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TL;DR: Make a post asking us what's hot this month. The playing field is remarkably level these days. Be wary of Samsung devices; oh how ye mighty fall. Hell World 2023: Say goodbye to the tech bubble and hello to Double Punctuation posted:Mix them into water, then remove them from the water. The water will remember their state forever. Siochain posted:Serious Hardware / Software Crap › More poo poo that pisses you off: My boss drank our backups Second Post: Buying performance, endurance, capacity, and lifespan. Unusual Use Cases. Recommendations. No-Fly List Third Post: SSD Tech Primer (What is NVMe? What Potato Salad fucked around with this message at 01:27 on Feb 7, 2023 |
# ¿ Sep 1, 2016 03:52 |
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# ¿ Apr 28, 2024 06:57 |
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SSD Qualities: Performance, Endurance, Capacity, Lifespan How to choose what you actually need Performance: With the removal of physical seek times as a factor in drive speed, SSDs are already a quantum leap (hurr hurr) ahead of your old HDDs. Any SATA SSD you buy off the Cleared for Takeoff list and plug into an AHCI-enabled motherboard port is going to feel like magic compared to an old HDD. Any drive we recommend to you in the Cleared for Takeoff list is going to be the among fastest available for that tier of capacity and warrantied endurance. We’ve pruned the poo poo-tier crap out so you don’t have to. SATA SSDs feel great and are priced competitively now. NVMe drives are an order of magnitude faster and considerably more expensive. 3D Xpoint is going to be stupidly expensive but hilariously fast. Post in this thread about what you want to do with your computer and someone is going to be able to reply, “I play Rainbow Ponies Skyrim 4K HD too, my Samsung 850 EVO loads levels in about six seconds.” Ask us questions; we have specific answers. Endurance: Your average home / game user writes maybe 10GB to the hard disk each day. 20GB is rather generous. The following tables speak for themselves. Samsung 850 EVO Samsung 850 PRO Unless you’re doing constant, massive video edits, caching a well-used RAID array or a hypervisor, or are a storage administrator with hard data on a concrete use case that calls for writing more than 10% of an SSD’s capacity per day, don’t be too concerned with the durability of the SSDs in the Cleared for Takeoff list, especially those marked as particularly reliable like the Sandisk X400 or phenomenally reliable like the Samsung EVO line. Ask us if you think you might have an especially-heavy workload. Capacity: Grab a drive as big as you need it to be for your expected lifespan of the drive. Do some napkin math - figure out where on the sliding scale between lightweight netbook user “I watch Netflix with my partner, check email, pay bills, and occasionally run TurboTax, I maybe keep only 10 or 20GB of applications, maybe” versus basement-dwelling poopsocker “I am a Steam game hoarder and have to have 100 steam games on the SSD that I never play but I must have them, each is on average 20GB.” Be conservative, but don’t go crazy. If you calculate that you need 600GB of space, 1TB gives plenty of headroom. You don’t need to shell out for a 2TB drive. Consider replacing the socks that have holes in them that you haven’t thrown out instead. Or feeding your Lifespan: Lifespan? That’s … not a property of an SSD? Do you mean endurance? No, lifespan. Lifespan is the common sense length of time that you reasonably expect that you’re going to want to use your SSD. We occasionally see people say they want to buy a drive that will last for the next fifteen years and thus needs to be the largest on the market. Actually operating a modern drive fifteen years from now will be like trying to find a motherboard with an IDE ATA ribbon cable. (The following was written in August 2016) Within 5 years, you’re going to want to be on NVMe. Using SATA 5 years from now will make you feel old and slow. At that time, this thread is probably going to be all about how you should buy <insert popular 3D Xpoint drive here>. Within 10 years, any SATA device you have is going to be a pain in the rear end to manage. Microsoft and hardware manufacturers will probably be eyeballing dropping support. Within 15 years, we have absolutely no loving clue what storage will be. The only certainty is that having an ancient SATA drive to care for will feel like what an early IDE drive feels like today. Whatever ancient computer your 15-year-old SSD is running on isn’t