High-performance multi-channel SDR platform for wideband RF acquisition, synchronization, and real-time signal processing.

sSDR is a compact wideband SDR platform combining extended RF coverage, FPGA acceleration, and high-speed host interfaces in an embedded M.2 form factor. Designed for advanced wireless Platform, spectrum monitoring, radar research, and distributed RF systems. From embedded wireless Platform to high-performance RF sensing systems.
30 MHz to 11 GHz RF coverage supporting wireless, sensing, radar, and spectrum analysis applications.
Dual RX/TX architecture enabling coherent signal acquisition, transmission, and synchronized processing.
AMD UltraScale+ FPGA architecture for high-throughput DSP pipelines, transport, and custom acceleration blocks.
GPS, 1PPS, and external clock synchronization for distributed SDR systems and coherent multi-device operation.
PCIe Gen3 ×4 and USB interfaces integrated into a compact M.2 embedded form factor.
Remote SDR operation, distributed DSP execution, and collaborative RF analysis through the WebSDR platform.
sSDR integrates RF front-end, synchronization Platform, FPGA acceleration, and host interfaces into a compact wideband SDR module. The LMS7002M and LMS8001 RF architecture enables coverage from 30 MHz to 11 GHz, paired with FPGA-based DSP pipelines for real-time signal acquisition, processing, and transport.
sSDR integrates with both native WebSDR workflows and industry-standard SDR frameworks.
Browser-based SDR control, distributed DSP execution, spectrum analysis, and remote RF operation.
Compatible with industry-standard SDR frameworks plus custom C/C++ and Python APIs.
Host-side support across Linux, embedded compute platforms, and PCIe host systems.
Private LTE/5G systems and Open RAN deployments using synchronized SDR Platform.
Wideband RF acquisition and real-time spectrum analysis across complex RF environments.
Advanced waveform generation, synchronized acquisition, and FPGA-accelerated signal processing for radar research.
M.2 2242 SDR architectures with coherent timing and synchronization.
Custom FPGA acceleration pipelines for DSP, transport, protocol handling, and RF processing.
| Frequency Range | 30 MHz – 11 GHz |
| Channels | 2 RX / 2 TX (full duplex) |
| Instantaneous Bandwidth | Up to 120 MHz |
| sampling rate | Up to 100 MSPS |
| RFIC | LMS7002M + LMS8001 |
| FPGA | AMD Artix UltraScale+ (XCAU7P) |
| Interface | M.2 2242 M-Key · PCIe 3.0 ×4 · USB 2.0 |
| Synchronization | GPS / 1PPS / external reference |
| Reference Clock | Internal 26 MHz TCXO or External clock |
| Power | Embedded low-power architecture |
sSDR shares a unified FPGA and software architecture with uSDR, xSDR, and dSDR platforms — enabling portability across embedded, wideband, and distributed RF systems.
| Spec | uSDR | xSDR | sSDR | dSDR |
|---|---|---|---|---|
| Frequency Range | 70 MHz – 3.8 GHz | 30 MHz – 3.8 GHz | 30 MHz – 11 GHz | Up to 12 GHz (model-dependent) |
| Channels | 2×2 | 2 RX / 2 TX | 2 RX / 2 TX | Up to 6 RX / 4 TX |
| Bandwidth | 56 MHz | Up to 90 MHz | 0.5 – 120 MHz | up to 1 GHz |
| Interface | M.2 2230 A+E key · USB 2.0 · PCIe 2.0 ×2 | M.2 2230 A+E key · USB 2.0 · PCIe 2.0 ×2 | M.2 2242 M-Key · PCIe 3.0 ×4 · USB 2.0 | M.2 3080 M-Key · PCIe 4.0 ×4 |
| Form factor | M.2 2230 | M.2 2230 | M.2 2242 | M.2 3080 |
| Sync | 10 MHz / PPS | External clock | TCXO / ext | External clock |
Rev2 supports the same synchronization and distributed RF workflows as Rev3 while utilizing an AMD Xilinx XC7A50T FPGA and an M-Key · PCIe 3.0/4.0 ×4 USB 2.0 interface.
The platform remains suitable for embedded RF development, wireless infrastructure research, synchronized SDR arrays, and custom SDR integration workflows.
sSDR Rev3 remains the current production platform with expanded capabilities and updated architecture.
Extend your SDR with a configurable RF front-end for filtering, amplification and protection.

The Front End (FE) is a modular high-performance adapter board for Wavelet Lab sSDR and dSDR modules. It provides up to 4 RX and 4 TX RF paths, synchronized operation, fast TX/RX switching for TDD applications, and integrated RF front-end components including low-noise amplifiers, power amplifiers, filters, and switches. The board is intended for users building multi-channel SDR systems where RF routing, external antenna access, synchronization, and repeatable lab or field integration are required. A lighter Breakout Board version is also available for users who want the same module-carrier concept without integrated RF front-end components. This version is better suited for custom RF front-end development, lab integration, and users who want to connect their own RF chains.
Direct conversation with the engineering team.