A dispenser system for a pressurized canister including an actuator including components such as an external housing, a valve having a top stem connector for attachment to an output hose, support pins, and a one way ball check valve having a stem fitting with an extended valve stem for engaging the pressurized canister, a pivoting actuator control or trigger, having a trigger return spring, to bias the trigger out of engagement with the valve, unless a stop pin is removed and the trigger is pivoted into operating engagement under compression of the trigger and trigger return spring by a user. The sensor may communicate with a mobile device to indicate when to stop dispensing contents from the canister.

A liquid dispenser for discharging cosmetic or pharmaceutical liquids, in particular in the form of an inhaler. This liquid dispenser includes a switchable valve mechanism, a base, and a discharge head which, for actuation of the valve mechanism, is movable with respect to the base in a superposed axial and rotational movement or in a rotational movement between an opening position, in which the valve mechanism is opened, and a closure position, in which the valve mechanism is closed. It is proposed that, in a delivery state of the liquid dispenser, a rotational movement of the discharge head with respect to the base is blocked by a tamper-evident portion that is separable from the dispenser.

A multi-functional fluid dispensing system and method for dispensing fluid which provides an end-user the ability to control the fluid flow dispensed from the container while, in some embodiments, providing illumination of a target area to which the fluids are desired.

A collar clip for securing an aerosol canister, including a collar arranged to engage the aerosol canister, including a top, a bottom, a first outward facing surface, a first inward facing surface, and a notch arranged proximate the top and extending radially outward from the first outward facing surface, and a clip, including a first end connected to the collar, a second end, a second inward facing surface, and a second outward facing surface.

Aspects of the disclosure are directed to apparatuses and/or methods involving a rotatable dial and a plurality of nozzles therein. The dial aligns each nozzle with a fluid supply channel. In some instances, a gear coupled to the dial has cogs and gaps between adjacent ones of the cogs along a rotational path of the gear. Certain aspects involve force feedback in which a flexible tab located in the rotational path of the gear engages with the cogs for providing resistive feedback. Other aspects involve audible feedback in which a flexible tab flexes in response to contact with the gear as it rotates, and snaps back into place after the gear is rotated past the flexible tab, creating an audible noise. Certain particular aspects involve utilization of the gears to prevent fluid from being dispensed when the nozzles are not aligned with the channel.

An improved handheld applicator is provided, fitted into an assembly onto a pressure container which is equipped with a gun valve and containing a viscous compound suitable for forming a silicone paste, a polyurethane (PU) foam, or a glue, the applicator being producible in one single injection molding step and providing in handheld use the ergonomics, the aiming and the dosing accuracy comparable to the use of the pressure container with a dispensing gun. Further provided is a process for the production of the applicator and of the assembly, as well as the use of the assembly for applying a compound from the pressure container with a handheld method.

A dispenser cap includes a shell, a scraper coupled to the shell, and a fluid-delivery controller. The dispenser cap mounts on a spray can, and the fluid-delivery controller engages with a valve of the spray can to selectively dispense pressurized fluid from the spray can.

A mixing and dispensing device comprising an outer casing including a body portion, a handle portion, and a nozzle portion with a nozzle. A mixing manifold disposed in the body portion including a mixing chamber in fluid communication with the nozzle. Canisters within the body portion each including a valve connected to the mixing manifold movable between preventing and providing fluid communication between the canister and the mixing chamber. A trigger disposed within the handle portion and configured to move from a trigger passive to dispensing position causing the valves of each canister to move from a valve passive position to the valve dispensing position. A pull safety including a central cover and a tail tip removably disposed on the outer casing such that the central cover occludes the nozzle and the tail tip prevents movement of the trigger from the trigger passive position to the trigger dispensing position.

A mixing and dispensing device comprising an outer casing including a body portion, a handle portion, and a nozzle portion with a nozzle. A mixing manifold disposed in the body portion including a mixing chamber in fluid communication with the nozzle. Canisters within the body portion each including a valve connected to the mixing manifold movable between preventing and providing fluid communication between the canister and the mixing chamber. A trigger disposed within the handle portion and configured to move from a trigger passive to dispensing position causing the valves of each canister to move from a valve passive position to the valve dispensing position. A pull safety including a central cover and a tail tip removably disposed on the outer casing such that the central cover occludes the nozzle and the tail tip prevents movement of the trigger from the trigger passive position to the trigger dispensing position.

An environmentally safer aerosol freeze spray formulation and delivery system that is under pressure in an aerosol can and can only be released by pulling the trigger of the trigger sprayer by a finger or fingers. The trigger sprayer unit cannot be sprayed until the tab is pulled. The can is cylindrical canister housing and has a dip tube that goes into the can into the freeze spray. The freeze spray formulation in the can travels up through the dip tube up to the trigger sprayer and out a nozzle in which is cold and will flow out as an mist when the trigger is depressed.