call now IA. I asked one of them what his favorite book was on (interface) design, this happened to be INFORMATION ARCHITECTURE by RICHARD SAUL-WURMAN. Today we would call Richard's ideas Information Design, but still, his ideas come quite close to IA of today. As Christina Wodtke put it quite right: Pretty much before there was a web, before Jakob was going to war with design, before all that hoo-haw... There was Richard Saul Wurman saying that someone should design information in a way people could use it, and he called this person an Information Architect.

Monday, February 27, 2006

Difference between semantic technology and convential IT

Semantic technologies encode meanings separately from data and content files and separately from application code. This enables machines as well as people to understand, share and reason with them at execution time. With semantic technologies, adding, changing and implementing new relationships or interconnecting programs in a different way can be just as simple as changing the external model that these programs share. With information technologies, on the other hand, meanings and relationships must be predefined and “hard wired” into data formats and the application program code at design time. This means that when something changes, or we want exchange information we hadn’t previously, or two programs need to interoperate in a new way, the humans must get involved. Off-line, the parties must define and communicate between them the knowledge needed to make the change, and then recode the data structures and program logic to accommodate it, and then apply these changes to the database and the application. Then, and only then, can they implement the changes. Semantic technologies are “meaning-centered.” They include tools for autorecognition of topics and concepts, information and meaning extraction, and categorization. Given a question, semantic technologies can directly search topics, concepts, associations that span a vast number of sources. The results are fast, relevant, and comprehensive. Plus, semantic technologies can deliver answers, not just lists of sources. Information technologies are data, page, and document centered. They can only directly search these primary sources, by browsing, by word or number indices, or with statistical categorization. Precision and recall is more limited, plus information technologies only return lists of pages, documents, and files to consult. Semantic technologies organize meanings using taxonomies, ontologies and knowledgebases. These are relatively easy to modify for new concepts, relationships, properties, constraints and instances. Semantic technologies integrate data, content, applications, and processes via a shared ontology, which minimizes costs and effort to develop and maintain. Information technologies organize meanings using flat files (simple schemas), relational data models (RDBMS), and object-oriented models (OODBMS). Database structure is relatively rigid, and difficult to modify for new concepts and relationships. Integration of data and processes typically requires point-to-point interfaces and connectors that are costly to develop and maintain since the knowledge required must be hard coded in each connection rather than shared via a common metamodel. Semantic technologies reason via associations, logic, constraints, rules, conditions, and axioms that are represented in the ontology separately from application code. This declarative structure allows reasoning in multiple directions. For example the same knowledgebase can be used to answer questions about how, why, and what-if as well as give factual responses. Also, semantic technologies allow development of programs that can “learn” (infer and create new knowledge) simulate and test, and adapt behavior based on experience. Information technologies reason via fixed algorithms that are embedded in application code. Information technologies give us situation awareness. For example, they answer questions about what, where, when, and how much. Algorithms are preprogrammed behaviors, like instinct. They perform a rote task. If anything is learned, people must update the logic off-line to create a new version of the program. Semantic technologies use ontologies to auto-discover and provision services and functionality (e.g., semantic web services, semantic grid services, etc.). They use ontologies to link applications into composites that deliver a comprehensive (e.g., virtual, 360 degree) view of situations with all data and information in context. By representing meanings in a language and media neutral form, semantic technologies can auto-generate text, graphics, drawings, documents, and natural language dialogs. Similarly, they can auto-personalize, customize, and generate multiple versions of communications from the same knowledgebase automatically. Semantic technologies enable “autonomics:” systems with self-knowledge that can selfconfigure, self-optimize, self-protect, self-heal, and self-manage. They provide the foundation for developing new categories of services and products that can know, learn, and reason as humans do. Information technologies require humans to manually discover and implement data and application connections and interfaces. Alternatively, humans must search to find data and information, and then put it into the right context for decision-making. Information technologies use computers as “electronic pencils” for humans author and develop content, visuals, and media formats.

