Abstract: A label cutter including a blade having a curved cutting edge configured and arranged to move towards a platen in order to cut a label material placed between them. The label cutter has a force applicator arranged and configured to apply a force to a portion of the blade in the direction of the platen. The label cutter includes an actuator operatively coupled to the force applicator and operable to cause the force applicator to move. The force applicator is moveable in order to, in use, apply a force to consecutive portions of the blade in the direction of the platen so as to provide a rolling engagement between the blade and the platen. A label issuing device including a label cutter is also provided.

Abstract: A printer cassette device is arranged to be removably mounted to or inserted into a printing device of a weighing scale. The printer cassette device comprises a rotatable locking mechanism for rotational engagement with the printing device.

Abstract: A printer cassette device is arranged to be removably mounted to or inserted into a printing device of a weighing scale. The printer cassette device comprises a rotatable locking mechanism for rotational engagement with the printing device.

Abstract: A fluid dispensing device for dispensing a fluid product having a dispensing outlet from which the fluid product is dispensable, a supply of the fluid product, a dispensing member mounted for movement in a dispensing direction along an axis X-X from a first position to a second position which causes a dose of the fluid product in the supply to be dispensed from the dispensing outlet and a finger-operable actuator member mounted for movement in an actuating direction which is generally transverse to the axis.

Abstract: The present invention relates to a gas process system for treating a solids-containing and/or solids-forming gas stream, wherein said gas process system comprises a device for forming a liquid film between the gas stream to be treated and an interior wall of such gas processing system, and wherein such liquid film is spaced apart from the interior wall by a distance that is sufficient to prevent solids from passing through such liquid film to form deposition on the interior wall.

Abstract: Liquid is supplied from a bottle B to a discharge outlet 8 via a molded plastics reservoir 15 by pressurizing the bottle using an air pump 22. A pressure sensor responds to a rise in air pressure supplied to the bottle by shutting off the pump. Liquid is removed from the reservoir through a dip tube 17 having a main outlet 18 adjacent to the bottom of the reservoir and a smaller auxiliary outlet 21 adjacent to the top of the reservoir. The upper region of the reservoir is received in a finned heat-conducting holder 16 provided with a thermoelectric cooling element. For hygienic purposes the bottle has a connector 12 which can be replaced together with the reservoir 15 and associated supply tubes 24, 13, 14, 17 and 19. A temperature-control mixer 51 may be to mix liquid from the reservoir with liquid from the bottle.

Abstract: Liquid is supplied from a bottle B to a discharge outlet 8 via a molded plastics reservoir 15 by pressurizing the bottle using an air pump 22. A pressure sensor responds to a rise in air pressure supplied to the bottle by shutting off the pump. Liquid is removed from the reservoir through a dip tube 17 having a main outlet 18 adjacent to the bottom of the reservoir and a smaller auxiliary outlet 21 adjacent to the top of the reservoir. The upper region of the reservoir is received in a finned heat-conducting holder 16 provided with a thermoelectric cooling element. For hygienic purposes the bottle has a connector 12 which can be replaced together with the reservoir 15 and associated supply tubes 24, 13, 14, 17 and 19. A temperature-control mixer 51 may be to mix liquid from the reservoir with liquid from the bottle.

Abstract: Liquid is supplied from a bottle B to a discharge outlet 8 via a molded plastics reservoir 15 by pressurizing the bottle using an air pump 22. A pressure sensor responds to a rise in air pressure supplied to the bottle by shutting off the pump. Liquid is removed from the reservoir through a dip tube 17 having a main outlet 18 adjacent to the bottom of the reservoir and a smaller auxiliary outlet 21 adjacent to the top of the reservoir. The upper region of the reservoir is received in a finned heat-conducting holder 16 provided with a thermoelectric cooling element. For hygienic purposes the bottle has a connector 12 which can be replaced together with the reservoir 15 and associated supply tubes 24, 13, 14, 17 and 19. A temperature-control mixer 51 may be to mix liquid from the reservoir with liquid from the bottle.

Abstract: Liquid is supplied from a bottle B to a discharge outlet 8 via a moulded plastics reservoir 15 by pressurising the bottle using an air pump 22. A pressure sensor responds to a rise in air pressure supplied to the bottle by shutting off the pump. Liquid is removed from the reservoir through a dip tube 17 having a main outlet 18 adjacent to the bottom of the reservoir and a smaller auxiliary outlet 21 adjacent to the top of the reservoir. The upper region of the reservoir is received in a finned heat-conducting holder 16 provided with a thermoelectric cooling element. For hygienic purposes the bottle has a connector 12 which can be replaced together with the reservoir 15 and associated supply tubes 24, 13, 14, 17 and 19. A temperature-control mixer 51 may be to mix liquid from the reservoir with liquid from the bottle.