Abstract:
Disclosed is an apparatus and method for providing asymmetric oscillations to a container. The container may include a fluid, a particle, and/or a gas. A vibration driver attached to the container provides asymmetric oscillations. A controller connected to the vibration driver controls an amplitude, frequency, and shape of the asymmetric oscillations. An amplifier amplifies the asymmetric oscillations in response to the controller. A sensor disposed on the vibration driver provides feedback to the controller.
Abstract:
Disclosed is an apparatus and method for providing asymmetric oscillations to a container. The container may include a fluid, a particle, and/or a gas. A vibration driver attached to the container provides asymmetric oscillations. A controller connected to the vibration driver controls an amplitude, frequency, and shape of the asymmetric oscillations. An amplifier amplifies the asymmetric oscillations in response to the controller. A sensor disposed on the vibration driver provides feedback to the controller.
Abstract:
A bottle agitation device agitates the contents of bottles such as tattooing ink or the like. The device includes a housing and a post coupled to and extending upwardly from a top wall of the housing. A support wall is coupled to an upper end of the post. The support wall is concavely arcuate wherein the support wall is configured for receiving and supporting a bottle thereon. A base wall is coupled to an end of the support wall. A vibrational unit is positioned in the housing. The vibrational unit agitates the support wall for agitating the bottle when the bottle is supported on the support wall.
Abstract:
A method and apparatus of for mixing a tinting concentrate disposed in a container. The container is held inside a larger bucket by a base insert and a top insert. The bucket with the container secured therein is clamped to a table of a mixing apparatus. The table is then vibrated, thereby mixing the tinting concentrate.
Abstract:
A fluid mixing device provides a gentle rotating and concurrent back and forth motion to agitate a fluid. The device has a receptacle with a shaft extending downwardly from a location off center of its bottom to a link arm which is pivotally attached to a reciprocating drive means. A second embodiment of the invention adds a back and forth rotation of the receptacle about its center by attaching a gear to the bottom of the receptacle about its center and providing a partial inside ring gear along which the gear on the receptacle moves pursuant to the reciprocating movement of the shaft. The device is particularly useful for the mixing of biological solutions from lyophilized materials without creating undesirable foams.
Abstract:
A clamp means is provided for holding at least one vessel so that the vessel can be agitated by a drive means with the clamping means permitting the vessel to move with the clamping means defining the null point of the movement. The clamp means may provide a rack for resiliently clamping the vessel. Preferably, the clamping means is for resiliently clamping the vessel at a position remote from the bottom thereof. Drive means are provided for imparting motion, such as orbital motion, to the agitating means whereby fluent contents of the vessel are agitated. The apparatus is adapted for the holding and agitating a single or a plurality of vessels, such as a plurality of test tubes. The drive means also is capable of pulsing the orbital motion.
Abstract:
An orbital shaker device (1) for biotechnological and/or biomedical applications comprises a frame (10), a platform (15) for receiving biotechnological and/or biomedical containers (50), eccentric couplings (13, 14) for allowing an orbital movement of the platform (15) relative to the frame (10), counterweight units (17, 18) for balancing the orbital movement, and at least one motor (19) for driving the eccentric couplings (13, 14). The device comprises two eccentric couplings (13, 14) arranged near respective opposite edges (27, 28) of the platform (15), while each counterweight unit (17, 18) is arranged approximately in the plane of the combined center of gravity of the platform (15) and the containers (50). Furthermore, both eccentric couplings (13, 14) are driven by the motor (19) or motors, either directly or indirectly. In this way, an optimal vibration compensation is achieved while allowing an imaging unit (40) to be mounted underneath the platform (15).
Abstract:
A device for carbonating beverages includes a gas supply compartment in pneumatic communication with a gas supply conduit and a container coupled to the gas supply compartment. The container has an opening. A gasket is coupled to the opening of the container and the gas supply compartment. The gasket has an opening through which gas flows from the gas supply compartment to the container.
Abstract:
A method for mixing fluids and/or solids in a manner that can be varied from maintaining the integrity of fragile molecular and biological materials in the mixing vessel to homogenizing heavy aggregate material by supplying large amounts of energy. Variation in the manner of mixing is accomplished using an electronic controller to generate signals to control the frequency and amplitude of the motor(s), which drive an unbalanced shaft assembly to produce a linear vibratory motion. The motor may be a stepper motor, a linear motor or a DC continuous motor. By placing a sensor on the mixing vessel platform to provide feedback control of the mixing motor, the characteristics of agitation in the fluid or solid can be adjusted to optimize the degree of mixing and produce a high quality mixant.