likely to be up to date on the USB interface you want to use, isn’t going to plug into your fiber-to-the-premises modem and switch, won’t be compatible with your two-or-three generation newer wifi access point, probably won’t work with the then-current generation of monitors….it’ll be a shitshow. Be reasonable with your lifespan. Go into this with a down-to-earth introspection of what you really want to be putting up with a decade from now. A 2TB high-endurance very-expensive SATA SSD you buy today will pale in capacity compared to the cheap NVMe, Optane, or whatever other newer storage comes out a decade from now. 1TB drives didn’t even exist until 2007 and then were ridiculously expensive at the time. 1TB compact form-factor 2.5” drives are commonplace in midrange laptops now. Think. Unusual / Special Use Cases: NVMe Early Adopter: If you want to buy into NVMe despite the current (August 2016) premium, go for it. On boot, the operating system will go from dark to “done.” Loading screens will be open for the bare minimum time possible. NVMe storage will not, on any hardware you can reasonably own as a private citizen, be a bottleneck for the foreseeable technological horizon. This option in the Samsung 950 PRO is presently 140%+ the cost of correlating-capacity 850 PRO options and 200% more expensive than correlating 850 EVO options. Expect this space to drop in price in coming months as worthy competitors (the Toshiba brand name doesn’t count yet) force Samsung’s prices down. NVMe drives aren’t special because they use new fancy storage cells--in fact, the 850 PRO SATA drive and 950 PRO NVMe drive share the same microscopic storage architecture--but rather because they use a simplified, lightweight storage protocol to talk to your computer. Elite business devices like the Surface Pro 4 are using M.2 NVMe drives, and it is going to start hitting ultrabooks. Please read the section in the above post on NVMe as there are specific requirements and pitfalls to watch for. Caching: Some people use Intel RST, Windows Storage Spaces, or RAID controllers to set up automatic caching and storage tiers. SLC/MLC devices in the Datacenter range are usually required. Post about your use case and how much data you are caching on what time scale and we can walk you through an endurance-lifespan-cost analysis. Caching situations are usually handled by appropriately-sized Samsung 850 PRO drives, but if you wonder whether you actually sit in this kind of situation or if you aren’t really sure what kind of daily writes you expect to see, just ask and we can help you estimate a reasonable range of values. If your caching is for a business system, consider the next bit. SOHO Lab / ROBO / Enterprise: There are reasons you might be looking for storage devices through your Value Added Reseller beyond simply a cost-benefit analysis of raw stats. More, you may be using RAID or some other setup that introduces complex interactions between various systems that may introduce factors like unusual levels of write amplification. Ask us. There’s a good number of SMB / large business / enterprise Goons in this and other threads, and we can always tell you where to crosspost questions in more focused subject matter threads. Recommendations A note on compatibility: It is important to know which protocols are compatible with which interfaces of your computer; it is not infrequent for someone to mistakenly assume that their M.2 form factor SSD is inherently going to talk to the computer with the NVMe protocol or, in reverse, that their M.2 motherboard slot will use faster NVMe protocol when it in fact only can use the slower SATA protocol. A note on risk: I approach reliability and write endurance on the basis of risk. Regularly overtaxing a cheap drive doesn’t guarantee its demise, but it does increase the likelihood that it will die before you intended to replace it. Skimping on a drive’s reliability (biggest factor: write endurance) is a gamble that may or may not be worth it depending on how much risk you are willing to accept and what kind of time, effort, and money you have to spend to get it fixed. This list is modified upon discussion in the thread -- post if you think there’s a new product that belongs or needs to be removed and have the data (thorough reviews and benchmarks) to back it up. We try to look not just at raw stats, but overall value and our real-world experience. Consumer NVMe Top Picks: n/a. The field of offerings is too even to make a single top brand or device recommendation. Make a post to ask us what's hot! Recommended: WD, Crucial, Micron, OCZ. Ask