Western Digital introduces 750GB and 1TB 2.5″ drives...


Solid-State drives may be gaining in performance, but standard hard drives are still pushing forwards in terms of how much data they can store. This week Western Digital has pushed the storage barrier up by managing to squeeze 1TB into a 2.5″ hard drive.
The WD Scorpio Blue comes in both 750GB and 1TB models with the latter squeezing 333GB per platter while maintaining a 3GB/s transfer speed through the SATA interface. Both drives spin at 5,200rpm, have an 8MB cache, and a latency of 5.5ms. Western Digital is using the new drives in a range of products as both an internal and external hard drive.
We can expect to see the Scorpio Blue being offered in laptops, nettops, and other small form-factor PCs, but Western Digital are also going to use them for portable hard drives. Two new models of the Western Digital My Passport Essential SE range have been announced using the Scorpio Blue drives, so that’s 750GB or 1TB in a 15 x 80 x 126mm package and powered over USB. Both new drives are available from the Western Digital online shop costing $199.99 (750GB) and $299.99 (1TB).
Jim Morris, senior vice president and general manager of client systems at WD said:
The convergence of the growing mobile computing and digital media trends produces demand for desktop-like capacities in portable devices …new WD Scorpio Blue drives enable people to take even more of their digital collections with them wherever they go and, realizing the value of their data, back up their notebooks on their My Passport drives.
Both new drives are shipped with WhisperDrive, ShockGuard, and SecurePark, offering users a very quiet, shock tolerant, and reliable hard drive regardless of what form you use it in....

Tiny,6-chip open computer runs Linux....




Embedded designer Paul Thomas is showcasing a tiny, open-sourced computer at LinuxWorld in San Francisco this week. Would-be “Linuxstamp” enthusiasts can obtain pre-built boards for the hefty sum of $120 directly from Thomas, or they can download the design for free and build it themselves.The Linuxstamp is an extremely simple hardware design, consisting of six integrated circuits (processor, flash, RAM, serial-to-USB, ethernet PHY, and power conversion) plus a bunch of passives.
The Linuxstamp is built from just six ICs(Click to enlarge)
Thomas demonstrated the Linuxstamp in the “Garage” area of Linuxworld. The most eye-catching of his demos was a home-made robotic car, constructed with legos and moved around by a couple of wheels controlled by the Linuxstamp (see photos below). In this demo, the Linuxstamp operated untethered, thanks to wireless capability supplied by a USB/WiFi adapter plugged into the board’s USB host port.
Wireless Linuxstamp-powered robot demo at LinuxWorld(Click each image to enlarge)
The hardware
Despite its simplicity, the Linuxstamp’s features include:
Atmel AT91RM9200 processor (ARM9 core, includes MMU)
32MB SDRAM
8MB SPI flash memory
10/100 Ethernet (supplied by the Atmel processor)
USB host port (supplied by the Atmel processor)
USB device port (generated by a serial/USB converter)
SD card slot
USB debug port (via the USB device port)
JTAG port
Can be powered via POE
The board’s processor, a 180 MHz Atmel AT91RM9200 system-on-chip, integrates an ARM9 CPU core (with MMU) along with controllers for USB host and device ports, 10/100 Ethernet, MMC/SD card interface, sync/async serial ports, SPI (serial peripheral interface), and more.
Thomas was careful to keep the Linuxstamp’s design simple enough to allow for a two-layer PCB design, which minimizes costs and simplifies homebrew construction.
Another example of keeping things simple is the inclusion of a USB-based serial debug port, implemented via a serial/USB converter chip. Thanks to this feature, users of the board most likely won’t need to use the board’s JTAG debug port, according to Thomas.
Even initialization of the board’s low-level bootstrap loader is easy, Thomas adds, since the Atmel processor includes an innovative, built-in hardware bootstrap function that automatically attempts to load the onboard SPI flash via the serial debug port when a newly built board powers up for the first time.
Bootstrap loaders and Linux OS
Thomas notes that there are two levels of bootstrap loader: a tiny loader provided by Atmel initializes the processor and its interfaces, and then loads U-boot, which does the rest. This process is described in detail on the Linuxstamp’s wiki site.
As its name implies, the Linuxstamp runs Linux. At least two distributions are currently available: a minimal filesystem that boots and runs entirely from within the Linuxstamp’s 8MB flash and 32MB RAM memory; and a more complete, debian-based filesystem that requires an SD card to supplement the board’s on-board flash. In addition to the linux kernel, the minimal filesystem includes BusyBox and DropBear SSH (a small SSH client/server), among other basic system functions. The minimal system system allocates about 2MB of the 8MB available flash to linux and the boot-loaders, with the rest for the filesystem, according to Thomas.
Both OSes are based on kernel sources obtained from kernel.org and compiled specifically for the board’s hardware, Thomas says. The filesystem images, a cross compiler, bootstrap loader images, and sources are available from the Linuxstamp’s ftp site.
Availability
To purchase a ready-made Linuxstamp (priced at $120 plus shipping, as of this writing), visit TheLinuxStamp.com. For more technical details on the Linuxstamp and to obtain its “open source” design (it’s released under the GNU GPLv2), visit the Linuxstamp’s wiki.

