Optical communications – Transmitter – Including specific optical elements
Reexamination Certificate
2008-03-12
2010-12-28
Pascal, Leslie (Department: 2613)
Optical communications
Transmitter
Including specific optical elements
C398S185000, C398S186000, C398S187000
Reexamination Certificate
active
07860404
ABSTRACT:
An optical transmitter is discloses having a gain section and a phase section. The phase section is modulated to generate a frequency modulated signal encoding data. The frequency modulated signal is transmitted through an optical spectrum reshaper operable to convert it into a frequency and amplitude modulated signal. In some embodiments, a driving circuit is coupled to the phase and gain sections is configured to simultaneously modulate both the phase and gain sections such that the first signal is both frequency and amplitude modulated.
REFERENCES:
patent: 3324295 (1967-06-01), Harris
patent: 3999105 (1976-12-01), Archey et al.
patent: 4038600 (1977-07-01), Thomas
patent: 4561119 (1985-12-01), Epworth
patent: 4805235 (1989-02-01), Henmi
patent: 4841519 (1989-06-01), Nishio
patent: 5293545 (1994-03-01), Huber
patent: 5325378 (1994-06-01), Zorabedian
patent: 5371625 (1994-12-01), Wedding et al.
patent: 5412474 (1995-05-01), Reasenberg et al.
patent: 5416629 (1995-05-01), Huber
patent: 5465264 (1995-11-01), Buhler et al.
patent: 5477368 (1995-12-01), Eskildsen et al.
patent: 5550667 (1996-08-01), Krimmel et al.
patent: 5592327 (1997-01-01), Gabl et al.
patent: 5737104 (1998-04-01), Lee et al.
patent: 5777773 (1998-07-01), Epworth et al.
patent: 5805235 (1998-09-01), Bedard
patent: 5856980 (1999-01-01), Doyle et al.
patent: 5920416 (1999-07-01), Beylat et al.
patent: 5953139 (1999-09-01), Nemecek et al.
patent: 5974209 (1999-10-01), Cho et al.
patent: 6081361 (2000-06-01), Adams et al.
patent: 6096496 (2000-08-01), Frankel
patent: 6104851 (2000-08-01), Mahgerefteh
patent: 6115403 (2000-09-01), Brenner et al.
patent: 6222861 (2001-04-01), Kuo et al.
patent: 6271959 (2001-08-01), Kim et al.
patent: 6298186 (2001-10-01), He
patent: 6331991 (2001-12-01), Mahgerefteh
patent: 6359716 (2002-03-01), Taylor
patent: 6473214 (2002-10-01), Roberts et al.
patent: 6506342 (2003-01-01), Frankel
patent: 6563623 (2003-05-01), Penninckx et al.
patent: 6577013 (2003-06-01), Glenn et al.
patent: 6618513 (2003-09-01), Evankow, Jr.
patent: 6654564 (2003-11-01), Colbourne et al.
patent: 6665351 (2003-12-01), Hedberg et al.
patent: 6687278 (2004-02-01), Mason et al.
patent: 6748133 (2004-06-01), Liu et al.
patent: 6778307 (2004-08-01), Clark
patent: 6810047 (2004-10-01), Oh et al.
patent: 6834134 (2004-12-01), Brennan et al.
patent: 6836487 (2004-12-01), Farmer et al.
patent: 6847758 (2005-01-01), Watanabe
patent: 6947206 (2005-09-01), Tsadka et al.
patent: 6963685 (2005-11-01), Mahgerefteh et al.
patent: 7013090 (2006-03-01), Adachi et al.
patent: 7054538 (2006-05-01), Mahgerefteh et al.
patent: 7076170 (2006-07-01), Choa
patent: 7123846 (2006-10-01), Tateyama et al.
patent: 7263291 (2007-08-01), Mahgerefteh et al.
patent: 7280721 (2007-10-01), McCallion et al.
patent: 7406267 (2008-07-01), Mahgerefteh et al.
patent: 7555225 (2009-06-01), Mahgerefteh et al.
patent: 2002/0154372 (2002-10-01), Chung et al.
patent: 2002/0159490 (2002-10-01), Karwacki
patent: 2002/0176659 (2002-11-01), Lei et al.
patent: 2003/0002120 (2003-01-01), Choa
patent: 2003/0067952 (2003-04-01), Tsukiji et al.
patent: 2003/0099018 (2003-05-01), Singh et al.
patent: 2003/0147114 (2003-08-01), Kang et al.
patent: 2003/0193974 (2003-10-01), Frankel et al.
patent: 2004/0008933 (2004-01-01), Mahgerefteh et al.
patent: 2004/0008937 (2004-01-01), Mahgerefteh et al.
patent: 2004/0036943 (2004-02-01), Freund et al.
patent: 2004/0076199 (2004-04-01), Wipiejewski et al.
patent: 2004/0096221 (2004-05-01), Mahgerefteh et al.
patent: 2004/0218890 (2004-11-01), Mahgerefteh et al.
patent: 2005/0100345 (2005-05-01), Welch et al.
patent: 2005/0111852 (2005-05-01), Mahgerefteh et al.
patent: 2005/0175356 (2005-08-01), McCallion et al.
patent: 2005/0206989 (2005-09-01), Marsh
patent: 2005/0271394 (2005-12-01), Whiteaway et al.
patent: 2005/0286829 (2005-12-01), Mahgerefteh et al.
patent: 2006/0002718 (2006-01-01), Matsui et al.
patent: 2006/0018666 (2006-01-01), Matsui et al.
patent: 2006/0029358 (2006-02-01), Mahgerefteh et al.
patent: 2006/0029396 (2006-02-01), Mahgerefteh et al.
patent: 2006/0029397 (2006-02-01), Mahgerefteh et al.
patent: 2006/0228120 (2006-10-01), McCallion et al.
patent: 2006/0233556 (2006-10-01), Mahgerefteh et al.
patent: 2006/0274993 (2006-12-01), Mahgerefteh et al.
patent: 2 107 147 (1983-04-01), None
patent: 9905804 (1999-02-01), None
patent: 0104999 (2001-01-01), None
patent: 03005512 (2002-07-01), None
Alexander et al., Passive Equalization of Semiconductor Diode Laser Frequency Modulation, Journal of Lightwave Technology, Jan. 1989, 11-23, vol. 7, No. 1.
