If you want to get the most out of dedicated digital audio players, smartphones, cameras, drones, tablets or game systems, you'll need to pair it with the right memory card. No problem: head down to Best Buy or log into Amazon and you ca--shit there's a ton of the frigging things. You can buy the first, least expensive one that you see. That'll work for some things... but not all of the things. Some devices can benefit from speedier, more expensive memory cards. Knowing which card to jam into which thing can be daunting. Thankfully, Gizmodo's David Neild has put together a quick, easy-to-understand guide to figuring it all out.

From Gizmodo:

To start with you’ve got a choice of sizes: The standard SD ones (mostly for digital cameras and bigger gear) and the smaller microSD ones (originally developed for, and still used in, smartphones). Extra letters after the SD mean a newer, improved standard, with room for greater capacities and faster speeds—these include HC (High Capacity) and the latest XC (Extended Capacity), and both are used across the SD and microSD form factors today.

Yeah, it's pretty dry stuff. But it's well presented and deeply useful.

So, before you buy a new memory card to go along with your new digital whatever this Monday, you'd do well to stop by Gizmodo first.

Image by CompactFlash.jpg: André Karwath aka AkaSecure_Digital_Kingston_512MB.png: Andrew pmkMS-PRO-DUO.JPG: KB AlphaXD_card_typeH_512M_Olympus.png: og-emmetMicroSD_card.jpg: KowejaMemory_Stick_Micro.JPG: The original uploader was J Di at English Wikipedia..Later version(s) were uploaded by Toehead2001 at en.wikipedia.derivative work: Moxfyre (talk) - CompactFlash.jpgSecure_Digital_Kingston_512MB.pngMS-PRO-DUO.JPGXD_card_typeH_512M_Olympus.pngMicroSD_card.jpgMemory_Stick_Micro.JPG, CC BY-SA 3.0, Link Read the rest

At $62.80 this is the best price I've seen for a SanDisk 256GB microSD card. Read the rest

Using DNA to store digital data has been a classic forecast in infotech futurism for more than two decades. The basic concept is that you could synthesize strands of DNA encoded with digital information and then decode it with DNA sequencing techniques. While several amazing experiments have demonstrated that DNA data storage is possible, it's mostly been thought of as too expensive and impractical. But as researchers continue to make technical strides in the technology, and the price of synthesizing and sequencing DNA has dropped exponentially, systems for backing up to the double helix may actually be closer than you think. From IEEE Spectrum:

Even as our data storage needs surge, traditional mass-storage technologies are starting to approach their limits. With hard-disk drives, we’re encountering a limit of 1 terabyte—1,000 GB—per square inch. Past that point, temperature fluctuations can induce the magnetically charged material of the disk to flip, corrupting the data it holds. We could try to use a more heat-resistant material, but we would have to drastically alter the technology we use to read and write on hard-disk drives, which would require huge new investments. The storage industry needs to look elsewhere....

It still may not match other data storage options for cost, but DNA has advantages that other options can’t match. Not only is it easily replicated, it also has an ultrahigh storage density—as much as 100 trillion (1012) GB per gram. While the data representing a human genome, base pair by base pair, can be stored digitally on a CD with room to spare, a cell nucleus stores that same amount of data in a space about 1/24,000 as large.

BookBot is a nifty book retrieval system at North Carolina State University's James B. Hunt Jr. Library. Here's a panoramic book's-eye view of the retrieval process. Read the rest

Static shelves with bins holding small parts take up a lot of space. It's interesting to see this case study of how a traditional warehouse was able to use wasted air space to reduce storage area by 94%. Read the rest

Lego makes storage containers that click together like standard bricks (Amazon), coming in a range of sizes and all the classic lego colors, from single-nodule pencil cups to four- and eight-nodule boxes.

They suggest using it to store normal lego bricks, which makes me want a range of miscroscopic legos that may be stored inside the normal ones, with these tiny ones concealing a further inner layer of quantum-scale legos.

Plastic polypropylene, pvc free Gather all your regular lego bricks in this large size storage brick and make it a more playful way of tidying up This large size LEGO storage brick also work as stackable blocks with the rest of the storage bricks Storage bricks come in classic lego colors Large size lego storage bin Storage bricks come in classic lego® colors

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Synology's DS718+ NAS DiskStation (Amazon) is $400 data storage box. For me, it replaces very two annoying things: a monthly subscription to Dropbox, and a drawerful of USB drives used to back up a houseful of computers.

