
Forbes recently had a nice collage of articles on AI and the status of AI :
http://www.forbes.com/2009/06/22/singularity-robots-computers-opinions-contributors-artificial-intelligence-09_land.html
A physicists view and observations of the world, science, philosophy, life - with private additions

There is nothing positive to report from the ALS disease of my wife - it is just strugglng with more and more problems. Now she cannot even stand any more, I have to carry her. It is now very difficult to put clothes on etc..
the same ideas as 30 years ago, new trials, and cost reduction is the main driver!
There are people stating that computers anyhow have only two hand full of ideas which are repeated over and over since 30 - 40 years, e.g.
Three more negative arguments:
Informatics builds large systems - in order to do this, it must be strictly and simply structured; this implies a lot of repetitive work (it does not help that this is automated - automation is just lifting the level, the simplicity at the human interface has to remain by definition).
For many applications, IT is under the surface, and the applications are in the foreground (and are visible, and in a company will earn the career).
IT is so popular and fast progressing, that a large part of the pragmatic progress is known to almost everybody who wants or needs to, computer scientists or laymen, - with a relatively low entry level (cp. this to quantum physics, for example!): the professional advantage is often small.
But apart from this unappreciative economic and social role, Informatics and IT become more and more fundamentally important: Informatics and IT are the science and the engineering discipline to organize every work done in society, and because all changes in nature can be described as ongoing work, all nature.
The scientific importance of Informatics cannot be exaggerated:
Even the connection between information and physics is not satisfactorily understood - and no limits of IT systems are visible: Informatics builds ultra-large-systems and larger.
But the science behind this is just in status nasciendi!
Therefore in daily life, IT is just infrastructure - but it is also the infrastructure of the human future!
To have a simple index, I propose to have a hardness scale, similar to the Mohs hardness for minerals, with:
This gives my proposed scale "Scientific Hardness Index" from +3 to -3:
+3: Fundamental science (superhuman), e.g. fundamental physics
+2: Science established, probably high precision, e.g. astronomy, evolution
+1: Scientific theory under investigation e.g. extended longevity
0: Neutral -neither scientific nor obvious nonsense e.g. visitors from other stars
-1: Beside science but not hard contradiction (e.g. astrology)
-2: Hard contradiction (e.g. predictions, telekinesis)
-3: Proven wrong (or obsolete) (e.g., "earth is a hollow sphere")
These numbers cannot show the tremendous nonlinear difference in the system strength of these levels: I would like to compare

In the figure, the evolution in biology up to now ("in carbon") and the evolution in IT ("in silicon", at least for the time being) are joining and opening a spectrum of channels for evolution, from close to IT to close to flesh and blood (in the figure, the green area): It seems that we take all of them. Nobody knows the overall outcome - this is the singularity! And we are not sure that the resulting evolution will be guided (or "intelligent") - neither biology nor IT was "guided" although the latter was even made by humans.
As Ray Kurzweil states: "Life is Software" - and when we are able to change the software of life, improve (?) or add, we perform evolution. Given the many influences and influencers of the coming evolutions made by humans, it is probably again no "intelligent design" - it will be non-intelligent, I am afraid, but it will hopefully be successful whatever this means.

The idea to write this blog post was from the LinkedIN forum "Greater IBM" where younger colleagues show that they think "this is new" or "this should come" - and its already here, and waiting for success. The specific innovation discussed there is the open mobile phone wave - now the mobile phone finally becomes a regular computer. This is correct and important, but it is not the first time:
Now technology and context (mobile device penetration) and entrepreneurship (Steve Jobs) make the open mobile computer Me.C possible ...
Another long-running innovation are RFIDs, starting e.g. with Paul Moskowitz' United States Patent 5,528,222 - filed 09/09/1994 . And I read today "70% of RFID projects fail" - although not for technical reasons! And RFIDs (and their variants) are still futuristic for many people!
Therefore the title of this post on innovation and these notions:
Evolution is the main part of modern biology, and one main part of modern biology is bioinformatics! The core of the evolution is the development of a software system (based on genes and proteins etc), but function-wise it is a compact, special, adaptive software system with controlled adaptability:But you need more (and most of it is new and non-trivial):
The "mutation distance" determines the probability of again useful software after a random software mutation. What is needed are software engineering models how to achieve these functional features - and then see how much is directly implemented in genomics, proteomics and transcriptomics.
This software engineering science is the engineering discipline of biology - a wonderful field of exciting and relevant research, much more scientific than ruminating the (of course also important) human software generation processes...
Many people are not aware that evolution takes place on the software level, not on the level of visible features (phenotypes)!
“I made this program longer than usual because I lack the time to make it shorter.” - paraphrasing Blaise Pascal (after softwarecreation.org ).