A fast response 155-mb/s burst-mode optical receiver for PON

Vatannia, S.; Yeung, P.H.; Lu, Chenggang

doi:10.1109/lpt.2005.844313

Cited by 10 publications

(3 citation statements)

References 4 publications

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“…A 155 Mb/s burst-mode receiver for asynchronous transfer mode in PON is presented in [17]. Using a 45 GHz-f t SiGe process, the design reached a sensitivity of −31 dBm with a supply voltage of 3.3 V. The pin photodiode has a responsivity of 0.8 A/W and a capacitance of 0.8 pF.…”

Section: State-of-the-art Sige Burst-mode Receiversmentioning

confidence: 99%

Fast transimpedance switching burst‐mode CMOS optical receiver

Schneider

Zimmermann

2007

Circuit Theory & Apps

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SUMMARYThis work shows that the performance of optical receivers designed in silicon deep-sub-micron CMOS technologies competes successfully with more expensive SiGe-BiCMOS receivers in data rate and sensitivity. In burst-mode applications of passive optical networks, the transimpedance of the low-noise amplifier has to be switched very fast requiring, the exclusion of oscillations. To meet the burst-mode requirements, our design for 2.5 G bit/s in 120 nm CMOS offers a fast switching of the transimpedance within 3 ns and proves a low-distortion signal detection.

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Section: State-of-the-art Sige Burst-mode Receiversmentioning

confidence: 99%

Fast transimpedance switching burst‐mode CMOS optical receiver

Schneider

Zimmermann

2007

Circuit Theory & Apps

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“…In burst-mode operation, it is not suitable because it usually takes thousands of bits to recover the clock. To enhance the clock recovery speed, feedforward architectures such as gated voltage-controlled oscillator [56] and oversampling [57] have been proposed. However, the jitter tolerance of these architectures is lower than that of the feedback architecture.…”

Section: B Burst-mode Receiversmentioning

confidence: 99%

Next-Generation Optical Access Networks

Kazovsky

Shaw

Gutierrez

et al. 2007

J. Lightwave Technol.

365

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Abstract-The main bandwidth bottleneck in today's networks is in the access segment. To address that bottleneck, broadband fiber access technologies such as passive optical networks (PONs) are an indispensable solution. The industry has selected timedivision multiplexing (TDM) for current PON deployments. To satisfy future bandwidth demands, however, next-generation PON systems are being investigated to provide even higher performance. In this paper, we first review current TDM-PONs; we designate them as generation C. Next, we review next-generation PON systems, which we categorize into C+1 and C+2 generations. We expect C+1 systems to provide economic near-term bandwidth upgrade by overlaying new services on current TDM-PONs. For the long term, C+2 systems will provide more dramatic system improvement using wavelength division multiplexing technologies. Some C+2 architectures require new infrastructures and/or equipment, whereas others employ a more evolutionary approach. We also review key enabling components and technologies for C+1 and C+2 generations and point out important topics for future research.Index Terms-Access networks, passive optical network (PON), time division multiplexing (TDM), wavelength division multiplexing (WDM).

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“…Receivers with the following characteristics are therefore necessary: wide dynamic range, fast automatic threshold control (ATC), and fast phase acquisition, where ATC and phase acquisition must occur within nanoseconds to support short packet lengths at gigabit rates. Burst-mode receiver front-ends have already been demonstrated with wide dynamic range and fast ATC [5]. This work focuses on the fast phase acquisition requirement.…”

Section: Introductionmentioning

confidence: 99%

Burst-mode clock and data recovery in optical multiaccess networks using broad-band PLLs

Faucher

Plant

2006

IEEE Photon. Technol. Lett.

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Broad-band phase-locked loops (PLLs) are proposed for burst-mode clock and data recovery in optical multiaccess networks. Design parameters for a charge-pump PLL-based clock and data recovery (CDR) with fast phase acquisition are derived using a time-domain model that does not assume narrow loop bandwidth or small phase errors. Implementation in a half-rate CDR circuit confirms a clock phase acquisition time of 40 ns, or 100 bits at 2.488-Gb/s rate, and data recovery at 1.244-Gb/s rate with a bit-error rate of 1 10 10 (2 14 1 pseudorandom binary sequence with Manchester-encoding). The CDR was fabricated in complementary metal-oxide-semiconductor 0.18-m technology in an area of 1 1 mm 2 and consumes 54 mW of power from a 1.8-V supply.

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A fast response 155-mb/s burst-mode optical receiver for PON

Cited by 10 publications

References 4 publications

Fast transimpedance switching burst‐mode CMOS optical receiver

Fast transimpedance switching burst‐mode CMOS optical receiver

Next-Generation Optical Access Networks

Burst-mode clock and data recovery in optical multiaccess networks using broad-band PLLs

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