A force transmission element for a balance or load cell is adapted to be arranged between a load receiving unit, receiving the load to be weighed, and a load application point of a load cell, in order to transmit the load force exerted by the load. The force transmission element is designed at least partly as a framework composed of hollow rods, in particular round rods, wherein the force transmission element, in particular the hollow rods, is/are produced at least partly using 3D printing technology.

The invention is a monitoring system for determining a vehicle maintenance condition based on weight. The system includes a monitoring station, a weight determination system, a data input device configured to receive input data, and a processing device. The processing device includes a processor and non-volatile memory. The processor is configured to receive load ratings for a tow vehicle and tow equipment, receive maintenance requirements for the tow vehicle and the tow equipment, receive vehicle use requirements for the tow vehicle and the tow equipment, receive weight data from the weight determination system, and receive the input data from the data input device. Additionally, the processor is configured to determine at least one maintenance condition based on the load ratings, the weight data, and the input data. The processor is also configured to send the maintenance condition data to the monitoring system and communicate the maintenance condition to a user.

A weight measuring apparatus for vehicles includes a measuring plate on which an object to be measured is placed; a plurality of entry members installed on the measuring plate; and a load cell having one side fixed to the entry member and the other side fixed to the measuring plate, wherein the entry members are installed apart from each other at the edge of the measuring plate. A weight measuring apparatus for vehicles with which a vehicle is easy to enter thereby measuring the weight of the vehicle conveniently, of which structure is simple and light thereby improving the usability and handling thereof, of which cost for manufacturing can be reduced, of which supporting structure is stable and reinforced with structural strength thereby improving durability and safety, and that can measure load weight accurately.

The disclosure relates to a load cell including an elastic element, at least one strain gauge and a limitation element. The elastic element includes a first end portion, a second end portion and a deformation region. The first end portion and the second end portion are arranged along an axial direction and opposed to each other. The deformation region is located between the first end portion and the second end portion. The at least one strain gauge is disposed in the deformation region. When a force is exerted on the first end portion in a first direction, the deformation region is deformed to drive the at least one strain gauge to change shape, so that the force is measured and standardized under a specific range. The limitation element is connected to the elastic element. A gap is formed between the limitation element and the elastic element.

A load verification system includes a first sensor configured to determine an identifier associated with a target object, a second sensor configured to determine a load borne by a machine handling the target object, and a controller configured to determine a load threshold based on the identifier, compare the load with the load threshold to determine whether the load threshold is exceeded, and, on condition that the load threshold is exceeded, selectively restrict movement of the machine.

The present disclosure relates to an automated peritoneal dialysis (APD) system using gravity to deliver fluid from one or more source dialysate bags to the patient as the destination. The present disclosure further relates to a load cell protection assembly that prevents the load cells associated with the delivery of fluid in the system from experiencing an overload condition in either the down direction or the up direction, while maximizing safety and efficiency of the system while minimizing excess cost and complexity.

A scale includes a scale pan for supporting goods to be weighed, and upper and lower bearing plates, wherein the scale pan is arranged above an upper bearing plate, and a weighing cell is arranged between the upper bearing plate and the lower bearing plate, wherein at least three feet are attached to the lower bearing plate, which are supported on a fixed area, wherein the lower bearing plate has a U-shaped cross-section, wherein, contiguous to respective stiffened areas of the U-shaped cross-section, there is a further region, which extends in parallel to a trough bottom, wherein the trough bottom is arranged between the two stiffened areas, and the trough bottom has a trapezoidal geometry.

A weighing apparatus includes a load cell, a fixing portion to which one end of the load cell is fixed, a hopper configured to store articles, a connecting portion configured to connect the other end of the load cell and the hopper to each other, a first support portion facing a first portion provided to the load cell or the connecting portion via a first gap and configured to support the first portion along a first direction when a first limit load acts on the hopper, and a second support portion facing a second portion provided to the load cell or the connecting portion via a second gap and configured to support the second portion along a second direction intersecting the first direction while the first support portion supports the first portion when a second limit load larger than the first limit load acts on the hopper.

A device and method for detection of an overload on a scale which operates by the principle of electromagnetic force compensation The device and method employing, in addition to the measurement voltage arising across a measurement resistor of the scale, an auxiliary voltage that is different from the measurement voltage. The auxiliary voltage being tapped at the input to the compensation coil of the scale or at the output of the compensation coil.

The disclosure relates to a load cell including an elastic element, at least one strain gauge and a limitation element. The elastic element includes a first end portion, a second end portion and a deformation region. The first end portion and the second end portion are arranged along an axial direction and opposed to each other. The deformation region is located between the first end portion and the second end portion. The at least one strain gauge is disposed in the deformation region. When a force is exerted on the first end portion in a first direction, the deformation region is deformed to drive the at least one strain gauge to change shape, so that the force is measured and standardized under a specific range. The limitation element is connected to the elastic element. A gap is formed between the limitation element and the elastic element.