In various industrial production sectors, solid bulk materials are characterized by large quantities and difficult weighing operations. To enhance weighing and metering efficiency, automated industrial solid bulk material dynamic weighing and metering devices are often employed to complete metering tasks during the conveyance of bulk materials.
Given the diversity in the characteristics of solid bulk materials, process environments, and conveying equipment, a wide range of dynamic weighing devices exist. Among them, the electronic belt scale is the most widely used. Why is this the case?
Industrial dynamic weighing devices come in various types, with common ones including belt scales (such as nuclear belt scales, laser belt scales, and electronic belt scales) and loader electronic scales.
These devices can all efficiently weigh bulk materials, albeit with varying weighing principles and application scopes. Both belt scales and loader electronic scales are designed for dynamic weighing of solid bulk materials, capable of accumulation, and must be installed on other mechanical equipment.
Belt scales, regardless of type, are dynamic weighing devices installed on belt conveyors, automatically completing the weighing of conveyed solid bulk materials while providing users with metering data.
Loader electronic scales, on the other hand, are dynamic weighing devices used during the loading process of loaders, weighing each scoop during dynamic loading to enhance loading efficiency and prevent overloading or underloading. Among these dynamic weighing devices, the electronic belt scale has become the most widely used automatic weighing device in the field of industrial bulk material weighing.
Firstly, the primary objective reason lies in the working characteristics of the electronic belt scale itself.
Without delving into the application scope of loader electronic scales, which are limited to the loading process of loaders, electronic belt scales can weigh materials in any process where belt conveyors are used to transport bulk materials.
They utilize sensor devices to monitor the real-time weight and speed of materials, calculate weight data through instrumentation, display it, and complete uploading and sharing.
Additionally, electronic belt scales have a simple structure, are easy to install and debug, and are simple to operate. Unlike nuclear scales, they do not involve environmental protection issues or have restrictions on the volume or density of the weighing objects, making them more readily accepted by customers.
Secondly, the difference in how industries convey bulk materials also contributes to the suitability of electronic belt scales. The widespread use of belt conveyors is evident, as they are indispensable in industries such as mining, building materials, cement, chemicals, textiles, fertilizers, feed, and grain for automatically transporting large quantities of solid bulk materials in various forms from one location to another.
Electronic belt scales can weigh materials ranging from a few tons to thousands of tons conveyed by belt conveyors and can be customized based on enterprise requirements for metering accuracy, belt conveyor conditions, and application conditions. The widespread use of belt conveyors and the flexibility and weighing capacity range of electronic belt scales make them highly applicable.
Finally, with advancements in technology, electronic belt scales can integrate various technologies to provide enterprises with more application value.
Electronic belt scales can be combined with industrial automation control, computer management, information networking, and other technologies to create integrated system solutions centered around dynamic metering and weighing, solving more problems and delivering greater value for enterprises.
For example, in the loading sector, belt scale rapid loading systems improve loading efficiency and prevent overloading and underloading; in production monitoring, belt scale production monitoring systems provide real-time monitoring of production output to prevent overproduction.