NEW chips...









The focus of computing may have shifted from PCs to notebooks but some people still need power, sometimes seemingly ridiculous amounts of it. Whether you are rendering 3D graphics or editing video or you just have a lot to do at once, the workstation is far from dead for you. With this in mind, as well as the ongoing commoditization of processing power, HP put a lot of effort into producing their new series of Z series workstations.
With so much of the computer simply being decided by what processor you are running and what graphics card(s) you have, companies like HP, Dell, and Lenovo are constantly searching for ways to compete. The obvious play for this is the price, but with slim margins and expensive components other battlegrounds must be found.
For this latest generation HP rolled out the Z series as the most attractive product in its class largely thanks to a new case design not available from the competition. Dell and Lenovo both released Nehalem-powered systems on the same day, powered by the same impossibly powerful Nvidia graphics cards but the Z series also had a custom case designed by BMW Designworks. In addition to being excellent eye candy, this case was designed to be easy to work on, completely tool-less, practically wireless, easy to carry, quieter, and cooler running than previous generations. A quick look at it (inside or out) will reveal how HP wanted to leave those other plain black boxes in the dust.

See the full gallery below
The Z600 is the mid-range model in HP’s lineup, between the entry-level Z400 and the high-end Z800. Each model can vary wildly in price based on the processor(s), video card(s), storage, and–mainly–the amount of memory used, so there is a lot of bleed over from one model to the other, especially once you factor in their relatively low starting prices of $929, $1589, and $1839 respectively. They have significant differences between them, but to simplify, the Z400 is the only model with a single processor and is very much like a high-end desktop, the Z600 has a slim design but can be quite capable, and the Z800 is the top-of-the-line. Both the Z600 and Z800 have one of the Z series’ best new features: a swappable power supply that can be pulled right out of the system with no tools or playing with wiring. (So if your workstation isn’t starting you can check and see if the power supply is the problem in under a minute.)
The build quality of the new chassis is as good as we expected. That is to say that is doesn’t just look nice, it’s put together well. It’s built strongly enough to hold up, including frequent moves, say from office to office, thanks to the built-in handles. The interior layout is optimized for quiet performance and great cooling. Also, it’s downright sturdy–our test unit arrived with a sizable dent on the front-left edge. This happened during shipping and it caused the aluminum panel on the side to bend in about a half inch (it must have been quite a collision–the aluminum is about 2mm thick). The rest of the case was not damaged and the hard drive that sits inches away was in perfect shape, as was its tool-less removable mechanism. The system fired up and ran perfectly.