Binder, J. et al., 10 Gbit/s-Dispersion Optimized Transmission at 1.55 um Wavelength on Standard Single Mode Fiber, IEEE Photonics Technology Letters, Apr. 1994, 558-560, vol. 6, No. 4.
Hyryniewicz, J.V., et al., Higher Order Filter Response in Coupled Microring Resonators, IEEE Photonics Technology Letters, Mar. 2000, 320-322, vol. 12, No. 3.
Koch, T. L. et al., Nature of Wavelength Chirping in Directly Modulated Semiconductor Lasers, Electronics Letters, Dec. 6, 1984, 1038-1039, vol. 20, No. 25/26.
Kurtzke, C., et al., Impact of Residual Amplitude Modulation on the Performance of Dispersion-Supported and Dispersion-Mediated Nonlinearity-Enhanced Transmission, Electronics Letters, Jun. 9, 1994, 988, vol. 30, No. 12.
Li, Yuan P., et al., Chapter 8: Silicon Optical Bench Waveguide Technology, Optical Fiber Communications, 1997, 319-370, vol. 111B, Lucent Technologies, New York.
Little, Brent E., Advances in Microring Resonators, Integrated Photonics Research Conference 2003.
Mohrdiek, S. et al., 10-Gb/s Standard Fiber Transmission Using Directly Modulated 1.55-um Quantum-Well DFB Lasers, IEEE Photonics Technology Letters, Nov. 1995, 1357-1359, vol. 7, No. 11.
Morton, P.A. et al., “38.5km error free transmission at 10Gbit/s in standard fibre using a low chirp, spectrally filtered, directly modulated 1.55um DFB laser”, Electronics Letters, Feb. 13, 1997, vol. 33(4).
Prokais, John G., Digital Communications, 2001, 202-207, Fourth Edition, McGraw Hill, New York.
Rasmussen, C.J., et al., Optimum Amplitude and Frequency-Modulation in an Optical Communication System Based on Dispersion Supported Transmission, Electronics Letters, Apr. 27, 1995, 746, vol. 31, No. 9.
Shalom, Hamutall et al., On the Various Time Constants of Wavelength Changes of a DFB Laser Under Direct Modulation, IEEE Journal of Quantum Electronics, Oct. 1998, pp. 1816-1822, vol. 34, No. 10.
Wedding, B., Analysis of fibre transfer function and determination of receiver frequency response for dispersion supported transmission, Electronics Letters, Jan. 6, 1994, 58-59, vol. 30, No. 1.
Wedding, B., et al., 10-Gb/s Optical Transmission up to 253 km Via Standard Single-Mode Fiber Using the Method of Dispersion-Supported Transmission, Journal of Lightwave Technology, Oct. 1994, 1720, vol. 12, No. 10.
Yu, et al., Optimization of the Frequency Response of a Semiconductor Optical Amplifier Wavelength Converter Using a Fiber Bragg Grating, Journal of Lightwave Technology, Feb. 1999, 308-315, vol. 17, No. 2.
Corvini, P.J. et al., Computer Simulation of High-Bit-Rate Optical Fiber Transmission Using Single-Frequency Lasers, Journal of Lightwave Technology, Nov. 1987, 1591-1596, vol. LT-5, No. 11.
Lee, Chang-Hee et al., Transmission of Directly Modulated 2.5-Gb/s Signals Over 250-km of Nondispersion-Shifted Fiber by Using a Spectral Filtering Method, IEEE Photonics Technology Letters, Dec. 1996, 1725-1727, vol. 8, No. 12.
Matsui, Yasuhiro et al, Chirp-Managed Directly Modulated Laser (CML), IEEE Photonics Technology Letters, Jan. 15, 2006, pp. 385-387, vol. 18, No. 2.
Nakahara, K. et al, 40-Gb/s Direct Modulation With High Extinction Ratio Operation of 1.3- μm InGaA1As Multiquantum Well Ridge Waveguide Distributed Feedback Lasers, IEEE Photonics Technology Leters, Oct. 1, 2007, pp. 1436-1438, vol. 19 No. 19.
Sato, K. et al, Chirp Characteristics of 40-Gb/s Directly Modulated Distributed-Feedback Laser Diodes, Journal of Lightwave Technology, Nov. 2005, pp. 3790-3797, vol. 23, No. 11.
Mahgerefteh Daniel
Matsui Yasuhiro
McCallion Kevin
Tayebati Parviz
Zheng Xueyan
Finisar Corporation
Pascal Leslie
Workman Nydegger
LandOfFree
Optical FM source based on intra-cavity phase and amplitude... does not yet have a rating. At this time, there are no reviews or comments for this patent.
If you have personal experience with Optical FM source based on intra-cavity phase and amplitude..., we encourage you to share that experience with our LandOfFree.com community. Your opinion is very important and Optical FM source based on intra-cavity phase and amplitude... will most certainly appreciate the feedback.
Profile ID: LFUS-PAI-O-4188471