WOLF-3696
Overview
NVIDIA RTX 500 Blackwell XMC with 3 Video Outputs
The XMC-BW500E-VO module integrates an NVIDIA RTX™ 500 (GB203) Blackwell embedded GPU on a compact XMC mezzanine to add GPU acceleration for embedded visualization, video encode/decode, and AI inference.
Host data is delivered to the GPU over a PCIe x8 interface, processed on the Blackwell CUDA / Tensor / RT core architecture, and routed out through up to three simultaneous DisplayPort outputs (with DVI/HDMI supported by configuration). The module includes 6 GB of GDDR7 (96-bit) graphics memory with up to 288 GB/s bandwidth, and supports a configurable operating power range from 30W to 60W to match platform thermal constraints.
Block Diagram
The block diagram shows the RTX 500 (GB203) GPU connected to the XMC P15 connector via PCIe x8, with three GPU display links routed to XMC P16 as DP++/HDMI/DVI outputs, alongside the 6 GB GDDR7 frame buffer and board power/FRU functions.
Features
WOLF-3696 is a rugged XMC module that integrates an NVIDIA RTX 500 Blackwell (GB203) embedded GPU to provide embedded graphics, encoding, and AI inference with up to 3 simultaneous video outputs. It supports DisplayPort++ (default), HDMI, and DVI output options and includes 6 GB GDDR7 96-bit memory. Host connectivity is provided over a PCIe Gen4 x8 (Gen5-capable) interface
Video Output
- Up to 3 simultaneous video outputs
- DisplayPort++ 2.1b (up to HBR3)
- 4K @ 120 Hz, 12-bit color depth
- HDMI and DVI supported (configuration dependent)
Connectivity / Software
- PCIe Gen4 x8 to the XMC connector (Gen5 capable)
- NVIDIA GPUDirect RDMA support
- Linux and Windows drivers available
- Host CPU support requirement: Intel E/S/H/H35 class, AMD H/HS class
Mechanical / Ruggedization
- Rugged conduction cooled or air cooled builds
- Operating temperature:
- Conduction cooled: -40°C to +85°C
- Air cooled: -40°C to +71°C
- Vibration (sine): 10G peak (5–2000 Hz)
- Shock: 40G peak (CC), 30G peak (AC)
- Dimensions (mm): CC: 143.75 x 74; AC: 149 x 74
- Weight: CC ~276 g; AC ~253 g
- VITA 46.9 VPX I/O mapping patterns supported: X12d, X8d, X16s
Specifications
Key configuration and performance parameters for WOLF-3696 are summarized below for quick comparison. Values shown reflect the standard module configuration; contact WOLF if you need a tailored build or a specific payload profile.
Configuration Guide
Configuration options for the XMC-BW500E-VO include:
- Display interface population (DP++ default; HDMI/DVI options)
- Conformal coatings
- XMC 1.0 / XMC 2.0 / XMC+ (ANSI/VITA 88)
- Air or conduction cooled builds
- Maximum power configuration options
- Variant locking
Contact WOLF to determine the appropriate configuration for your system.
Related Products
- NVIDIA RTX A2000E (GA107)
- 2560 CUDA Cores, 80 Tensor Cores
- 8 GB GDDR6 VRAM
- PCIe Gen 4 x8
- N/A
- Module power 26–50 W
- NVIDIA RTX 2000 Ada (AD107)
- 3072 CUDA Cores, 96 Tensor Cores
- 8 GB GDDR6 VRAM
- PCIe Gen 4 x8
- N/A
- Module power 25–50 W
FAQ
Choose WOLF-3696 when you need a compact XMC GPU module for embedded graphics, video encode/decode, and AI inference, but your carrier or chassis has limited power and thermal headroom.
This module is typically selected when:
- You need Blackwell GPU capability in a 30W to 60W configurable power range
- You need up to 3 simultaneous video outputs
- You want PCIe Gen4 x8 host connectivity with a Gen5-capable GPU interface
- You need a lower-power XMC option for visualization, encode/decode, or moderate AI workloads
If your workload requires higher sustained GPU throughput, more memory, or more display outputs, a higher-power XMC GPU module such as WOLF-3576 or another RTX 2000-class option may be a better fit.
Confirm the display plan early because XMC video output depends heavily on carrier routing and connectorization.
WOLF-3696 supports:
- Up to 3 simultaneous video outputs
- DisplayPort++ 2.1b by default
- Up to HBR3 signaling
- HDMI and DVI options by configuration
Integration checks to confirm early:
- Whether your carrier routes all 3 display links from XMC P16
- Whether the system needs DisplayPort, HDMI, DVI, or a mix of outputs
- Whether downstream displays require specific resolution, refresh rate, or color-depth support
- Whether front-panel, rear I/O, or carrier breakout routing is required
Locking the display interface mix early helps avoid carrier rework and late-stage cabling changes.
Confirm these early for predictable bring-up:
- PCIe interface: PCIe Gen4 x8 to the XMC connector, with Gen5-capable GPU interface
- Carrier compatibility: confirm support for XMC 1.0, XMC 2.0, or XMC+ as required by the build
- I/O mapping: confirm the carrier supports the required VITA 46.9 mapping pattern, such as X12d, X8d, or X16s
- Driver support: Linux and Windows drivers are available
- Host CPU support: confirm the platform meets the NVIDIA host CPU support requirement, such as Intel E/S/H/H35 class or AMD H/HS class
- GPUDirect RDMA intent: if you plan to use peer-to-peer or low-latency data movement, validate the full carrier, host, and endpoint topology
For XMC GPU modules, the biggest integration risks are carrier PCIe capability, display routing, and host platform compatibility.
The key ordering-time decisions are usually driven by carrier compatibility, cooling, and display routing:
- Display interface population: DisplayPort++ default, with HDMI and DVI options by configuration
- XMC connector type: XMC 1.0, XMC 2.0, or XMC+ depending on carrier requirements
- Cooling build: conduction cooled or air cooled depending on chassis/mechanical design
- Maximum power configuration: choose a power setting in the 30W to 60W range that matches platform thermal headroom
- Conformal coating: supports environmental robustness for deployed systems
- Variant locking: supports configuration control for qualified or repeat-build programs
Contact WOLF to determine the appropriate configuration for your system.