before buying Samsung devices as you will need to watch the news for bugs and be ready to patch the SSD's firmware. Budget: Kingston, ADATA, SK Hyinx. Budget isn't bad! These can be really good drives, especially in a sale. Datacenter NVMe Recommended: Intel DC Series, any Dell u.2 flash. Ask before buying Samsung PRO devices as you will need to watch the news for bugs and be ready to patch the SSD's firmware. Note: We only recommend SATA for older systems that lack NVMe or as a slightly cheaper, less-powerful archival/backup drive. NVMe is the modern standard for your main OS drive. Consumer SATA Top Picks: Crucial MX500, Samsung 850 EVO, WD Blue (its a rebranded SanDisk x400) Datacenter SATA Recommended: SanDisk Extreme Pro, Samsung PRO level devices, datacenter line of products by Intel and Dell. If you're a business, you should talk to your VAR. No, really, do it. Recommended: If you ignore value, Intel 900 Datacenter 3D Xpoint Recommended: INTEL 905, though honestly you should be talking to your VAR 3D Xpoint is dead--PMEM wasn't so P after all! The No-Fly List: poo poo Tier: n/a Shady Scammers: Plextor, Kingston Danger Zone: Any refurbished SSD (stay away by default, there can be exceptions - ask for a sanity check) These manufacturers don’t have any products that are recommended, and they sometimes do shady poo poo like swap out already-cheap parts for even-cheaper parts when one of their product lines becomes popular or give you the middle finger when your in-warranty drive breaks. Again, this list is modified upon discussion in this thread. Potato Salad fucked around with this message at 01:23 on Feb 7, 2023 |
# ¿ Sep 1, 2016 03:52 |
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SSD Tech Primer - Consumer Currently, consumer solid state drives are available in two major protocols (SATA, NVMe) and three major connector form factors (7-pin SATA, M.2, PCIe). SATA Protocol: This is far and away the most common storage protocol in use today. Protocols had to be designed for old spinning hard drives that could be thousands or millions of times slower than the other parts of your computer. “Seek time” was the time needed to physically spin platters and move physical read heads over the platters. The the old IDE and newer SATA protocols asynchronously and gracefully account for the fact that it may be (relatively) ages before a piece of data is retrieved. IDE was the first and slowest, limited by the capacity to queue up and wait for only one storage operation at a time. As hard drives increased in density and speed and their microcontrollers became more powerful, AHCI SATA was developed with quicker response times in mind and some cool new features like hot plugging and the ability to queue multiple data commands at the same time, letting the drive potentially optimize their retrieval. This Native Command Queueing feature of AHCI is the “queue depth” common benchmarks often test. It is important that a motherboard support AHCI mode if you want to get anything close to full performance from a SATA SSD -- the ability to take advantage of a “queue depth” improves overall throughput enormously as the SSD’s controller can read from many places at virtually the same time. SATA protocol devices most commonly use the 7-pin L-shaped SATA data connector, but it is becoming more common to see M.2 slots that use SATA as well. If you are using an M.2 slot, make sure you know what protocols both the motherboard and the storage drive each support. NVMe Protocol: SSDs don’t need all the extra time SATA affords them to fulfill requests, making SATA an unnecessarily forgiving and bloated protocol for them. Recognizing this, some drive manufacturers in the mid-2000s took proprietary RAID array controllers and directly connected them to the first generation of NAND SSDs and their controllers. These PCIe cards essentially masqueraded as full-blown raid arrays -- in a sense, they were -- when in fact their storage was backed by SSD controllers and banks of NAND memory. The RevoDrive was one of these -- OCZ put a bunch of NAND cells for high-end flash drives behind a pair of SandForce controllers, permitting them to blast data to the computer through the PCI bus if you had the right motherboard features to support it. The drive industry has since standardized how to use the PCI bus for talking to SSDs, stripping out the bulk and overhead of SATA and giving birth to the NVMe protocol, a blazing-fast protocol that can take a computer to “push power button, see login screen” levels of performance. NVMe aren’t special because