As various embodiments of the present disclosure related to an electronic fat removing apparatus using ultrasonic waves are described, a fat removing apparatus according to an embodiment may include: a fat removal body part; a handpiece including an ultrasonic wave generating unit electrically connected to the fat removal body part; a tip part provided in the handpiece; a temperature sensor unit for detecting the temperature of the tip part, the temperature sensor unit being provided in the tip part; an interlocked pump part for feeding cooling water to the tip part, the interlocked pump part being disposed in the fat removal body unit and being connected to the handpiece; and a controller for receiving a signal detected by the temperature sensor unit, and operating the interlocked pump part at a preconfigured temperature. In addition, there may be various other embodiments related to the fat removing apparatus.

A method for processing biological material containing stringy tissue in a container having a tissue collector disposed in a tissue retention volume on one side of an internal filter includes washing biological material contained in the tissue retention volume with wash liquid to the tissue retention volume and allowing the wash liquid and rotating the tissue collector disposed in the tissue retention volume relative to the container in a first direction of rotation about an axis of rotation to sweep the teeth positioned on the tissue collector through the biological material and to collect stringy material on the tissue collector.

The present disclosure provides devices and methods for processing and harvesting adipose tissue. The present disclosure provides improved devices, systems, and methods for harvesting, processing, and filtering adipose tissue for autologous fat transfer procedures. The features of the devices and systems of the present disclosure increase efficiency and sterility of adipose tissue processing by reducing the need for users to interrupt the procedure to adjust some part of the system, such as unclogging filter pores or adjusting tubing.

Disclosed herein is a machine for the purification of adipose tissue and introduction of the purified tissue into a patient's body, the machine comprising at least: a material circulation circuit comprising at least a purification device able to purify adipose tissue removed from the patient's body, the purification device comprising means for retaining adipose tissue and filtering contaminants delimiting a treatment volume intended to receive the adipose tissue, and a rotational drive means able to rotate the retaining and filtering means, and (ii) an introduction device able to communicate with the purification device for introducing purified adipose tissue into the patient's body.

Tissue sampling, processing and injection syringe device and methods of filtering and concentrating cellular components of tissue sample in situ within the device.

A tissue sampling, collection, and processing system including a hand-supportable power-assisted tissue aspiration device having a cannula for aspirating fat tissue from a patient's body, and a multi-pack tissue sampling, processing and collecting device, installed between the tissue aspiration device and a vacuum source, and containing multiple tissue collection tubes for collection of aspirated fat tissue samples.

Embodiments of the present invention disclose a device for removing adipose tissue, comprising a self-contained syringe device comprising an inner syringe included within an outer syringe and wherein a filter is attached inside the outer syringe barrel; wherein the filter comprises a filter material that prevents premature filter collapse where the filter material is optionally coated to increase stiffness, and wherein liposuctioned adipose tissue is collected and purified inside the syringes. Methods of using the devices or system are also disclosed.

The present disclosure provides systems and methods for transfer of tissue or other materials such as adipose tissue. The systems and methods can include a vessel and a syringe to facilitate transfer of tissue between one or more vessels and tissue implantation devices.

A system and method are provided for minimally-invasive selective fat removal from a target area by injecting the area with a solution of photo-absorbing nanoparticles and irradiating the injected area with a beam of near infrared (NIR) light. The NIR emission wavelength excites the nanoparticles to melt fat within the target area so that the liquefied fat can be aspirated from the target area. The nanoparticles may be gold nanorods having aspect ratios selected to produce surface plasmon resonance when irradiated with NIR light around 800 nm.

Systems, devices, and methods of the present disclosure assist with management of tubes and hoses during surgical procedures. The systems, devices, and methods provide for the proper opening and closing of tubes to facilitate performance of steps in a surgical procedure. Systems, devices, and methods of the present disclosure control fluid delivery to and from a medical device, including devices for tissue processing and cleaning.