Abstract: In various aspects, the invention includes a wearable therapy delivery device for applying thermal therapy and/or compressive therapy. In some cases, the wearable therapy delivery device includes an inner layer configured to contact a body surface of a user; an outer layer; temperature therapy modules enclosed between the inner layer and the outer layer proximate the inner layer; and/or compressive therapy modules located proximate the one or more temperature therapy modules. In some cases, the compressive therapy modules are configured to force the temperature therapy modules toward the body surface of the user.

Abstract: A temperature modulation assembly and a multi-layer retention mechanism for such a temperature therapy device are disclosed. According to one embodiment, a temperature modulation assembly for a temperature therapy device has a heat spreader and a mounting plate coupled to a bottom portion of a spacer, wherein the heat spreader is disposed between the mounting plate and the spacer. The temperature modulation assembly has a heatsink and a fan coupled to a top portion of the spacer, wherein the heatsink is disposed between the top portion of the spacer and the fan. The temperature modulation assembly further includes a heating and/or cooling device disposed within a central opening of the spacer, wherein the heating and/or cooling device is located between the heatsink and the heat spreader.

Abstract: A temperature therapy system and a method for temperature control for such a temperature therapy system are disclosed. According to one embodiment, a temperature therapy system has a retention mechanism and a plurality of temperature modulation systems attached to the retention mechanism, wherein each of the plurality of temperature modulation systems comprises a thermoelectric cooler. The wearable personal temperature therapy system may have a plurality of temperature sensors and a plurality of conductive flags, wherein each of the plurality of conductive flags is adhered to a respective thermoelectric cooler and a respective temperature sensor.

Abstract: A therapeutic device for applying vibration, thermal and compressive therapy is disclosed. According to one embodiment, the device has a top layer and a bottom layer adapted to contact a body surface of a user. The device further includes a therapeutic element disposed between the top layer and the bottom layer, the therapeutic element including a vibration component, a thermal component, and a compression component, where, upon activation of the therapeutic element: (i) the vibration component applies a vibration force, (ii) the thermal component applies a thermal therapy, and (iii) the compression component applies a compressive force.

Abstract: A massage applicator including a housing, a piston having a proximal end and a distal end, a motor within the housing operatively connected to the piston, wherein the motor is configured to cause the piston to reciprocate, an applicator controller configured to operate the motor, and an attachment head releasably coupled to the piston so as to be located at the distal end of the piston, the attachment head including at least one sensor configured to collect sensor data, wherein the applicator controller is configured to adjust operation of the motor based on the collected sensor data.

Abstract: A temperature modulation assembly and a multi-layer retention mechanism for such a temperature therapy device are disclosed. According to one embodiment, a temperature modulation assembly for a temperature therapy device has a heat spreader and a mounting plate coupled to a bottom portion of a spacer, wherein the heat spreader is disposed between the mounting plate and the spacer. The temperature modulation assembly has a heatsink and a fan coupled to a top portion of the spacer, wherein the heatsink is disposed between the top portion of the spacer and the fan. The temperature modulation assembly further includes a heating and/or cooling device disposed within a central opening of the spacer, wherein the heating and/or cooling device is located between the heatsink and the heat spreader.

Abstract: A temperature therapy system and a method for temperature control for such a temperature therapy system are disclosed. According to one embodiment, a temperature therapy system has a retention mechanism and a plurality of temperature modulation systems attached to the retention mechanism, wherein each of the plurality of temperature modulation systems comprises a thermoelectric cooler. The wearable personal temperature therapy system may have a plurality of temperature sensors and a plurality of conductive flags, wherein each of the plurality of conductive flags is adhered to a respective thermoelectric cooler and a respective temperature sensor.

