Abstract: A load pin configured for measuring a force, the load pin including two sensors spaced apart from each other for measuring stress or tension. An axis includes a lateral surface configured to be subjected to a load from an upside in an area of the axis between the two sensors. A slot divides the axis into a lower portion and an upper portion, the slot extending essentially in an axial direction of the axis.

Abstract: A support force measurement apparatus for determining a support force on a support element of a support structure of a movable working machine. The measurement apparatus has at least one measurement element and a support leg. The measurement element is connected to a deformation body capable of being deformed with an effect of the support force, so as to form a sensor and send a signal proportional to the support force. The support leg has the sensor and is movably connected to the support element. The support element comprises a cable connection, and the cable connection is constructed in a manner of guiding electrical energy and is used for sending the signal proportional to the support force to an analysis apparatus in a machine. The support element in the support leg and the sensor are provided with electromagnetic interfaces.

Abstract: A load pin configured for measuring a force, the load pin including two sensors spaced apart from each other for measuring stress or tension. An axis includes a lateral surface configured to be subjected to a load from an upside in an area of the axis between the two sensors. A slot divides the axis into a lower portion and an upper portion, the slot extending essentially in an axial direction of the axis.

Abstract: A sensor system for measuring pressure, temperature, force, or fill level, whereby an electrical plug connection is made especially robust and reliable for frequent, cyclic pivoting movements.

Abstract: For measuring tensile and/or compressive loads force measuring systems are provided for measuring a tensile and/or compressive load of a structure have a first force measuring sensor assigned to the structure, and a second force measuring sensor assigned to the structure. To provide a force measuring system that enables high measuring accuracy, the first and the second force measuring sensor differ in such a way, that the first force measuring sensor is designed to measure a nominal load range, and the second force measuring sensor is designed to measure a sub-range of the nominal load range.

Abstract: A pressure overload protector for a sensor includes a pressure-filled channel system fillable with fluid or gas, a first overload stop seated in an open position, a first diaphragm at the unseated end of the first overload stop, a second overload stop seated in an open position, a second diaphragm at the unseated end of the second overload stop, a sensor connected to a fluid channel, and a third and fourth overload stop connected by channels to the fluid channel of the sensor and terminating at a fluid exit. The overload protector provides bidirectional over and under pressure protection to the sensor.

Abstract: A pressure overload protector for a sensor includes a pressure-filled channel system fillable with fluid or gas, a first overload stop seated in an open position, a first diaphragm at the unseated end of the first overload stop, a second overload stop seated in an open position, a second diaphragm at the unseated end of the second overload stop, a sensor connected to a fluid channel, and a third and fourth overload stop connected by channels to the fluid channel of the sensor and terminating at a fluid exit. The overload protector provides bidirectional over and under pressure protection to the sensor.

Abstract: A sensor system for measuring pressure, temperature, force, or fill level, whereby an electrical plug connection is made especially robust and reliable for frequent, cyclic pivoting movements.

Abstract: A support force measurement apparatus for determining a support force on a support element of a support structure of a movable working machine. The measurement apparatus has at least one measurement element and a support leg. The measurement element is connected to a deformation body capable of being deformed with an effect of the support force, so as to form a sensor and send a signal proportional to the support force. The support leg has the sensor and is movably connected to the support element. The support element comprises a cable connection, and the cable connection is constructed in a manner of guiding electrical energy and is used for sending the signal proportional to the support force to an analysis apparatus in a machine. The support element in the support leg and the sensor are provided with electromagnetic interfaces.

Abstract: For measuring tensile and/or compressive loads force measuring systems are provided for measuring a tensile and/or compressive load of a structure have a first force measuring sensor assigned to the structure, and a second force measuring sensor assigned to the structure. To provide a force measuring system that enables high measuring accuracy, the first and the second force measuring sensor differ in such a way, that the first force measuring sensor is designed to measure a nominal load range, and the second force measuring sensor is designed to measure a sub-range of the nominal load range.

Abstract: A force-sensing device for measuring a traction- and/or pressure force load in a structure, for example, in a container-locking bolt is provided. The force-sensing device is constructed shaped like a rod and a sensor section detects expansions and/or compressions of the structure.

Abstract: A measuring device is described which has a metal body deformable in accordance with a value to be measured. A sensor element having a metal carrier and ohmic resistors formed thereon in metal thin-film technique is connected to the metal body by welding and generates a signal adapted to be electrically evaluated which corresponds to the deformation of the metal body. The weld for connecting the metal body and the sensor element completely encloses the metal carrier at its circumference. The metal body has, at the welded connection with the metal carrier, a material thickness t which is completely penetrated by the weld. The value to be measured by the measuring device comprises force, pressure, temperature, torque or combinations thereof.

