SEMINAR TOPICS

SEMINAR TOPICS

Wednesday, September 29, 2010

Artificial Intelligence



Artificial intelligence (AI)
Computers with the ability to mimic or duplicate the functions of the human brain

Artificial intelligence systems
The people, procedures, hardware, software, data, and knowledge needed to develop computer systems and machines that demonstrate the characteristics of intelligence


Intelligent behaviour 

  •  Learn from experience
  •  Apply knowledge acquired from experience
  •  Handle complex situations
  •  Solve problems when important information is missing
  •  Determine what is important
  •  React quickly and correctly to a new situation
  •  Understand visual images
  •  Process and manipulate symbols
  •  Be creative and imaginative
  •  Use heuristics

Tuesday, September 28, 2010

4G Wireless System

The fourth generation of mobile networks will truly turn the current mobile phone networks, in to end to end IP based networks, couple this with the arrival of IPv6, every device in the world will have a unique IP address, which will allow full IP based communications from a mobile device, right to the core of the internet, and back out again. If 4G is implemented correctly, it will truly harmonise global roaming, super high speed connectivity, and transparent end user performance on every mobile communications device in the world. 4G is set to deliver 100mbps to a roaming mobile device globally, and up to 1gbps to a stationary device. With this in mind, it allows for video conferencing, streaming picture perfect video and much more.



It wont be just the phone networks that need to evolve, the increased traffic load on the internet as a whole (imagine having 1 billion 100mb nodes attached to a network over night) will need to expand, with faster backbones and oceanic links requiring major upgrade.

4G Wireless system

Optical Networking


Optical networks can send vast amounts of data (IP flows) through lambda connections.
These connections are established through multi-service optical
switches, which have the capability to perform forwarding decisions at different levels in the protocol stack. As a result, long and big IP flows (elephant flows) could be moved from the packet-level to the optical-level. This move could result in a better QoS for both elephant flows and remaining IP flows: the former would have no jitter and plenty of bandwidth at the optical-level; the latter would be better served due to the off-load of elephant flows.
The detection of IP flows and the management of lambda-connections are important tasks to achieve the desired move. Two approaches are currently used for that 

[1]: Conventional management 
[2]: GMPLS signaling. 

The former is characterized by a centralized management entity (e.g., human manager or an automated management process) that is in charge of establishing lambda-connections and deciding which IP flows should be moved to the optical-level. In contrast, the latter is characterized by the fact that optical switches coordinate the creation of lambda-connections among themselves. The decision which IP flows will be moved to the optical level however should be taken by a centralized management entity, or by the entities responsible for the generation of the data flow.

However, there are several problems using these approaches. Both approaches require human interaction to detect flows and manage lambda-connections. This interaction may be slow, since humans need time to perform those tasks, and it is also error prone.

One of the major issues in the networking industry today is tremendous demand for more and more bandwidth. Before the introduction of optical networks, the reduced availability of fibers became a big problem for the network providers. However, with the development of optical networks and the use of Dense Wavelength Division Multiplexing (DWDM) technology, a new and probably, a very crucial milestone is being reached in network evolution. The existing SONET/SDH network architecture is best suited for voice traffic rather than todays high-speed data traffic. To upgrade the system to handle this kind of traffic is very expensive and hence the need for the development of an intelligent all-optical network. Such a network will bring intelligence and scalability to the optical domain by combining the intelligence and functional capability of SONET/SDH, the tremendous bandwidth of DWDM and innovative networking software to spawn a variety of optical transport, switching and management related products.

@...May i help u frnds...@

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