Sony's PlayStation 3 is renowned as being the most powerful current generation games console available.
The main factor behind the machines impressive number-crunching ability is the Cell Processor.
In this article we'll explore this revolutionary processor in a little more detail.
The Cell Processor (sometimes known as a Broadband Engine) was developed by a group of electronics giants including by Sony, IBM and Toshiba.
The unit wasn't solely developed for the PS3 but its first commercial use was in Sony's games console.
It is a state-of-the-art piece of electronic engineering and the structure of the Cell Processor can be broken down into three distinct areas.
The first is the main processing element which can be considered similar in design to a PC's multi-core processor.
This is the central focus of the Cell unit and is responsible for controlling and overseeing the remainder of the processors activities.
The next level of the Cell Processor is the Synergistic Processing Elements (or SPE's).
These are an additional level of processors controlled by the main processing element that provides the Cell with its number crunching abilities.
The Cell contains eight SPE's although only seven are actually used.
This allows the rejection of fewer defective units in manufacture, therefore increasing yields and lowering costs.
Each of these elements has roughly the same power as a PC's dual-core processor so you can see where the PS3 gets its impressive power from.
In conjunction with the main processing element the PS3 has the processing power equivalent to eight high-end desktop computers.
The final part of the Cell's structure is the Element Interconnect Bus (or EIB).
This section of the device serves to connect everything together allowing the main processing element and the synergistic processing elements to talk to each other as well as connecting them with the controllers, Blu-Ray drive, graphics processor, sound device and network connection.
The PS3 has a reputation amongst the gaming community as being more difficult to work with than its main rivals the Microsoft Xbox 360 and the Nintendo Wii.
This is especially true when it comes to writing and developing games for the console.
The main reason for these problems surrounds the relationships between the main processing element and the synergistic processing elements and getting the software to use the synergistic processing elements for the main processing calculations.
Traditionally games consoles have employed an architecture much closer to that of the PC with just one main processor to handle functions and a graphics card for the graphical elements.
Incidentally, the PS3 still employs a graphics processor as a separate device to the Cell Processor to handle the graphics output.
With each new generation of games the software developers are getting more and more out of the PS3's hardware.
I believe we are still a couple of years away from seeing the true potential of this console.
The main factor behind the machines impressive number-crunching ability is the Cell Processor.
In this article we'll explore this revolutionary processor in a little more detail.
The Cell Processor (sometimes known as a Broadband Engine) was developed by a group of electronics giants including by Sony, IBM and Toshiba.
The unit wasn't solely developed for the PS3 but its first commercial use was in Sony's games console.
It is a state-of-the-art piece of electronic engineering and the structure of the Cell Processor can be broken down into three distinct areas.
The first is the main processing element which can be considered similar in design to a PC's multi-core processor.
This is the central focus of the Cell unit and is responsible for controlling and overseeing the remainder of the processors activities.
The next level of the Cell Processor is the Synergistic Processing Elements (or SPE's).
These are an additional level of processors controlled by the main processing element that provides the Cell with its number crunching abilities.
The Cell contains eight SPE's although only seven are actually used.
This allows the rejection of fewer defective units in manufacture, therefore increasing yields and lowering costs.
Each of these elements has roughly the same power as a PC's dual-core processor so you can see where the PS3 gets its impressive power from.
In conjunction with the main processing element the PS3 has the processing power equivalent to eight high-end desktop computers.
The final part of the Cell's structure is the Element Interconnect Bus (or EIB).
This section of the device serves to connect everything together allowing the main processing element and the synergistic processing elements to talk to each other as well as connecting them with the controllers, Blu-Ray drive, graphics processor, sound device and network connection.
The PS3 has a reputation amongst the gaming community as being more difficult to work with than its main rivals the Microsoft Xbox 360 and the Nintendo Wii.
This is especially true when it comes to writing and developing games for the console.
The main reason for these problems surrounds the relationships between the main processing element and the synergistic processing elements and getting the software to use the synergistic processing elements for the main processing calculations.
Traditionally games consoles have employed an architecture much closer to that of the PC with just one main processor to handle functions and a graphics card for the graphical elements.
Incidentally, the PS3 still employs a graphics processor as a separate device to the Cell Processor to handle the graphics output.
With each new generation of games the software developers are getting more and more out of the PS3's hardware.
I believe we are still a couple of years away from seeing the true potential of this console.
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