Augustine Medical, Inc.

Arizant Healthcare Inc.

Respiratory Technologies, Inc.

John P Rock

Scott D Augustine

Albert Philip Van Duren

Keith J Leland

Donald E Stapf

Allen Hamid Ziaimehr

Gary Rabindranath Maharaj

Paul Leslie Knutson

Randall Charles Arnold

Gary L Hansen

Leland G Hansen

Ryan J Staab

Shad Lindrud

Hamid Ziaimehr

Robert Buehler

Karl Zgoda

K James Ehlen

Chad Colsch

Robert Clapp

A percussive pulsing therapy device configured for delivering pulsating or intermittent airflow to a patient device, such as a patient vest. The percussive pulsed air device may have an airflow generator for controlling amplitude of the percussive pulsed air and a pulse frequency control module for controlling frequency of the percussive pulsed air. In some embodiments, the pulse frequency control module may have a rotatable fan blade, such as a circular fan blade having one or more cutout portions. In some embodiments, the rotating fan blade may have one or more channels configured to redirect percussive pulsed air. Moreover, a percussive pulsed air device of the present disclosure may have a dampening element flowably coupled to an inlet of the pulse frequency control module. In some embodiments, at least one inlets of the pulse frequency control module may be arranged on a different airflow plane than one or more outlets.

Chest compression devices, systems, and methods

In a convective system that includes a blower to thermally treat and pressurize air, a convective device to receive and convect the thermally-treated pressurized air, and an air hose to conduct a flow of thermally-treated pressurized air from the blower to an inlet port in the convective device, an interface device is provided to control the flow of air at the interface where the inlet port and an end of the air hose operate to conduct the flow of air out of the air hose into the convective device. The interface device is received at the end of the air hose and operates to support the flow of air out of the end when the end and the inlet port are brought together. The interface device operates to stop, inhibit, or restrict the flow of air out of the end when the end and the inlet port are separated.

System, combination and method for controlling airflow in convective treatment

Airflow provided through an air hose to the inlet port of an inflatable thermal device is controlled by a mechanical device disposed at an end of the air hose that is coupled to the inlet port. In response to coupling the end of the air hose to the inlet port, the mechanical device operates to open the end and permit air to flow through the air hose and the inlet port. In response to decoupling the end of the air hose from the inlet port, the mechanical device operates to block air from flowing through the end of the air hose.

Control of airflow to an inflatable thermal device

A modular bandage for treating wounds located on highly contoured, non-planar regions of a person includes a standoff for placement near the wound, and a sheet of material for forming a sealed environment over the wound in conjunction with the standoff. The modular bandage may further include a heater to thermally regulate the sealed environment formed by the standoff and the sheet of material. A sheet of material for such a bandage may include various uniform or compound structures.

Modular bandage

A wound treatment apparatus is provided which includes a bandage that is transparent to, or transmissive of, energy in the infrared (IR) range of the electromagnetic spectrum, a heater that generates heat, and an attachment device for retaining the heater over or on the bandage. The bandage and heater together have a low profile so as to be convenient for a patient, and are flexible so as to conform to the shape of a wound and to contours of the skin near the wound. The bandage is provided with an adhesive pattern for maintaining moisture at the wound site. The heater may maintain a normothermic condition at the wound treatment area. A controller may be provided for cycling the temperature of the heater in order to maintain the normothermic condition.

Wound treatment apparatus including a heater and an IR-transparent of IR-transmissive bandage

A tissue treatment apparatus is provided which includes a thermally conductive bandage, a heater in thermal contact with the bandage over a tissue treatment area, a heat spreading means acting between the heater and the bandage for laterally spreading heat transferred from the heater to the bandage in order that heat be substantially uniformly distributed across the bandage.

Tissue treatment apparatus with a heater, a heat conductive bandage, and a heat-spreading means acting between the heater and bandage

A wound treatment apparatus is provided which includes a thermally conductive bandage, a heater in contact with the bandage over a wound treatment area, and an adhesive attachment device for maintaining thermally conductive contact between the heater and the bandage. The bandage and heater together have a low profile so as to be convenient for the patient and are flexible so as to conform to the shape of the wound and to the contours of the skin surrounding the wound. The attachment device is fashioned so as to have less pull strength than an adhesive holding the bandage to the person's body so that the heater can be easily removed without disturbing the attachment of the bandage to the person's body. The bandage is provided with a polymeric film for maintaining moisture at the wound site as well as enhancing the utility of the attachment device.

Treatment apparatus with a heater adhesively joined to a bandage

A bandage for autolytic debridement includes a fluid-impermeable enclosure having a sidewall forming a margin defining an opening, and a skin-facing surface that surrounds the opening. An attachment means is disposed on the skin-facing to attach the enclosure to the skin, with the margin extending outside of and surrounding at least the bed of a wound. When the enclosure is attached to the skin it creates a closed, fluid-impermeable chamber over a wound, substantially without contacting the wound. The bandage includes a fluid absorbent material disposed in the fluid-impermeable enclosure at or near the continuous margin, and out of the opening. The fluid absorbent material is thus positioned to receive and retain exudated fluid that originates in the wound, thereby by promoting autolytic debridement. The closed, fluid-impermeable chamber maintains a near-100% humid atmosphere about the wound, thereby promoting healing of the wound. The humid atmosphere and the structure of the bandage tend to maintain the temperature of the atmosphere about the wound at or near a normothermic level in the range of about 36&deg; C. to about 38&deg; C., thereby maintaining physiologic processes that drive autolytic debridement and wound healing.

Bandage for autolytic wound debridement

A tissue treatment apparatus includes a bandage that is transparent to, or transmissive of, energy in a predetermined range of the infrared (IR) portion of the electromagnetic spectrum. The bandage includes a layer that acts as a bandpass filter, permitting IR radiation in the range of wavelengths between 3 and 30 &mgr;m to pass through the bandage to tissue against which the bandage is disposed. A heater is used to generate heat, including IR radiation, and an attachment device retains the heater over or on the bandpass bandage layer. The bandage and heater together have a low profile so as to be convenient for a patient, and are flexible so as to conform to the shape of a wound and to contours of the skin near the wound. The bandage is provided with an adhesive pattern for maintaining moisture at the wound site. The heater may maintain a normothermic condition at subdermal regions of the wound treatment area. A controller may be provided for cycling the temperature of the heater in order to maintain the normothermic condition.

Tissue treatment apparatus including a bandpass filter transparent to selected wavelengths of IR electromagnetic spectrum

A condition is detected between an inlet port of an inflatable thermal device, such as an inflatable thermal blanket, and an end of an air hose through which a flow of pressurized, thermally treated air is provided to the device by way of the inlet port. The condition may be disconnection of the end of the air hose from the inlet port or the identification of a particular style of inflatable thermal device. A response to the condition may include provision of a perceptible indication that the condition has occurred. Other responses may include cessation of the flow of air or changing an air flow characteristic.

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Minneapolis, MN, United States of America

John P Rock