Feb 2003 to Present SalesU.S. Automotive Atlanta, GA Nov 2000 to Jan 2003 Accounts managerWholesale Wood Warehouses Marietta, GA Dec 1999 to Nov 2000 Warehouse Manager
Education:
Athens Technical Institute Athens, GA 1995 to 1998 General Business and Marketing in AdvertisingSouthern Polytechnic State University Marietta, GA 1993 to 1995 Architecture/Electrical EngineeringMadison County High School Danielsville, GA 1989 to 1993 College Preparatory
Jan 2013 to 2000 Assistant Warehouse Manager/Driver (Class A drivers license holder) January 2013 - PresentRADCORP Solutions Waldorf, MD Jan 2012 to Jan 2013 Project Coordinator/QA SpecialistVEGA MotorSports Waldorf, MD Mar 2011 to Dec 2011 Auto DetailerAnna's Linens Washington, DC Feb 2011 to Mar 2011 Sales AssociateLewisburg FPC Lewisburg, PA Aug 2010 to Dec 2010 Senior Building and Grounds TechnicianRecycling Lewisburg, PA Apr 2010 to Aug 2010 Dismantling TechnicianUnicor Industries FCI Fort Dix, NJ Sep 2008 to Mar 2010 Shipping ClerkUnicor Industries FCI Minersville, PA May 2001 to Jun 2008 Furniture Assembler/Expeditor
Education:
Ashworth College Norcross, GA Apr 2004 to Nov 2007 Business Management
Jan 2012 to 2000 Project Coordinator/QA SpecialistVEGA MOTORSPORTS Waldorf, MD Mar 2011 to Dec 2011 Auto DetailerAnna's Linens Washington, DC Feb 2011 to Mar 2011 Sales AssociateLewisburg FPC Lewisburg, PA Aug 2010 to Dec 2010 Senior Building and Grounds TechnicianRecycling Lewisburg, PA Apr 2010 to Aug 2010 Dismantling TechnicianUnicor Industries FCI Fort Dix, NJ Sep 2008 to Mar 2010 Shipping ClerkUnicor Industries FCI Minersville, PA May 2001 to Jun 2008 Furniture Assembler/Expeditor
Education:
Ashworth College Norcross, GA Apr 2004 to Nov 2007 Business Management
Criminal Law DUI/DWI Personal Injury Landlord and Tenant Law Criminal Defense General Practice Speeding & Traffic Ticket Spinal Cord Injury Spinal Cord Injury
ISLN:
919811841
Admitted:
2008
University:
University of Cambridge, United Kingdom; University of North Carolina at Chapel Hill, B.A.; Aberdeen University School of Law, Aberdeen, Scotland
James Farmer - Lilburn GA John J. Kenny - Norcross GA John S. Hollabaugh - El Paso TX Calvin W. Stover - El Paso TX
Assignee:
ARRIS International, Inc. - Duluth GA
International Classification:
H04B 310
US Classification:
333 15, 333 16, 327 65, 455500, 455 68
Abstract:
An apparatus ( ) for switching from a first pilot signal and a second pilot signal on a system transporting a plurality of signals. A tuner ( ) receives the signals and provides an output signal to a loop compensation circuit ( ). The tuner includes a bandpass filter ( ) for removing signals other than the selected pilot signal from the output of the tuner. The output of the bandpass filter is provided to a detector circuit ( ). The output of the detector is compared with a reference signal ( ) by the loop compensation circuit ( ). A microcontroller ( ) sends a tuning command to the tuner which causes the tuner to switch from tuning to the first pilot signal to tuning to the second pilot signal and also sends a new reference voltage to the loop compensation circuit. Thus, if the input signal changes from analog to digital modulation on the pilot channel, the set-point, or target level of the reference signal, will automatically change to provide the correct value for operation of the circuit. The microcontroller may change the selected pilot signal based upon a command in the input signal or upon an operator command, such as by setting a switch (not shown).
Ronald L. Hodge - Flowery Branch GA Paul E. Bebout - Marietta GA James O. Farmer - Lilburn GA
Assignee:
Wave7 Optics, Inc. - Alpharetta GA
International Classification:
G02B 600
US Classification:
385135, 385136
Abstract:
An enclosure for facilitating and protecting splices or connections between communication transmission mediums can include a housing having a first port and a drop port. The first port can allow a distribution cable containing a transmission medium to enter the housing. The drop port can allow another transmission medium to enter the housing, and it can allow a transmission medium to be added or removed without disturbing existing transmission mediums or connections in the housing. A drop plug can be provided to seal the drop port. The enclosure can also include a cover plate having a gasket coupled to its perimeter and being removable with the cover plate. Strain relief for the transmission mediums entering the enclosure can also be provided. Two-stage strain relief and single-stage strain relief can be provided for the transmission mediums entering through the first port and the drop port, respectively.
