Ruse Technologies, LLC

Medamp Electronics, LLC

The UAB Research Foundation (The University of Alabama at Birmingham)

Ems Technologies, Inc.

Scott James Bohanan

Richard B Ruse

Raymond E Ideker

E David Crawford

William L Nabors, Sr

Derek J Dosdall

James P Ruse

Mark W Kroll

Charles Dennis Swerdlow

Jeffrey Alexander

Greg Ruse, Legal

Greg Ruse, Legal Representative

LeAndra Elaine Evans

David C Rhodes

Paul Arangua

Sean Brugman

A method and apparatus for treating bone or other infection in a patient to minimize the number of limb amputations which employs a unique, three-dimensional software-controlled electronic phased array amplifier system using arbitrary waveforms that dynamically and proportionally steer electrical currents by using two or more current vector paths, sequentially or simultaneously, through a defined infected area containing electrically-conductive ionic solutions so as to obtain 100% treatment using low or high voltage, low current that delivers electrical stimulation (ES) using a low DC current through and or around the defined infection treatment area. The minimally invasive treatment of the infection requires no radiation or chemotherapy that could be harmful to the patient.

Method and apparatus using a phased array amplifier system to treat bone or tissue infections

An ICD multimode system comprises a microcontroller or FPGA having a memory, a differentially driven phased array amplifier, one or more sensors, and a wireless transmitter/receiver. Based upon sensor data and demand criteria programmed into the memory, the system provides late systolic impulse (LSI) therapy to treat congestive heart failure (CHF) and ventricle level-shifting (VLS) therapy to block unwanted PVCs to prevent VT or VF dynamically and use a phased array amplifier therapy to accurately manage CRT. An external echocardiogram and ultrasound system adjusts the therapies administered based upon sensor and demand data in real time to allow a patient's heart to function at a level of improved performance and increase ejection fraction EF.

Multimode ICD system comprising phased array amplifiers to treat and manage CRT, CHF, and PVC disorders using ventricle level-shifting therapy to minimize VT/VF and SCA

An apparatus has advanced amplifier Classes and low pass filter technologies for using software generated ascending or level waveforms that are effective when applying cardiac defibrillation and cardioversion waveforms which significantly reduce damage to the heart muscle. The apparatus comprises a waveform energy control system for delivering software generated waveforms comprising differentially driven Class D and Class B amplifier sections, wherein the Class D amplifier section produces Phase 1 ascending waveforms and has a programmable lowpass filter (LPF) and wherein the Class B amplifier section delivers hard-switched Phase 2 waveforms.

Implantable cardioverter defibrillators using high power amplifiers with impedance tracking lowpass filters

A method and apparatus for treating a cardiac condition in a human or animal patient comprises contacting an area of skin spanning the chest area of the patient with at least two patches or electrode paddles that apply low voltages and currents in a rotational manner to pre-stimulate that area, followed by applying a high voltage shock in rapid succession through the patient's heart through at least two electrode pad patches or paddles, wherein an amplifier-based external defibrillation cardioversion system is used. Also, an external pacing system is employed using ascending ramp or any arbitrary ascending or level waveform for transcutaneous pacing which employ a constant current delivery mode. Treatable conditions include atrial fibrillation (AF), atrial tachycardia (AT), ventricular fibrillation (VF), and ventricular tachycardia (VT).

Method and apparatus for hospital, EMT/EMS, and AED grade external defibrillation and transcutaneous pacing

Cardiac defibrillation or cardioversion waveform energy control systems employ transvenous ICDs, subcutaneous SICDs, or pacemakers for treating cardiac conditions. The systems comprise differentially driven amplifier circuit operational modes to control the delivery of pacing, anti-tachycardia pacing, defibrillation, and/or cardioversion electrical shocks, wherein the pacing, anti-tachycardia pacing, and shock waveforms employ constant current, constant voltage, or constant energy. Biphasic arbitrary shock waveforms deliver increasing energy with increasing time as represented by phase 1 ascending ramp, ascending exponential, ascending chopped, ascending stepped, ascending curved, square, or rectilinear and/or any combination of geometric shaped ascending arbitrary waveforms or any BTE waveform.

Implantable cardioverter defibrillator (ICD), subcutaneous implantable cardioverter defibrillator (SICD), and waveform energy control systems

A method and apparatus for treating a condition in a patient such as BPH, irretractable infection, cyst, fibroid, or any mass such as prostate or breast cancer, skin cancer, melanoma, or any other soft tissue cancerous or benign mass, employs a unique, three-dimensional software-controlled electronic amplifier array using arbitrary waveforms that dynamically and proportionally steer electrical currents by using two or more current vector paths, sequentially or simultaneously, through a defined area containing electrically-conductive ionic solutions so as to obtain 100% thermal heating or hyperthermia through the defined area. The condition is treated or a mass is destroyed with a minimally-invasive treatment which requires no radiation or chemotherapy which could be harmful to the patient.

Method for treating benign prostate hyperplasia

A method and apparatus for treating masses, such as prostate or breast cancer, or any other soft tissue cancerous or benign mass, employs a unique, three-dimensional software-controlled electronic amplifier array using arbitrary waveforms that dynamically and proportionally steer electrical currents by using two or more current vector paths, sequentially or simultaneously, through a mass containing electrically-conductive ionic solutions so as to obtain 100% thermal beating or hyperthermia through the mass, and destroying it with a minimally-invasive treatment which requires no radiation or chemotherapy which could be harmful to the patient.

Method and apparatus for treating cancer

A method and apparatus for treating masses, such as prostate or breast cancer, or any other soft tissue cancerous or benign mass, employs a unique, three-dimensional software-controlled electronic amplifier array using arbitrary waveforms that dynamically and proportionally steer electrical currents by using two or more current vector paths, sequentially or simultaneously, through a mass containing electrically-conductive ionic solutions so as to obtain 100% thermal heating or hyperthermia through the mass, and destroying it with a minimally-invasive treatment which requires no radiation or chemotherapy which could be harmful to the patient.

An apparatus for treating atrial fibrillation or atrial tachycardia comprises means for dynamically steering or selecting two or more current vector paths sequentially or simultaneously for defibrillation to change the transmembrane potential in the left and right atria sufficiently to halt AF or AT. The apparatus is useful to treat AF or AT in patients.

Apparatus and method for treating atrial fibrillation and atrial tachycardia

An apparatus for treating ventricular fibrillation or ventricular tachycardia comprises means for dynamically steering or selecting two or more current vector paths sequentially or simultaneously for defibrillation so as to change the transmembrane potential in the left and right ventricles sufficiently to halt VF or VT.

Apparatus and method for treating ventricular fibrillation and ventricular tachycardia

A ferrite load driver system in accordance with the invention includes a clock generator configured to generate a digital clock signal. The system further includes a digital pulse generator configured to generate an enable pulse having a pulse width equal to a certain number of clock cycles of the digital clock signal. The enable pulse is received by a driver element of the system. The driver element responds by driving a current in a first direction through the ferrite load for setting a first magnetic flux.

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Duluth, GA, United States of America

Scott James Bohanan