subject: Three Main Types Of Loads That Force Transducers Experience [print this page] The numbers of applications that force transducers can be put to rely on the cost effective designs that have been used in these products. As all are aware, force transducers are designed to convert mechanical stress into electrical signals that will in turn generate outputs through the meter. This gives you a clear idea of the amount of force exerted on the load cell or force transducer. As a result of the pivotal role played by these transducers, the need to use highly efficient load cells becomes important. In case you are not familiar with the working of these transducers then you must note that these cells are intrinsic parts of scales and balances used in automation and heavy industries.
There are mainly two types of forces acting on load cells or force transducers. Firstly, the cells experience compression due to the application of inbound force. Secondly, they experience tension due to outbound direction of force. Here is a quick look at the main types of mechanisms that run the performance of force transducers under the influence of these two main types of forces.
Static Tensile: As is evident from the name, the transducer experiences tension due to outbound direction of load or stress. These loads are experienced every time the equipment is static. Therefore, every time you use an equipment or pressure meter that measures the oil pressure or tire air pressure, you are actually using transducers undergoing static, tensile stress. In most cases, force transducers operating primarily under static tensile stress are found in pressure measuring meters and gadgets.
Dynamic Tensile: This state is achieved every time the load cell experiences tension due to outbound direction of stress. This state is commonly found in sales found in vehicles and heavy equipment. In most cases, the equipment is in motion and the scales keep operating within the vehicle or moving equipment. The dynamic tensile stress experienced by the transducers does not influence the output generated by the scale.
Compressive Loads: As is evident from the name itself, force transducers experience compressive loads when under the influence of inbound stress. The load cells have zero displacement configuration, which ensures that the output obtained through the scales is highly accurate.
The pivotal role played by force transducers determines the efficiency of the scales they are used in. It is important to note here that transducers provided by established manufacturers alone ensure accuracy and durability in performance.
