Mitten Inc Manufacturers & Producers. Windows - Vinyl. Siding Materials. Building Materials
225 Henry St. Bldg 5A, Brantford, ON N3S 7R4 5198054701, 8662579819
Mr. Gary Ball Owner/Operator
Ball Holdings Inc. Car Fix. Rustblock Newfoundland. Sovereign Equipment Auto Repair & Service. Tire Dealers. Auto Diagnostic Service. Auto Electric Service. Brake Service. Mufflers & Exhaust Systems. Auto Service - Rust proofing Shops. Auto Services. Commercial Products Wholesale & Distributor. Wholesalers & Distributors. Industrial Equipment & Supplies. Industrial Products Wholesalers & Distributors
651 Topsail Road, St. John's, NL A1E 2E3 7097454200, 7097454092
Gary S. Ball Owner
So Cal Palms Ornamental Nursery
19481 Martin Ln, Santa Ana, CA 92705 PO Box 7314, Orange, CA 92863 7145389799
Gary Ball CEO
Mitten Inc Manufacturers & Producers · Windows - Vinyl · Siding Materials · Building Materials
5198054701, 8662579819
Gary L. Ball President
J B R FARMS, INC
10535 Lemoran Ave, Downey, CA 90241 10566 Brierbush Ave, Downey, CA 90241
Gary Ball Branch Manager
Mcilveen Lumber Industries Ltd Building Materials
7804471331
Gary Ball Owner/Operator
Ball Holdings Inc Auto Repair & Service · Tire Dealers · Auto Diagnostic Service · Auto Electric Service · Brake Service · Mufflers & Exhaust Systems · Auto Service - Rust proofing Shops · Auto Services
7097454200, 7097454092
Gary Ball Marketing Director
Casablanca Fan Co Electric Housewares & Household Fan Mfg · Electric Housewares and Fans
761 Corporate Ctr Dr, Pomona, CA 91768 9096291477, 9096290958
Gary A. Ball - Simsbury CT Robert W. Ade - Bolton CT Karl Kissa - Avon CT Paul Dunn - Westfield MA Timothy C. Munks - Crystal Lake IL Eitan Gertel - North Wales PA
Assignee:
Uniphase Corporation - San Jose CA
International Classification:
G02B 612
US Classification:
385 14
Abstract:
An integrated optical transmitter for use in an optical system has an optical head assembly with an optical beam generator for providing an optical beam and a lens assembly collecting the optical beam and generating therefrom a formed optical beam. Interface optics receives the formed optical beam and provides optical coupling so as to minimize insertion loss to the optical beam. Also included is an optical modulator for receiving the optical beam from the interface optics and for providing a modulated optical beam in response to received modulation signals. The optical modulator is coupled to the interface optics to be in a fixed relationship therewith.
A single polarization fiber and/or amplifier includes a non-polarization preserving fiber 10 having a fiber grating tap 12 which has a predetermined length and strength (. DELTA. n/n) and is oriented at a predetermined angle. theta. and has a grating spacing D so as to couple-out of the fiber 10 a predetermined amount of one polarization 24 over a predetermined wavelength range of an input light 16 and pass the other polarization 28 as output light 26, the grating length being substantially the length of the fiber 10. Alternatively, all or a portion of the fiber 10 may be doped to form a polarization sensitive optical amplifier.
Gary A. Ball - Simsbury CT Gerald Meltz - Avon CT Leon A. Newman - Glastonbury CT
Assignee:
United Technologies Corporation - Hartford CT
International Classification:
G01K 1100 G01L 124 G01B 1116
US Classification:
374120
Abstract:
A remote active multipoint fiber laser sensor includes a plurality of fiber lasers 12,14,16, each having a pair of Bragg gratings 18,20, embedded in a fiber 10 and excited by a common pump light 30. The lasers 12,14,16 lase at different longitudinal modes (lasing wavelengths) and emit light 32,34,36, at their respective wavelengths. lambda. 1,. lambda. 2,. lambda. n. The lasing wavelength of each laser shifts due to perturbations, such as strain or temperature, applied thereto. The output light 32,34,36 is fed to a spectrum analyzer 50 where the wavelength shift is analyzed. A signal processor 54 reads the wavelength shift and provides a signal on lines 56 indicative of the perturbation at each of the lasers/sensors 12-16. Alternatively, a single laser may be used as a single sensor. Alternatively, birefringent fiber may be used as the fiber cavities 21 and the two polarizations are beat together to form a lower difference or "beat" frequency, thereby allowing lower frequency detection devices to be used.
