Archive for the 'Samsung' Tag

Apple stuff: New HD, more memory, best damned 2.5″ enclosure, partial fix for x2vnc, world’s smallest 4 port USB hub

Thursday, December 13th, 2007

New HD: Well, I finally got around to replacing the hard drive the Powerbook came with… what once was a 60GB Hitachi is now a 120GB Samsung Spinpoint M. Samsung Spinpoints are the quietest, lowest power using, and coolest drives on the market in the 2.5″ market, and they perform similarly to other drives of the same class.

Enclosure: My old drive is now in an Icydock MB663UB 2.5″ enclosure, and through Newegg right now its $8.99 total until December 31st. The enclosure is basically a box of high grade aluminum, with no wiggle room inside (touches drive on all four sides), and is only a tiny bit longer than the drive itself. Although it has a built in 2 inch USB cable, it also comes with a two-headed several foot cable for non-mobile applications (or for drives that won’t spinup in under 500mA). Its the best HD enclosure I’ve ever owned, in my opinion.

Memory: I’ve upgraded the Powerbook’s memory from 1GB to 2GB, and I have to say, Leopard runs a lot smoother… not that it is noticeably slower than Tiger, but its like a new machine with more memory. Between the new HD and the more memory, booting takes about half the time (not that I often do that, sleep is damned useful). 2GB is the maximum on these Powerbooks, otherwise I would have gone for more.

VNC: Leopard 10.5.1 has “fixed” the VNC bug to an extent… connecting with x2vnc no longer makes AppleVNCServer crash, but it just makes it chew all available CPU time and barely work. This does not happen using an normal VNC user (less than 10% CPU time on average), but I expect x2vnc is doing something weird that it should be.

Smallest USB hub: Powerbooks only have 2 USB ports, and I have at least three devices I want to plug into it… so I bought a hub just for the Powerbook: a hub that happens to be smaller than 2 by 2 by 0.5 inches, Targus ACH63US Super Mini Hub. I mean, this thing is damned tiny… its so small, that you could throw it into your spaghetti nest behind your computer and not even know you have a hub. It may be a tad expensive, but I didn’t want yet another box hiding on my desk somewhere… instead, I have it tucked behind my printer (which already has too much stuff behind it). The hub also comes with a two headed cable like the Icydock did, but the heads are far enough apart that they can reach both USB plugs on my Powerbook (one is on one side, one is on the other, instead of both being on the same side… Powerbooks don’t have rear ports).

Oh ho ho! The hub arrived half dead (which soon became totally dead), and Targus is giving me shit over having the hub replaced under warranty.

Solid state society: The future of common data storage

Friday, June 29th, 2007

Fifty-one years ago, IBM did something amazing, something that changed the world and kick-started the computing revolution twenty years before Intel and Apple and Microsoft and everyone else declared they were open for business: IBM invented the hard drive.

A monster of a machine, a behemoth, one ton of spinning metal the size of a fridge held exactly five megabytes via 50 two foot platters and a bunch of controller hardware and buffer memory. This hard drive was the first of it’s kind, and helped spawn an entire industry of data storage; not only was it faster and easier to use and maintain compared to tape media, it was also expensive and only a few companies could afford this.

The technology over the next few years shrank and increased in performance, and stories of “wash machines” dancing across the data center were well known. More and more companies started buying them to replace or supplement their tape drives, and eventually tape died out in the commercial sector.

Eventually, the three or four home computing revolutions come and go, and the two portable device revolutions come and go. Wash machines become small external units, those external drives become internal (5.25″ full height), and then they become smaller (3.5″) and smaller (2.5″) and smaller (1.8″) yet. Megabytes become gigabytes become tens and hundreds of gigabytes and finally, as of a few months ago, terabytes.

All of this technology ultimately works the same way: spinning platters with magnetic heads reading what an IBM engineer once named “magnetic milkshake.” The one single major flaw in this design is that anything that moves will eventually break down. Spinning drives slower won’t decrease the wear and tear, and neither will cooling them; and new bearing designs? They decrease noise and some wear and tear, but do not prevent mechanical failure.

We’ve invented new technologies, such as redundant arrays of inexpensive disks (RAID) to both increase performance and decrease the chances of mechanical failure eating your data. A suitably sized RAID 6 array can have two drive failures before you risk data loss. An array of, say, six to ten drives for such an array is also huge and outside the realm of most people; and I haven’t seen Apple issue iPods with RAID arrays yet.

In addition to all of this, the magnetic heads have to move across the platter to read and write specific areas, which increase the time it takes to read random data (sequentially read data suffers from this less). If mechanical failure was the major issue of this design, seek times is the secondary issue.