Our test system came outfitted with two quad-core Intel Xeon L5520 processors (2.27GHz), 6GB ECC RAM, Nvidia Quadro FX 1800 graphics card, and Windows Vista 64-bit. It’s a serious setup, but the Z600 (not to mention the Z800, or even the Z400) can scale way past this point if you get better graphics and more RAM. If you want or need more power, you can upgrade the processor to dual 5570s, graphics to Nvidia’s Quadro CX or 3800, up to 24GB RAM, dual 1TB drives, Blu-ray, a RAID controller, and more. You can break that $13,000 mark if you want to max the Z600 out, but our system came out to about $4000.
So what does one do with a system like the Z600? The applications are practically limitless and almost anything that requires a lot of power and multi-core performance is going to be a good fit. Some software that would be at home on it could include:
Fluent
Solidworks
Autodesk (AutoCAD)
Adobe (CS4)
Bibble Labs
Toxic
Bunkspeed (Hypershot)
Catia v5
Elysium
3D via
So it’s well suited for digital media creation, engineering tasks, financial data work, 3D rendering, and so on. Just for reference, the Z800 is generally considered better suited for 2K and 4K video work as well as high-end media production and geological data work (think oil drilling) while the Z400 is great for your entry level tasks, like SD and HD video and digital media. The Elitebook 8730w is part of the matrix as well–it can handle on-location tasks like mobile video editing.
Working with the Z600’s case is a pleasure. The process is completely tool-less and generally can be done without even considering the wiring. Hard drives, cooling elements, and even the PSU can be removed without any tools which makes operating on the system painless. The ability to pull the PSU and test it and/or swap it in under 60 seconds is fantastic and it will be a major time saver for any IT staff member.
Now I didn’t have the need to calculate any geo-spatial solutions or chart data volumes of seismic activity, but I did run a few workstation tests to put the Z600 through its paces. These were mainly standard benchmarks (like Cinebench) and real-life tasks that I generally perform on my normal work computer (audio/video conversions, video rendering, etc.), the Z600 should just be able to handle them faster, and while doing other tasks more efficiently. (Readers should keep in mind that benchmarks are not completely representative because the Z600 can scale between $1600 and over $13,000. For some applications our test machine would be considered relatively modest, especially the graphics.) Here how it performed in two benchmarks:
Cinebench R10 64-bit
OpenGL: 5447
CPU Test, single processor: 3312
CPU Test multiprocessor: 20709
Multiprocessor speedup: 6.25x
Geekbench
Overall: 10205
Processor integer: 11637
Processor floating point: 14410
Memory performance: 3363
Memory bandwidth: 4161
Other tests I tried included Adobe CS4 tasks like a Soundbooth podcast render and a Media Encoder video conversion as well as DriverHeaven’s Photostop benchmark (the score was 325.7 seconds). These tests didn’t go particularly well, even though they should be the Z600’s strong suit. Now we know that the Z600 can perform well and other sites have(though that system costs twice as much as ours), but performance never seemed to reach the level that we expected from the system. I’m working with HP on this at the moment and we’ll update as soon as possible, but so far the system is workable, but not mindblowingly quick.

Conclusion
HP’s Z600 is in many ways a workstation for 2009. That is to say that it’s power-packed but also easy to use, with an incredible new chassis design and features to spare. The options can range from pedestrian (like our 250GB main disk) to downright impressive (like 24GB of RAM and dual video cards) depending on your needs. It can take advantage of technologies like SSD drives and Nvidia’s CUDA in order to maximize performance in ways that are more interesting (and often cost effective) than just getting more expensive processors. There are enterprise options available as well, like 15K SAS drives and RAID controllers.
At about $4000 (as tested) the Z600 is a formidable machine, but its much lower starting price means that the foundation is actually rather affordable… it’s really just the parts you need to concern yourself with. Being easy to work with and to upgrade, this could be an interesting proposal to some buyers. For professional users and corporations, it’s a different story–for them it’s about return on investment. The expensive asset to them is not the computer, it’s the operator. That means that a faster computer means a more efficient worker which then translates into a workstation that can often pay for itself in just a matter of weeks.
With the new Z series products HP wanted to differentiate their workstations from products from Lenovo and Dell that feature the same processors, video cards, and so on. The case was the primary recipient of the design upgrades and it shows. And, smartly, the components themselves were definitely considered as the move to the BMW Designworks case coincided with the upgrade to Intel’s Nehalem processors, which have made quite a splash as well. The only rub with our Z600 was the performance, which didn’t seem like it was getting everything it could out of the eight cores, 6GB of RAM, and the FX 1800. We’re working on that and there were moments of excellence when all that power shined through, making it clear why someone would still need a workstation.
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SHAP..


