A weight measuring device includes a top layer including a plurality of first flats and at least one bi-stable spring band. The plurality of first flats are connected to each other via the at least one bi-stable spring band. The weight measuring device further includes a bottom layer including a plurality second flats connected the plurality of first flats. The weight measuring device further includes at least one force sensor interposed between the top layer and the bottom layer. The weight measuring device further includes a processor configured to determine a weight of an object placed on the top layer or the bottom layer based on signals generated from the at least one force sensor.

A Lift truck with a lifting device comprises at least one lifting member (1) provided with lifting means for adjusting the lifting member in height direction. The lifting member (1) comprises a shell part (50) lying over a base part (2) and having a surface on which cargo can be received. The shell part supports from a pressure point on the base part (2) via an electronic force sensor (10). The force sensor (10) is able and configured to determine vertical load on the shell part (50) and to generate an electronic signal as measure thereof, and comprises for this purpose pressure and/or strain-sensitive sensor means. In a longitudinal direction of the lifting member directed transversely of the vertical load there is provided between the sensor means and the pressure point a mechanical deformation zone (31,32,33) which is able and configured to deform in at least substantially wholly elastic manner, under the influence of a force effect exerted thereon in the longitudinal direction, from a rest state to a state deformed in the longitudinal direction.

A Lift truck with a lifting device comprises at least one lifting member (1) provided with lifting means for adjusting the lifting member in height direction. The lifting member (1) comprises a shell part (50) lying over a base part (2) and having a surface on which cargo can be received. The shell part supports from a pressure point on the base part (2) via an electronic force sensor (10). The force sensor (10) is able and configured to determine vertical load on the shell part (50) and to generate an electronic signal as measure thereof, and comprises for this purpose pressure and/or strain-sensitive sensor means. In a longitudinal direction of the lifting member directed transversely of the vertical load there is provided between the sensor means and the pressure point a mechanical deformation zone (31,32,33) which is able and configured to deform in at least substantially wholly elastic manner, under the influence of a force effect exerted thereon in the longitudinal direction, from a rest state to a state deformed in the longitudinal direction.

A feed intake system comprising one or more feeding stations comprising a trough with an animal feeding access, a support frame surrounding the trough, a base frame supporting the trough, a scale unit between the base frame and the support frame enabling the scale unit to weigh the contents of the trough, a station frame with an animal feeding access, a sensor assembly including a sensor or antenna located near the station frame animal feeding access, a control panel and a timestamp generator operationally associated with the sensor assembly and the scale unit, a CPU/processing computer operationally associated with the control panel, one or more animals, each having a RFID tag which transmits RFID signal and tag data, wherein the weight of the feed in the trough is collected and stored in a log file and wherein RFID signal and tag data are collected and stored in a log file.

A feed intake system comprising one or more feeding stations comprising a trough with an animal feeding access, a support frame surrounding the trough, a base frame supporting the trough, a scale unit between the base frame and the support frame enabling the scale unit to weigh the contents of the trough, a station frame with an animal feeding access, a sensor assembly including a sensor or antenna located near the station frame animal feeding access, a control panel and a timestamp generator operationally associated with the sensor assembly and the scale unit, a CPU/processing computer operationally associated with the control panel, one or more animals, each having a RFID tag which transmits RFID signal and tag data, wherein the weight of the feed in the trough is collected and stored in a log file and wherein RFID signal and tag data are collected and stored in a log file.

A shelf bracket assembly is mounted on a vertically disposed shelf upright, and has: at least one weighing device; an anchoring device; and a cantilever for supporting a shelf panel. In a condition where the shelf bracket assembly is mounted on the shelf upright, the cantilever projects from the shelf upright in a substantially horizontal direction. The cantilever has a vertically disposed metal plate. In a Cartesian coordinate system, an extent of the cantilever in a horizontal plane defines a Y-direction, a vertical direction defines a Z-direction, and a direction perpendicular to the Y-direction and the Z-direction defines an X-direction. The at least one weighing device includes: a force-introduction section; a linkage section; and a force-supporting section. The linkage section comprises two weighing plates extending horizontally and parallel to each other. The force-supporting section and the force-introduction section are at least partially formed of vertically extending metal plates.

A shelf bracket assembly is mounted on a vertically disposed shelf upright, and has: at least one weighing device; an anchoring device; and a cantilever for supporting a shelf panel. In a condition where the shelf bracket assembly is mounted on the shelf upright, the cantilever projects from the shelf upright in a substantially horizontal direction. The cantilever has a vertically disposed metal plate. In a Cartesian coordinate system, an extent of the cantilever in a horizontal plane defines a Y-direction, a vertical direction defines a Z-direction, and a direction perpendicular to the Y-direction and the Z-direction defines an X-direction. The at least one weighing device includes: a force-introduction section; a linkage section; and a force-supporting section. The linkage section comprises two weighing plates extending horizontally and parallel to each other. The force-supporting section and the force-introduction section are at least partially formed of vertically extending metal plates.

The utility model discloses a carrier structure for multiple weight sensors, comprising bearing assemblies and a positioning device, wherein at least two bearing assemblies are provided; and the bearing assembly comprises a positioning end and a bearing branch end, the positioning end is fixedly connected with the bearing branch end, and a positioning hole is formed in one end face of the bearing branch end. According to the carrier structure for the multiple weight sensors, multiple weight sensor units in multiple directions can be combined, designed and mounted according to requirements, and quality detection information in multiple directions is obtained through the multiple weight sensing units, thus realizing multi-point and multi-position measurement; and the weight sensor units of multiple specifications can be designed and mounted at the same time, so that a corresponding sensing mode is effectively selected according to actual use conditions, thus improving measurement accuracy.

The utility model discloses a carrier structure for multiple weight sensors, comprising bearing assemblies and a positioning device, wherein at least two bearing assemblies are provided; and the bearing assembly comprises a positioning end and a bearing branch end, the positioning end is fixedly connected with the bearing branch end, and a positioning hole is formed in one end face of the bearing branch end. According to the carrier structure for the multiple weight sensors, multiple weight sensor units in multiple directions can be combined, designed and mounted according to requirements, and quality detection information in multiple directions is obtained through the multiple weight sensing units, thus realizing multi-point and multi-position measurement; and the weight sensor units of multiple specifications can be designed and mounted at the same time, so that a corresponding sensing mode is effectively selected according to actual use conditions, thus improving measurement accuracy.

A fluid container measurement system employing a load cell linkage member is disclosed. The fluid container measurement system is configured to suspend a load measurement assembly a distance above a support surface. The load measurement assembly houses a load cell and a measurement control circuit. The measurement control circuit is coupled to the load cell and configured to receive electrical signals indicative of a force imposed on the load cell. The load measurement assembly also includes or is configured to receive a load cell linkage member mechanically linked to the load cell. In this manner, a load placed on the load cell linkage member will be exerted on the load cell. Electrical signals generated by the load cell indicative of the force exerted on the load cell can be used to measure the fluid container attached to the load cell linkage member.