Seagate SkyHawk ST4000VX016 4 TB Hard Drive - 3.5" Internal - SATA (SATA/600) - Conventional Magnetic Recording (CMR) Method

Seagate SkyHawk ST4000VX016 4 TB Hard Drive - 3.5" Internal - SATA (SATA/600) - Conventional Magnetic Recording (CMR) Method - Smart. Safe. Secure. Video-Optimized Storage

SkyHawk leverages Seagate's extensive experience in designing drives purpose-built for video applications.

Key Advantages

ImagePerfect firmware is designed to ensure seamless video footage capture in 24×7 workloads that record video from 64 HD cameras.

SkyHawk Health Management actively helps protect your video storage by focusing on prevention, intervention, and recovery options. Included is RAID RapidRebuild, which provides 3× faster volume rebuilds over traditional RAID rebuilds.

Unparalleled data protection with included 3-year Rescue Data Recovery Services plan, helping protect important video data with Seagate's in-house data recovery services.

RV sensors built in allow drives to maintain performance in multi-bay systems, giving customers the flexibility to scale their systems when more storage is needed.

ATA streaming support enables recordings from up to 64 HD cameras for smooth, uninterrupted footage.

1M hours MTBF, 3-year limited warranty represents an improved total cost of ownership (TCO) with reduced maintenance costs.

Lower power consumption means a reduction in heat emissions, which improves reliability in surveillance solutions. Tarnish-resistant components help protect drive from environmental elements, increasing field reliability.

• Hard Drive offers maximum productivity with added dependability
• Internal drive type for a reliable and convenient storage solution
• With 4 TB capacity you have ample space for storing millions of images, hundreds of hours of video or for music lovers, up to a million songs
• Have data stored faster with SATA/600 interface that optimizes burst performance
• Experience rapid processing speed with 256 MB cache buffer
• 3.5" form factor for added reliability and dependability