Abstract:
A bone filler mixing and delivery device includes a mixing section adapted to mix components to form bone filler. A syringe barrel is coupled to the mixing section and has an opening through which the bone filler can be dispensed. A controllable portal can be manipulated to open a flow path between the mixing section and the syringe barrel. A plunger assembly is adapted to extend telescopically in an axial direction through the syringe barrel to dispense the bone filler through the opening.
Abstract:
A paddle (30), a paddle rail (20), a mixer shaft (10) for a mixer (1), a mixer (1) and a method for mixing a product to be conditioned in a mixer (1). As the mixer (1) starts up, a product to be mixed is retained in a starting region of the mixer shaft (10), for instance, until the desired mixing or conditioning is achieved, so that loss-free start-up is made possible. That is to say disposal or recycling of the product when the mixer starts up becomes unnecessary.
Abstract:
A method and a device are for making of a multi-components product material. The device includes a processing and homogenizing chamber for primary particle components. The chamber includes at least two sets of rotary shovels, which rotate in parallel in a mutually counter-rotating, homogenizing mode, inlet(s) into the chamber for at least one secondary component in a fluid state and/or fine particulate material state, which interacts with the primary components while they are moved around in the chamber by sets of the shovels, and an outlet in the chamber to allow the primary and secondary components to leave the chamber as the multi-component product material.
Abstract:
Truck-mounted tipping equipment for mixing and discharging concrete quickly includes an open tipping bucket shaped as a rectangular prism in the front and a semi-truncated cone in the rear that narrows towards a hydraulic discharge trap-door. The mixing and discharge mechanism has a spindle in an oblique position, to which helical fins have been welded serving as an endless screw. The diameter of these fins varies with the helix having a larger radius in the front (nearest to truck's cabin), and a reduced diameter rear part. The spindle keeps the concrete in continuous movement during transportation to prevent it from setting, and continuously moves the concrete towards the rear hydraulic trap-door. The trap-door remains closed until the concrete needs to be discharged. Once the majority of the total load is extracted, the tank is tipped to the rear to discharge the remaining concrete.
Abstract:
A cartridge in which bone cement is mixed and from which the cement is discharged. A blade with plural vanes is disposed in the cartridge for mixing the cement. A piston located in one end of the cartridge is actuated to push the mixed cement out of the cartridge. The blade has plural vanes, one for scraping cement off the side of the cartridge, one for scraping cement off the piston and one for scraping cement off the end of the cartridge opposite the end in which the piston is normally located. The blade is collapsible so that when the piston is actuated the blade compresses to allow the cement in the cartridge to be pushed out.
Abstract:
A device for mixing and applying mixed material, in particular medical cement, comprising a cartridge cylinder, a mixer, a plunger for closing the mixed material cavity and for forcing out the mixed material from the cartridge cylinder, and a latching ring having radially outer and inner hook formations. First counter-hooks on the cartridge cylinder interact with the radially outer hook formations on the latching ring. The plunger has second counter-hooks which interact with the inner hook formation on the latching ring in order to hold the plunger during the mixing, and release the plunger for being displaced at the beginning of the application procedure.
Abstract:
A mortar mixing apparatus includes a screw conveyor disposed below the bottom of a mixing container in which a selectively operable agitator is located. An elongate opening in the bottom of the mixing container is open into the housing of the screw conveyor so that mixed mortar may flow into the screw conveyor. The screw conveyor may be rotated in a reverse direction to force materials upward into the mixing container, or it may be operated in a forward direction to convey mortar away from the mixing container. The agitator and the screw conveyor are independently driven by hydraulic motors.
Abstract:
A bone cement mixing and delivery system is provided in which separate components of bone cement are mixed together in a mixer to form a bone cement mixture. The mixer includes a mixing paddle and a mixing shaft connected to the mixing paddle. A motor operatively engages the mixing shaft to rotate the mixing shaft and the mixing paddle to mix the components in a mixing chamber. The motor also operatively engages a transfer mechanism. After a predetermined mixing period has elapsed, the motor automatically actuates the transfer mechanism to transfer the mixture to a delivery device. The mixture is then delivered to a target site, such as a vertebral body of a patient or other anatomical site.
Abstract:
The particulate mixer is part of a blender that includes a cylindrical drum with a particulate mixing chamber. A rotating shaft is arranged in a horizontal direction in the particulate mixing chamber. Four arms project in a radial direction from the rotating shaft and include four paddles with respective stirring blades spaced from each other in an axial direction on the rotating shaft. The drum has a cylindrical center portion and side portions that communicate with the cylindrical center portion. Each of the side portions has a lower face and a vertical face. The drum is in the form of a truncated cone with the rotating shaft as its axis. The stirring blades have a driving end face and a driven end face with slopes corresponding to the slopes of the lower face of the side portions.
Abstract:
There are some disadvantages in prior art structures: a monotonous mixing flow in a limited mixing flow area, a long mixing time and significant damages on tea leaves or similar particulate, poor applicability for mixing particulate having a significant specific gravity variation or a significant particle size variation, accumulation of the particulate by means of the gravity, residue and pollutant in the bottom corners, difficulty in cleaning and water washing, and a relatively long discharge time. In order to eliminate these disadvantages, a particulate mixer 1 of the invention has a blender 4 that includes a cylindrical drum 2 and a particulate mixing chamber 3, a rotating shaft 5 that is arranged in a horizontal direction in the particulate mixing chamber 3 and is supported on the blender 4 in a rotatable manner, four arms 6a through 6d that are protruded in the radial direction of the rotating shaft 5, and 1st paddle 8a through 4th paddle 8d that have stirring blades 7a through 7d respectively set on the arms 6a through 6d. The four paddles, that is, the 1st paddle 8a through the 4th paddle 8d, are arranged in an axial direction of the rotating shaft 5. The drum 2 has a cylindrical center portion 20 and side portions 21 connecting with both ends of the center portion 20. Each of the side portions 21 has a lower face 22 and a vertical face 23. The drum 2 is formed in a truncated cone with the rotating shaft 5 as its axis. The stirring blades 7a and 7d respectively have a driving end face 7e and a driven end face 7f with slopes corresponding to the slopes of the lower faces 22.