Ronald L. Hodge - Flowery Branch GA, US Paul E. Bebout - Marietta GA, US James O. Farmer - Lilburn GA, US
Assignee:
Wave7 Optics, Inc. - Alpharetta GA
International Classification:
G02B006/00
US Classification:
385135, 385136
Abstract:
An enclosure for facilitating and protecting splices or connections between communication transmission mediums can include a housing having a first port and a drop port. The first port can allow a distribution cable containing a transmission medium to enter the housing. The drop port can allow another transmission medium to enter the housing, and it can allow a transmission medium to be added or removed without disturbing existing transmission mediums or connections in the housing. A drop plug can be provided to seal the drop port. The enclosure can also include a cover plate having a gasket coupled to its perimeter and being removable with the cover plate. Strain relief for the transmission mediums entering the enclosure can also be provided. Two-stage strain relief and single-stage strain relief can be provided for the transmission mediums entering through the first port and the drop port, respectively.
System And Method For Communicating Optical Signals Between A Data Service Provider And Subscribers
James O. Farmer - Lilburn GA, US John J. Kenny - Norcross GA, US Patrick W. Quinn - Lafayette CA, US Thomas A. Tighe - Alpharetta GA, US Paul F. Whittlesey - Sugar Hill GA, US Emmanuel A. Vella - Alpharetta GA, US
Assignee:
Wave7 Optics, Inc. - Alpharetta GA
International Classification:
H04B010/00 H04J014/00
US Classification:
398 68, 398 71, 398 72, 398135
Abstract:
An optical fiber network can include an outdoor laser transceiver node that can be positioned in close proximity to the subscribers of an optical fiber network. The outdoor laser transceiver node does not require active cooling and heating devices that control the temperature surrounding the laser transceiver node. The laser transceiver node can adjust a subscriber's bandwidth on a subscription basis or on an as-needed basis. The laser transceiver node can also offer data bandwidth to the subscriber in preassigned increments. Additionally, the laser transceiver node lends itself to efficient upgrading that can be performed entirely on the network side. The laser transceiver node can also provide high speed symmetrical data transmission. Further, the laser transceiver node can utilize off-the-shelf hardware to generate optical signals such as Fabry-Perot (F-P) laser transmitters, distributed feed back lasers (DFB), or vertical cavity surface emitting lasers (VCSELs).
System And Method For Removing Heat From A Subscriber Optical Interface
A system and method removes heat from an enclosure or housing of a subscriber optical interface. When a subscriber optical interface housing is attached to a structure such that a partially enclosed volume of space remains between the structure and the subscriber optical interface housing, this partially enclosed volume of space can produce a chimney effect when heat from the subscriber optical interface housing is intended to flow from fins towards the structure. This chimney effect can refer to a fluid such as air within the partially enclosed space that is heated by the fins and that rises upward when the ambient or surrounding fluid is cooler relative to the heated fluid. According to another exemplary embodiment, the subscriber optical interface can be shaped to form an internal chimney structure that is entirely surrounded by a housing of the subscriber optical interface.
Method And System For Processing Upstream Packets Of An Optical Network
Stephen A. Thomas - Marietta GA, US Kevin Bourg - Alpharetta GA, US Deven Anthony - Alpharetta GA, US Patrick W. Quinn - Lafayette CA, US James O. Farmer - Lilburn GA, US John J. Kenny - Norcross GA, US Thomas A. Tighe - Alpharetta GA, US Paul F. Whittlesey - Sugar Hill GA, US Emmanuel A. Vella - Alpharetta GA, US
A protocol for an optical network can control the time at which subscriber optical interfaces of an optical network are permitted to transmit data to a transceiver node. The protocol can prevent collisions of upstream transmissions between the subscriber optical interfaces of a particular subscriber group. With the protocol, a transceiver node close to the subscriber can allocate additional or reduced upstream bandwidth based upon the demand of one or more subscribers. That is, a transceiver node close to a subscriber can monitor (or police) and adjust a subscriber's upstream bandwidth on a subscription basis or on an as-needed basis. The protocol can account for aggregates of packets rather than individual packets. By performing calculation on aggregates of packets, the algorithm can execute less frequently which, in turn, permits its implementation in lower performance and lower cost devices, such as software executing in a general purpose microprocessor.
