Hdat2 Hdd Bad Sector Repair Tools

HDD Bad Sectors Repair is a handy utility that, as its name suggests, fixes HDD related errors. It is designed for the Maxtor 541DX series of hard drives, so use it only if you own this particular type of HDD.

Main function is testing and repair (to regenerate) bad sectors for detected devices - you get. Alternatives to HDAT2 for all platforms with any license. HD Tune is a Hard Disk utility which has the following functions: -Benchmark: measures the performance, -Info: shows detailed information, -Health: checks the health.

Quickly scans your hard disk drive Since it’s a recovery product, it works in a similar way as a live CD, which is why it comes bundled in an ISO file. A floppy drive edition is also available, if it provides a suitable alternative. The principle that rules the application is simple: after a thorough analysis of the hard drive, HDD Bad Sectors Repair identifies its defects and moves them from the G-List to the P-List, thus almost restoring the HDD to its original state. Although they sound majestic, these technical terms have a simple explanation. Professional users may be familiar with them, but beginners may be overwhelmed. Fixing both usage and manufacturing errors The G-list is a table of defects that occur during HDD use, while the P-list represents the list of bad sectors that are generated during the manufacturing process. A maximum of number 15,000 of sectors can be moved and once this operation is performed, the application empties, and then resets both lists.

Your hard drive no longer contains bad sectors and your computer performs better. A nifty work-around process If the number of sectors exceeds 15,000, you could try finding a work-around. The first that comes to our minds involves running the application multiple times, each time removing the maximum allowed, until it’s left clean of errors. To end with In conclusion, HDD Bad Sectors Repair is a reliable solution if you own a faulty Maxtor 541DX hard drive. Keep in mind that it’s aimed at professionals; incorrect use may lead to permanent damages to your HDD.

This article is about the computer drive monitoring system. For the mnemonic used in other contexts, see. ( Self-Monitoring, Analysis and Reporting Technology; often written as SMART) is a monitoring system included in (HDDs) and (SSDs) that detects and reports on various indicators of drive reliability, with the intent of enabling the anticipation of hardware failures. When S.M.A.R.T. Data indicates a possible imminent drive failure, software running on the host system may notify the user so stored data can be copied to another storage device, preventing data loss, and the failing drive can be replaced. Contents • • • • • • • • • • • • • • • • Background [ ] (and Flash drive failures, but not exactly in the same way) fall into one of two basic failure classes: • Predictable failures, resulting from slow processes such as mechanical wear and gradual degradation of storage surfaces. Monitoring can determine when such failures are becoming more likely.

• Unpredictable failures, happening without warning and ranging from electronic components becoming defective to a sudden mechanical failure (which may be related to improper handling). Mechanical failures account for about 60% of all drive failures. While the eventual failure may be catastrophic, most mechanical failures result from gradual wear and there are usually certain indications that failure is imminent. These may include increased heat output, increased noise level, problems with reading and writing of data, or an increase in the number of damaged disk sectors. PCTechGuide's page on S.M.A.R.T. (2003) comments that the technology has gone through three phases: In its original incarnation S.M.A.R.T.

Provided failure prediction by monitoring certain online hard drive activities. A subsequent version of the standard improved failure prediction by adding an automatic off-line read scan to monitor additional operations. The latest 'S.M.A.R.T.'

Technology not only monitors hard drive activities but adds failure prevention by attempting to detect and repair sector errors. Also, while earlier versions of the technology only monitored hard drive activity for data that was retrieved by the operating system, this latest S.M.A.R.T. Tests all data and all sectors of a drive by using 'off-line data collection' to confirm the drive's health during periods of inactivity. Accuracy [ ] A field study at covering over 100,000 consumer-grade drives from December 2005 to August 2006 found correlations between certain S.M.A.R.T. Information and actual failure rates: • In the 60 days following the first uncorrectable error on a drive ( or 198) detected as a result of an offline scan, the drive was, on average, 39 times more likely to fail than a similar drive for which no such error occurred. • First errors in reallocations, offline reallocations ( or 196 and 5) and probational counts ( or 197) were also strongly correlated to higher probabilities of failure.

• Conversely, little correlation was found for increased temperature and no correlation for usage level. However, the research showed that a large proportion (56%) of the failed drives failed without recording any count in the 'four strong S.M.A.R.T. Warnings' identified as scan errors, reallocation count, offline reallocation and probational count. • Further, 36% of failed drives did so without recording any S.M.A.R.T. Error at all, except the temperature, meaning that S.M.A.R.T. Data alone was of limited usefulness in anticipating failures.

