Abstract: Compositions with fulvate fractions alone or in combination with growth factors, bioactive fragmented peptides, or combinations thereof are disclosed herein. Also disclosed are methods of using said compositions for the catalyzing cellular regeneration, including the healing, treatment, or prevention of skin disorders. Also disclosed are methods for extracting, isolating, and purifying fulvate fractions for use in the manufacture of said compositions.

Abstract: A robotic system for treating a patient includes a robotic arm with an end effector for treating the patient, wherein the robotic arm is configured to be movable in a space surrounding the patient, and the end effector is configured to be movable individually and co-movable with the robotic arm in said space; a sensing device for acquiring data associating with coordinates and images of the end effector and the patient; and a controller in communications with the robotic arm and the sensing device for controlling movements of the robotic arm with the end effector and treatments of the patient with the end effector based on the acquired data and a treatment plan.

Abstract: Compositions with fulvate fractions alone or in combination with growth factors, bioactive fragmented peptides, or combinations thereof are disclosed herein. Also disclosed are methods of using said compositions for the catalyzing cellular regeneration, including the healing, treatment, or prevention of skin disorders. Also disclosed are methods for extracting, isolating, and purifying fulvate fractions for use in the manufacture of said compositions.

Abstract: Compositions with fulvate fractions alone or in combination with growth factors, bioactive fragmented peptides, or combinations thereof are disclosed herein. Also disclosed are methods of using said compositions for the catalyzing cellular regeneration, including the healing, treatment, or prevention of skin disorders. Also disclosed are methods for extracting, isolating, and purifying fulvate fractions for use in the manufacture of said compositions.

Abstract: Disclosed herein is a method of preparing a subject's cells for topical treatment of a subject in need. Also provided is a topical formulation and methods of treating a subject suffering a skin disorder and pain using the topical formulation. Also disclosed herein are devices and systems for micronizing an aspirate in preparation of such a topical formulation.

Abstract: A system and method for providing treatment feedback for a thermal treatment device (100) is provided. In certain embodiments, a thermal transmitter (120) is configured to apply an amount of thermal energy (104) to a target site (106), the thermal energy having a selected frequency and a selected power level for penetration to a depth beneath the surface of the skin. A thermal imager (140) is also provided, the thermal imager (140) being configured to capture thermal data and thermal images of the target site. The device may further provide a thermal display (160) configured to display the thermal images and thermal data, providing feedback to a user (201).

Abstract: Disclosed herein are devices for micronizing an aspirate. Also disclosed herein are systems for micronizing an aspirate. The devices and systems may include a liposuction syringe for liquefying fat and/or an incubator for expansion of cells. Devices and systems may also include a handpiece with a handle, a motor disposed within the handle, a blade positionable within a syringe barrel containing an aspirate, the blade rotationally coupled to the motor by a drive shaft, and an end cap positioned along the drive shaft between the blade and the handle, the end cap including an opening through which the drive shaft extends, the end cap configured to seal the syringe barrel.

Abstract: A system and method for providing treatment feedback for a thermal treatment device (100) is provided. In certain embodiments, a thermal transmitter (120) is configured to apply an amount of thermal energy (104) to a target site (106), the thermal energy having a selected frequency and a selected power level for penetration to a depth beneath the surface of the skin. A thermal imager (140) is also provided, the thermal imager (140) being configured to capture thermal data and thermal images of the target site. The device may further provide a thermal display (160) configured to display the thermal images and thermal data, providing feedback to a user (201).

Abstract: Compositions with fulvate fractions alone or in combination with growth factors, bioactive fragmented peptides, or combinations thereof are disclosed herein. Also disclosed are methods of using said compositions for the catalyzing cellular regeneration, including the healing, treatment, or prevention of skin disorders. Also disclosed are methods for extracting, isolating, and purifying fulvate fractions for use in the manufacture of said compositions.

Abstract: Compositions with fulvate fractions alone or in combination with growth factors, bioactive fragmented peptides, or combinations thereof are disclosed herein. Also disclosed are methods of using said compositions for the catalyzing cellular regeneration, including the healing, treatment, or prevention of skin disorders. Also disclosed are methods for extracting, isolating, and purifying fulvate fractions for use in the manufacture of said compositions.

