Motorola Solutions, Inc.

Georgia Tech Research Corporation

John Alexander Herrmann

William D Hunt

David W Wallis

Michelle LaPlaca

Kyle Spencer Davis

Chris Ward

Charles William Friedli

Roy L Kerfoot, Jr

Donald L Flowers

Frederick J Weissinger

Viranga L Wijeratne

Warren B Albert

Edward W Brumley, Jr

Disclosed herein are methods of disrupting cell-to-cell communication. An exemplary method comprises transmitting one or more microwave signals to a communication molecule located in an environment having a plurality of cells. The one or more microwave signals can comprise a first microwave signal and a second microwave signal. The first microwave signal can have a first frequency corresponding to frequency of a first peak in a microwave spectrum associated with rotational modes of the communication molecule. The second microwave signal can have a second frequency corresponding to a frequency of a second peak in the microwave spectrum associated with the rotational modes of the communication molecule.

Systems and methods for microwave jamming of molecular recognition

Systems and methods include directing limited frequencies of microwave signals toward target molecules, driving a motion of the target molecules to impact molecular recognition. In one implementation, a microwave spectra associated with the rotational modes of a target molecule is obtained. From peaks in the spectra, a mode of molecular movement is identified and a microwave signal profile is generated for driving a motion of binding portions of the molecule associated with the identified mode. Microwave signals are generated based on the signal profile for output by antennas. For example, the microwave signals can be can be used to impede the binding of quorum sensing molecules by receptors of. In one implementation, the antennas can be placed in a catheter for placement in a patient. In another implementation, the antennas can be placed in a sleeve or other device for use adjacent to the skin of a patient.

Disclosed herein are methods and systems for providing a ballast load for a magnetic resonance power source. One embodiment takes the form of a magnetic resonance power source that includes a source coil, a load-detection module, a tunable ballast coil circuit, and a controller programmed to carry out a set of functions. The set of functions includes obtaining, via the load-detection module, an estimated load on the source coil. The set of functions also includes decreasing the power received by the tunable ballast coil circuit from the source coil when the estimated load on the source coil is greater than a desired load on the source coil. The set of functions also includes increasing the power received by the tunable ballast coil circuit from the source coil when the estimated load on the source coil is less than the desired load on the source coil.

Methods and systems for providing a ballast load for a magnetic resonant power supply

Embodiments include a portable rechargeable battery pack, system, and external adapter that allow the portable rechargeable battery pack to both power a host device though a set of host contacts and provide power through a set of charging contacts. The portable rechargeable battery pack includes a charge protection circuit that prevents an excessive discharge current through the charging contacts and allows high charge current when charging the portable rechargeable battery pack. A discharge circuit allows a low level discharge current through the charging contacts to provide power to other devices.

Portable rechargeable battery pack and external adapter for same

A wireless power source including a microwave receiver, a matching network, and a transducer. The microwave receiver receives a microwave signal having a carrier frequency. The matching network receives a signal having the carrier frequency and a switched frequency and removes the carrier frequency such that the matching network outputs a switched signal at the switched frequency. The transducer is configured to receive the switched signal and output a DC voltage.

Wireless power transfer using a microwave signal

A method and apparatus for controlling access to a logic circuit in a battery by one or more components connected to the battery includes the components initially providing no voltage to a data contact, and sampling a voltage level at the data contact to determine if another component is presently connected to the logic circuit. When the sampled voltage indicates no other component is presently accessing the logic circuit, the component applies a voltage to the logic circuit via the data contact and access the logic circuit. When the sampled voltage indicates that a prior-connected component is connected to the battery, the component uses a voltage level provided by the prior-connected component to access the logic circuit.

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Suwanee, GA, United States of America

John Alexander Herrmann