Cross-Domain Knowledge

Cross-Domain Engineering Across Compute, Signal, and Systems

We bring together compute architecture, mixed-signal design, and system validation expertise to solve complex engineering problems end-to-end.

Logic Fruit’s strength lies in bridging traditionally siloed domains—enabling faster integration, fewer hand-offs, and predictable system performance.

T a l k t o a S y s t e m A r c h i t e c t

CROSS-DOMAIN EXAMPLES

Engineering at the Intersection of Domains

Representative examples of how Logic Fruit applies cross-domain knowledge in real systems.

Compute + High-Speed Interfaces

What we integrate

FPGA and SoC compute pipelines
PCIe, CXL, Ethernet, and JESD interfaces
Memory subsystems and DMA engines

Why cross-domain matters

Compute performance is directly influenced by interface timing, buffering, and system software behavior.

Outcome

Balanced throughput, controlled latency, and efficient resource utilization.

Visual

Compute blocks connected to high-speed links

Compute + High-Speed Interfaces

What we integrate

FPGA and SoC compute pipelines
PCIe, CXL, Ethernet, and JESD interfaces
Memory subsystems and DMA engines

Why cross-domain matters

Compute performance is directly influenced by interface timing, buffering, and system software behavior.

Outcome

Balanced throughput, controlled latency, and efficient resource utilization.

Visual

Compute blocks connected to high-speed links

Compute + High-Speed Interfaces

What we integrate

FPGA and SoC compute pipelines
PCIe, CXL, Ethernet, and JESD interfaces
Memory subsystems and DMA engines

Why cross-domain matters

Compute performance is directly influenced by interface timing, buffering, and system software behavior.

Outcome

Balanced throughput, controlled latency, and efficient resource utilization.

Visual

Compute blocks connected to high-speed links

Compute + High-Speed Interfaces

What we integrate

FPGA and SoC compute pipelines
PCIe, CXL, Ethernet, and JESD interfaces
Memory subsystems and DMA engines

Why cross-domain matters

Compute performance is directly influenced by interface timing, buffering, and system software behavior.

Outcome

Balanced throughput, controlled latency, and efficient resource utilization.

Visual

Compute blocks connected to high-speed links

Mixed-Signal + Digital Processing

What we integrate

ADC/DAC front-ends and clocking networks
JESD204B/C/D data paths
FPGA-based DSP and data conditioning

Why cross-domain matters

Signal integrity, clock jitter, and digital pipeline design must be aligned to preserve signal fidelity.

Outcome

Deterministic data capture with predictable latency and accuracy.

Visual

Analog front-end flowing into digital processing stages

Hardware + Verification Automation

What we integrate

Custom hardware platforms and firmware
CI-driven test automation
Instrument-controlled validation setups

Why cross-domain matters

Validation must understand hardware behavior, software timing, and system constraints together.

Outcome

Repeatable integration, faster debug cycles, and measurable quality improvement.

Visual

Test pipeline linking hardware and CI tools

FACILITIES OVERVIEW

Engineering and Validation Facilities

Infrastructure designed to support cross-domain development, bring-up, and validation.

Hardware & Lab Infrastructure

FPGA, SoC, and accelerator platforms
High-speed interface bring-up setups
Power, thermal, and environmental testing

Mixed-Signal & Measurement

FPGA, SoC, and accelerator platforms
High-speed interface bring-up setups
Power, thermal, and environmental testing

Compute & Software Environment

Multi-OS development environments
CI-enabled build and test servers
Version-controlled infrastructure

Validation & Automation Labs

Remotely accessible test benches
Automated regression and stress testing
Production-oriented test setups

DESIGN APPROACH DIAGRAM

A Structured, Architecture-First Approach to FPGA/SoC Design

Our methodology ensures clean architecture, efficient partitioning, and predictable implementation even in complex, high-speed systems.

System Requirements → Architecture Definition

Workload characterization
Latency & throughput constraints
High-speed I/O requirements

Partitioning & Floorplanning

Compute vs control vs pipeline
Resource budgeting (LUT/BRAM/DSP)
Clock & reset domain design

RTL Development & IP Integration

Custom logic + standard interfaces
PCIe/CXL, JESD204x, Ethernet, MIPI
Simulation-first flow

Timing Closure & Implementation

Constraint authoring (XDC, SDC)
CDC/SDC checks
Pipelining & retiming

System Bring-Up & Validation

On-board tests
Firmware integration
Performance validation

Leverage Cross-Domain Expertise for Complex Systems

Logic Fruit’s multidisciplinary engineering approach helps teams design, integrate, and validate systems where compute, signal integrity, and reliability must work together.

T a l k t o a n A r c h i t e c t