Abstract: Disclosed herein is a method of preparing a subject's cells for topical treatment of a subject in need. Also provided is a topical formulation and methods of treating a subject suffering a skin disorder and pain using the topical formulation. Also disclosed herein are devices and systems for micronizing an aspirate in preparation of such a topical formulation.

Abstract: Compositions with fulvate fractions alone or in combination with growth factors, bioactive fragmented peptides, or combinations thereof are disclosed herein. Also disclosed are methods of using said compositions for the catalyzing cellular regeneration, including the healing, treatment, or prevention of skin disorders. Also disclosed are methods for extracting, isolating, and purifying fulvate fractions for use in the manufacture of said compositions.

Abstract: Disclosed herein is a method of preparing a subject's cells for topical treatment of a subject in need. Also provided is a topical formulation and methods of treating a subject suffering a skin disorder and pain using the topical formulation. Also disclosed herein are devices and systems for micronizing an aspirate in preparation of such a topical formulation.

Abstract: A system and method for providing treatment feedback for a thermal treatment device (100) is provided. In certain embodiments, a thermal transmitter (120) is configured to apply an amount of thermal energy (104) to a target site (106), the thermal energy having a selected frequency and a selected power level for penetration to a depth beneath the surface of the skin. A thermal imager (140) is also provided, the thermal imager (140) being configured to capture thermal data and thermal images of the target site. The device may further provide a thermal display (160) configured to display the thermal images and thermal data, providing feedback to a user (201).

Abstract: A system and method for providing treatment feedback for a thermal treatment device (100) is provided. In certain embodiments, a thermal transmitter (120) is configured to apply an amount of thermal energy (104) to a target site (106), the thermal energy having a selected frequency and a selected power level for penetration to a depth beneath the surface of the skin. A thermal imager (140) is also provided, the thermal imager (140) being configured to capture thermal data and thermal images of the target site. The device may further provide a thermal display (160) configured to display the thermal images and thermal data, providing feedback to a user (201).

Abstract: A threading device assembly for use in plastic surgery that includes a threading rod and a removable suture assembly secured to the threading rod. The threading rod includes an elongated tube with first and second opposite ends and a reduced diameter portion defined therein, and a translucent light guide extending through the elongated tube. The light guide allows light to be transmitted through the material comprising the light guide from one end of the tube to the other. The removable suture assembly includes a cuff positioned in and at least partially around the reduced diameter portion of the elongated tube, and a suture secured to the cuff.

Abstract: A system and method for providing treatment feedback for a thermal treatment device (100) is provided. In certain embodiments, a thermal transmitter (120) is configured to apply an amount of thermal energy (104) to a target site (106), the thermal energy having a selected frequency and a selected power level for penetration to a depth beneath the surface of the skin. A thermal imager (140) is also provided, the thermal imager (140) being configured to capture thermal data and thermal images of the target site. The device may further provide a thermal display (160) configured to display the thermal images and thermal data, providing feedback to a user (201).

Abstract: A system and method for providing treatment feedback for a thermal treatment device (100) is provided. In certain embodiments, a thermal transmitter (120) is configured to apply an amount of thermal energy (104) to a target site (106), the thermal energy having a selected frequency and a selected power level for penetration to a depth beneath the surface of the skin. A thermal imager (140) is also provided, the thermal imager (140) being configured to capture thermal data and thermal images of the target site. The device may further provide a thermal display (160) configured to display the thermal images and thermal data, providing feedback to a user (201).

Abstract: An apparatus for detecting pepsin comprising a solid support, and a peptide chain wherein the peptide chain is operatively configured to be cleaved by pepsin, and the peptide chain is disposed on a surface of the solid support.

Abstract: The present invention relates to a method of detecting the presence of an otolaryngologic pathogen in a biological sample, and a sensor device, sensor chip, and nucleic acid probes useful for detecting otolaryngologic pathogens.