they use a new flavor of storage chip physics -- they use NAND like everyone else -- but the quicker protocol and controller let them take advantage of greater parallelism. NVMe drives can use an M.2 form factor slot and a PCIe (graphics card) slot. Just because an SSD is an M.2 form factor doesn’t automatically make it NVMe; SATA M.2 slots have actually been around for a while. For example, the 850 EVO M.2 drive is a SATA stick where the 950 PRO M.2 drive is an NVMe stick. Some M.2 slots support only SATA, some only NVMe, some both. Make sure you know what you’re buying, and be aware that some motherboard manufacturers replace NVMe with goofy names like “PCI Exxxtreme” or whatever other nonsense names marketing comes up with. Ask us if you aren’t sure what an M.2 slot on a specific motherboard supports. If you’re getting a PCIe SSD, make sure you have a wide enough slot and enough lanes available. SSD Tech - Datacenter / Enterprise Enterprise SSDs are designed with either exceptional endurance or capacity in mind. Ultra-high capacity drives in the 15TB, 30TB, and even 60TB range are technically commercially available though priced in the range of high-end SUVs. Ultra-high endurance drives that can be completely filled and emptied once or even several times per day without wearing out for years or even decades are available for extreme database loads or high-performance computing. In addition to the consumer protocols and connectors, it is possible to order enterprise SSDs supporting SAS protocol for multipath I/O and the SCSI command set. You can get the esoteric U.2 connector if needed. There are some use cases where the more sanely-priced enterprise drives may be needed for your home lab or prosumer use case. For example, flash caches for big spinning magnetic drive RAID arrays may be filled and emptied on a daily basis and require a SSD with higher endurance or sustained speed than what you’d usually put in a gaming rig or business laptop. Ask us if you are doing something like caching a RAID array or hypervisor, editing monster video files, or anything else that writes a total file volume of 1/5th of the drive’s capacity or more regularly and we can help get a ballpark figure on what kind of endurance and warranty to aim for. SSD Tech - Upcoming Intel and Micron’s literal supervillain mountain lair fabriciation facility in Utah . They are seriously, not-making GBS threads-you intending to take over the world and usher in a new era of computer memory architecture. Intel 3D Xpoint: Intel has developed and is bringing to market a class of solid state memory that is 1,000 times faster and more durable than NAND memory, bringing it about an order of magnitude away from RAM speeds. It is also much denser than DRAM as it doesn’t need one transistor and capacitor for every cell. Intel has been quiet about the actual physics and materials science behind how the following operations work, but essentially 3D Xpoint is a repeating sandwich stack of a plane of side-by-side wires oriented north-south, a memory cell, a write-enable cell, and a plane of wires oriented east-west. Applying a potential to the top grid of wires activates the write-enable cells, in turn making the memory cells receptive to writes by the bottom plane of wires. The bottom and top wire planes act as the top and bottom wire planes of the adjacent layers, repeating as necessary in both directions. In the above picture are two sandwiches of wires, write-enable, memory, and more wires. Note that the sandwiches share a border in the middle. In this way, addressing can be thought of as a three-dimensional coordinate: choose a sandwich level, choose a north-south wire, and choose an east-west wire. The memory cell you want is at the intersection of the wires. I need to stress that, at this length scale, we’re in a fuzzy zone between classic electronics and QED. This is a regime that is actually less understood than straight nanoelectronics or quantum mechanics separately. If 3D Xpoint is using resistive memory modes, you’re actually considering a world where you have classical electrical phenomena and strictly non-classical mechanical properties. Tl;dr unlike TLC NAND memory where a complex rebiasing routine needs to be employed, operation of a 3D Xpoint device would actually be relatively straightforward. Intel intends for 3D Xpoint cells to be incorporated into computers in several ways. The long term goal is to replace RAM and storage with a big bank of 3D Xpoint DDR4 sticks. Yes, they are doing a proprietary extension of DDR4; you may see netbooks come out with