Nims, Inc.

Non-invasive Monitoring Systems, Inc.

Vivometrics, Inc.

Adidas Ag

D Michael Inman

Marvin A Sackner

William J Meichner

An apparatus for providing medical treatments is disclosed. In one aspect, an apparatus according the present invention comprises a mattress, a mattress support, cast shoes, a footboard support, a drive for causing the reciprocating movement, and a box frame to contain and support the reciprocating movement platform. In another aspect, an apparatus according to the present invention comprises a sling device connected to a drive causing the reciprocating movement, and a box frame to contain and support the reciprocating movement platform. In yet another aspect, medical treatments by externally applying periodic acceleration according to the present invention include the treatment of inflammatory diseases, the preconditioning or conditioning of vital organs to protect them from the deleterious effects of ischemia, non-invasive ventilation and cardiopulmonary resuscitation, treatment and preconditioning of the organs of animals such as horses, and the treatment of diseases or conditions where oxidative stress plays a role.

Reciprocating movement platform for the external addition of pulses to the fluid channels of a subject

Reciprocating movement platform for the external addition of pulses of the fluid channels of a subject

Methods of medical treatment and diagnosis using mediators released by endothelial cells stimulated by external addition of pulses to the circulation are disclosed. The external pulses produce circumferential shear stress in body fluid channels that subsequently stimulates the endothelial cells to produce mediators that become available for therapeutic and diagnostic purposes. The preferred means of adding external pulses is the mechanical inducement of periodic acceleration of the body or parts of the body by a reciprocating motion platform.

External addition of pulses to fluid channels of body to release or suppress endothelial mediators and to determine effectiveness of such intervention

A method for calibrating non-invasive breathing monitors with sensors placed on the rib-cage and abdomen of a subject includes determining an initial scaling factor and an optimal multiplicative factor for the readings of the rib-cage and abdomen sensors using one of a least squares, linear regression, or multi-linear regression techniques. A current scaling factor is determined on a periodic basis using qualitative device calibration techniques. The current scaling factor is used to monitor breathing and diagnose obstructive apneas. Furthermore, the optimal multiplicative and the current scaling factor are used to determine the current tidal volume.

Quantitative calibration of breathing monitors with transducers placed on both rib cage and abdomen

A reciprocating platform assembly for oscillating a subject supporting platform in a back and forth, headward to footward motion includes a platform mounted on displacement modules that are mounted to a frame. The displacement modules are signally connected to a processor that controls movement of the platform through operation of the displacement modules. The platform may be oscillated to soothe a subject on the platform to hasten a sleeping state of the subject or to minimize or prevent the occurrence of apneas in the subject. The platform may also be oscillated to assist or support ventilation and/or for cardiopulmonary/cardiac support of the subject. The platform is additionally useful in conjunction with a physiological monitor to rapidly shake the subject when an adverse event occurs to wake the subject and terminate the adverse event. The monitor may also be employed as a trigger for assisting or supporting ventilation and cardiac/cardiopulmonary support.

Reciprocating movement platform for shifting subject to and fro in

A non-invasive physiologic signs monitoring device includes a garment with electrocardiogram electrodes and various inductive plethysmographic sensors sewn, embroidered, embedded, or otherwise attached to the garment with an adhesive. The garment is in the form of a shirt. When the garment is fitted over the torso of the patient to be monitored, the electrodes and sensors generate signals in response to the physiologic signs of the patient. The signals are transmitted to a recording/alarm device where they are monitored for adverse conditions and logged. When an adverse condition or other preprogrammed condition occurs, a message is communicated to the patient by either an audio message or a display. The recording/alarm unit is also connectable to a remote receiving unit for monitoring by a health care professional or other machine.

Physiologic signs feedback system

A method for measuring respiratory drive includes determining a peak inspiratory flow and a peak inspiratory acceleration from a breath waveform derived from rib cage motion and abdominal motion using a plethysmograph or other external respiratory measuring device. The respiratory drive is ascertainable even during complete blockage of the respiratory system. The peak inspiratory drive derived using the inventive method is used to initiate inspiration in a mechanical ventilator and for determining an index describing a shape of the waveform for controlling a continuous positive air pressure (CPAP) device.

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Miami, FL, United States of America

D Michael Inman