Optoelectronic Hybird Integration ｜ E-mail：sales1@cqwiseworld.com
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Engineered specifically for demanding analog signal environments, this TIA High Speed Photoreceiver Optical Receiver serves as a critical component in complex optical networks. By covering the essential 1310nm and 1550nm communication wavelengths, the device ensures precise, low-loss conversion of high-frequency optical signals into electrical outputs. Engineers and procurement specialists integrating these receivers will notice immediate improvements in signal integrity across extended network spans. Operating optimally within these core communication bands, this receiver is perfectly aligned with global optical networking standards. This dual-band capability allows system architects to utilize the receiver across diverse network topologies, from long-haul trunk lines to localized distribution networks, without needing to stock multiple receiver variants. The unit is designed to interface flawlessly with precision equipment, minimizing insertion loss and maximizing dynamic range.
The receiver is officially rated and extensively tested for the following primary deployments:
• Microwave optical transmission link
• High speed optical fiber communication system
• High speed test measurement
• Other analog optical transmission
Beyond these core uses, the receiver’s architecture supports advanced analog optical transmission frameworks where signal fidelity is paramount. When deployed in microwave optical transmission links, the receiver effectively mitigates phase noise, ensuring that the translated electrical signals retain the exact characteristics of their original optical counterparts. For high-speed test measurement setups, the low dark current and exceptional linearity provide technicians with the precise data required for rigorous system validation. Whether installed in sprawling telecommunication hubs, deep-sea communication nodes, or compact aerospace communication modules, this receiver provides the operational consistency required for continuous, error-free data flow. The integration process is highly intuitive, allowing technicians to connect the receiver to existing diagnostic tools without requiring intermediary signal conditioners. By maintaining strict phase linearity and amplitude stability, the receiver empowers network operators to push their infrastructure to maximum capacity while maintaining strict error-rate margins.
The internal architecture of this optical receiver leverages Optoelectronic Hybrid Integration, a sophisticated manufacturing approach that bonds the photodiode and transimpedance amplifier within a highly controlled micro-environment. This method significantly reduces parasitic capacitance, allowing the device to achieve exceptional speed and responsiveness. The exterior features a ruggedized ceramic package, which feels distinctly solid to the touch and provides superior thermal dissipation compared to standard metallic housings. This ceramic shielding protects the delicate internal wire bonds from mechanical shock, vibration, and severe thermal cycling stress, ensuring long-term stability even in harsh industrial facilities.
Achieving a responsivity of greater than 0.8A/W, the receiver guarantees highly efficient light-to-current conversion across its operational spectrum. The output is precisely tuned for 50-ohm radio frequency (RF) impedance matching. This critical engineering detail prevents signal reflection and ensures maximum power transfer to subsequent amplification stages, preserving the integrity of the high-speed analog waveform.
• InGaAs photodetector
• Frequency 18GHz and 35GHz optional
• 3dB bandwidth ＞18GHz
Space constraints and thermal extremes are common challenges in modern network infrastructure. To address this, the receiver is built to withstand severe environmental fluctuations without compromising its signal-to-noise ratio. The optional ultra-tight fiber bending radius allows installers to route cables through densely packed server racks, intricate aerospace enclosures, or miniaturized testing jigs without risking micro-bending losses or physical fiber damage.
• Operating temperature -55~70℃
• Fiber bending radius 10 mm (optional)
• Meeting the requirements of high reliability
The hermetic sealing process used during manufacturing further isolates the active components from atmospheric moisture and contaminants, directly contributing to the device's extended operational lifespan and reducing maintenance overhead for facility managers.
Recognizing that off-the-shelf specifications rarely meet the exact needs of specialized engineering projects, we provide comprehensive OEM services and structural customization. Procurement teams can specify exact fiber coupling methods, connector types, and mounting bracket configurations to ensure the receiver drops perfectly into existing chassis designs without requiring costly mechanical modifications. Before any customized unit leaves our facility, it undergoes rigorous environmental and electrical stress testing to verify that it meets the exact parameters defined during the consultation phase. This commitment to quality assurance means that when you unbox the receiver, it is fully calibrated and ready for immediate deployment in your most critical applications.
From the initial selection consultation to final deployment, our engineering team provides continuous, end-to-end technical support. We assist in mapping out the exact frequency requirements—helping you confidently choose between the 18GHz and 35GHz configurations based on your system's specific bandwidth demands and future scalability plans. To ensure smooth integration, every order is accompanied by detailed product manuals, extensive FAQ resource libraries, and dedicated troubleshooting guides. Our streamlined logistics network guarantees rapid delivery of both prototype units for initial validation and large-scale production volumes for full system rollouts, keeping your project timelines strictly on schedule and minimizing supply chain disruptions.
