An automated, high-precision mathematical synthesis pipeline that moves your custom math maps into deterministic FPGA fabrics with absolute confidentiality.
To maximize design flexibility and eliminate interconnect bottlenecks, all ACE math engines utilize a decoupled Dual-Port Block RAM (BRAM) interface wrapper. One dedicated memory port serves your custom application data stream, while the second port is directly tied to the high-performance math execution engine.
This isolated dual-port memory boundary grants system architects total implementation freedom across two distinct integration paradigms:
Processor-Based Hardware Acceleration: For designs featuring hard or soft-core processors (e.g., ARM Cortex, RISC-V, MicroBlaze), the user-side BRAM port can be easily mapped directly onto your FPGA system bus using standard interconnect wrappers like AXI4-Lite or AXI4-Stream.
Pure Silicon Low-Level Logic: For ultra-low-latency applications where data cannot leave the FPGA fabric, the user-side BRAM port can be wired directly to adjacent RTL logic, DSP pipelines, or custom state machines—bypassing processor overhead entirely.
Key Integration Advantages:
Fixed, Deterministic Execution: The math engine operates completely independently of external bus arbitration, preventing system jitter.
Zero Interconnect Lock-In: Easily port the core across different FPGA vendors or custom system architectures without modifying the underlying arithmetic core.
Maximum Efficiency: Shared memory eliminates the complex data-shuffling logic typically required by rigid hardware accelerators.
Secure Ingestion
You provide your mathematical equations, algorithm blocks, or reference designs (Matlab, C++, Java, or text-based math matrices)
The Protection: Every transfer is protected under a strict Non-Disclosure Agreement (NDA). Your proprietary algorithms and mathematical frameworks remain exclusively your sovereign property throughout the entire lifecycle.
High-Density Mathematical Intake
Our specialized engineering team reviews the underlying architecture to align it with stateless, linear hardware data flows
The Innovation: To ensure rapid and seamless translation, we use and/or provide access to our dedicated Intake Engine. This specialized intake platform parses your raw equations, validates parameters, maps data structures, and exposes the hardware optimization required to tailor your algorithm to our developement tools.
Feasibility Analysis & Initial development
If the ingestion model passes initial hardware parameters, we perform a strict hardware feasibility analysis.
The Pipeline: Once approved, we bypass generic, bloated High-Level Synthesis (HLS) design suites. Instead, we use our proprietary internal compilers to translate your algorithm into RTL. Our hardware experts fine-tune the data layout to compress register loops and ensure perfect timing closure.
Delivery of a Verified Prototype
Within a few business days, we deliver a functional prototype wrapped inside a comprehensive simulation environment.
The Deliverables: You receive a Simulation-Only Licensed Core along with a bit-validated verification testbench. This allows your software and validation teams to execute real-world simulation trajectories, physically verifying our guaranteed fixed-cycle latency, resource footprints, and numerical precision drift against your proprietary mathematical references.
Pure mathematical equations or algorithmic logic
Deeply nested matrices, filters (like EKF/UKF), or multi-axis kinematics
Algorithms that demand absolute, fixed-cycle execution determinism.
Heavy heuristic branching logic (e.g., massive networks of complex if/then or conditional state transitions)
System-level peripheral communication (e.g., raw PCIe drivers or network stack management)
Ready to see your equations in silicon?
Contact our team. We will deliver a feasibility report and your verified simulation prototype in less than a week.