An up-to-date, comprehensive guide for advanced electrical engineering studentsand electrical engineers working in the IC and optical industries
This book covers the major transimpedance amplifier (TIA) topologies and their circuit implementations for optical receivers. This includes the shunt-feedback TIA, common-base TIA, common-gate TIA, regulated-cascode TIA, distributed-amplifier TIA, nonresistive feedback TIA, current-mode TIA, burst-mode TIA, and analog-receiver TIA. The noise, transimpedance, and other performance parameters of these circuits are analyzed and optimized. Topics of interest include post amplifiers, differential vs. single-ended TIAs, DC input current control, and adaptive transimpedance. The book features real-world examples of TIA circuits for a variety of receivers (direct detection, coherent, burst-mode, etc.) implemented in a broad array of technologies (HBT, BiCMOS, CMOS, etc.).
The book begins with an introduction to optical communication systems, signals, and standards. It then moves on to discussions of optical fiber and photodetectors. This discussion includes p-i-n photodetectors; avalanche photodetectors (APD); optically preamplified detectors; integrated detectors, including detectors for silicon photonics; and detectors for phase-modulated signals, including coherent detectors. This is followed by coverage of the optical receiver at the system level: the relationship between noise, sensitivity, optical signal-to-noise ratio (OSNR), and bit-error rate (BER) is explained; receiver impairments, such as intersymbol interference (ISI), are covered. In addition, the author presents TIA specifications and illustrates them with example values from recent product data sheets. The book also includes:
- Many numerical examples throughout that help make the material more concrete for readers
- Real-world product examples that show the performance of actual IC designs
- Chapter summaries that highlight the key points
- Problems and their solutions for readers who want to practice and deepen their understanding of thematerial
- Appendices that cover communication signals, eye diagrams, timing jitter, nonlinearity, adaptive equalizers, decision point control, forward error correction (FEC), and second-order low-pass transfer functions
Analysis and Design of Transimpedance Amplifiers for Optical Receivers belongs on the reference shelves of every electrical engineer working in the IC and optical industries. It also can serve as a textbook for upper-level undergraduates and graduate students studying integrated circuit design and optical communication.
Keywords: transfer impedance amplifiers; transimpedance amplifiers; tias; optical receiver circuitry; optical receiver design; optical receiver applications; transimpedance amplifier topologies; tia topologies; transimpedance amplifier circuit implementations; optical receiver impairments; intersymbol interference; timing jitter; nonlinear distortions; transimpedance amplifier specifications; transimpedance amplifier product data sheets; transimpedance amplifier implementations in optical communications; transimpedance amplifier implementations in broadband communications; relationships between noise; sensitivity; optical signal-to-noise ratio; and bit-error rate; optical communication systems; optical communication signals; optical communication standards; p-i-n photodetectors; avalanche photodetectors; optically preamplified detectors; integrated detectors; detectors for silicon photonics; detectors for phase-modulated signals; coherent detectors; coherent receivers; high-frequency integrated circuit design; shunt-feedback tias; common-base tias; common-gate tias; feedforward tias; regulated cascode tias; distributed-amplifier tias; nonresistive feedback tias; capacitive-feedback tias; optical-feedback tias; active-feedback tias; current-mode tias; burst-mode tias; analog-receiver tias; noise analysis; noise matching; transimpedance limit; post amplifiers; single-ended tias; differential tias; dc input current control; adaptive transimpedance, Noise in Electronic Systems, Communication Technology, Noise in Electronic Systems, Communication Technology