But file syncing and backups are just two things a modern NAS can do.

In fact, the first thing you'll notice after setting it up is that it's really a fully-featured computer that happens to be set up with storage in mind. The web-based control panel replicates a desktop user environment, complete with windows, folders, icons and drop-down menus.

There are pros and cons to this. One one hand, you'll not only get rid of cloud subscriptions, recover your data privacy and have less gear lying around, but find yourself with a hundred other interesting applications to fool around with. Want a basic web-development box? There's one-click setups for Apache, nginx, common databases and popular platforms such as WordPress, Discourse and Node. Want to use it as a 4K media streaming box? Easy. Want a fancy-pants router? It has dual gigabit ethernet and can be set up as to provide DHCP or VPN.

On the other hand, it's more complicated than the things it replaces. I just wanted to get out of the cloud and get rid of all these damned backup drives, but now I'm a sysadmin. (There are less fancy options such as WD's My Cloud devices, but they're almost as expensive (Amazon) when the cost of drives is factored in)

And I'll admit that I enjoyed experimenting with Synology's add-ons. Read the rest

The first terabyte SD card will soon be sold by Sandisk. They were apparently first to 512GB too (don't, PNY's is cheaper), but no-one cared because that's not as arbitrarily interesting a number. No release date, no price. It'll be about $700.

Hitachi sold the world's first one terabyte hard disk drive in 2007, according to Wikipedia, one sixth of which would fit in a terabyte, assuming you're just counting the plain text of articles.

I wish there was an SD card format in the exact shape of tiny 3½-inch floppy disks, complete with a sliding metal hatch over the connectors and a free bootsector virus Read the rest

$20 is the lowest price I've seen for a 128GB flash drive. The PNY Attaché has 4.4 out of 5 stars on Amazon with over 3,000 reviews.

Here's the obligatory image of a 5MB hard drive being loaded on a plane in 1956:

You need 25,600 of these hard drives to get 128 of storage.

Read the rest

A nice idea from Australian startup Memobottle. The price is good stiff too though: just $5 $25. Read the rest

Researchers have successfully stored information in synthetic DNA and then sequenced the DNA to read the data. Nick Goldman and his colleagues from the European Bioinformatics Institute (EBI) encoded all of Shakespeare's sonnets, an audio clip of Martin Luther King's "I have a dream" speech, Watson and Crick's paper on DNA's structure, a photo of the EBI, and an explanation of their data conversion technique. Last year, Harvard molecular geneticist George Church encoded a book he had written in DNA, but EBI's breakthroughs are in the way the data is encoded and its error-correction. From the abstract of their scientific paper published at Nature:

We encoded computer files totalling 739 kilobytes of hard-disk storage and with an estimated Shannon information10 of 5.2 × 106 bits into a DNA code, synthesized this DNA, sequenced it and reconstructed the original files with 100% accuracy. Theoretical analysis indicates that our DNA-based storage scheme could be scaled far beyond current global information volumes and offers a realistic technology for large-scale, long-term and infrequently accessed digital archiving. In fact, current trends in technological advances are reducing DNA synthesis costs at a pace that should make our scheme cost-effective for sub-50-year archiving within a decade.

"Synthetic double-helix faithfully stores Shakespeare's sonnets" (Thanks, Mike Pescovitz!) Read the rest

Yesterday, I posted about Pegomastax africanus, a parrot-like dinosaur whose fossil was discovered not in a remote waste in some far corner of the world, but in a rock that had sat in storage at Harvard University for 50 years.

In the post, I tried to explain why something like that could happen. The simple fact of the matter: A successful archaeological or paleontological dig will produce far more material than the original scientists have time (or money) to sort through, process, and examine. So lots of stuff ends up sitting in storage.

That led BoingBoing reader Matt Fedorko to some interesting speculation:

"...This seems like a perfect opportunity to exploit 3D scanning technology to put the shapes of fossils, at least, into some kind of digital storage area where other researchers could look at a dig's haul and start to work with them spatially, or beside any of the other data that is collected in the field or logged during the cataloging procedure."

Now, Charles Q. Choi, a journalist who wrote about the discovery of Pegomastax africanus, says that Matt's idea isn't all that far-fetched. In fact, scientists already do something like this with the fossils that do get closely examined. Read the rest