Abstract: A loading device is provided, including a first member, a second member, a first clamping member, a second clamping member, and an actuator. The first member includes a first surface, where the first surface contacts a first side of a test piece. The second member includes a second surface, for contacting a second side of the test piece. The first clamping member includes a first clamping surface for contacting the second side of the test piece. The second clamping member is fixedly secured to the second member. The actuator exerts a predetermined force driving the second member in a first direction away from the first member, and a second direction towards the first member.

Abstract: A loading device is provided, including a first member, a second member, a first clamping member, a second clamping member, and an actuator. The first member includes a first surface, where the first surface contacts a first side of a test piece. The second member includes a second surface, for contacting a second side of the test piece. The first clamping member includes a first clamping surface for contacting the second side of the test piece. The second clamping member is fixedly secured to the second member. The actuator exerts a predetermined force driving the second member in a first direction away from the first member, and a second direction towards the first member.

Abstract: A conveyor diagnostic system for monitoring loading of a conveyor line assembly including at least one sensor component coupled to the conveyor line assembly. The sensor component is adapted for detecting loading of the conveyor line assembly and is further adapted for generating and transmitting a signal that is correlative of the loading of the conveyor line assembly. The conveyor diagnostic system also includes a ground station adapted to receive and process the signal that is correlative of the loading of the conveyor line assembly. Furthermore, the conveyor diagnostic system includes a local positioning system that is adapted for detecting the location of the sensor component in relation to a reference point. A method of using the conveyor diagnostic system is also disclosed.

Abstract: A conveyor diagnostic system for monitoring loading of a conveyor line assembly including at least one sensor component coupled to the conveyor line assembly. The sensor component is adapted for detecting loading of the conveyor line assembly and is further adapted for generating and transmitting a signal that is correlative of the loading of the conveyor line assembly. The conveyor diagnostic system also includes a ground station adapted to receive and process the signal that is correlative of the loading of the conveyor line assembly. Furthermore, the conveyor diagnostic system includes a local positioning system that is adapted for detecting the location of the sensor component in relation to a reference point. A method of using the conveyor diagnostic system is also disclosed.

Abstract: Apparatus for measuring a plurality of forces acting on a conveyor chain of a conveyor line includes a pre-selected chain link coupled to the conveyor chain, and a sensor array having a plurality of strain gauges disposed on the pre-selected chain link, each of the plurality of strain gauges being distinctly oriented to measure the plurality of forces acting on the pre-selected link.

Abstract: Apparatus for measuring a plurality of forces acting on a conveyor chain of a conveyor line includes a pre-selected chain link coupled to the conveyor chain, and a sensor array having a plurality of strain gauges disposed on the pre-selected chain link, each of the plurality of strain gauges being distinctly oriented to measure the plurality of forces acting on the pre-selected link.

Abstract: A system for calibrating a strain gage transducer mounted on a rotating member comprising a mechanical switch capable of making contact from a stator to selected terminals on the rotor to provide both positive and negative shunt calibration of the transducer. In a first embodiment, calibration is carried out while the rotor is stationary, providing a simple, cost effective calibration system for most applications. In a second embodiment, special terminals permit contact while the rotor is in motion. In a third embodiment, simultaneous calibration and gage measurements are possible while the rotor is in motion providing a means of continuous correction which is especially advantageous in applications where the rotor is subject to a rapidly changing environment.