Polymer Integrated Photonics Circuits
Adaptable photonics for your needs.

Polymers


- High electro-optic efficiency: Organic materials exhibit large electro-optic coefficients, enabling low-voltage, high-speed modulation in photonic circuits.
- Tunable optical and emission properties: Their molecular structures can be engineered to control refractive index, nonlinear response, and light emission for lasers or amplifiers.
- Low-cost and versatile fabrication: Solution-based processing methods allow easy, low-temperature, and scalable manufacturing on various substrates.
- Broad transparency and ultrafast response: Many organics are transparent across visible to near-infrared ranges and support femtosecond-level optical responses.
- Lightweight and flexible integration: Their mechanical flexibility and compatibility with hybrid platforms enable compact, energy-efficient, and adaptable photonic devices.
Integrated photonics platform comparison
| Platform | Material Base | Wavelength Range | Loss | Active/Passive Integration |
| Polymer | Polymers/ organic molecules | 400 -1600 nm | Moderate | Passive, laser, modulator, amplifiers |
| SOI | Silicon | 1260-1650 nm | Moderate | Passive only |
| SiN | SiN | 400-2300+ nm | Low | Passive mainly |
| LNOI | Lithium Niobate | Wideband (UV-IR) | Moderate | High-performance modulation |
| InP | InP | 1260-1650 nm | High | Lasers, modulators, detectors |
| Silica | Doped Silica | 1260-1650 nm | Low | Passive only |
| Alo | Aluminum Oxide | 200-3000 nm | Low | Passive, amplifiers available |
Involvements