Abstract: A method is provided for compensating measuring errors for handling equipment with a drive carrier that includes a carrier part and driven drums for moving the steel cables arranged thereon and including a handling receptacle in which the handling receptacle is suitable for picking up loads and is connected to the carrier part by deflection pulleys via the support cables a id a controllable lever mechanism that is at least connected to at least two support cables and with at least two force sensors that capture the forces of at least two support cables and a monitoring device that monitors the forces of the at least two force sensors. An adjustment angle of the controllable lever mechanism is captured by sensors and a correction of the cable forces based on the captured adjustment angle is carried in the monitoring device.

Abstract: A load cell for detecting the supporting force transmitted by a load-bearing support element is provided. The load cell forms a measuring portion of the support element, which deforms under the supporting force and transverse forces in a direction deviating from the supporting force to form part of the support element with the same. A plurality of thin-film resistors are arranged at the measuring portion, and exhibit a reaction proportional to strain and whose reactions proportional to transverse forces cancel each other.

Abstract: A force-sensing device for measuring a traction- and/or pressure force load in a structure, for example, in a container-locking bolt is provided. The force-sensing device is constructed shaped like a rod and a sensor section detects expansions and/or compressions of the structure.

Abstract: A method is provided for compensating measuring errors for handling equipment with a drive carrier that includes a carrier part and driven drums for moving the steel cables arranged thereon and including a handling receptacle in which the handling receptacle is suitable for picking up loads and is connected to the carrier part by deflection pulleys via the support cables and a controllable lever mechanism that is at least connected to at least two support cables and with at least two force sensors that capture the forces of at least two support cables and a monitoring device that monitors the forces of the at least two force sensors. An adjustment angle of the controllable lever mechanism is captured by sensors and a correction of the cable forces based on the captured adjustment angle is carried in the monitoring device.

Abstract: A measuring device is described which has a metal body deformable in accordance with a value to be measured. A sensor element having a metal carrier and ohmic resistors formed thereon in metal thin-film technique is connected to the metal body by welding and generates a signal adapted to be electrically evaluated which corresponds to the deformation of the metal body. The weld for connecting the metal body and the sensor element completely encloses the metal carrier at its circumference. The metal body has, at the welded connection with the metal carrier, a material thickness t which is completely penetrated by the weld. The value to be measured by the measuring device comprises force, pressure, temperature, torque or combinations thereof.

Abstract: Disclosed is an axial force transducer comprising a deformable element (1) which forms a measuring spring and is rotationally symmetrical to the force inducing axis as well as strain gauges (15, 18) that are arranged in pairs in areas extending in opposite directions and are connected so as to form an electrical resistance bridge. The deformable element (1) is provided with a central location hole (8) which extends radially under the effect of an axial force and whose edge (12) is connected to a deformable disk (13) via an annular rib (10), said deformable disk (13) being disposed at an axial distance from the location hole (8). The edge (14) of the deformable disk (13) radially protrudes from the annular rib (10). The strain gauges (15, 18) are applied to the face of the deformable disk (13) in pairs, inside and outside the diameter of the annular rib (10).

Abstract: A load cell for detecting the supporting force transmitted by a load-bearing support element is provided. The load cell forms a measuring portion of the support element, which deforms under the supporting force and transverse forces in a direction deviating from the supporting force to form part of the support element with the same. A plurality of thin-film resistors are arranged at the measuring portion, and exhibit a reaction proportional to strain and whose reactions proportional to transverse forces cancel each other.

Abstract: Disclosed is an axial force transducer comprising a deformable element (1) which forms a measuring spring and is rotationally symmetrical to the force inducing axis as well as strain gauges (15, 18) that are arranged in pairs in areas extending in opposite directions and are connected so as to form an electrical resistance bridge. The deformable element (1) is provided with a central location hole (8) which extends radially under the effect of an axial force and whose edge (12) is connected to a deformable disk (13) via an annular rib (10), said deformable disk (13) being disposed at an axial distance from the location hole (8). The edge (14) of the deformable disk (13) radially protrudes from the annular rib (10). The strain gauges (15, 18) are applied to the face of the deformable disk (13) in pairs, inside and outside the diameter of the annular rib (10).