Samsung
SAMSUNG - SOURCING SAMSUNG PM1735 1.6TB PCIE 4.0 NVME MIXED USE AIC HHHL SSD
Out of Stock
Samsung PM1735 1.6TB PCIe 4.0 NVMe SSD | Mixed Use, HHHL AIC
Samsung
MPN: MZPLJ1T6HBJR
$1,324.33$1,498.56
Free shipping on orders over $500
Authorized Dealer — Full manufacturer warranty
Key Features
- 1.6 TB storage capacity
- NVMe interface
- PCIe 4.0 connectivity
- HHHL add-in-card form factor
- Mixed use workload profile
- Samsung PM1735 platform
- Enterprise SSD architecture
- Accelerate mixed-use workloads with 1.6 TB of NVMe flash storage
Deliver faster response times for demanding infrastructure with the Samsung PM1735 1.6 TB NVMe SSD. Built on PCIe 4.0 and packaged in a HHHL add-in-card form factor, it is designed for enterprise environments that need more performance than SATA storage can provide.
This drive is a strong fit for mixed-use workloads that combine reads, writes, and sustained transactional activity. In practice, that means better support for virtualization, database tiers, analytics platforms, and other services that benefit from low-latency flash storage and high queue depth handling.
The HHHL AIC design also gives architects another deployment option when front-bay capacity is constrained or when direct PCIe attachment is preferred. For procurement teams, this model sits in the premium tier because it targets performance-sensitive workloads where storage can become the bottleneck. For operations teams, it offers a path to consolidate demanding services onto a more capable flash platform without changing the server class.
Ideal For
- Virtualization hosts with latency-sensitive storage demand
- Database and analytics tiers requiring sustained flash performance
- High-density servers with available PCIe expansion slots
- Mixed read-write enterprise workloads in datacenter environments
Why This Product
- 1PCIe 4.0 NVMe performance exceeds SATA-class storage
- 2HHHL add-in-card format fits PCIe-based deployments
- 3Mixed-use profile suits read-write enterprise workloads
- 41.6 TB capacity supports dense flash consolidation