Dual-Wavelength Frequency-Chirped Microwave Amcw Ladar System
Gary A. Ball - Simsbury CT Leon A. Newman - Glastonbury CT
Assignee:
United Technologies Corporation - Hartford CT
International Classification:
G01C 300
US Classification:
356 509
Abstract:
An amplitude modulated continuous wave (AMCW) laser radar (ladar) system is provided with a dual-wavelength source 10 which provides a dual wavelength signal 12 (one fixed and one chirped) which is launched down a fiber 28 to a target 38 and reflected back along the fiber 28 and the return detected by a detector 52. The transmitted signal is detected by a detector 56. The detectors 52, 56 provide an electrical return beat signal and reference beat signal, respectively, indicative of the difference between the wavelengths incident thereon. The signals are fed to a frequency mixer 60 which subtracts the two beat frequencies and signal processing logic 64 computes the distance to the target 38. Using dual wavelengths and beat frequencies provides a much broader chirp bandwidth than conventional ladar techniques, and allows for higher power sources, thereby reducing range error.
Integrated Kerr Shutter And Fiber Laser Optical Modulation
An optical modulation source provides a pulsed optical signal 44 by coupling a pulsed optical pump signal 13 polarized along one axis of a polarization preserving fiber 24 having a wavelength. lambda. p and a continuous-wave (CW) probe signal 54 polarized partially along the pump polarization axis having the desired output wavelength. lambda. s provided by a laser 52, into one end 22 of a polarization preserving fiber 24. The pump signal is decoupled at the output end 26 of the fiber 24 and used to drive the laser 52 which provides the CW probe signal 54. The pulsed pump signal 13, when present, changes the polarization of the probe signal 54 by the optical Kerr effect. The probe signal is decoupled at the output end 26 of the fiber 24 and passed through an analyzer 38 yielding an output probe signal 44 which exists only when the pump signal is present (or alternatively, when absent), thereby providing a probe signal 44 having a wavelength. lambda. s of the probe signal and a pulse rate (1/T) of the pump signal.
Programmable Add-Drop Module For Use In An Optical Circuit
An apparatus for use in selectively adding or dropping channels in an optical network includes an optical circulator and an array of programmable fiber Bragg gratings. Each fiber Bragg grating is a narrow ban reflective element which can be tuned on or off of an ITU standard wavelength division multiplex channel so that the channel is either fully reflected or transmitted by the grating. The addition or subtraction of signal channels is operated by a controller which operates the individual fiber Bragg gratings between transmissive and reflective states.
Frederick Leonberger - Glastonbury CT William H. Glenn - Vernon CT Gary A. Ball - Newington CT
Assignee:
United Technologies Corporation - Hartford CT
International Classification:
H01S 330
US Classification:
372 6
Abstract:
A tunable optical waveguide laser arrangement includes a solid optical waveguide capable of guiding light along an axis between axially spaced ends thereof and being at least in part of an excitable material that emits light in response to stimulation by light. Stimulating light is launched into the waveguide for axial propagation therein and attendant emission of light by the excitable material. Two end reflectors are situated in the waveguide, each at one of the axially spaced ends thereof and extending normal to the axis to delimit a laser cavity. Each of the reflectors is constituted by a Bragg grating consisting of a multitude of axially consecutive grating elements constituted by periodic refractive index perturbations with a given periodicity. The length of the cavity, the peak reflectivity of the Bragg gratings and the gain of the excitable material are so coordinated with one another as to enable lasing in only a single longitudinal mode. The length of that portion of the optical waveguide that incorporates the two Bragg gratings and an intervening region of the optical waveguide is uniformly controlledly varied with attendant continuous tuning of the laser output wavelength without longitudinal mode hopping.
Single Longitudinal Mode Pumped Optical Waveguide Laser Arrangement
Gary A. Ball - Simsbury CT William H. Glenn - Vernon CT
Assignee:
United Technologies Corporation - Hartford CT
International Classification:
H01S 330
US Classification:
372 6
Abstract:
An optical waveguide laser arrangement includes a solid optical waveguide having a waveguiding portion that extends along an axis between two spaced regions of the optical waveguide and is of a material capable of emitting stimulated light upon excitation by pumping light that is launched into the optical waveguide for axial propagation through the axially spaced regions of the optical waveguide. Two reflectors are provided, each being disposed at one of the axially spaced regions of the optical waveguide to delimit a laser resonator. At least one of the reflectors is constituted by a Bragg grating consisting of a multitude of axially consecutive periodic perturbations in the refractive index of the respective one of the axially spaced regions that cumulatively reflect the stimulated light at a reflectivity that decreases for adjacent longitudinal modes of the stimulated light with increasing deviation from a central wavelength. The axial length of the laser resonator, the reflectivity of the Bragg grating and the gain of the excitable material are so coordinated with one another as to sustain lasing in only a single longitudinal mode.
Grand Rapids, MIOwner at GDK Business Solutions LLC Past: Technology Consultant at Cincinnati Bell Technology Solutions, Senior Account Executive at... I have extensive experience in Business Development and telecommunications (equipment, network services and cellular)