nothing but a small bank of 3D Xpoint in place of DRAM and flash memory. Perhaps high-end computers might see CPUs with enlarged SRAM caches to account for slower-than-DRAM-but-still-drat-fast Xpoint main memory and storage. Who knows? For computers that will continue to use the classic model of DRAM memory and separate storage, Intel is contracting with Micron to produce Optane, the strictly-storage product line using 3D Xpoint. All that is known about Optane pricing is that it will be “more expensive than NAND, less expensive than DRAM.” Seeing as 1TB of NAND can cost $230-300 and 1TB of good DRAM can run you over $5,000, it’s a shitshow to try to predict what Intel intends to do with this market space for early adopters. More info to follow as it comes out. Common Tasks, Tools, and Configurations Migration to a new drive: Use Macrium Reflect, Acronis, Clonezilla, or whatever other tool you want to clone the drive. Macrium Reflect is really easy to use and has good guides online on how to duplicate your drive. EasyBCD or GParted can help you edit your boot order and/or MBR / GPT scheme if needed. Encrypting your SSD: Many drives come with AES-256, OPAL, or IEEE 1667 hardware-accelerated encryption. For some drives, encrypting data at a low level actually doesn’t cost anything in terms of performance as the drive already throws blocks of data around in a scattered but organized manner. If you are using Windows and your computer supports TPM (Google it, the manufacturer of your laptop or motherboard will say whether it does), all you need to do is turn on Bitlocker to enjoy easy-to-use but strong encryption. OS Optimization: Already done. Windows 7 and later OSes will automatically disable tools and optimizations implemented in the past to make spinning platter hard drives feel faster. Remember how Vista introduced sophisticated caching upon boot? It is not needed anymore, so Microsoft automatically turns that off if it detects that it is using an SSD. Overprovisioning: SSDs need to hold some of its capacity in reserve as a replacement for dead memory cells and wear leveling. If your drive has built-in overprovisioning, don’t worry about this. If it does not, make sure you leave 10% of your drive empty at a bare minimum. Secure Erase: Use the Samsung Secure Erase tool, another SSD-friendly secure eraser, or a hammer to destroy your data. Benchmarking: Don’t stress your own benchmarks too much. It’s hard to create a benchmark that is representative of real life use. Focus instead on, well, real life: What’s your boot time? Does that game load faster? Is Premiere still creaking when loading clips? If you do want to get into the artificial benchmark game, you can use Samsung Magician, Iometer, and Crystal Disk Mark. Pitfalls The manufacturer’s fancy tool isn’t necessarily useful - or healthy. For example, don't actually use any of Samsung Magician's OS Optimizations. It does silly stuff to your power and performance plans that don’t make a lot of sense, especially on Windows 10. Windows handles everything for you when it detects that is is running on an SSD. A lot of SATA cables are lovely. Is your SATA cable any good? Test the port, test the cable, test the drive in another computer if you can. Monoprice makes good SATA cables if you think you may need to buy a non-poo poo 7-pin SATA data cable. It has been mentioned before: make goddamn sure you have the right form factor for NVMe on your motherboard and solid state drive. Glossary Form Factor: The physical shape of a device. Common storage device form factors include 3.5” drives (usually desktop or high-capacity spinning hard drives), 2.5” drives of laptop HDDs and SATA SSDs, and m.2 slots with various keyings, or the location of the notch in the connector of a printed circuit board. PCIe "graphics card slot" or "add-in card" AIC form factor SSDs for NVMe are possibly becoming mainstream. M.2: A device form factor. M.2 devices look like large sticks of gum with black chips attached to it. There is usually a processor (often ARM), some DRAM, several NAND storage chips, and a handful of other small packages that work together to receive requests to read or write data, process the request, and perform wrap-up work. SMART: Your SSD’s Health Status. Tools like Crystal Disk Info read SMART data as presented by your drive’s firmware. We are still in the era of the Wild West regarding SSD SMART data formatting; it isn’t as standardized as HDD smart data was. If you have questions about your SMART health checks, google how your specific drive manufacturer handles SMART data or screenshot