Products and Services
Optical Wireless Communication Hardware
Small-Satellite Payload Architecture & System Integration Service
Small-Satellite Payload Architecture & System Integration Service
A new class of microwave-photonic hardware designed for free-space optical (FSO) satellite communication.
Our hardware enables compact, efficient, and frequency-agnostic data transmission between satellites and across orbital layers — reducing size, weight, and power consumption while improving network scalability and sustainability.
Key Highlights:
- High data-rate optical link support
- Frequency-agnostic microwave-photonic architecture
- Compact and modular design for small satellite platforms
- Compatible with multi-orbit and inter-constellation communication
Small-Satellite Payload Architecture & System Integration Service
Small-Satellite Payload Architecture & System Integration Service
Small-Satellite Payload Architecture & System Integration Service
Luminics Wave offers payload architecture and system integration services that leverage our advanced microwave-photonic hardware for next-generation space communication platforms. We collaborate with partners to define custom payload concepts optimized for data throughput, scalability, and sustainability across multiple orbital layers.
By combining deep expertise in photonics, RF, and system-level design, we help satellite developers and integrators implement efficient, future-ready communication payloads that meet evolving mission and network requirements.
Key Highlights:
- Custom payload architecture design and analysis
- Integration of hybrid optical-microwave technologies
- System-level optimization for multi-orbit missions
- Scalable and sustainable communication solutions
Simulation and System-Level Modelling Service for FSO
Small-Satellite Payload Architecture & System Integration Service
Simulation and System-Level Modelling Service for FSO
Luminics Wave provides simulation and system-level modelling services for free-space optical (FSO) communication systems, helping partners evaluate performance, reliability, and feasibility under real-world atmospheric conditions.
Our team applies advanced modelling techniques to assess optical link budgets, atmospheric effects, and system-level trade-offs, supporting the design and optimization of future optical wireless communication architectures.
Key Highlights:
- End-to-end system modelling for optical wireless links
- Atmospheric impact and signal degradation analysis
- Performance and link budget simulations
- Feasibility studies for multi-orbit optical communication networks