Flash, a member of the Justice Lea–oh, wait…

Now, in 1984, a Dr. Fujio Masuoka invented flash memory: a non-volatile memory that can be used as data storage in the same way you’d use tape or hard drives, and flash has no moving parts nor does it use large amounts of power like hard drives do because of spinning platters. You see flash everywhere now, in your cell phones, in your digital cameras, in your hand held game systems, and also in your Wiis. We call drives built out of this technology: solid state drives.

Laptops are now the key target: laptops never have enough power, and battery technology is not keeping pace with our advancements with other technology, and until Santa Rosa more than 3 hour battery life under normal conditions on most laptops was impossible… now it’s simply medium difficulty. Flash technology now has gotten very interesting due to the fact everyone from laptop manufacturers to silent computing aficionados to even the enterprise sector wants flash tech to replace their spinning milkshakes.

I want to mention STEC and their ZeusIOPS series of flash drives. Built around high end flash that is both incredibly fast and reliable, and can write a sector before it fails some astronomically high number of times (from what I see, a magnitude of order more than most hard drives). These drives are fast enough to realistically saturate a SATA/300 connection, although they only come in Fibre Channel. For those wondering, the 256 gigabyte model of this drive is around $10k.

The reason I mention them is because this, as of this writing, is the elite of solid state drives*, however, 99.9% of the people out there simply cannot afford such a drive, nor do they make SATA versions or 2.5″ versions. There is their Zeus series which does have SATA and 2.5″, but like ZeusIOPS, its very expensive.

Three other companies to look out for are A-Data, Mtron, and Samsung. You’ve probably already heard of A-Data and Samsung, they’re both well known suppliers of consumer flash cards and USB flash keys. Samsung soon is coming out with 16 and 32 gigabyte CompactFlash card and already have their own series of solid state drives in 2.5″ form factor. The largest available 2.5″ drive of theirs is the 32 gigabyte model, which is big enough to install OSX or Vista on and most of your usual apps. Samsung has stated they are working on 128 gigabyte versions of their 1.8″ and 2.5″ series as well..

A-Data is the world’s second largest manufacturer of flash products, and to keep from falling behind they announced they are now manufacturing their own SSD family of drives, including a 128 gigabyte 2.5″ model.

Mtron is a newcomer to the SSD market, however they are working on technology to reduce the cost of SSD drives, and also have 2.5″ 64 gigabyte drives that can write up to 80 megabytes/sec sustained, which makes them useful for high bitrate video recording and playback; comparatively, even most new laptop hard drives cannot write that fast. They are soon coming out with 128 gigabyte models as well.

I think these three companies are going to, within the next 5 years, power the solid state drive revolution and bring us drives meeting or exceeding current hard drive sizes and match price as well. I think within ten years, traditional hard drives will no longer be sold, the same way LCD replaced CRT.

As a side note, companies like Sandisk, PNY, and Transcend also have SSDs either in the works or ones already available, however from what I’ve seen they’re all 8 or 16 gigabyte models with 32 and 64 gigabyte ones around the corner. They’re behind Samsung and A-Data, and don’t seem to be making any move to catch up.

Hardware From The Future: Monitors

Wednesday, June 21st, 2006

Every once in awhile I sit down and think about where hardware design is headed, and what I might own in ten or fifteen years. Sometimes, I do it while doing other things, other times weird but plausable ideas just come to me.

So, I’ve decided to do a regular running column of sorts that allows me to express these ideas of mine in a mock press release sort of way. Today’s subject, if you haven’t guessed, is future monitor technology.

Samsung Introduces First Ultra Wide Gamut Monitor

Seoul, Korea – October 20, 2011 — Samsung Electronics unveils the world’s first ultra wide gamut monitor (model: SMT-1000), allowing desktop publishers and artists alike to view their works in a new light. Samsung proves its technological prowess again with this revolutionary product.

The PhotoLIGHT SMT-1000 is a 24″ 1920×1200 monitor that allows the user to more closely mimmic the output quality of print media, allowing one to “soft proof” their work in a more realistic manner, improving the workflow of any artist or desktop publisher. The SMT-1000 uses a new OLED manufacturing process that produces twice as many color producing dots per inch, allowing more precise color control per pixel. The monitor will be using a two channel DisplayPort connection.

This new technology allows the SMT-1000 to produce vibrant colors in the AdobeRGB colorspace, with a 16-bit per color channel precision. Compared to the less realistic sRGB colorspace profile that virtually all monitors currently used, the AdobeRGB colorspace allows the user to view blues and greens closer to what is available in the world around us.

The SMT-1000 will be available November worldwide.

And theres probably hundreds of artists and desktop publishers that would kill for a monitor like. Hell, at this point in time, thats better quality then most low- and mid-range print mediums. Imagine being able to soft proof a work in Photoshop, and getting exactly what you see on the screen, instead of a rough sRGB approximation. I could easily see such a monitor going for $5,000 or more.

And this concludes the first Hardware From The Future (future, future, future)!