it and paste it here. Someone will know how to help you interpret it. TRIM: In the HDD era, operating systems did a lot of data manipulation and maintenance at rest. The architecture of SSDs eliminates much of the need for things like defragmentation, and nitpicky deletions and re-writes that were perfectly fine on magnetic drives wore the first generation of SSDs out fast. TRIM was designed as a way for your OS to tell your SSD that it doesn’t really care about a block of data anymore, letting the SSD decide how it ought to handle that orphaned data most efficiently. PCIe: The spiritual successor of the PCI family of standards. Though PCIe colloquially describes the “graphics card slot” in your computer, be aware that PCIe is actually itself a family of standards that describe the various overall shapes of slots and the arrangement and function -- the pinout -- of the electrical contacts within. PCIe slots can be the long sixteen-lane connectors of a graphics card, shorter eight- or four-lane connectors of RAID cards or extra USB controllers, the tiny single-lane connector of a laptop WiFi card, and the four-lane connector of a SATA or NVMe drive sitting in an m.2 form factor slot. IOPS: Input/output Operations Per Second. Computers don’t just save your data as a continuous stream of 1s and 0s to your storage device. Modern computers actually read and write data by requests sent to storage devices. You can think of storage blocks as packets of information, and the transmission of those packets involves a negotiated connection. “Would you please write this block of data?” your computer asks a storage device. “Sure, hold on a sec…..done” your storage device replies. Each request for a read or write of a block of data is an input/output operation, hence the acronym. Block: Bytes of data are logically clumped together by your operating system into parcels known as blocks. Blocks are logical units of storage data transmitted back and forth between the operating system and storage devices. When you save a text document, even if all you edited was a single character, the operating system asks your storage device to replace an entire block of data. What the storage device actually does at this point is up to its firmware and can involve a lot of arcane optimization. Potato Salad fucked around with this message at 13:01 on Sep 1, 2016 |
# ¿ Sep 1, 2016 03:53 |
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http://www.iometer.org/doc/matrix.html
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# ¿ Sep 1, 2016 06:59 |
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PerrineClostermann posted:IDE SATA? Didn't IDE drives use PATA? Also great OP. YEah, I was looking at it from the angle of "try to elaborate why IDE mode in BIOS bad, AHCI good" even though the drive is attached by a SATA cable. I've separated it out.
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# ¿ Sep 1, 2016 13:03 |
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To add on to the OCZ discussion, the ARC 100 doesn't beat the top picks for consumer sata ssd in any category - same price as an EVO 250gb and more expensive than the x400, slower than the EVO, doesn't support Bitlocker, and 20GB/day pales in comparision to 80GB/day endurance. OCZ has drives out there that start to get close to competitive if you tilt your head and squint, but when every major review site out there is comparing its products to okay drives like the MX100 and finding it comes up short, they don't belong on a value-based list. I think I would need some arm twisting to be okay with a drive that skirts so close to the reasonable cap of 20GB/day average user workload. The RD400, however, is probably going to put OCZ back on the list. Wait for it. Anime Schoolgirl posted:There needs to be a company "expect support from" list consisting of only the big three because companies like Kingston and Crucial won't usually honor warranties unless you make a hitpost on Newegg about it. Could easily do that in the spreadsheet. Good idea.
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# ¿ Sep 1, 2016 13:25 |
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I think you're suddenly the most interesting person in the room So, what's the boot time like on that thing? Got screenshots of those benchmarks you ran?
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# ¿ Sep 1, 2016 19:08 |
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I need to weigh a PCB roughly that size and one of the quarter-length 850 assembled 2.5" FF boards. I think the ssd may still win if caseless.
