An exemplary spraying atomizing device includes a housing, a liquid tank, a spraying device, a heating element, and a power supply. The housing defines an atomizing chamber. The liquid tank is configured for storing tobacco liquid. The spraying device is configured for spraying the tobacco liquid into the atomizing chamber in a form of liquid particles. The heating element is arranged in the atomizing chamber, and has a heating surface. The heating surface is configured for supporting and heating the liquid particles to form aerosol. The power supply is arranged in the housing, and is configured for feeding the heating element power.

A method of assembling a fluid dispenser device, the method comprising the following steps: pre-assembling a first unit comprising a body (10) and a lateral actuator system (40), said lateral actuator system including a presser element (42) that is mounted on the body (10) to pivot about an axis (A), an actuator element (41) being mounted on said presser element (42) to pivot about an axis (B), said presser element (42) having a pre-assembled position in which said lateral actuator system (40) is blocked; assembling a second unit, comprising a dispenser member (30), such as a pump or a valve, that is mounted on a reservoir (20) by means of a fastener ring (60), in said first pre-assembled unit; and moving said presser element (42) from its pre-assembled position to a final assembled position that is axially offset from said pre-assembled position, and in which said actuator element (41) co-operates operationally with said fastener ring (60) so as to actuate said dispenser member (30) each time the lateral actuator system is actuated.

A fluid dispenser device having a body (10), a reservoir (20), a dispenser head (100) and a dispenser member (30) mounted on the reservoir (20) by a fastener ring (60). The dispenser member (30) has a dispenser-member body (31) and a movable member (35) that moves axially while the dispenser member (30) is actuated. A lateral actuator system (40) is secured to the body (10) and includes an actuator element (41) that moves between a rest position and an actuated, the reservoir moving in the body during actuation. The body includes a sleeve (15) arranged with a gap around a portion of the reservoir, and a resilient member (425) co-operating with the reservoir to urge it into contact with a side of the sleeve (15). The sleeve of the body extends around a bottom portion (25) of the reservoir, and the resilient element co-operates with the reservoir outside the sleeve.

A fluid dispenser device having a body (10), a reservoir (20), a dispenser head (100) and a dispenser member (30) mounted on the reservoir by a fastener ring (60). Also provided is a lateral actuator system (40) including an actuator element (41) movable between a rest position and an actuated position. The body (10) includes a guide surface (50) that is stationary relative to the head and substantially parallel to the central axis of the dispenser member (30). The actuator element (41) co-operates with the guide surface (50). The guide surface (50) includes a resistance element (55) that modifies the co-operation between the actuator element (41) and the guide surface (50). In order to be passed over, the resistance element (55) require the user to act on the lateral actuator system (40) with an actuation force that is different.

This invention relates to a pressing device of a liquid food container, and the pressing device is mounted on the container's cover. The pressing device includes a pressing head which is connected to drive a compression part, so that the compression part can drive a first and second anti-leak valves in pressing and releasing actions. The valve heads of the anti-leak valves are alternatively closed and opened under the pressing and releasing actions. Thus, the liquid in the container can be stored in the liquid storage chamber through a liquid suction port, and then extruded out from a liquid outlet through the liquid conduction port. Therefore, the use of the anti-leak valves can effectively and accurately control the liquid out of the liquid's volume and the internal vacuum state, the liquid is locked in the pressing device without dripping in a vacuum state to achieve leak-proof and anti-splash effect.

This invention relates to a pressing device of a liquid food container, and the pressing device is mounted on the container's cover. The pressing device includes a pressing head which is connected to drive a compression part, so that the compression part can drive a first and second anti-leak valves in pressing and releasing actions. The valve heads of the anti-leak valves are alternatively closed and opened under the pressing and releasing actions. Thus, the liquid in the container can be stored in the liquid storage chamber through a liquid suction port, and then extruded out from a liquid outlet through the liquid conduction port. Therefore, the use of the anti-leak valves can effectively and accurately control the liquid out of the liquid's volume and the internal vacuum state, the liquid is locked in the pressing device without dripping in a vacuum state to achieve leak-proof and anti-splash effect.

An actuator for a hand operated foam dispensing pump that utilizes a folding nozzle is presented. The folding nozzle of the actuator is configured so as to lock the actuator in place and prevent operation of the pump when the nozzle is folded. The actuator substantially reduces pump closure loosening (back-off) and nozzle breakage during shipping of a filled product by eliminating trigger handles or other conventional nozzle types which protrude from the side of the actuator. As such, the new actuator is particularly well-suited for use in e-commerce where the shipping of unboxed products is becoming increasingly common. The actuator is configured such that actuator depression (actuation) cannot occur when the folding nozzle is in a folded position.

An exemplary spraying atomizing device includes a housing, a liquid tank, a spraying device, a heating element, and a power supply. The housing defines an atomizing chamber. The liquid tank is configured for storing tobacco liquid. The spraying device is configured for spraying the tobacco liquid into the atomizing chamber in a form of liquid particles. The heating element is arranged in the atomizing chamber, and has a heating surface. The heating surface is configured for supporting and heating the liquid particles to form aerosol. The power supply is arranged in the housing, and is configured for feeding the heating element power.

An actuator for a hand operated foam dispensing pump that utilizes a folding nozzle is presented. The folding nozzle of the actuator is configured so as to lock the actuator in place and prevent operation of the pump when the nozzle is folded. The actuator substantially reduces pump closure loosening (back-off) and nozzle breakage during shipping of a filled product by eliminating trigger handles or other conventional nozzle types which protrude from the side of the actuator. As such, the new actuator is particularly well-suited for use in e-commerce where the shipping of unboxed products is becoming increasingly common. The actuator is configured such that actuator depression (actuation) cannot occur when the folding nozzle is in a folded position.

A nasal fluid dispenser assembly (100) having a first reservoir (110) of fluid, a metering pump (120) mounted on the first reservoir (110) and including a piston (121); a compressed gas flow generator system; a nasal endpiece (150) having a connection portion (151) fastened to the outlets of the pump and valve (140), a fluid chamber (153) that receives the dose of fluid and the flow of compressed gas, and a nasal insertion element (152 that extends longitudinally along an axis (B) and contains a dispenser channel (154) connected to the fluid chamber and has a dispenser orifice (155). The axis (B) forms an angle () relative to the longitudinal axis (A). The dose of fluid is dispensed into the fluid chamber and then expelled under pressure by the flow of compressed gas out from the fluid chamber through the dispenser channel (154) the dispenser orifice (155).