Inovytec Medical Solutions Ltd.

Bonfix Ltd

Versamed Medical Systems Ltd.

Carfoldio Ltd.

General Electric Company

Mark Shahar

Nir Barkai

Ehud Kantor

Lew Charles Schon

Dror Robinson

Sajed Haj-Yahya

Boaz Misholi

Yoav Tikochinsky

Ran Litvak

Jon Sumroy

Frank Schenk

Eran Zur

David Damshek

Sahar Batsry

Rafi Herzog

A ventilator system for providing respiratory support in cases of acute respiratory failure or severe trauma is described. The ventilator system has a ventilator and a tubing system. The system is characterized in that the ventilator has a continuous bleed valve configured to be open to air flow from the blower at all times when the blower is operating during both inspiration and expiration; thereby providing a minimal amount of pressure within a patient's lungs at the end of each exhalation&#x2014;positive end expiratory pressure (PEEP). In an embodiment of the invention the system comprises a manifold block configured to hold the main operating elements of the ventilator.

Portable light-weight ventilator system

Disclosed is a system that includes both an Airway and Ventilation device (AV) and an Automated External Defibrillator (AED) device. The system is provided with components for assisting only minimally trained persons to operate it in emergency situations involving respiratory failure and/or cardiac arrhythmias. The system includes one or both of a mask for applying non-invasive ventilation and a ventilation tube for applying invasive ventilation.

System and method for providing ventilation

Patient circuit for gas delivery

A system for providing decision-assisted critical care to a patient in medical emergency situations in an out of hospital setting includes: a ventilator; an Automated External Defibrillator that includes primary electrocardiogram (ECG) sensors configured as chest pads that can be connected to the chest of the patient and to sense ECG and to deliver an electric shock to the patient's heart; at least one secondary ECG sensor connected at a location other than the chest configured to sense ECG but not to deliver electric shock; and a controller configured, upon detection of shockable cardiac arrhythmias by at least one of said at least one secondary ECG sensors, to (a) instruct a caregiver to place the chest pads on the chest of the patient and to activate the AED, or (b) to automatically activate the AED if the chest pads are already in place on the chest of the patient.

System for controlled defibrillation and ventilation

An implantable orthopedic device. The device includes: a proximal anchor, configured to be implanted inside a first metatarsal; the anchor having a collar larger than the opening in a metatarsal in which the proximal anchor is implanted; the collar preventing cable to bone contact; a distal anchor, configured to be implanted inside a second metatarsal, adjacent to the first metatarsal; the distal anchor having a male thread, a nut threadable onto the male thread of the distal anchor, and a cord mechanically interconnecting the proximal and distal anchors. A shock absorber includes an elongate housing threadedly positioned within the anchor; the shock absorber accommodates a cord holder mechanically connected to the housing via a damping member, the cord holder is freely rotatable within the housing to prevent the cord from twist kinking when the housing is rotated to adjust a tension force.

Orthopedic implant for treatment of bone deformities

A system that includes both an Airway and Ventilation device (AV) and an Automated External Defibrillator (AED) device is described. The system allows minimally trained persons to operate it in emergency situations involving respiratory failure and/or cardiac arrhythmias. An integral part of the AV of the system is a face mask manufactured in two parts: a face attachment unit configured to attach to the patient's face and a mask body that is releasably connected to the face attachment unit by a quick release mechanism allowing quick removal of the mask body from the face attachment unit, leaving only the face attachment unit attached to the patients' face, in order to address urgencies such as vomiting. After vomiting ceases and is cleared, then the mask body may be reattached to continue ventilation.

System and method for providing noninvasive ventilation

Folding child's car seat

A respiratory tract differential-pressure flow sensor, including a tube having a distal end that is insertable into a respiratory tract, an interfering body disposed within the tube proximal to the distal end and having a first edge facing one end of the tube and a second edge facing away from the end, the interfering body extending across the diameter of the tube, a first pressure sensing port operative to sense an air pressure, the first port being disposed in the first edge not abutting the wall of the tube, and a second pressure sensing port operative to sense an air pressure, the second port being disposed in the second edge not abutting the wall of the tube, where either of the edges is inclined inwardly towards the axis of the interfering body extending across the diameter of the tube.

Respiratory flow sensor

A differential-pressure flow sensor for airflow measurement in the presence of water condensation, for use with mechanical ventilators. The pressure-sensing ports at either end of the interfering body are displaced from the inner surface of the surrounding tubing, so as to prevent obstruction of the pressure-sensing ports by free flowing condensed water. The leading edge of the interfering body is angulated so as to deflect airflow towards the pressure-sensing port on the trailing edge of the interfering body, thereby flushing water droplets away from the port. The sides of the interfering body are sloped so as to generate turbulent boundary layer airflow at areas distant from the pressure-sensing ports, thereby encouraging water condensation away from the ports.

Differential pressure sensor with sloped strut edges for respiratory monitoring

Growing community of inventors

Holon, Israel

Mark Shahar