A technique facilitates greasing of valves on a well tree, e.g. a frac tree, according to a simple process which enables selected, individual valves to be greased when desired. In some applications, the greasing process may be automated and controlled via a greasing control system. According to an embodiment, a greasing system is connected with grease ports at a plurality of actuatable valves located in a well tree. The greasing system has a plurality of grease valves which may be associated with each of the actuatable valves, e.g. with each of the grease ports. A pump is used to pump grease to the grease valves and the grease valves are selectively actuated to open positions to provide controlled greasing of desired actuatable valves so as to remove debris from and to lubricate selected actuatable valves.

A technique facilitates greasing of valves on a well tree, e.g. a frac tree, according to a simple process which enables selected, individual valves to be greased when desired. In some applications, the greasing process may be automated and controlled via a greasing control system. According to an embodiment, a greasing system is connected with grease ports at a plurality of actuatable valves located in a well tree. The greasing system has a plurality of grease valves which may be associated with each of the actuatable valves, e.g. with each of the grease ports. A pump is used to pump grease to the grease valves and the grease valves are selectively actuated to open positions to provide controlled greasing of desired actuatable valves so as to remove debris from and to lubricate selected actuatable valves.

A module or fitting for applying and controlling the application of a liquid, gas, vapor, or spray, in an embodiment for applying a lubricant to the neck guides of an air conveyance line configured to slidingly move containers supported on the neck guides, the modules comprising a housing section having a lubricant reservoir formed therein, and a container support section, and defining a slot for securing the fittings to a neck guide support rail in a position interspersed along the air conveyor rails with the neck guides, with the container support surface in alignment with the neck guide support surface, and channels formed in the modules for dispensing the on the container support surface in close proximity to the container support flanges which are slidingly supported.

A module or fitting for applying and controlling the application of a liquid, gas, vapor, or spray, in an embodiment for applying a lubricant to the neck guides of an air conveyance line configured to slidingly move containers supported on the neck guides, the modules comprising a housing section having a lubricant reservoir formed therein, and a container support section, and defining a slot for securing the fittings to a neck guide support rail in a position interspersed along the air conveyor rails with the neck guides, with the container support surface in alignment with the neck guide support surface, and channels formed in the modules for dispensing the on the container support surface in close proximity to the container support flanges which are slidingly supported.

The invention relates to a lubricant dispenser comprising a storage container (1) filled with lubricant and a pump unit (2) which can be connected to or is releasably connected to the storage container and by means of which the lubricant can be pumped from the storage container (1) to an outlet (5) of the pump unit (2) and is equipped with an electronic controller (35). The lubricant dispenser is characterized in that the storage container (1) is equipped with an electronic coding means (36) which can be connected to the electronic controller (35) of the pump unit (2) and can be read by same so as to transmit information in the assembled state in order to identify the storage container (1).

The invention relates to a lubricant dispenser comprising a storage container (1) filled with lubricant and a pump unit (2) which can be connected to or is releasably connected to the storage container and by means of which the lubricant can be pumped from the storage container (1) to an outlet (5) of the pump unit (2) and is equipped with an electronic controller (35). The lubricant dispenser is characterized in that the storage container (1) is equipped with an electronic coding means (36) which can be connected to the electronic controller (35) of the pump unit (2) and can be read by same so as to transmit information in the assembled state in order to identify the storage container (1).

A lubricating system that includes a manifold with one or more manifold ports that permit a flow of lubricant through the manifold. The manifold is configured for removable attachment to another manifold such that any number of manifold can be joined together. An ejector is removably attached to the manifold. The ejector has one or more projections configured for insertion into each of the one or more manifold ports in the manifold, such that the ejector is configured to receive the flow of lubricant from the manifold, via the one or more projections, and to discharge lubricant periodically, or at preset intervals, from one or more outlet ports of the ejector. A locking key is disposed between the manifold and ejector. The locking key is configured such that movement of the locking key attaches or detaches the ejector from the manifold.

A lubricating system that includes a manifold with one or more manifold ports that permit a flow of lubricant through the manifold. The manifold is configured for removable attachment to another manifold such that any number of manifold can be joined together. An ejector is removably attached to the manifold. The ejector has one or more projections configured for insertion into each of the one or more manifold ports in the manifold, such that the ejector is configured to receive the flow of lubricant from the manifold, via the one or more projections, and to discharge lubricant periodically, or at preset intervals, from one or more outlet ports of the ejector. A locking key is disposed between the manifold and ejector. The locking key is configured such that movement of the locking key attaches or detaches the ejector from the manifold.

A progressive distributor for lubricant includes a housing block having an inlet and a plurality of outlets and a plurality of metering pistons received in associated piston bores in the housing block. Each piston bore is associated with two lubricant outlet bores, and each metering piston is displaceable and configured to alternatingly release the one or the other lubricant outlet bore in order to dispense the metered lubricant amount to the lubricant outlet bore. The piston bores are fluidically connected to the lubricant inlet bore and to each other via connecting bores in order to transfer lubricant to the other piston bores. A dummy piston is disposed in one of the piston bores that permanently closes both the lubricant inlet bore and both lubricant outlet bores, and includes at least one bypass passageway that fluidically connects two of the connecting bores to each other.

A minimum quantity lubrication system for accurately measuring and controlling a volume and pressure of a lubricating fluid provided to a machining tool during minimum quantity lubrication machining operations. The minimum quantity lubrication system can further include measuring and controlling a volume and pressure of air provided during machining such that atomization of the lubricating fluid with the air can be controlled. Use of a continuous volumetric flow pump provides a continuous flow of lubricating fluid to the tool during machining operations.