History and predecessors [ ] An early hard disk monitoring technology was introduced by in 1992 in its Disk Arrays for servers using IBM 0662 SCSI-2 disk drives. Later it was named (PFA) technology.

It was measuring several key device health parameters and evaluating them within the drive firmware. Communications between the physical unit and the monitoring software were limited to a binary result: namely, either 'device is OK' or 'drive is likely to fail soon'. Later, another variant, which was named IntelliSafe, was created by computer manufacturer and disk drive manufacturers,, and.

The disk drives would measure the disk’s 'health parameters', and the values would be transferred to the operating system and user-space monitoring software. Each disk drive vendor was free to decide which parameters were to be included for monitoring, and what their thresholds should be. The unification was at the protocol level with the host. Compaq submitted IntelliSafe to the for standardization in early 1995. It was supported by IBM, by Compaq's development partners Seagate, Quantum, and Conner, and by, which did not have a failure prediction system at the time. The Committee chose IntelliSafe's approach, as it provided more flexibility.

Compaq placed IntelliSafe into the public domain on 12 May 1995. The resulting jointly developed standard was named S.M.A.R.T. That SFF standard described a communication protocol for an ATA host to use and control monitoring and analysis in a hard disk drive, but did not specify any particular metrics or analysis methods.

Later, 'S.M.A.R.T.' Came to be understood (though without any formal specification) to refer to a variety of specific metrics and methods and to apply to protocols unrelated to ATA for communicating the same kinds of things. Provided information [ ] The technical documentation for S.M.A.R.T. Is in the (ATA) standard. First introduced in 2004, it has undergone regular revisions, the latest being in 2011. The most basic information that S.M.A.R.T. Provides is the S.M.A.R.T.

It provides only two values: 'threshold not exceeded' and 'threshold exceeded'. Often these are represented as 'drive OK' or 'drive fail' respectively. A 'threshold exceeded' value is intended to indicate that there is a relatively high probability that the drive will not be able to honor its specification in the future: that is, the drive is 'about to fail'. The predicted failure may be catastrophic or may be something as subtle as the inability to write to certain sectors, or perhaps slower performance than the manufacturer's declared minimum. The S.M.A.R.T.

Status does not necessarily indicate the drive's past or present reliability. If a drive has already failed catastrophically, the S.M.A.R.T. Status may be inaccessible. Alternatively, if a drive has experienced problems in the past, but the sensors no longer detect such problems, the S.M.A.R.T. Status may, depending on the manufacturer's programming, suggest that the drive is now sound.

The inability to read some sectors is not always an indication that a drive is about to fail. One way that unreadable sectors may be created, even when the drive is functioning within specification, is through a sudden power failure while the drive is writing. Also, even if the physical disk is damaged at one location, such that a certain sector is unreadable, the disk may be able to use spare space to replace the bad area, so that the sector can be overwritten. More detail on the health of the drive may be obtained by examining the S.M.A.R.T. Attributes were included in some drafts of the ATA standard, but were removed before the standard became final. The meaning and interpretation of the attributes varies between manufacturers, and are sometimes considered a trade secret for one manufacturer or another.

Attributes are further discussed below. Drives with S.M.A.R.T. May optionally maintain a number of 'logs'. The error log records information about the most recent errors that the drive has reported back to the host computer. Examining this log may help one to determine whether computer problems are disk-related or caused by something else (error log timestamps may 'wrap' after 2 32 = 49.71 days ) A drive that implements S.M.A.R.T. May optionally implement a number of self-test or maintenance routines, and the results of the tests are kept in the self-test log.

The self-test routines may be used to detect any unreadable sectors on the disk, so that they may be restored from back-up sources (for example, from other disks in a ). This helps to reduce the risk of incurring permanent loss of data. Standards and implementation [ ] Lack of common interpretation [ ] Many motherboards display a warning message when a disk drive is approaching failure. Although an industry standard exists among most major hard drive manufacturers, issues remain due to attributes intentionally left undocumented to the public in order to differentiate models between manufacturers.

