V100p1t6
Different industries apply alphanumeric architectures uniquely to separate high-reliability components from consumer variations. The table below places a standard code like v100p1t6 into context across different technical environments: Industry Domain "V100" Function "P1" Function "T6" Function Typical Use Case Base Device Series / 100V 1.0mm Pin Pitch Industrial Temp Package Microcontrollers & Drivers Industrial Hydraulics & Valves Valve Core Volume / 100L Pressure Port Type 1 6-Bar Thermal Rating Automated Process Pipelines Enterprise Firmware Systems Version 1.00 Core Code Patch Level 1 Target Revision Level 6 Edge Compute Hardware Modules Lithium Storage Systems 100-Ampere Capacity Class Single-Pack Config Termination Pin Geometry Auxiliary Backup Infrastructure The Role of Deterministic Codes in Enterprise Ecosystems
The code does not appear to correspond to a widely recognized technical standard, product, or certification in general public databases. Recent mentions on platforms like V100p1t6 Today suggest it may be a specific internal identifier or a niche reference that requires more context to define accurately.
If v100p1t6 were a real engineering sample, its specs might differ from the standard Tesla V100: v100p1t6
The suffix of the keyword, "p1t6", does not align with NVIDIA's product naming conventions. However, when combined with "V100", it strongly points to the industrial process control domain, specifically to products from .
The PCIe versions of the V100 have a TDP, while the SXM2 module runs at 300 W. A lower‑power 150 W variant exists for hyperscale inference, offering about 80 % of the performance of the 300 W part at half the power. If v100p1t6 were a real engineering sample, its
: Systems feature external adjustments to allow zeroing and range calibration without exposing internal chambers to corrosive atmospheres.
To help narrow down your documentation search, could you share a bit more context on where you encountered the string? Specifically, is it printed on a physical circuit board , listed inside an industrial valve manual , or referenced as an enterprise firmware file ? Share public link A lower‑power 150 W variant exists for hyperscale
| Feature | Standard V100 (32GB) | Hypothetical v100p1t6 | | :--- | :--- | :--- | | CUDA Cores | 5,120 | 4,608 (possibly 1 SM disabled) | | Tensor Cores | 640 | 576 | | Memory | 32 GB HBM2 | 24 GB HBM2 | | Memory Bandwidth | 900 GB/s | ~750 GB/s | | TDP | 250-300W | ~200W (p1 – lower power) | | Use Case | Datacenter AI | Prototyping / Thermal testing |
To build powerful multi‑GPU servers, NVIDIA introduced on the V100. With up to six links per GPU, each providing 25 GB/s of bidirectional bandwidth, the aggregate data rate reaches 300 GB/s —nearly double that of the P100’s NVLink. This interconnect allows two or more V100 GPUs to share memory and synchronise efficiently, which is essential for training models that exceed the memory capacity of a single device.
(Hopper) offer higher performance, the V100P1T6 remains highly relevant due to: