Maxtor 84320D4, 86480D6, 88400D8, 83240D3, 82160D2 Shock and Vibration, Reliability Specifications

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PRODUCTSPECIFICATIONS

Shock and Vibration

PARAMETER

OPERATING

NON-OPERATING

 

 

 

Mechanical Shock

20 Gs, 2.0 ms, no errors

150 Gs, 2.0 ms, no damage

 

 

 

Random Vibration

Per MIL-STD-810E, Method 514.4, Basic

Per MIL-STD-810E, Method 514.4, Basic

 

transportation, Vertical axis PSD profile.

transportation, Vertical axis PSD profile.

 

10 Hz at 0.0125 G2/Hz

10 Hz at 0.015 G2/Hz

 

40 Hz at 0.0125 G2/Hz

40 Hz at 0.015 G2/Hz

 

500 Hz at 0.000125 G2/Hz

500 Hz at 0.00015 G2/Hz

 

 

 

Swept Sine Vibration

 

 

5 - 20 Hz

0.049 inches double amplitude

 

21 - 300 Hz

1.0 G peak amplitude

 

 

 

 

Reliability Specifications

AFR

 

 

< 1.7%

The annualized average failure rate (AFR) applies to the period prior

 

to the expiration of component design life, and is based on failures

 

chargeable to Maxtor. Determination of the AFR takes into account:

 

a.) in-warranty field failure returns less quality acceptance-related

 

failures and b.) an AFR equaling an exponentially weighted moving

 

and average monthly failure rate multiplied by 12.

MTBF

 

 

> 500,000 hours

Maxtor does not differentiate between various usage profiles (e.g.,

 

power-on hours, power saving modes, non-operating periods or

 

operating temperatures within the published specification.)

Quality Acceptance Rate

 

 

99.85% (< 1,500 DPPM)

The quality acceptance rate indicates the percentage of Maxtor

 

products successfully installed by our customers, and/or the number

 

of defective parts per million (DPPM) encountered during the entire

 

installation process.

Start/Stop Cycles

 

 

50,000 (minimum)

This indicates the minimum cycles for reliable start/stop function at a

 

≥ 60% confidence level.

Data Reliability

 

 

< 1 per 1013 bits read

Data errors (non-recoverable). Average data error rate allowed with all

 

error

recovery features activated.

< 1 per 106 seeks

Seek

errors

Component Design Life

 

 

5 years (minimum)

Component design life is defined as a.) the time period before

 

identified wear-out mechanisms impact the failure rate, or b.) the time

period up to the wear-out point at which useful component life expires.