From a legal perspective, the term 'S.M.A.R.T.' Refers only to a signaling method between internal disk drive electromechanical sensors and the host computer. Because of this the specifications of S.M.A.R.T. Are entirely vendor specific and, while many of these attributes have been standardized between drive vendors, others remain vendor-specific. Implementations still differ and in some cases may lack 'common' or expected features such as a temperature sensor or only include a few select attributes while still allowing the manufacturer to advertise the product as 'S.M.A.R.T. Visibility to host systems [ ] Depending on the type of interface being used, some S.M.A.R.T.-enabled motherboards and related software may not communicate with certain S.M.A.R.T.-capable drives. For example, few external drives connected via and correctly send S.M.A.R.T.

Data over those interfaces. With so many ways to connect a hard drive (,,,,,, and so on), it is difficult to predict whether S.M.A.R.T. Reports will function correctly in a given system.

Even with a hard drive and interface that implements the specification, the computer's operating system may not see the S.M.A.R.T. Information because the drive and interface are encapsulated in a lower layer. For example, they may be part of a RAID subsystem in which the RAID controller sees the S.M.A.R.T.-capable drive, but the main computer sees only a logical volume generated by the RAID controller. On the platform, many programs designed to monitor and report S.M.A.R.T.

Information will function only under an. Access [ ] For a list of various programs that allow reading of S.M.A.R.T.

ATA S.M.A.R.T. Attributes [ ] Each drive manufacturer defines a set of attributes, and sets threshold values beyond which attributes should not pass under normal operation. Each attribute has a raw value, whose meaning is entirely up to the drive manufacturer (but often corresponds to counts or a physical unit, such as degrees Celsius or seconds), a normalized value, which ranges from 1 to 253 (with 1 representing the worst case and 253 representing the best) and a worst value, which represents the lowest recorded normalized value. The initial default value of attributes is 100 but can vary between manufacturer. Manufacturers that have implemented at least one S.M.A.R.T. Attribute in various products include,, (),,,,,, and.

Known ATA S.M.A.R.T. Attributes [ ] The following chart lists some S.M.A.R.T.

Attributes and the typical meaning of their raw values. Normalized values are usually mapped so that higher values are better (exceptions include drive temperature, number of head load/unload cycles ), but higher raw attribute values may be better or worse depending on the attribute and manufacturer. For example, the 'Reallocated Sectors Count' attribute's normalized value decreases as the count of reallocated sectors increases. In this case, the attribute's raw value will often indicate the actual count of sectors that were reallocated, although vendors are in no way required to adhere to this convention.

As manufacturers do not necessarily agree on precise attribute definitions and measurement units, the following list of attributes is a general guide only. Drives do not support all attribute codes (sometimes abbreviated as 'ID', for 'identifier', in tables). Some codes are specific to particular drive types (magnetic platter, flash, SSD). Drives may use different codes for the same parameter, e.g., see codes 193 and 225. Legend ID 193 0xC1 Attribute code in decimal and hexadecimal notations Ideal. Count of reallocated sectors.

The raw value represents a count of the that have been found and remapped. Thus, the higher the attribute value, the more sectors the drive has had to reallocate. This value is primarily used as a metric of the life expectancy of the drive; a drive which has had any reallocations at all is significantly more likely to fail in the immediate months. 06 0x06 Read Channel Margin Margin of a channel while reading data.

The function of this attribute is not specified. 07 0x07 Seek Error Rate Varies (Vendor specific raw value.) Rate of seek errors of the magnetic heads. If there is a partial failure in the mechanical positioning system, then seek errors will arise. Such a failure may be due to numerous factors, such as damage to a servo, or thermal widening of the hard disk.

The raw value has different structure for different vendors and is often not meaningful as a decimal number. 08 0x08 Seek Time Performance. High Average performance of seek operations of the magnetic heads.

If this attribute is decreasing, it is a sign of problems in the mechanical subsystem. 09 0x09 Count of hours in power-on state. The raw value of this attribute shows total count of hours (or minutes, or seconds, depending on manufacturer) in power-on state. 'By default, the total expected lifetime of a hard disk in perfect condition is defined as 5 years (running every day and night on all days).

This is equal to 1825 days in 24/7 mode or 43800 hours.' On some pre-2005 drives, this raw value may advance erratically and/or 'wrap around' (reset to zero periodically). 10 0x0A Spin Retry Count. Uncorrected read errors reported to the operating system. 22 0x16 Current Helium Level Specific to He8 drives from HGST.

This value measures the helium inside of the drive specific to this manufacturer. It is a pre-fail attribute that trips once the drive detects that the internal environment is out of specification. 170 0xAA Available Reserved Space See attribute E8.

