
Safe Checkout
Secure Payments
Fast Delivery
Order Today
Free Shipping
Across the US
Easy Returns
Hassle-Free
Dell P901K 300GB 4Gb/s Fibre Channel 10000 3.5-inch 16MB Hard Drive
- Capacity: 300GB
- Interface: Fibre Channel (FC)
- Transfer Speed: 4Gb/s
- Rotational Speed: 10000 RPM
- Form Factor: 3.5-Inch
- Cache: 16MB
- Designed for Storage Area Networks (SANs).
Click on Inquire to get latest price
Free U.S. Ground Shipping
Typically 1-2 handling + 3-7 transit days
Purchase orders accepted
For government, enterprise, data center, and small business customers.
Bulk Purchase Inquiry
Volume pricing and availability
Product Overview
The Dell P901K is a 300GB Fibre Channel hard drive, offering high-speed connectivity for SAN environments. It spins at 10000 RPM and features a 4Gb/s interface, suitable for performance-sensitive storage applications.
Technical Information
| Capacity | 300GB |
| Interface | Fibre Channel 4Gb/s |
| Rotational Speed | 10000 RPM |
Additional Specifications
| Form Factor | 3.5-Inch |
| Cache | 16MB |
| Drive Type | Hard Drive |
Product Description
The Dell P901K hard drive is a specialized storage solution designed for high-performance Storage Area Network (SAN) deployments. Its 300GB capacity is suitable for critical applications that require fast access to data, such as databases, video editing, and high-transaction environments. The Fibre Channel interface provides a reliable and scalable connection for enterprise storage infrastructure. Operating at a rotational speed of 10000 RPM, this 3.5-inch drive ensures rapid data retrieval and write operations. The 4Gb/s Fibre Channel interface offers significant bandwidth, enabling efficient data transfer between servers and storage arrays, which is crucial for maintaining application responsiveness and overall system performance. With a 16MB cache, the P901K further enhances its performance by storing frequently accessed data closer to the drive's read/write heads. This drive is built for the demanding conditions of enterprise data centers, offering durability and consistent performance for mission-critical workloads.