3 – 4

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Contents DiamondMax REV EC no Section Description Date Before You Begin U T I O NContents AT Interface Description Product SpecificationsHandling and Installation Host Software Interface Glossary Interface CommandsService and Support Figures Introduction Maxtor CorporationManual Organization AbbreviationsSignal Conventions ConventionsKey Words NumberingDiamondMax 2160 Key Features Product DescriptionProduct Features Functional / InterfaceOn-the-Fly Hardware Error Correction Code ECC Logical Block AddressingDefect Management Zone DMZ Software ECC CorrectionRead-Ahead Mode Cache ManagementBuffer Segmentation Automatic Write Reallocation AWRMajor HDA Components Subsystem Configuration Jumper Location/ConfigurationCylinder Limitation Dual Drive SupportProduct Specifications Drive ConfigurationPerformance Specifications Models and CapacitiesParameter Standard Metric Physical DimensionsOutline and Mounting Dimensions Power Requirements Average Power Mode DefinitionsEPA Energy Star Compliance Environmental LimitsReliability Specifications Shock and VibrationSafety Regulatory Compliance Standard Test MethodsHandling and Installation Hard Drive Handling PrecautionsPre-formatted Drive Important NoticeUnpacking and Inspection Multi-pack Shipping ContainerRepacking Physical InstallationRecommended Mounting Configuration Drive Jumper Settings Installing 5.25-inch Mounting BracketsMounting Drive in System Master Device Slave DeviceMounting Drive in 3.5-inch Bay Inch InstallationMounting Drive in 5.25-inch Bay Attaching IDE Interface and Power Cables IDE Interface and Power Cabling DetailSystem Mother board Cabling Attaching System CablesSystem Interface Card Cabling Set the Bios Cmos parameters as follows System SetupSetting the Bios Cmos System Hangs During Boot Model CYL SPTHard Drive Preparation System/Drive InformationInterface Connector Data ConnectorAT Interface Description Pin Description SummaryPIN Name Signal Name Signal Description Pin Description TablePIO Timing PIO Data Transfer To/From DeviceDMA Timing Multi-word DMA Data TransferUltra DMA Timing Initiating an Ultra DMA Data In BurstHost Pausing an Ultra DMA Data In Burst Sustained Ultra DMA Data In BurstDevice Terminating an Ultra DMA Data In Burst Host Terminating an Ultra DMA Data In BurstInitiating an Ultra DMA Data Out Burst Sustained Ultra DMA Data Out BurstDevice Pausing an Ultra DMA Data Out Burst Host Terminating an Ultra DMA Data Out BurstDevice Terminating an Ultra DMA Data Out Burst Error Register Features RegisterHost Software Interface Task File RegistersSector Count Register Sector Number RegisterCylinder Number Registers Device/Head RegisterCommand Register Command Name Command Code Parameters Used Timer Value TIME-OUT PeriodSummary SDHControl Diagnostic Registers Alternate Status RegisterDevice Control Register Digital Input RegisterInterrupt Handling Reset and Interrupt HandlingReset Handling Interface Commands Set Feature CommandsRead Verify Sectors Read CommandsRead Sectors Read DMA Read MultipleWrite Commands Set Multiple ModeWrite Sectors Write Verify SectorsWrite Multiple Write DMAValue Description Set Feature CommandsSet Features Mode Power Mode Commands Timer Value TIME-OUT Period Identify Drive Initialization CommandsWord Content Description Word Content Description = Write Cache enabled Initialize Drive Parameters Seek, Format and Diagnostic Commands Execute Drive DiagnosticError Code Description Format TrackA.R.T. Command Set Execute S.M.A.R.TService and Support Service PolicyNo Quibble Service SupportMaxFax Service Bulletin Board ServiceCustomer Service Internet

82160D2, 84320D4, 2160, 83240D3, 86480D6 specifications

Maxtor, known for its innovative storage solutions, produced several pivotal hard drive models during the late 1990s and early 2000s, namely the Maxtor 88400D8, 86480D6, 83240D3, 2160, and 84320D4. Each of these drives showcased unique features and technologies that catered to various computing needs.

The Maxtor 88400D8 stood out with its impressive storage capacity of 8.4 GB, which was considerable at the time. It employed the IDE interface, ensuring broad compatibility with most personal computers. The drive utilized a 5400 RPM spindle speed, optimizing data transfer rates for everyday applications. With a 2 MB cache, it facilitated smoother data retrieval, making it a reliable choice for both home and office use. This model exemplified Maxtor's commitment to enhancing user experience through advanced technologies.

Another noteworthy model, the Maxtor 86480D6, offered an 8.6 GB storage capacity, predicated on similar design principles as the 88400D8. It also featured a 5400 RPM spindle speed and an IDE interface. Its greater data density further improved performance, reducing the time required for searching and accessing large volumes of information. The 86480D6 was particularly favored by users with intensive storage needs, such as graphic designers and multimedia creators.

The Maxtor 83240D3, with a storage capacity of 3.2 GB, catered to users seeking a balance between performance and size. This drive also operated at 5400 RPM and featured an IDE interface. Its compact size made it an attractive option for entry-level systems and budget-conscious consumers who needed dependable storage without excessive capacity.

The Maxtor 2160 and 84320D4 models further diversified the line with distinct features suitable for different user segments. The 2160 offered 2.1 GB of storage, appealing particularly to users of basic office applications. In contrast, the 84320D4 provided 4.3 GB of space, marking a mid-range option for users requiring additional capacity without leapfrogging into high-end solutions.

All these Maxtor models incorporated technologies enhancing reliability and performance, such as Advanced Format technology, which optimized data organization, ensuring efficient use of storage space. These drives also showcased an emphasis on low power consumption, which aligned with growing concerns over energy efficiency in computing.

In summary, the Maxtor 88400D8, 86480D6, 83240D3, 2160, and 84320D4 were crucial entries in the hard drive market, bringing forth features that addressed the diverse needs of users, from casual consumers to professionals demanding superior performance. Their legacy continues to influence hard drive design and performance standards in contemporary storage solutions.