A method for debriding an infected implant area using a robotic-assisted surgery system. The method includes determining, by a processing circuit associated with a computer, an area to be debrided, the debridement area including at least a surface of an implant or patient tissue, and generating, by the processing circuit, a plan for debriding the debridement area. The method further includes controlling a debridement tool, by the robotic-assisted surgery system, while the debridement tool is used to carry out the debridement plan, and monitoring the debridement by the processing circuit.

A method of treating a patient having an inflammation, infection from bacteria or molds or fungi or virus or cancerous cells by destroying bacteria or molds or fungi or virus or cancerous cells is disclosed. The method comprising the step of directing one or more sound wave treatments into the patient targeting the inflammation, infection, mold, virus, bacteria or fungi to cause a body to identify these as foreign objects and trigger the body's own natural healing mechanisms to destroy the foreign objects.

A wound care device includes a flexible cover having a concave interior surface and a flange configured for sealing engagement with the skin of a patient so that the device can be affixed to the skin of the patient. An inlet tube is in fluid communication with the interior thereof and configured to deliver a fluid compound thereto. An outlet tube extends from the flexible cover and is in fluid communication with the interior thereof to allow aspiration of fluid from within the flexible cover. A programmable system delivers one or more of oxygen, saline, medicaments, UV light, and ultrasonic vibration on a schedule predetermined by a user of the device.

Various embodiments provide methods and systems for ultrasound treatment of tissue are provided. Accordingly, a method can include locating an implant in a site in a body, directing a medicant to at least one of the implant and the site, directing ultrasound energy to the site, and accelerating healing of the implant and/or native tissue at the site.

A wound dressing has a micro-architecture to produce appropriate strains in cells to promote the healing a wound. The apparatus includes a wound cover for defining a reservoir over a wound in which a negative pressure may be maintained by forming a substantially fluid-tight seal around the wound, a vacuum source in fluid communication with the reservoir and suitable for providing an appropriate negative pressure to the reservoir to stimulate healing of the wound, and a porous structure positioned in contact with the wound for delivering micro-mechanical forces to localized areas of the wound. The porous structure comprises a three-dimensional film material having directional apertures formed therein.

Robotic debridement apparatuses, related systems, and methods of using the same are disclosed herein. The robotic debridement apparatuses are configured to facilitate debridement of tissue from a wound region. For example, the robotic debridement apparatuses can include one or more of at least one debriding tool configured to debride tissue, at least one tissue disposal tool configured to dispose of substances in the wound region, to the wound region. The systems disclosed herein can include a plurality of robotic debridement apparatuses. The systems disclosed herein can include a dressing associated with the plurality of robotic debridement apparatuses. The dressing can be associated with the robotic debridement apparatuses in a manner that facilitates operations of the robotic debridement apparatuses.

A method and system for ultrasound treatment are provided. Acoustic energy, including ultrasound, can serve as input energy to a mask with apertures, such apertures acting as secondary acoustic sources to create a modulated output acoustic energy in a treatment region and treatment effects. Under proper control output energy can be precisely placed and controlled in tissue. In some embodiments, methods and systems are configured for ultrasound treatment based on creating an output energy distribution in tissue. In some embodiments, methods and systems are configured based on creating an output temperature distribution in tissue.

Robotic debridement apparatuses, related systems, and methods of using the same are disclosed herein. The robotic debridement apparatuses are configured to facilitate debridement of tissue from a body region. For example, the robotic debridement apparatuses can include one or more of at least one debriding tool configured to debride tissue, at least one debris disposal device configured to capture substances in the body region. The systems disclosed herein can include a plurality of robotic debridement apparatuses. The systems disclosed herein can include a dressing associated with the plurality of robotic debridement apparatuses. The dressing can be associated with the robotic debridement apparatuses in a manner that facilitates operations of the robotic debridement apparatuses.

An apparatus for cleansing wounds in which irrigant fluid from a reservoir connected to a conformable wound dressing and wound exudate from the dressing are moved by a device (which ?may be a single pump or two pumps) for moving fluid through a flow path which passes through the dressing and a means for providing simultaneous aspiration and irrigation of the wound. The apparatus also comprises means to apply high frequency vibrational energy, e.g. ultrasound, to the wound bed. The former removes materials deleterious to wound healing, while distributing materials that are beneficial in promoting wound healing over the wound bed. The latter promotes healing. The dressing and a method of treatment using the apparatus.

Systems and methods disclosed herein provide efficacious pain management therapies based on delivery of physical medicine(s) via computer-implemented systems. Patient information comprising patient pain symptoms, patient physiological measurements, patient demographics, and other information is received at a pain therapy device. The patient information is compared with pain analytics data compiled on a plurality of individuals to determine a personalized pain management therapy. The personalized pain management therapy is applied via a combination of thermoceuticals, electroceuticals, ultrasound, and several other forms of physical medicine. Sensors coupled to the pain therapy device measure changes in physiological data resulting from the pain management therapy. The personalized pain management therapy can be adjusted based on the changes in the physiological data and/or patient feedback. The patient information, information about the applied therapy, and therapy outcome information is added to the analytics database.