A pressurizable fluid container apparatus, system and method of use.

A certain amount of contents is easily sprayed by one pressing operation. A metered spray unit 10 being mounted on a stem 23 of a valve 22 that is provided on the upper portion of a container body 21, configured to spray a certain amount of contents in a container body 21, includes an outer cylinder 30 which is provided with a stem insertion hole 30a into which the tip of the stem 23 is inserted and the inner wall thereof is fixed to the stem, a metering chamber 35 connected to the stem insertion hole 30a, the metering chamber being an internal space having a predetermined capacity, connected to the stem insertion hole 30a, and an spray port 33 communicating with the metering chamber 35, a plug member 40 that is inserted from the inside of the metering chamber 35 into the spray port 33 for blocking the spray port 33, a push button 51, an elastic member 60 for supporting the push button 51 on the outer cylinder 30, and a shaft member 50 connected to the push button 51. The elastic member 60 has an amount of displacement due to the pressing force applied to the push button 51, being smaller than the amount of displacement when applying the same pressing force to the spring for urging the stem 23 within the valve 22.

Described herein is a texture material dispensing system that includes a foldable handle and trigger. The texture material dispensing system may be used for dispensing a texture material onto a target surface, such as a ceiling.

An overcap assembly includes an actuating button attached to and surrounded by the body. The actuating button has a fluid passageway therein, and the fluid passageway is configured to receive a fluid when the actuating button is depressed. The overcap assembly further includes a first nozzle and a second nozzle. The first nozzle extends from the actuating button and is in fluid communication with the fluid passageway. The first nozzle includes a first exit aperture. The second nozzle extends from the actuating button and is positioned below the first nozzle. The second nozzle is in fluid communication with the fluid passageway. The second nozzle includes a second exit aperture angled differently than the first exit aperture. The first nozzle and the second nozzle each comprise an inner cylindrical wall and an outer cylindrical wall surrounding and spaced apart from the inner cylindrical wall.

The invention relates to a cap for a pressurized container with a dispensing unit, wherein the cap comprises a stationary body configured to be attached to the container such that the stationary body encloses the dispensing unit of the container, the cap further comprises an actuation portion for activation of the dispensing unit of the pressurized container. The invention further relates to a container comprising a dispensing unit and a cap.

A handheld dispensing device has a first dispensing element configured to dispense a structural material and a second dispensing element configured to dispense a biological material. The second dispensing element is single-use and sterilizable. The first dispensing element is connectable to the second dispensing element. A dispensing system also is provided and has a sterilizable chamber; at least one robotic arm assembly and a dispensing device within the sterilizable chamber. The at least one robotic assembly is configured to move the dispensing device that has a first dispensing element and a second dispensing element. The first dispensing element is releasably connectable to the second dispensing element. An external control is device connected to the robotic arm assembly and controls the at least one robotic arm assembly. The first dispensing element dispenses a structural material and the second dispensing element dispenses a biological material.

A dispensing system has a sterilizable chamber. At least one robotic arm assembly and a dispensing device are within the sterilizable chamber. The dispensing device comprising a first dispensing element and a second dispensing element. The first dispensing element is connectable to the second dispensing element The at least one robotic assembly is configured to move the dispensing device. An external control device is connected to the at least one robotic arm assembly and is configured to control the at least one robotic arm assembly. The first dispensing element is configured to dispense a structural material and the second dispensing element is configured to dispense a biological material.

A discharging nozzle mounted to an aerosol container in which the foamable contents are filled is provided with an inner passage extending in an axial direction of the discharging nozzle, a closing part which closes a top end of the inner passage, and an opening part which opens in a side of the inner passage. Further, an opening inner peripheral surface configuring an opening part is provided with a pair of side surfaces which controls a discharging direction of the foamable contents discharged outside through the opening part from the inner passage.

A bottle cap assembly for pressurizing a water bottle is described herein. The bottle cap assembly comprises a cap, a teeter valve coupled to the top of the cap, a pressurizing plunger, a hollow pump shaft receiving the plunger, a hollow uptake adapter, a relief tube extension and a flexible conduit.

A dispensing device for dispensing a foamable product. The dispensing device comprises a dispensing channel (110; 210; 410). The dispensing channel has: an inlet (111; 211; 411) for communicating with a valve-element (120) of a container (130) containing the foamable product; and an outlet (112; 212; 412) for dispensing the foamable product. The dispensing channel (110; 210; 410) further comprises a variable-volume cavity (140; 240; 440) at the outlet. The variable-volume cavity (140; 240; 440) is defined at least partly by a first component (142; 242; 442) and a second component (144; 244; 444) that is separate from and rigidly movably with respect to the first component to vary the volume of the variable-volume cavity (140; 240; 440) between a first configuration and a second configuration. In the first configuration, the variable-volume cavity (140; 240; 440) has a first volume and the outlet (112; 212; 412) is closed. In the second configuration, the variable-volume cavity has a second volume and the outlet (112; 212; 412) is open. The second volume is greater than the first volume.