System And Method For Communicating Optical Signals Upstream And Downstream Between A Data Service Provider And Subscriber
James O. Farmer - Lilburn GA, US Paul F. Whittlesey - Sugar Hill GA, US Patrick W. Quinn - Lafayette CA, US John J. Kenny - Norcross GA, US Emmanuel A. Vella - Alpharetta GA, US Thomas A. Tighe - Alpharetta GA, US
Assignee:
Wave7 Optics, Inc. - Alpharetta GA
International Classification:
H04B 10/00
US Classification:
398 70, 398 72
Abstract:
An optical fiber network can include an outdoor bandwidth transforming node that can be positioned in close proximity to the subscribers of an optical fiber network. The outdoor bandwidth transforming node does not require active cooling and heating devices that control the temperature surrounding the bandwidth transforming node. The bandwidth transforming node can adjust a subscriber's bandwidth on a subscription basis or on an as-needed basis. The bandwidth transforming node can also offer data bandwidth to the subscriber in preassigned increments. Additionally, the bandwidth transforming node lends itself to efficient upgrading that can be performed entirely on the network side. The bandwidth transforming node can also provide high speed symmetrical data transmission. Further, the bandwidth transforming node can increase upstream and downstream bandwidth and transmission speed by propagating data signals at different wavelengths.
Method And System For Providing A Return Data Path For Legacy Terminals By Using Existing Electrical Waveguides Of A Structure
A return path may include a modem pair that is coupled to existing electrical waveguides in a structure such as a house or office building. Specifically, a first modem of the modem pair may be coupled to a first end of a coaxial cable and to a video service terminal. A second modem of the modem pair may be coupled to a second end of the coaxial cable and a data interface. The first modem can modulate video control return packets onto an RF carrier that is propagated over the coaxial cable to the second modem. The video control return packets can be formatted as Ethernet type packets. The second modem can demodulate the RF carrier to extract the video control return packets and to forward these packets towards a data service hub.
James C Farmer MD 523 E 72 St FL 3, New York, NY 10021 212 606-1591 (phone), 212 774-2909 (fax)
Education:
Medical School Georgetown University School of Medicine Graduated: 1988
Procedures:
Spinal Cord Surgery Spinal Fusion Spinal Surgery
Conditions:
Intervertebral Disc Degeneration Spinal Stenosis Ankylosing Spondylitis (AS) Fractures, Dislocations, Derangement, and Sprains Internal Derangement of Knee Cartilage
Languages:
English
Description:
Dr. Farmer graduated from the Georgetown University School of Medicine in 1988. He works in New York, NY and specializes in Orthopaedic Surgery Of Spine. Dr. Farmer is affiliated with Hospital For Special Surgery.
LewisGale PhysiciansLewis-Gale Physicians Salem Campus East 1802 Braeburn Dr, Salem, VA 24153 540 772-3430 (phone), 540 776-2036 (fax)
Education:
Medical School Baylor College of Medicine Graduated: 1997
Procedures:
Hip/Femur Fractures and Dislocations Joint Arthroscopy Knee Arthroscopy Knee Replacement Lower Arm/Elbow/Wrist Fractures and Dislocations Occupational Therapy Evaluation Shoulder Arthroscopy Arthrocentesis Hallux Valgus Repair Hip Replacement Lower Leg/Ankle Fractures and Dislocations Shoulder Surgery Spinal Surgery
Conditions:
Fractures, Dislocations, Derangement, and Sprains Internal Derangement of Knee Cartilage Rotator Cuff Syndrome and Allied Disorders Internal Derangement of Knee Internal Derangement of Knee Ligaments
Languages:
English
Description:
Dr. Farmer graduated from the Baylor College of Medicine in 1997. He works in Salem, VA and specializes in Orthopaedic Surgery and Orthopedic Sports Medicine. Dr. Farmer is affiliated with Lewis Gale Medical Center.
Dr. Farmer graduated from the Mercer University School of Medicine in 1988. He works in Dublin, GA and specializes in Internal Medicine. Dr. Farmer is affiliated with Fairview Park Hospital.
Emory ClinicEmory Clinic Cardiothoracic Surgery 550 Peachtree St NE FL 6, Atlanta, GA 30308 404 686-2513 (phone), 404 686-4959 (fax)
Languages:
Chinese English Spanish
Description:
Mr. Farmer works in Atlanta, GA and specializes in Congenital Cardiac Surgery (Thoracic Surgery). Mr. Farmer is affiliated with Emory University Hospital Midtown and Wellstar Kennestone Regional Medical Center.
Eagle Mountain Elementary School Desert Center CA 1969-1978, Eagle Mountain High School Eagle Mountain CA 1969-1980, Magee Middle School Tucson AZ 1978-1979