PE8030
SK Hynix PE8030 enterprise NVMe SSD 7.68TB maximum capacity storage for data-intensive applications
Product Overview
Description
The PE8030 is SK Hynix's highest capacity enterprise NVMe SSD, offering 7.68TB in the standard U.2 form factor. This SSD delivers up to 6,400MB/s sequential read and 3,800MB/s sequential write speeds using PCIe Gen4 x4 interface. The high capacity enables massive data storage in existing server infrastructure.
Optimized for read-intensive data center workloads, the PE8030 provides excellent performance for content delivery, big data analytics, and data warehousing applications. The advanced 3D NAND with high-density architecture ensures reliable long-term storage. Enterprise-grade features include power loss protection, end-to-end data protection, and advanced ECC.
The 7.68TB capacity reduces the number of drives required for high-capacity storage, simplifying data center management and reducing infrastructure costs. With 1 DWPD endurance and 5-year warranty, this SSD delivers reliable performance for capacity-focused enterprise applications.
Product Series
PE
Primary Application
Data warehousing
Key Features
- 7.68TB maximum enterprise capacity
- PCIe Gen4 x4 interface
- Read-intensive optimized
- 1 DWPD endurance rating
- Power loss protection
- 5-year warranty
Specifications
| Form Factor | U.2 (2.5 inch 15mm) |
|---|---|
| Interface | NVMe PCIe Gen4 x4 |
| Capacity | 7.68TB |
| Sequential Read | Up to 6,400MB/s |
| Sequential Write | Up to 3,800MB/s |
| Random Read IOPS | Up to 800K IOPS |
| Random Write IOPS | Up to 100K IOPS |
| Endurance | 1 DWPD (14TBW for 5 years) |
| Power | 10W typical, 15W peak |
Applications
Data warehousing
Electronic system design
Content delivery networks
Communication and interface
Big data analytics
Electronic system design
Video surveillance storage
Electronic system design
Cloud storage infrastructure
Electronic system design
Backup and archive storage
Electronic system design
FAE Expert Insights
"The PE8030 addresses the growing need for high-capacity storage in data centers. With 7.68TB in a single 2.5-inch drive, servers can achieve massive storage density without special form factors. The performance is well-balanced for read-intensive workloads typical in data warehouse and CDN applications. In my experience, customers appreciate the reduced drive count for simplified management. The 1 DWPD endurance is appropriate for read-heavy applications. The power loss protection provides peace of mind for critical data. I recommend this SSD for hyperscale data centers and enterprise storage deployments requiring maximum capacity."
7.68TB capacity enables massive storage density in standard server infrastructure
— Emily Zhang, BeiLuo
Frequently Asked Questions
What is the ideal use case for the 7.68TB capacity SSD?
The PE8030 7.68TB SSD is ideal for capacity-focused applications: 1) Data warehousing - massive storage for analytics and business intelligence platforms, 2) Content delivery - storing large media files for CDN edge nodes, 3) Video surveillance - high-capacity storage for NVR systems with many camera feeds, 4) Backup storage - primary backup target before archiving, 5) Big data - HDFS and Spark storage for data lakes, 6) Virtual desktop infrastructure - storing VM images. The high capacity reduces the number of drives and simplifies storage management. For write-intensive workloads, consider the lower capacity PE8010 with higher write endurance.
Use PE8030 for read-intensive capacity applications. Select PE8010 for write-intensive workloads requiring higher endurance.
How does this SSD perform in RAID configurations?
The PE8030 performs well in RAID configurations: 1) Hardware RAID - compatible with RAID controllers (PERC, SmartRAID, MegaRAID), 2) Software RAID - works with Linux mdraid, Windows Storage Spaces, 3) Performance - RAID 0 doubles performance, RAID 10 provides redundancy with performance, 4) Capacity - RAID 5/6 reduces usable capacity but adds protection, 5) Considerations - NVMe SSDs require proper RAID controller or HBA support for RAID features. For critical data, RAID 10 or RAID 6 provides protection against drive failure. The SSD's high IOPS performs well in RAID configurations. Consider RAID write-back cache for optimal performance.
Use RAID 10 or RAID 6 for critical data protection. Ensure RAID controller supports NVMe SSDs.
What is the total TBW for this 7.68TB SSD?
The PE8030 7.68TB has 14TBW (Terabytes Written) total endurance: 1) Calculation - 7.68TB × 1 DWPD × 365 days × 5 years = 14TBW, 2) Daily writes - supports 7.68TB written per day for 5 years, 3) Real-world usage - most capacity workloads write less than 0.3 DWPD, 4) Wear leveling - extends effective life beyond rated TBW, 5) Monitoring - SMART attribute 202 tracks percentage used. For read-intensive workloads, the SSD will last well beyond 5 years. Even moderate write workloads stay well within TBW limits.
14TBW provides excellent endurance for capacity workloads. Monitor SMART wear indicators for proactive maintenance.
How does this SSD compare to SATA SSDs in terms of performance?
The PE8030 NVMe SSD significantly outperforms SATA SSDs: 1) Sequential read - 6,400MB/s vs ~550MB/s for SATA (12x faster), 2) Sequential write - 3,800MB/s vs ~520MB/s for SATA (7x faster), 3) Random IOPS - 800K IOPS vs ~100K IOPS for SATA (8x higher), 4) Latency - NVMe has much lower latency than SATA AHCI, 5) Use cases - NVMe for performance-critical, SATA for cost-sensitive. The performance difference is dramatic for database, virtualization, and analytics workloads. NVMe is essential for modern data center storage.
Use NVMe for performance-critical applications. SATA remains viable for archival and backup storage.
What thermal management is required for this SSD?
The PE8030 requires proper thermal management: 1) Operating temperature - 0C to 70C ambient, 2) Power consumption - 8W typical, 12W peak, 3) Cooling - server airflow typically adequate, 4) Throttling - SSD reduces performance if overheating, 5) Monitoring - SMART temperature attribute tracks drive temp. Ensure server has adequate airflow through drive bays. High-density storage servers may require additional cooling. Monitor temperatures during stress testing.
Standard server airflow is typically sufficient. Monitor temperatures and ensure adequate cooling in dense configurations.