Dewey Decimal System and the FOOF-factor

The top level of the Dewey Decimal Classification (DDC) system is an example of how chunking information along a single dimension can be an effective way to communicate a coherent narrative about data. In the graph, I've laid out the DDC along the "Foof factor" dimension where Foof is a cross between Froofy and Poofy. The distribution of topic areas tells us the following story about the contents of Libraries: The bulk of writing lies in the middle of the curve in the soft sciences and humanities. There is considerably less writing at the ends of the spectrum: hard sciences and the arts. This makes sense since you could say that the primary by-product of the soft sciences and the humanities is expository (explanatory) writing whereas the hard sciences and the arts are more concerned with creating "things" as opposed to writing about things: ie. theorems, technologies or works of art.

Saturday, February 25, 2006

Googlezon.NET

You have got to see this!

In the year 2014, the New York Times has gone offline.
The Fourth Estate's fortunes have waned. What happened to the news? And what is EPIC? Click here to watch EPIC 2014 Thanks to iknow2 for sending me the link as food for thought! As is seems we are flattening the world: together!

Friday, February 24, 2006

The World Is Flat

Thomas L. Friedman, New York Times "Foreign Affairs" columnist and author of "The World Is Flat: "History of the world twenty years from now, and they come to the chapter 'Y2K to March 2004,' what will they say was the most crucial development? The attacks on the World Trade Center on 9/11 and the Iraq war? Or the convergence of technology and events that allowed India, China, and so many other countries to become part of the global supply chain for services and manufacturing, creating an explosion of wealth in the middle classes of the world's two biggest nations, giving them a huge new stake in the success of globalization? And with this 'flattening' of the globe, which requires us to run faster in order to stay in place, has the world gotten too small and too fast for human beings and their political systems to adjust in a stable manner?"

Thursday, February 23, 2006

Quaero, who will lead ?

According to SpotLightingNews Bertelsmann will probably lead the multimedia search engine project, called Quaero. Project Quaero is considered to represent France's and Germany's response to Google and Yahoo, meant to lift Europe to the United States and Japan's research and development status. France's contribution (EUR150 million) will come from the Agency for Industrial Innovation, while Thomson and the French National Centre for Scientific Research will lead the French part of Quaero. Germany's participation is still unclear, though Angela Merkel's friend Heinrich von Pierer, Siemens chairman, is the Germany's coordinator in the multimedia search engine project, intended to provide navigation through the billion audio, video, text, and image files found on the world wide web. Bertelsmann's Empolis, the data processing subsidiary, will sign up this week, though officialy Empolis said they were only studying the Quaero project.

Quaero, who will participate ?

Until know the following organisations/companies were mentioned as active members of the French/German search engine for digital cultural heritage project called Quaero (in random order):

  • Jouve
  • LIMSI-CNRS
  • Bertelsmann - Empolis
  • LTU Tech (image and video retrieval)
  • France Telecom (telecommunication)
  • INRIA
  • INRA
  • INA (french national audio/visual archive)
  • Vecsys
  • Exalead (search engine)
  • University of Karlsruhe
  • RWTH Aachen
  • Thomson (media)

Nice way of browsing through time at Birth of TV

The BIRTH Television Archive is an innovative Web portal providing uniform access to digitised audiovisual material. Major European broadcast archives and specialised ICT companies joined forces to set up the basic infrastructure. Distributed content from various sources can be accessed from one central access point. Apart from moving image material, the BIRTH Television Archive also provides access to digitised programme schedules,stills, articles and much more. Particular attention is given to providing language independent search possibilities and to offering the option to compare the different development paths in several countries across Europe. (source: DigiCult Newsletter, issue 10, Oct. 2005, article by Johan Oomen of the Netherlands Institute for Sound and Vision).

Geographic Categories: An Ontological Investigation

Geographic Categories: An Ontological Investigation: "Categories are an essential aspect of human cognition. Geographic categories have received little study, yet they are important to geographic information systems and spatial data transfer as well as to our understanding of geographic cognition in general. Deductive studies have indicated that geographic objects have important ontological features distinct from those of objects encountered at table-top scales (Smith and Mark 1998). This NSF-funded project is developing a formal ontology for geographic entities and categories, based on rigorous empirical research using human subjects. Parallel studies will be conducted in several languages and regions, so that the resulting ontology will be multilingual." (source: David M. Mark and Barry Smith, National Center for Geographic Information and Analysis)