A pitchfork is disclosed. The pitchfork includes a pitchfork subassembly and a collection basket subassembly. The pitchfork subassembly includes a base, a plurality of tines coupled to the base, a handle receiving port coupled to the base, and a handle received in the handle receiving port. The collection basket subassembly includes two or more rear supports coupled to the base, a plurality of vertical wires coupled to the two or more rear supports, a plurality of horizontal wires coupled to the two or more rear supports, two or more side supports each coupled to an outside tine of the plurality of tines.

The present disclosure relates to systems and methods for producing a consistent and effective herbal vapor. A sealed container pod may include a chamber wall defining an internal volume within which a pre-processed herbal composition (e.g., cannabis) is located. The container pod may include filters for the vapor produced from the herbal composition. The container pod may also include a support member for holding and evenly distributing the herbal composition within the internal volume during vaporization. A vaporizer may be configured to obtain information regarding the contents of the herbal composition. The vaporizer may expose the herbal composition to an automated series of timed temperature adjustments specifically tailored for producing a desirable herbal vapor. The herbal vapor may be collected into a bag and/or canister for subsequent consumption.

A system includes a dialyzer having a blood side and a dialysate side, a first extracorporeal circuit including one or more first fluid connectors structurally configured to connect the blood side of the dialyzer to the vascular system of a kidney patient, and a second extracorporeal circuit including one or more second fluid connectors structurally configured to connect the dialysate side of the dialyzer to the vascular system of a healthy animal. The present teachings may thus include a system where hemodialysis is performed using a healthy animal (e.g., a person with normal kidney function) to help remove harmful solutes from, and provide helpful solutes to, a kidney patient. In this manner, the healthy animal is virtually donating its kidney function to the kidney patient.

An irrigation and aspiration device includes a drive assembly, an evacuation chamber, and a delivery apparatus. The delivery apparatus includes an evacuation tube configured to hold an irrigation solution and a vacuum tube that is in fluid communication with the evacuation chamber. The drive assembly is configured to store a restoration energy within the evacuation chamber and force the irrigation solution out of the evacuation tube in response to an applied force. The device is configured to use the restoration energy to draw an aspiration fluid into the vacuum tube.

A system includes a dialyzer having a blood side and a dialysate side, a first extracorporeal circuit including one or more first fluid connectors for connecting the blood side of the dialyzer to the vascular system of a kidney patient, a second extracorporeal circuit including one or more second fluid connectors for connecting the dialysate side of the dialyzer to the vascular system of a healthy animal, a first pump in fluid communication with at least one of the first and second extracorporeal circuits, and a driver mechanically coupled to the first pump, where the driver is configured to drive the first pump using energy from an energy source.

A system includes a dialyzer having a blood side and a dialysate side, a first extracorporeal circuit including one or more first fluid connectors for connecting the blood side of the dialyzer to the vascular system of a kidney patient, a second extracorporeal circuit including one or more second fluid connectors for connecting the dialysate side of the dialyzer to the vascular system of a healthy animal, a first pump in fluid communication with at least one of the first and second extracorporeal circuits, and a driver mechanically coupled to the first pump, where the driver is configured to drive the first pump using energy from an energy source.

Inner ear treatment delivery devices and methods are disclosed. The device includes a pressurized container filled with a content, a control mechanism within the pressurized container, a nozzle coupled to the control valve, a microprocessor adapted to operate the control valve, and a power source providing energy to the device. The device administers at least one dose of the content to a patient's inner ear.

An automatic injection device with flow regulation. The automatic injection device has an insertion needle configured to be inserted into a patient and a drug container which contains a pharmaceutical product and includes a plunger. The automatic injection device also has a fluid path which fluidly connects the drug container to the patient via an insertion device, a potential energy source, and a regulator configured to restrict release of potential energy and restrict linear movement of the plunger and pharmaceutical product into the fluid path at a proscribed pace. The regulator includes a clock escapement mechanism. The potential energy source may be a spring that surrounds the drug container and may be magnetically coupled to the plunger. The clock escapement mechanism is configured to control the spring at a regulated rate over a time interval using a gearbox and rotational-to-linear translator comprising a rack and pinion.

An automatic injection device with flow regulation. The automatic injection device has an insertion needle configured to be inserted into a patient and a drug container which contains a pharmaceutical product and includes a plunger. The automatic injection device also has a fluid path which fluidly connects the drug container to the patient via an insertion device, a potential energy source, and a regulator configured to restrict release of potential energy and restrict linear movement of the plunger and pharmaceutical product into the fluid path at a proscribed pace. The regulator includes a clock escapement mechanism and a wire and pulley system including a wire coupled to at least one pulley. The potential energy source may be a spring that surrounds the drug container and may be directly coupled to the plunger and the wire such that movement of the spring and the wire is restricted over time.

The invention provides devices and methods for adjusting particle size in nanoemulsions of fluorocarbons and perfluorocarbons (e.g., perfluoropentane and perfluorohexane) via sonication (e.g., ultrasonication).