PC Chipset...


Definition of: PC chipset A set of chips that provides the interfaces between all of the PC's subsystems. It provides the buses and electronics to allow the CPU, memory and input/output devices to interact. PC chipsets, which are housed on one to four chips, include built-in controllers for almost all common peripherals. The primary components on a PC motherboard are the PC chipset, CPU, memory, clock, buses and BIOS. See Intel chipsets.
System and Peripheral Buses
This illustration shows how chips, memory and peripherals in a PC interconnect via the system bus (top) and peripheral buses (AGP, PCI and PCI Express).

TILERA CHIPS...


Today, MIT spinoff Tilera announced that it's shipping a computer chip with 64 separate processors whose design differs drastically from that of the chips found in today's computers. The new chip, called Tile64, avoids some of the speed bottlenecks inherent in today's chip architecture, and it can operate at much lower power, says Anant Agarwal, founder and chief technology officer of Tilera, based in Santa Clara, CA. Initially, Tile64 will be used in video applications such as videoconferencing systems, and in network hardware that monitors traffic to reduce e-mail spam and viruses.
Multicore mesh: This chip, which measures about 40 millimeters square, contains 64 processors--or “cores”--connected to each other in a mesh network, a new chip architecture. The processor is currently shipping to companies that make videoconferencing technology and network routers. Credit: Tilera
Chips with multiple processing units, or "cores," are nothing new. But by allowing the cores to communicate directly with each other, Tilera has addressed a widespread concern about the viability of adding more cores to microprocessors. "Every processor in the market today is a multicore," says Agarwal. "The hope of the industry is to double the number of cores every 18 months. My prediction is, by 2014, we will have 1,000-core architectures. But the problem is, [current] architectures don't scale."
In existing multicore chips, each core communicates with the others via a set of wires called a bus. Performance doesn't necessarily suffer when two or four cores share a bus, but when 16 or more cores try to use it simultaneously, data can get backed up. Agarwal explains that Tilera's chip has no central bus. Instead, each core is connected to all the others. Also on each core is a full-featured processor, which can run an operating system, and memory caches, which hold data that needs to be quickly accessed.
In effect, the Tile64 has a mesh structure that's similar to that of the Internet, a network in which there are many decentralized nodes. One reason the Internet is able to pass around data so quickly is that packets of information are sent through a vast network and can avoid traffic jams. If everyone's e-mail had to go through a central server, there would undoubtedly be delays. Tilera's microprocessor, says Agarwal, "is very much like the Internet on a chip." And like the Internet, Tilera's chip can be scaled up gracefully; it doesn't need to be redesigned each time new cores are added.

CHIPs INFORMATION....




A small piece of semiconducting material (usually silicon) on which an integrated circuit is embedded. A typical chip is less than ¼-square inches and can contain millions of electronic components (transistors). Computers consist of many chips placed on electronic boards called printed circuit boards.
There are different types of chips. For example, CPU chips (also called microprocessors) contain an entire processing unit, whereas memory chips contain blank memory.
Chips come in a variety of packages. The three most common are:
DIPs : Dual in-line packages are the traditional buglike chips that have anywhere from 8 to 40 legs, evenly divided in two rows.
PGAs : Pin-grid arrays are square chips in which the pins are arranged in concentric squares.
SIPs : Single in-line packages are chips that have just one row of legs in a straight line like a comb.
In addition to these types of chips, there are also single in-line memory modules (SIMMs), which consist of up to nine chips packaged as a single unit