There are six main reasons why a system BIOS will not detect the presence of an internal hard drive. Here is a list of them. They are not in any particular order, but you can follow these steps one by one to troubleshoot this problem:
wd serial ata hard drive jumper settings
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I want to apologize butthere is no jumper setting which can force down the capacity size of the drive.But you can try to make a 32 GB partition on the drive and then you can try touse the drive onto the Mackie HDR.
This is a Serial ATA hard drive, with native support for SATA 6 Gb/s. However, it is backward-compatible so you will have no problem using it with SATA 3 Gb/s or even SATA 1.5 Gb/s controllers. However, at least a SATA 3 Gb/s interface is necessary for optimal performance since this VelociRaptor has a 64 MB buffer and boasts a maximum sustained internal (platter-to-buffer) transfer rate of 200 MB/s.
Like all Serial ATA drives, it comes the standard SATA data (left) and power (right) connectors and is hot-pluggable. That means you can connect and disconnect this hard disk drive to your PC while it's still running. To the left of the SATA connectors is the jumper block.
From what we can tell, Western Digital ships some drives with a jumper and others without a jumper. Since our OEM unit did not come with one, it is likely that only retail drives come with the jumper.
According to Western Digital, jumpering pins 1 and 2 enables Spread Spectrum Clocking (SSC). Placing the jumper across pins 5 and 6 will force the drive to use the slower SATA 3.0 Gb/s transfer speed. This is only a troubleshooting option in case your SATA controller does not properly implement SATA 6 Gb/s speed negotiation.
The most important jumper setting is the Adv Format jumper. On older operating systems like Windows XP, you must either use the WD Align software or place a jumper across pins 7 and 8. Otherwise, the drive will perform poorly due to sector misalignment. If you are using a newer operating system like Windows Vista or Windows 7, there is no need to do this.
This Western Digital VelociRaptor model (WD1000DHTZ) comes with an integrated IcePack mounting frame, which allows you to easily mount the drive into any 3.5" drive bay. This mounting frame is backplane-compatible, which is important for those who have servers and workstations with backplane mounts. In fact, this is the same mounting frame used in the previous generation VelociRaptor 600 GB (WD6000HLHX) and VelociRaptor 300 GB (WD3000HLFS) hard disk drives.
I bought a Mac Pro 5.1 2010 that has the OS installed on an SSD in one of the optical bays leaving all four of the HDD bays free. My question is; I have a WD Black 1TB hdd that I want to install in one of the free bays but as the OS on an optical bay does this affect what jumper settings I need on the hdd?
It's a WD Caviar Black 1TB, not sure what the exact model number is as I'm at work at the moment. It has the little black jumper block that you used to have to move depending on the drives application.
All indications I can find say to remove all jumpers (the default setting) for WD drives except for use directly in Windows XP. The Mac will use software to negotiate transfer speeds, and has been able to deal with advanced format (4K block size) drives since macOS 10.4.4
It can be worrying when your BIOS fails to detect or recognize the ATA/SATA hard drive. Even worse, there are multiple causes for this issue, so it can be hard to nail down the exact reason why your computer can't detect your hard drive.
Depending on whether you are using a PC or laptop, the causes for BIOS not detecting your internal hard drive problem can vary for many reasons. But here are a few of the most common factors to look out for.
Your computer may fail to detect the hard drive if there is a disk failure, drive corruption, and loose connection. To verify the status of the disk, try removing the hard drive by carefully disconnecting the cables and look for any physical damages.
For old hard drives, clean out the dust and connect it to your PC. If the issue persists, try connecting it to a different computer if available. This will help you determine if the issue is with the motherboard or hard drive.
The BIOS will not detect a hard drive if the data cable is faulty. Make sure the SATA cables are in good condition, and you have connected them promptly. Also, inspect the motherboard for bent or misaligned pins.
Check your hard drive manufacturer's documentation for the right type of cables. For example, some manufacturers recommend using UDMA cabling for ATA drives. These color-coded cables require proper orientation to establish a proper connection. You can find your drive's supporting documentation on its manufacturer's website.
If your hard drive is not getting sufficient power or no power at all, it will not spin up. You can do a quick check to see if it's spinning up, and if it's not, you've identified the cause of your mystery error. Just remember that this trick won't work with solid-state drives, because they don't have a platter that spins around.
You can use the proprietary hard drive diagnostic tools offered by the disk manufacturer to perform a health check. Seagate offers SeaTools for DOS while Western Digital has Data LifeGuard Diagnostics.
