http://www.seagate.com/www/en-us/products/external/pushbutton_backup/
First of all, why would anyone want to take this thing apart? I personally love the design. It looks great, it's quiet, reliable, stackable, and portable. Sure, it needs an external power source, and it's becoming a bit large for today's external hard drive standards, but other than that, this thing is pretty well designed, IMO.
But for whatever reason, you want to open the enclosure up. After many exhaustive hours of research, I was surprised to find that there was absolutely no information on the web about taking this thing apart. I had imagined it to be a pretty prolific piece of hardware, but maybe I was wrong. Several people in forums told me it was impossible to take apart without breaking the enclosure, but that is simply not true. In fact, the internal design seems to even facilitate disassembly to a certain degree. Whether this was intended or not, I don't know. In any case, let's get started:
You will need:
Some sort of flat, sturdy tool like a flathead screwdriver
1 Phillips head screwdriver
1 2.4 m/m flathead screw driver OR 1 2.5 m/m Hex screwdriver OR 1 Torx screw bit
1 2.0 m/m flathead screwdriver OR 1 small Torx bit
Obviously, make sure you only work on the hard drive and enclosure while it's unplugged. Also, as is true with all computer electronics, you should try to maintain a non-static environment while working. Use proper safety precaution and go slow. If you get stuck, use the photos as references.
Finally, this WILL void your warranty.
(I apologize ahead of time for the dark photos)
Note: You might also read through the comments for additional help - there are a lot of good tips and insights which can further aid your disassembly.
Remove these ads by
Signing UpStep 1Removing The Outer Enclosure
| « Previous Step | Download PDFView All Steps | Next Step » |













































The drive-side of the metal box shield has some tabs that make contact with circuit board screws on the drive - a different drive may have board screws in different locations and you do not want the tabs contacting any circuitry. The tabs are easily straightened inwards to avoid unwanted contact.
The four screws holding the inner case together were Torx size 10 on my case.
http://www.gearhack.com/Forums/DisplayComments.php?file=Tool/Screwdriver_for_5-Point_Star_Screw.html
Each drive will probably be similar, though revision changes do happen. Dissassembly is half the fun!
If it's already broken, the fear of breaking it is gone, so hack away! :-)
(blatent editing copy of http://www.dewassoc.com/kbase/hard_drives/hard_drive_size_barriers.htm)
In order to avoid previous disk barriers and limitations, other than those imposed by the operating systems themselves, today's hard drives no longer rely upon discrete geometry (specific cylinder, head and sector numbers) and instead use logical block addressing and a sector number. Unfortunately, even when we move away from bit addressing in favor of head and sector numbers, we still reach the limit of our ability to address all of the bits when taken together. Let's take a look at the ATA interface. There are 28 bits used for the sector number interface with the operating system, BIOS and the hard disk. This means a hard disk can have a maximum of 228 or 268,435,456 sectors of 512 bytes, placing the ATA interface maximum at 128 GiB or approximately 137.4 GB.
...
A few years ago a number of different proposals to expand ATA addressing from 28 bits to either 48 or 64 bits were made, and over those few years the committee examined each very closely. Either of these technology changes would permit huge drive sizes. The first to surface, however, was 48 bit addressing and delivered in the form of a hard drive at 160 GB by Maxtor. Using 48-bits like Maxtor takes drive sizes 100,000 times higher than current limits
...
While it is true that the ATA/ATAPI-6 standard defines a method to provide a total capacity for a device of 144 petabytes, the next limit will be imposed not by the ATA devices but by many of the popular operating systems in use today. This limit will be at 2.2 terabytes (2,200 gigabytes). This barrier exists because many of today's operating systems are based on 32-bit addressing. These operating systems include many flavors of Linux, Mac OS 9.x, and Windows 95, 98, ME, NT 4, 2000, and XP (Windows XP/64-bit also has the limit because of leveraged 32-bit code).