The described technology provides front-end antenna architecture for wireless communication that manages multiple frequency sub-bands in a manner that results is a low insertion loss rate. Further, the components of the architecture are smaller than typical wireless communication antenna architectures, and therefore the described architecture can be accommodated in a smaller area than typical architectures without a decrease in efficiency. A matching circuit is communicatively connected to each frequency sub-band's respective signal path. When two or more sub-bands are requested for high-speed wireless communication, the matching circuits match the impedance of each sub-band with one-another. Matching the impedance allows two or more sub-bands to be used to wirelessly communicate while maintaining high efficiency. The matching circuits are disabled when only one sub-band is needed for wireless communication.
The described technology provides an antenna interface for wireless communication that allows the use of a single transmission line trace between at least one antenna and a transceiver of a wireless communications device. The components of the antenna interface include a first set of filters, a set of low noise amplifiers (LNAs) and a second set of filters. The antenna interface, which is communicatively coupled to the single transmission line trace, avoids the use of a coaxial cable and reduces issues related to the use of multiple transmission line traces.
Front-End Circuitry For Multiband Frequency Management
The described technology provides front-end antenna architecture for wireless communication that manages multiple frequency sub-bands in a manner that results is a low insertion loss rate. Further, the components of the architecture are smaller than typical wireless communication antenna architectures, and therefore the described architecture can be accommodated in a smaller area than typical architectures without a decrease in efficiency. A matching circuit is communicatively connected to each frequency sub-band's respective signal path. When two or more sub-bands are requested for high-speed wireless communication, the matching circuits match the impedance of each sub-band with one-another. Matching the impedance allows two or more sub-bands to be used to wirelessly communicate while maintaining high efficiency. The matching circuits are disabled when only one sub-band is needed for wireless communication.
Department of Animal Sciences, The Ohio State University Columbus, OH Sep 2012 to Dec 2012 Research AssociateDepartment of Veterinary Medicine, Hunan Agricultural University Changsha, CN May 2011 to Aug 2011 Summer InternTianxin Swine Genetics Inc Xiangtan, CN Jan 2011 to Apr 2011 Full-time research technicianDepartment of Animal Sciences, The Ohio State University Columbus, OH Sep 2010 to Mar 2011 Research AssistantHarmony Animal Hospital Changsha, CN May 2010 to Sep 2010 Veterinary Assistant
Education:
Hunan Agricultural University Jul 2011 Bachelor of Agriculture in Veterinary MedicineThe Ohio State University Master of Science in Animal Sciences
Department of Animal Sciences, The Ohio State University Columbus, OH Sep 2012 to Dec 2012 Research AssociateDepartment of Veterinary Medicine, Hunan Agricultural University Changsha, CN May 2011 to Aug 2011 Summer InternTianxin Swine Genetics Inc Xiangtan, CN Jan 2011 to Apr 2011 Full-time research technicianDepartment of Animal Sciences, The Ohio State University Columbus, OH Sep 2010 to Mar 2011 Research AssistantHarmony Animal Hospital Changsha, CN May 2010 to Sep 2010 Veterinary Assistant
Education:
Hunan Agricultural University Jul 2011 Bachelor of Agriculture in Veterinary MedicineThe Ohio State University Master of Science in Animal Sciences