Download the tools and create a bootable drive. Boot from the drive and check if it detects your hard drive. If the diagnostic cannot detect anything, it is possible that you have a faulty HDD and may require replacement.
Additionally, use the hard drive diagnostic tools provided by your HDD manufacturer to check for hardware failure. If the drive hasn't completely failed yet, you can use a Windows installer disc and attempt to transfer important files.
IDE and SATA are different types of interfaces to connect storage devices (like hard drives) to a computer's system bus. SATA stands for Serial Advanced Technology Attachment (or Serial ATA) and IDE is also called Parallel ATA or PATA. SATA is the newer standard and SATA drives are faster than PATA (IDE) drives. For many years ATA provided the most common and the least expensive interface for this application. But by the beginning of 2007, SATA had largely replaced IDE in all new systems.
You can buy integrated motherboards that allow a computer to use both SATA and IDE hard drives. However, only one of the two may be used at any given time and both cannot be used simultaneously. Adapters are also available that allow an IDE drive to be used with a SATA motherboard and vice versa. These IDE/SATA adapters mask the underlying hard drive and simulate its functioning to match the expectations of the computer's motherboard. They usually cost less than $15.
Two variant of SATA - eSATA and eSATAp - are available. eSATA is meant for external connectivity. eSATA cannot supply power from the motherboard to the hard drive. In order to overcome this limitation, eSATAp drives were introduced. eSATAp port combines the strength of both eSATA (high speed) and USB (compatibility) into a single port.
SATA took off where ATA stopped as far as speed is concerned. The first generation of SATA was 1.2 Gbit/s (150 MB/s; note that MB is megabytes and Gb is gigabits) similar to PATA/133. Today the third generation of SATA (3.0) (released on May 27, 2009), 6 Gbit/s (600 MB/s) hard drives and motherboards are being used.
SATA has also done away with the master/slave configuration (technically, device 0 and device 1) used in IDE drives. With PATA (IDE), attaching two hard disks to the same channel required one to be set to be the master, the other the slave. For hardware, this usually meant setting the right jumper settings.
But the SATA bus is a serial point-to-point bus, which means only one device can be connected on each channel. Many SATA drives can connect to the motherboard via multiple ports, and the drive to boot from is specified in the BIOS settings.
Are SATA drives backwardly compatible, not really. As you have discovered some have jumpers. Many newer drives don't offer a means to run at the slower SATA ports of many systems. Some drives have auto sense SATA ports which match up (as in Seagate's SSHD). Now looking at being comparable a slower SATA drive will work in a newer system which has a faster SATA port the standard was written to be backward compatible this way. As the thought was the cost of a HD was too expensive to throw away when you got a new system.
You may want to double check with WD if the jumper will work on your drive (have them send you a few). I've encountered drives the jumper option does not work! I think some HD suppliers have killed it off on their newer models of drives. You can also encounter an issue with some of the jumpers as there are a few different headers and each need different jumper.
TL; DR version? Don't expect a Linux distro installed on a non-Apple machine to boot an Apple machine; non-Mac installs are unlikely to include the drivers Mac hardware will need. A better strategy is to download a Linux install disk image compatible with your Mac hardware, burn it to an optical disk, boot off the disk and then install. Another technique is to install OSX first, then use Apple's BootCamp utility to create a Linux partition for dual booting.
The WD1600BEKT is a SATA II drive and you have a SATA I box you're trying to use it on. If it clames to automagically detect and adjust throughput speed it's not doing it (most SATA revs are backward compatible one version -looks like you've found a couple of exceptions) if possible, and you know or find out how, you'd have to manually jumper them down to SATA I. I don't know what jumpers to use so I have no idea if you're in the ball park.
I couldn't find the jumper settings on the site, but perhaps I missedthem. Perhaps the original poster (OP) couldn't find it either.I did find: which points a picture of the top of a drive at: _top.jpgI don't understand why the OP couldn't read whatwas on the disks.The picture that I found, which is perhaps a mockup,seems to indicate: "Jumpered pins 5 and 6 enables 1.5GB ???"where "??? represents what I think is "PHY"I can't read what the factory default jumpering is.I also am not sure what order the jumpers are numberedin, but I think that the actual label on a drive wouldbe clear. (Most of the SEAGATE drives that I have comefactory jumpered for 1.5G bits/second and the are usedwith no jumper for 3.0 Gv/second.)(Jumpering 1 and 2 does something for Spread Spectrum Clocking. )(Jumpering 3 and 4 does something for PL?S, butI can't make out what it is.) 2ff7e9595c
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