171 0xAB SSD Program Fail Count (Kingston) The total number of flash program operation failures since the drive was deployed. Identical to attribute 181. 172 0xAC SSD Erase Fail Count (Kingston) Counts the number of flash erase failures. This attribute returns the total number of Flash erase operation failures since the drive was deployed. This attribute is identical to attribute 182. 173 0xAD SSD Wear Leveling Count Counts the maximum worst erase count on any block. 174 0xAE Unexpected power loss count Also known as 'Power-off Retract Count' per conventional HDD terminology.

Raw value reports the number of unclean shutdowns, cumulative over the life of an SSD, where an 'unclean shutdown' is the removal of power without STANDBY IMMEDIATE as the last command (regardless of PLI activity using capacitor power). Normalized value is always 100. 175 0xAF Power Loss Protection Failure Last test result as microseconds to discharge cap, saturated at its maximum value. Also logs minutes since last test and lifetime number of tests. Raw value contains the following data: • Bytes 0-1: Last test result as microseconds to discharge cap, saturates at max value.

Test result expected in range 25. HDD manufacturers implement a sensor that attempts to provide additional protections for write operations by detecting when a recording head is flying outside its normal operating range. If an unsafe fly height condition is encountered, the write process is stopped, and the information is rewritten or reallocated to a safe region of the hard drive.

This attribute indicates the count of these errors detected over the lifetime of the drive. This feature is implemented in most modern Seagate drives and some of Western Digital's drives, beginning with the WD Enterprise WDE18300 and WDE9180 Ultra2 SCSI hard drives, and will be included on all future WD Enterprise products. 190 0xBE Temperature Difference or Airflow Temperature Varies Value is equal to (100-temp. °C), allowing manufacturer to set a minimum threshold which corresponds to a maximum temperature. This also follows the convention of 100 being a best-case value and lower values being undesirable.

However, some older drives may instead report raw Temperature (identical to 0xC2) or Temperature minus 50 here. 191 0xBF G-sense Error Rate. Count of load/unload cycles into head landing zone position. Some drives use 225 (0xE1) for Load Cycle Count instead. Western Digital rates their VelociRaptor drives for 600,000 load/unload cycles, and WD Green drives for 300,000 cycles; the latter ones are designed to unload heads often to conserve power. On the other hand, the WD3000GLFS (a desktop drive) is specified for only 50,000 load/unload cycles. Some laptop drives and 'green power' desktop drives are programmed to unload the heads whenever there has not been any activity for a short period, to save power.

Operating systems often access the file system a few times a minute in the background, causing 100 or more load cycles per hour if the heads unload: the load cycle rating may be exceeded in less than a year. There are programs for most operating systems that disable the (APM) and (AAM) features causing frequent load cycles. 194 0xC2 Temperature or Temperature Celsius. Count of 'unstable' sectors (waiting to be remapped, because of unrecoverable read errors). If an unstable sector is subsequently read successfully, the sector is remapped and this value is decreased. Read errors on a sector will not remap the sector immediately (since the correct value cannot be read and so the value to remap is not known, and also it might become readable later); instead, the drive firmware remembers that the sector needs to be remapped, and will remap it the next time it's written. However, some drives will not immediately remap such sectors when written; instead the drive will first attempt to write to the problem sector and if the write operation is successful then the sector will be marked good (in this case, the 'Reallocation Event Count' (0xC4) will not be increased).

This is a serious shortcoming, for if such a drive contains marginal sectors that consistently fail only after some time has passed following a successful write operation, then the drive will never remap these problem sectors. 198 0xC6 (Offline) Uncorrectable Sector Count. Amount of used to spin up the drive. 208 0xD0 Spin Buzz Count of buzz routines needed to spin up the drive due to insufficient power. 209 0xD1 Offline Seek Performance Drive’s seek performance during its internal tests. 210 0xD2 Vibration During Write Found in Maxtor 6B200M0 200GB and Maxtor 2R015H1 15GB disks.

211 0xD3 Vibration During Write A recording of a vibration encountered during write operations. Torrent Medal Of Honor Mac Game Torrents. 212 0xD4 Shock During Write A recording of shock encountered during write operations.

220 0xDC Disk Shift. The number of power-off cycles which are counted whenever there is a 'retract event' and the heads are loaded off of the media such as when the machine is powered down, put to sleep, or is idle.

