Abstract: A counting mechanism (100) for a dispenser comprising: a first and a second housing part (110, 120) that are rotatable relative to each other; and a counting ring (130) disposed between the housing parts. The first housing part has a protrusion (111) which abuts the counting ring, holding a portion of the counting ring in contact with the second housing part. The relative rotation of the housing parts causes the protrusion to slide against the surface of the counting ring to drive a rolling movement of the counting ring around the circumference of the second housing part, such that a predefined rotation of the housing parts produces an incremental rotational displacement between the counting ring and second housing part to record a count. The counting mechanism provides a large gear reduction ratio in a compact form which is straightforward to manufacture and provides an accurate and reliable record of counts.

Abstract: A counting mechanism (100) for a dispenser comprising: a first and a second housing part (110, 120) that are rotatable relative to each other; and a counting ring (130) disposed between the housing parts. The first housing part has a protrusion (111) which abuts the counting ring, holding a portion of the counting ring in contact with the second housing part. The relative rotation of the housing parts causes the protrusion to slide against the surface of the counting ring to drive a rolling movement of the counting ring around the circumference of the second housing part, such that a predefined rotation of the housing parts produces an incremental rotational displacement between the counting ring and second housing part to record a count. The counting mechanism provides a large gear reduction ratio in a compact form which is straightforward to manufacture and provides an accurate and reliable record of counts.

Abstract: A counting mechanism (100) for a dispenser comprising: a first and a second housing part (110, 120) that are rotatable relative to each other; and a counting ring (130) disposed between the housing parts. The first housing part has a protrusion (111) which abuts the counting ring, holding a portion of the counting ring in contact with the second housing part. The relative rotation of the housing parts causes the protrusion to slide against the surface of the counting ring to drive a rolling movement of the counting ring around the circumference of the second housing part, such that a predefined rotation of the housing parts produces an incremental rotational displacement between the counting ring and second housing part to record a count. The counting mechanism provides a large gear reduction ratio in a compact form which is straightforward to manufacture and provides an accurate and reliable record of counts.

Abstract: A counting mechanism (100) for a dispenser comprising: a first and a second housing part (110, 120) that are rotatable relative to each other; and a counting ring (130) disposed between the housing parts. The first housing part has a protrusion (111) which abuts the counting ring, holding a portion of the counting ring in contact with the second housing part. The relative rotation of the housing parts causes the protrusion to slide against the surface of the counting ring to drive a rolling movement of the counting ring around the circumference of the second housing part, such that a predefined rotation of the housing parts produces an incremental rotational displacement between the counting ring and second housing part to record a count. The counting mechanism provides a large gear reduction ratio in a compact form which is straightforward to manufacture and provides an accurate and reliable record of counts.

Abstract: A nozzle assembly, configured to receive fluid at pressures of greater than 1 bar. The nozzle assembly comprises a first perforate element (1) comprising one or more orifices (2), each orifice having an inlet and an outlet and a diameter of no more than 100 ?m, and at least one second perforate element (4) further comprising a plurality of orifices of a smaller size than the one or more orifices of the first perforate element (1) and having a larger number of orifices than the first perforate element (1). The second perforate element (4) is configured to act as a filter and the second perforate element (4) is attached to the first perforate element (1). A perpendicular distance between the first and second perforate elements (4) is less than the diameter of the largest orifice of the first perforate element (1).

Abstract: An automated immunoassay analyzer, or assay system, provides for frequent testing of control samples to verify that before and after a series of tests of patients' samples, the operation of the test equipment is accurate, thereby ensuring that the results of the series of patient tests are accurate. Operating the immunoassay analyzer in this manner will delay reporting clinical test results until the results are confirmed as accurate. This operation can be performed automatically by a random access immunoassay analyzer.

Abstract: This invention is directed to guide pads that can be adjusted to a desired distance from the guide arm while mounted on the guide arm. The pad is machined so that the surface is level. The pad is then mounted on the guide arm and leveled using an adjustable level means to achieve the desired distance of the pad from the guide arm. By having the adjustable leveling means to adjust the guide pad, the desired distance of the pad from the guide arm can be can be maintained without shimming and machining the pad after the pad is mounted on the guide arm. With the use of an adjustable leveling means, materials harder than Babbitt can be used and readjusted to the desired distance without machining the pad. If the pad becomes so worn that the leveling means cannot adjust the pad to the desired distance from the guide arm, the pad can be removed and machined. Afterwards the machined pad can be mounted on the guide arm and leveled to the proper distance.

Abstract: A vehicle is capable of being driven in a plurality of forward directions, the direction of travel being a function of the forward-facing orientation of a movable seat or movement of the driver to a different seat. The vehicle includes a frame, at least three wheels, a steering system, a braking system and an energy conversion system operable with respect to at least one of the wheels and controllable through non-mechanical control means. The vehicle has at least one movable seat connected to the frame and at least one operator interface operably connected to at least one of the steering system, braking system and energy conversion system that is usable to drive the vehicle in different directions when the seat is moved.

Abstract: A system for monitoring a piece of equipment is provided. The system comprises a monitoring device that is associated with the equipment and configured to detect data relating to the operation of the equipment. A communication network is adapted to communicate the data to a server based on a signal received from the monitoring device, and an access device is connected to the communication network and configured to provide the data to an end-user for determining whether the equipment is operating effectively. The monitoring device is adapted to detect when the equipment is moving.

Abstract: A vehicle is capable of being driven in a plurality of forward directions, the direction of travel being a function of the forward-facing orientation of a movable seat or movement of the driver to a different seat. The vehicle includes a frame, at least three wheels, a steering system, a braking system and an energy conversion system operable with respect to at least one of the wheels and controllable through non-mechanical control means. The vehicle has at least one movable seat connected to the frame and at least one operator interface operably connected to at least one of the steering system, braking system and energy conversion system that is usable to drive the vehicle in different directions when the seat is moved.