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CASE STUDY

Embedded Hardware Platform Engineering for Satellite Terminals

Delivered production-grade satellite communication hardware platforms enabling scalable deployment across enterprise, maritime, and mission-critical environments.

Situation

A global communications provider required new generations of satellite terminal hardware to support increasing throughput demands, evolving waveform standards, and diverse deployment environments (enterprise, mobility, and ruggedized use cases). Existing platforms lacked flexibility and were not optimized for modern IP-based traffic patterns.

Solution

Designed and engineered custom PCB-based hardware platforms for satellite remotes through iterative collaboration with internal engineering teams to align hardware capabilities with evolving protocol and throughput requirements.

OUTCOMES

30% fewer
prototype respin cycles
35% faster
hardware production readiness
Aligned manufacturing
with repeatable hardware release workflows
20% higher
sustained throughput capacity

Challenges

Performance

  • Increasing throughput demand
  • Evolving waveform standards
  • IP traffic demands

Flexibility

  • Legacy adaptability limits
  • Multi-environment deployment gaps

Manufacturing

  • Production hardware misalignment
  • Architecture reuse limits

Solutions

01

Modem Board Design

High-speed digital board design for modem and routing functionality.

  • Designed high-speed PCB architectures supporting modem and routing subsystems
  • Optimized signal integrity for sustained throughput performance
  • Enabled scalable integration with evolving satellite protocol stacks
02

Multi-Interface Networking Integration

Integration of multi-interface networking (Gigabit Ethernet, switching fabrics)

  • Integrated Gigabit Ethernet and switching fabric interfaces into platform designs
  • Supported flexible network topologies across deployment environments
  • Enabled interoperability with enterprise and mobility infrastructure
03

Thermal/Power Optimization

Thermal and power optimization for both desktop and rackmount form factors.

  • Engineered thermal management strategies for dense hardware configurations
  • Optimized power delivery across desktop and rackmount variants
  • Ensured stability under sustained operational loads
04

Ruggedized Deployment Support

Ruggedization pathways for harsh-environment deployments.

  • Developed ruggedization pathways for field and maritime deployments
  • Ensured resilience under temperature and vibration stress conditions
  • Enabled lifecycle readiness for mission-critical environments
05

Manufacturing-Ready Hardware Design

Manufacturing-ready designs with DFM/DFT considerations.

  • Incorporated DFM and DFT practices into early hardware design stages
  • Enabled repeatable hardware scaling across product tiers