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# ¿ Sep 9, 2016 12:05 |
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apropos man posted:I was just playing along for a laugh. Yeah, I figure, but I'm now seriously wondering what the relative weight of a 10x uSD 2.5" card vs a de-cased EVO would be. I threw out an envelope scale not two weeks ago
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# ¿ Sep 9, 2016 13:02 |
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NihilCredo posted:Anandtech has just done a SSD roundup and they list the Mushkin Reactor as one of the better consumer options. Should it be added to the OP? Huh. Yeah, bug me again in a few days if I haven't done it. I'm traveling atm. Need to corroborate Anandtech's findings first, but they usually do a thorough job.
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# ¿ Sep 14, 2016 19:27 |
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Don Lapre posted:Officially official updated op news
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# ¿ Sep 20, 2016 15:49 |
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How do you change a thread title? Can't find the usual BB title bar anywhere.
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# ¿ Sep 20, 2016 15:54 |
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So, pending updates to the OP I'd like to field as a sanity check: Recommended List: -Move Intel 600p from pending to consumer nvme -Add 960 PRO as likely datacenter nvme candidate -Add 960 EVO as likely consumer sata candidate -Move OCZ RD400 from pending to consumer nvme (definitely not datacenter endurance at only 0.31 drive writes per day) -Add Mulshkin Reactor as mainstream consumer sata No-Fly List: -Remove OCZ Thoughts?
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# ¿ Sep 21, 2016 21:15 |
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stevewm posted:As promised... I wanted to throw in a thank-you for some hands-on Goon data / experience supplementing online reviews.
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# ¿ Sep 21, 2016 21:21 |
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Aaaaaaaand here I was mistakenly thinking Polaris supported sata.
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# ¿ Sep 21, 2016 22:21 |
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Potato Salad posted:So, pending updates to the OP I'd like to field as a sanity check:
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# ¿ Sep 21, 2016 22:22 |
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redeyes posted:Now we know why the Intel 750s have that gigantic heatsink You should see the monstrosities on the DC enterprise cards.
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# ¿ Sep 22, 2016 18:00 |
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What are y'all using to perform maintenance / imaging on m.2 NVMe drives? You'd have to have some kind of USB 3.1 device to actually use a four-lane NVMe device at full speed, but if all you're doing is maintenance / troubleshooting, 3.0 ought to be fine...
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# ¿ Sep 22, 2016 19:26 |
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More like "is there a physical adapter out there for usb 3.1 I'm not finding"
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# ¿ Sep 23, 2016 12:59 |
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Less "External enclosure for masses" and more "Deploy / maintain systems that are tricky to manage in SCCM or are misbehaving"
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# ¿ Sep 23, 2016 23:34 |
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That's current situation It'll come with time and greater market penetration.
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# ¿ Sep 24, 2016 00:09 |
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Even with small legacy bandwidth restriction, the SSD eliminates seek time and rotational latency. Each storage operation request is fulfilled faster. Yes.
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# ¿ Sep 25, 2016 01:15 |
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And yeah, so far there are only NVMe 960 EVO and PROs...unless I missed something. If you're on SATA, stick to the SATA consumer list (and buy an 850 evo).
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# ¿ Sep 25, 2016 01:21 |
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It's funny that Samsung Magician is so named. Smoke and mirrors.
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# ¿ Oct 3, 2016 00:11 |
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quote:MBR Out, demon!
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# ¿ Oct 3, 2016 00:57 |
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The Wild West days of SSDs are over, and with some caution you can buy bargain devices just fine.
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# ¿ Oct 3, 2016 13:55 |
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Do be mindful of the customer service track record of the brand you're buying.
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# ¿ Oct 3, 2016 13:56 |
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22xx is the length of the drive in mm: 2280 is eighty millimeters long.
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# ¿ Oct 5, 2016 11:37 |
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If it was in a Macbook Air, it may have killed itself. ...yeah ^^ what they said, and you should at least have an unknown device on the pcie bus.
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# ¿ Oct 6, 2016 21:02 |
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metallicaeg posted:Ordering a 512GB 950 tonight http://gpuboss.com/gpus/GeForce-GTX-970-vs-GeForce-GTX-1060 just a thought
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# ¿ Oct 6, 2016 21:10 |
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The freaking Polaris controller is probably going to be worth it I'm also sitting on a new build. I know the feeling.
