One Medical 913 Cottonwood Dr, Sherman, TX 75090 903 868-9565 (phone), 903 893-8916 (fax)
Education:
Medical School Texas Tech University Health Science Center School of Medicine - Lubbock Graduated: 1991
Languages:
English Spanish
Description:
Dr. Buckner graduated from the Texas Tech University Health Science Center School of Medicine - Lubbock in 1991. He works in Sherman, TX and specializes in Emergency Medicine.
Name / Title
Company / Classification
Phones & Addresses
Mark Buckner Principal, Owner
Atlanta Bread Co Retail Bakery · Full-Service Restaurants
2010 Franklin Ter Ct, Johnson City, TN 37604 423 282-8001, 423 282-2377
Mark Buckner Scientist And Systems Design Engineer Microwave
Oak Ridge National Laboratory 2005 - 2014
Cognitive Radio Program Director
Oak Ridge National Laboratory 2005 - 2014
Power and Energy Systems Group Leader at Oak Ridge National Laboratory
Scrum, Inc. 2005 - 2014
Principal Consultant
Education:
University of Tennessee, Knoxville 1987 - 2003
Master of Science, Masters, Nuclear Engineering
University of Tennessee, Knoxville 1987 - 2003
Doctorates, Doctor of Philosophy, Philosophy, Nuclear Engineering
Carson - Newman University 1981 - 1986
Bachelors, Physics
Skills:
Research Machine Learning Artificial Intelligence Certified Scrum Master Software Defined Radio Program Management Analysis Software Development Physics Coaching and Mentoring Mentoring Scrum4Hw Certified Scrum Product Owner Cognitive Radio Change Management Strategic Planning Lean Startup Management Strategy Engineering Software Engineering Biomimetics Product Development Leadership
Interests:
Science and Technology Children Education Economic Empowerment
Mark A. Buckner - Oak Ridge TN, US Gregory R. Hanson - Clinton TN, US William L. Bryan - Knoxville TN, US
Assignee:
UT-Battelle LLC - Oak Ridge TN
International Classification:
G08B 13/14
US Classification:
3405721, 34053929
Abstract:
Methods and apparatus are described for space charge dosimeters for extremely low power measurements of radiation in shipping containers. A method includes insitu polling a suite of passive integrating ionizing radiation sensors including reading-out dosimetric data from a first passive integrating ionizing radiation sensor and a second passive integrating ionizing radiation sensor, where the first passive integrating ionizing radiation sensor and the second passive integrating ionizing radiation sensor remain situated where the dosimetric data was integrated while reading-out. Another method includes arranging a plurality of ionizing radiation sensors in a spatially dispersed array; determining a relative position of each of the plurality of ionizing radiation sensors to define a volume of interest; collecting ionizing radiation data from at least a subset of the plurality of ionizing radiation sensors; and triggering an alarm condition when a dose level of an ionizing radiation source is calculated to exceed a threshold.
Space Charge Dosimeters For Extremely Low Power Measurements Of Radiation In Shipping Containers
Methods and apparatus are described for space charge dosimeters for extremely low power measurements of radiation in shipping containers. A method includes in situ polling a suite of passive integrating ionizing radiation sensors including reading-out dosimetric data from a first passive integrating ionizing radiation sensor and a second passive integrating ionizing radiation sensor, where the first passive integrating ionizing radiation sensor and the second passive integrating ionizing radiation sensor remain situated where the dosimetric data was integrated while reading-out. Another method includes arranging a plurality of ionizing radiation sensors in a spatially dispersed array; determining a relative position of each of the plurality of ionizing radiation sensors to define a volume of interest; collecting ionizing radiation data from at least a subset of the plurality of ionizing radiation sensors; and triggering an alarm condition when a dose level of an ionizing radiation source is calculated to exceed a threshold.
Space Charge Dosimeters For Extremely Low Power Measurements Of Radiation In Shipping Containers
Methods and apparatus are described for space charge dosimeters for extremely low power measurements of radiation in shipping containers. A method includes insitu polling a suite of passive integrating ionizing radiation sensors including reading-out dosimetric data from a first passive integrating ionizing radiation sensor and a second passive integrating ionizing radiation sensor, where the first passive integrating ionizing radiation sensor and the second passive integrating ionizing radiation sensor remain situated where the dosimetric data was integrated while reading-out. Another method includes arranging a plurality of ionizing radiation sensors in a spatially dispersed array; determining a relative position of each of the plurality of ionizing radiation sensors to define a volume of interest; collecting ionizing radiation data from at least a subset of the plurality of ionizing radiation sensors; and triggering an alarm condition when a dose level of an ionizing radiation source is calculated to exceed a threshold.
A system for providing a configurable display for a signal activated device may include a receiver, a memory, a processor, and a display. The receiver may be operative to receive a radio frequency signal. The memory may be coupled with the receiver, and may be operative to store an item. The processor may be coupled with the memory and may be operative to retrieve the item stored in the memory, in response to the activation signal received by the receiver. The processor may use a current induced in the receiver by the radio frequency signal to retrieve the item. The display may be coupled with the processor and may be operative to display the item retrieved from memory using the current induced in the receiver.
A radio frequency (RF) reader, comprising a memory; and a processor in communication with the memory, the memory including computer code executable with the processor. The computer code is configured to: determine a first communication characteristic for a first device coupled with the RF reader, the first device being operable to communicate with the RF tag using the first communication characteristic; determine a first reader configuration that is operable to communicate using the first communication characteristic; determine a second communication characteristic for a second device coupled with the RF reader, the second device being operable to communicate with the RF tag using the second communication characteristic; determine a second reader configuration that is operable to communicate using the second communication characteristic; and switch a RF reader configuration between the first reader configuration and the second reader configuration, such that the RF reader is operable to communicate with the first device and the second device.
A method for configuring a radio frequency (RF) tag is provided. The method comprises determining communication characteristics for a first RF device coupled with the RF tag, and configuring the RF tag as a function of the communication characteristics for the first RF device. The first RF device uses the communication characteristics to communicate with the RF tag. The communication characteristics define a first operating frequency and a first protocol. The RF tag is configured as a function of the communication characteristics for the first RF device, such that the RF tag is operable to communicate with the first RF device at the first operating frequency and using the first protocol.