Abstract: A weighing apparatus having a load receiving element and a plurality of load cells directly or indirectly associated with the load receiving element such that when an object to be weighed is placed on the load receiving element, the weight of the object is unevenly applied to the load cells. The weighing apparatus includes load cells of different capacity based on the uneven loading applied thereto.

Abstract: A device and method for effectuating the temperature compensation testing of digital load cells. The device uses conductive heat transfer to establish and maintain the temperature of the load cell(s) during testing. The device may include a vessel into which one or more load cells to be tested are placed. Temperature control of the load cells may be accomplished by circulating a temperature controlled fluid through the vessel. The vessel containing the one or more load cells may then be placed in a load application device that applies a load(s) to the one or more load cells during testing. Readings from the one or more load cells are used to establish a temperature compensation factor for each load cell tested. In other embodiments, temperature control of the load cells may be accomplished by placing the load cells in contact with a solid heat transfer element(s).

Abstract: A hermetically sealed scale for use in a weighing scale. A scale of the present invention may include a load receiving plate and a bottom plate, between which is sandwiched a supporting rib structure that preferably includes a plurality of perimeter members that form sealed upright sides of the scale. The supporting rib structure, load receiving plate and bottom plate cooperate to form a substantially rigid and hermetically sealed sandwich structure. The load receiving plate may be joined to the supporting rib structure by perimeter welding or another bonding technique that permits the joining material to be subsequently shaped to form a smooth transition between the load receiving plate and the perimeter members of the scale.

Abstract: A system for capturing a composite image of an object with a curved surface includes a conveyor configured to transport the object to be imaged to a predetermined imaging position. A sensor is configured to produce a signal when the object to be imaged is at the predetermined position, and several cameras are arranged to photograph the object at the predetermined position from a plurality of different angles. A tracking module is used to receive the signal from the sensor, and output an actuating signal to the several cameras, such that each camera captures an image when the actuating signal is received. A processing device receives a captured image from each of the several cameras, manipulates the received images, and generates a composite image based on the manipulated images.