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# ¿ Oct 7, 2016 09:46 |
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# ¿ Oct 12, 2016 12:14 |
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Jesus Christ there's a lot of new nvme drives to compare.
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# ¿ Oct 18, 2016 21:42 |
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I'm on my phone, so to be brief: Qd = queue depth QD1 : QD32 or more :: one at a time : many in parallel Think about it.
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# ¿ Oct 21, 2016 02:02 |
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Ding ding ding!
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# ¿ Oct 21, 2016 02:28 |
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Sata is fine as a holdover. Use it in the future as a steam games disk or a backup device when you get a new computer.
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# ¿ Oct 28, 2016 20:57 |
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chippy posted:My work PC has this Samsung SDD in it but Samsung Magician tells me 'Information is available only for Samsung Brand SSDs". Anyone know why this might be? If Magician can't help with this model, what other ways can I keep and eye on the health/lifetime of the drive? Magician only works on consumer lines and you have an OEM line. Use crystaldiskinfo.
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# ¿ Nov 2, 2016 16:48 |
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Hikaki posted:I have a z97-a mobo which only supports pcie2x on the m2 slot. I need more space and I want to get an m2 ssd in particular because my sata slots are all full. Is the 600p a good idea in my case? Looks like it has poo poo numbers but my mobo won't be able to run something like a 960 evo/pro at full speed anyway. I could also just get a big sata ssd and just get rid of a smaller one but hearing about the better access times on nvme drives has me leaning towards the 600p. The Intel 600p and two lanes of PCI line up well on paper. Bear in mind that the theoretical bandwidth of PCIe SSDs isn't where the magic happens for home / office / gamer users. It's in the more modern, quicker protocol and far more responsive read/writes.
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# ¿ Nov 15, 2016 14:01 |
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Anandtech 600p review http://www.anandtech.com/show/10850/the-intel-ssd-600p-512gb-review Edit - Raid-based ssd card gets a final breath of life http://www.tomshardware.com/reviews/mx-technology-mxssdep3-ssd-review,4792.html I loved the brute force concept of RevoDrive. It turns out RAID-based SSD is an antiquated concept for a reason outside one specific use case, but god drat I love weird poo poo like this. Edit 2 - News section updated. OP was made August 31st and a lot of new poo poo has come out since then. It's probably OP suggested drives refresh time. I'll start by opening the floor to suggestions -- what should go up / be taken down. I think for starters the RD400 might actually deserve a place at least in recommended NVMe with a caveat that we may not have much anecdotal experience with Toshiba's customer service for consumer devices. It would look kinda weird to include the 600p and not the RD400. There was a guy toward the beginning of this thread who had one working just fine. http://www.anandtech.com/show/10850/the-intel-ssd-600p-512gb-review/8 600p as a budget option? Potato Salad fucked around with this message at 14:12 on Nov 23, 2016 |
# ¿ Nov 23, 2016 13:29 |
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# ¿ Apr 28, 2024 06:57 |
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The Iron Rose posted:Okay, second question. You basically want to make a bigass bank of otherwise-useless mSATA drives because why not? That's awesome. Looks like your bandwidth limitation by the PCIe 2.0 x4 connector of the card is going to be 2 GB/s. Not that it'll actually give you that; it is using a Marvell 88SE9230 controller. I am seeing people getting that controller as high as 450MB/s in other SSD+RAID configurations. You'll basically have an aggregate SATA SSD that performs like....an okay SATA SSD. Cautionary note: with every mSATA device you throw in there, you're increasing the risk of failure on a straight curve. Still, that looks like a hilarious & fun thing to try out if you have the money to burn and spare time. WHat are the 8 mSATA drives, if you don't mind my asking? Some napkin math may help show whether risk vs reward is worth the $76 price of that card. Potato Salad fucked around with this message at 19:41 on Nov 23, 2016 |
# ¿ Nov 23, 2016 19:37 |