230 0xE6 GMR Head Amplitude (magnetic HDDs), Drive Life Protection Status (SSDs) Amplitude of 'thrashing' (repetitive head moving motions between operations). In solid-state drives, indicates whether usage trajectory is outpacing the expected life curve 231 0xE7 Life Left (SSDs) or Temperature Indicates the approximate SSD life left, in terms of program/erase cycles or available reserved blocks. A normalized value of 100 represents a new drive, with a threshold value at 10 indicating a need for replacement.

A value of 0 may mean that the drive is operating in read-only mode to allow data recovery. Previously (pre-2010) occasionally used for Drive Temperature (more typically reported at 0xC2). 232 0xE8 Endurance Remaining or Available Reserved Space Number of physical erase cycles completed on the SSD as a percentage of the maximum physical erase cycles the drive is designed to endure. Intel SSDs report the available reserved space as a percentage of the initial reserved space. 233 0xE9 Media Wearout Indicator (SSDs) or Power-On Hours Intel SSDs report a normalized value from 100, a new drive, to a minimum of 1. It decreases while the NAND erase cycles increase from 0 to the maximum-rated cycles. Previously (pre-2010) occasionally used for Power-On Hours (more typically reported in 0x09).

234 0xEA Average erase count AND Maximum Erase Count Decoded as: byte 0-1-2 = average erase count (big endian) and byte 3-4-5 = max erase count (big endian). 235 0xEB Good Block Count AND System(Free) Block Count Decoded as: byte 0-1-2 = good block count (big endian) and byte 3-4 = system (free) block count. 240 0xF0 Head Flying Hours or ' Transfer Error Rate' (Fujitsu) Time spent during the positioning of the drive heads. Some Fujitsu drives report the count of link resets during a data transfer. 241 0xF1 Total LBAs Written Total count of LBAs written.

242 0xF2 Total LBAs Read Total count of LBAs read. Some S.M.A.R.T. Utilities will report a negative number for the raw value since in reality it has 48 bits rather than 32. 243 0xF3 Total LBAs Written Expanded The upper 5 bytes of the 12-byte total number of LBAs written to the device. The lower 7 byte value is located at attribute 0xF1. 244 0xF4 Total LBAs Read Expanded The upper 5 bytes of the 12-byte total number of LBAs read from the device. The lower 7 byte value is located at attribute 0xF2.

249 0xF9 NAND Writes (1GiB) Total NAND Writes. Raw value reports the number of writes to NAND in 1 GB increments. 250 0xFA Read Error Retry Rate. Count of 'Free Fall Events' detected.

Threshold Exceeds Condition [ ] Threshold Exceeds Condition (TEC) is an estimated date when a critical drive statistic attribute will reach its threshold value. When Drive Health software reports a 'Nearest T.E.C.' , it should be regarded as a 'Failure date'.

Sometimes, no date is given and the drive can be expected to work without errors. To predict the date, the drive tracks the rate at which the attribute changes.

Note that TEC dates are only estimates; hard drives can and do fail much sooner or much later than the TEC date. Self-tests [ ] S.M.A.R.T. Drives may offer a number of self-tests: Short Checks the electrical and mechanical performance as well as the read performance of the disk.

Electrical tests might include a test of buffer RAM, a read/write circuitry test, or a test of the read/write head elements. Mechanical test includes seeking and servo on data tracks. Scans small parts of the drive's surface (area is vendor-specific and there is a time limit on the test). Checks the list of pending sectors that may have read errors, and it usually takes under two minutes. Long/extended A longer and more thorough version of the short self-test, scanning the entire disk surface with no time limit.

This test usually takes several hours, depending on the read/write speed of the drive and its size. Conveyance Intended as a quick test to identify damage incurred during transporting of the device from the drive manufacturer to the computer manufacturer. Only available on ATA drives, and it usually takes several minutes. Selective Some drives allow selective self-tests of just a part of the surface. The self-test logs for SCSI and ATA drives are slightly different. It is possible for the long test to pass even if the short test fails. The drive's self-test log can contain up to 21 read-only entries.

When the log is filled, old entries are removed. See also [ ].

For Creating USB Flash using Hirens BootCD for checking and repair Hard Disk Bad Sector Use this link: Advanced Sorry for weird video. I will write the process here in case if you don`t understand. Enter your USB drive 2. Enter Dos Programs 3. Enter Hard Disk tools 4. Enter HDAT2 4.53 (Test/Repair Bad Sector) 5.

Then auto & choose your keyboard United states (or wait it will do automatically here) 6. Press Enter & Press Drive level tests menu 7. Enter Check and Repair bad sectors 8. And now it will start, it takes a lot of time, so wait until it finished.