Abstract: Systems and methods for providing vibration and temperature therapy via a therapy device is disclosed. According to one embodiment, a therapy device includes a pad comprising an adhesive layer configured to adhere to a skin surface of a user. The therapy device includes a control unit coupled to the pad. The control unit is configured to provide temperature therapy to the skin surface of the user and provide vibration therapy to the skin surface of the user. The pad includes a coupling connector configured to removably couple the control unit. The pad can include a heat generation module comprising a resistive wire and a heat spreader. The pad can include one or more electrical stimulation modules, wherein each electrical stimulation module comprises a conductor and a pad. The pad includes a temperature sensor coupled to the heat generation module. The adhesive layer can be coupled to the heat spreader.

Abstract: A device for applying compressive therapy is disclosed. According to one embodiment, the device has a top layer and a bottom layer adapted to contact a body surface of a user. The device further includes a compressive element disposed between the top layer and the bottom layer, where the compressive element is configured such that, upon activation of the compressive element: (i) a compressive force is applied to the body surface and (ii) the compressive element curves to more closely conform to the bottom layer.

Abstract: A headgear for placing sensors on a subject's head includes a centerpiece; a plurality of arms attached to and radiating outward and generally downward from the centerpiece; and sensor tips attached to the dorsal ends of at least some of the arms. At least one of the plurality of arms is a lower arm that is elastic and/or spring-like. When the headgear is placed on a subject's head, the at least one lower arm is so disposed in relation to the maximum circumference of the subject's head that the at least one lower arm must be bent outward for placement of the headgear on the subject's head and thereby provide a reactive force toward the head that causes the at least one lower arm to grasp at least a portion of the head that is at and/or below the maximum circumference of the head.

Abstract: A headgear for placing sensors on a subject's head includes a centerpiece; a plurality of arms attached to and radiating outward and generally downward from the centerpiece; and sensor tips attached to the dorsal ends of at least some of the arms. At least one of the plurality of arms is a lower arm that is elastic and/or spring-like. When the headgear is placed on a subject's head, the at least one lower arm is so disposed in relation to the maximum circumference of the subject's head that the at least one lower arm must be bent outward for placement of the headgear on the subject's head and thereby provide a reactive force toward the head that causes the at least one lower arm to grasp at least a portion of the head that is at and/or below the maximum circumference of the head.

Abstract: A headgear for placing sensors on a subject's head includes a centerpiece; a plurality of arms attached to and radiating generally downward from the centerpiece; and sensor tips attached to the dorsal ends of at least some of the arms. At least one of the plurality of arms is a lower arm that is elastic and/or spring-like. When the headgear is placed on a subject's head, the at least one lower arm is so disposed in relation to the maximum circumference of the subject's head that the at least one lower arm must be bent outward for placement of the headgear on the subject's head and thereby provide a reactive force toward the head that causes the at least one lower arm to grasp at least a portion of the head that is at and/or below the maximum circumference of the head.

Abstract: A transducer assembly including a support terminal and at least one probe extending from the support terminal is adapted to enable a transducer to penetrate and slide through patches of hair covering a subject area of a person. The probe includes at least one leg structure supporting a transducer disposed at the distal end of the leg structure for sensing or stimulating the state of a particular property of a selected subject area when the transducer is applied by the leg structure to the selected subject area. The leg structure is so disposed in relation to the support terminal as to be disposed at a non-perpendicular angle to the subject area when the transducer assembly is applied to the selected subject area. The leg structure is adapted to flex when the transducer is applied under pressure to the selected subject area to thereby cause the transducer to slide on the subject area.

Abstract: A transducer assembly including a support terminal and at least one probe extending from the support terminal is adapted to enable a transducer to penetrate and slide through patches of hair covering a subject area of a person. The probe includes at least one leg structure supporting a transducer disposed at the distal end of the leg structure for sensing or stimulating the state of a particular property of a selected subject area when the transducer is applied by the leg structure to the selected subject area. The leg structure is so disposed in relation to the support terminal as to be disposed at a non-perpendicular angle to the subject area when the transducer assembly is applied to the selected subject area. The leg structure is adapted to flex when the transducer is applied under pressure to the selected subject area to thereby cause the transducer to slide on the subject area.