Medical Graphics Corporation

Other

Navico Holding As

Peerlead Medical, Inc.

Morari, LLC

Hoey, Michael

Bennett, Jeffrey

Mccutcheon, Shawn

Shawn McCutcheon

Michael F Hoey

David M Anderson

Lloyd Ohme

Rachel Goldstein

John Juola

Jeffrey Bennett

Michael Lauenstein

Matthew Johnson

Dicken Shiu-Chung Ko

Dicken S C Ko

A flexible neuromodulation device and method capable of varying a neuromodulation therapy in order to prevent, delay, or control a sexual emission, and/or increasing an intensity of a sexual climax.

Apparatus and method of treating an approaching physiological event and increasing an intensity of the event

Electrode stimulation applicator patch

Devices and systems for noninvasively and nondestructively sensing a signal in an electrical outdoor device, such a fishing transponder, are described. The device can include a first electrical connection to connect to a port on a main unit of an echo-location device, a second electrical connection to connect to a port on a transponder, the second electrical connection being in bi-directional electrical communication with the first connection to send a power signal from the main unit to the transponder and return an echoed signal to the main unit, and a third electrical connection to sense the signals between the first electrical connection and the second electrical connection. Positioning data is also created and stored with the signal data. The positioning data can be used to control acquisition of data. Systems and methods for processing the sensed data are described. Reports can be generated using the data and, in some reports with the positioning data.

Systems, devices, methods for sensing and processing fishing related data

Medical electrodes in embodiments of the teachings may include one or more of the following features: (a) a metallic conductor, (b) the metallic conductor sandwiched between a first dielectric layer adjacent a top surface of the metallic conductor and a second dielectric layer located on a bottom surface of the metallic conductor, (c) a conducive gel coating on at least one of the first and second dielectric layers, (e) the metallic conductor, the dielectric layers, and the conductive gel being wrapped to form a multi-tiered electrode having a plurality of conductive surfaces, (f) an adhesive adhering the metallic conductor with the dielectric layers, (g) a tab connector to provide a connection to electrical monitoring equipment and (h) an attachment connector to provide electrical connection with a patient.

Capacitive medical electrode

Medical electrodes in embodiments of the teachings may include one or more of the following features: (a) a metallic conductor, (b) the metallic conductor sandwiched between a first dielectric layer adjacent a top surface of the metallic conductor and a second dielectric layer located on a bottom surface of the metallic conductor, (c) a conductive gel coating on at least one of the first and second dielectric layers, (e) the metallic conductor, the dielectric layers, and the conductive gel being wrapped to form a multi-tiered electrode having a plurality of conductive surfaces, (f) an adhesive adhering the metallic conductor with the dielectric layers, (g) a tab connector to provide a connection to electrical monitoring equipment and (h) an attachment connector to provide electrical connection with a patient.

A method is described for dynamically calibrating a flowmeter used in cardiopulmonary performance analyzing equipment which takes into account the ambient conditions at the test site in terms of relative humidity, barometric pressure and temperature. At the time of factory calibration, a density factor is computed and stored in a nonvolatile memory along with a calibration factor obtained by passing a known volume of gas at a known relative humidity, temperature and pressure through a pneumotach mouthpiece in a predetermined time span. When the system is being used in the field to evaluate a patient, a new density factor is computed that takes into account the relative humidity, barometric pressure and temperature at the test site and this new density factor along with the density factor previously computed and stored at factory calibration are used to compute a new flow calibration factor for use in obtaining an accurate flow parameter from the system flowmeter.

Dynamic gas density compensation in pulmonary gas analyzer systems

The gas sample line in a cardlopulmonary performance analyzing system is designed to include a flow sensor for measuring the rate of flow of the gas sample being drawn and is used to adjust the initial transit time value measured at the time of system calibration for a known value of flow in arriving at a new or current transit time value at the time that a test is actually being performed on a patient. This dynamically compensates the transit time for variations in the sample flow rate, thus providing a system with accuracy that is not dependent upon maintaining constant sample flow rates.

Cardiopulmonary performance analyzer having dynamic transit time

Growing community of inventors

White Bear Lake, MN, United States of America

Shawn McCutcheon