The present invention relates to a device for determining a weight of a vehicle, the device being configured to: obtain a set of weights derived from in-motion weighing of the vehicle on a weighing bridge, wherein each weight in the set of weights represents one or more axle weights of the vehicle; select one or more weights in the set of weights such that the one or more selected weights together represent all axles of the vehicle and each axle of the vehicle is only represented once; determine a total weight of the vehicle based on the one or more selected weights. Furthermore, the invention also relates to a system and corresponding methods.

The present invention relates to a device for determining a weight of a vehicle, the device being configured to: obtain a set of weights derived from in-motion weighing of the vehicle on a weighing bridge, wherein each weight in the set of weights represents one or more axle weights of the vehicle; select one or more weights in the set of weights such that the one or more selected weights together represent all axles of the vehicle and each axle of the vehicle is only represented once; determine a total weight of the vehicle based on the one or more selected weights. Furthermore, the invention also relates to a system and corresponding methods.

A combination weighing device includes a plurality of weighing units arranged in a circular form, a combination scale configured to temporarily retain, in a collection hopper, articles discharged from one or more of the weighing units selected as a result of combinatorial computations and to discharge the articles from the collection hopper, and an alignment and transport unit configured to align and vibrationally transport the articles discharged from the collection hopper.

A combination weighing device includes a plurality of weighing units arranged in a circular form, a combination scale configured to temporarily retain, in a collection hopper, articles discharged from one or more of the weighing units selected as a result of combinatorial computations and to discharge the articles from the collection hopper, and an alignment and transport unit configured to align and vibrationally transport the articles discharged from the collection hopper.

To provide a highly reliable combination weighing device having an object supply chute disposed above a dispersion section, which can prevent foreign matter from being mixed into objects due to the falling of screw members from a support frame supporting the object supply chute. A combination weighing device is provided with a dispersion section, weighing hoppers, a control unit, an object supply chute (150), and a support frame (100). The dispersion section disperses and supplies objects around the dispersion section. The weighing hoppers are arranged around the dispersion section. The control unit performs combination calculation based on weighing values in the weighing hoppers. The object supply chute is placed above the dispersion section and supplies the objects to the dispersion section. The support frame supports the object supply chute. The support frame includes members (111, 113, and 114) as engaged members, hooks as engaging members that engage with the engaged members, and fixing members (140) as non-screw members. The fixing members press the engaging members against the engaged members and fix the engaging members to the engaged members.

To provide a highly reliable combination weighing device having an object supply chute disposed above a dispersion section, which can prevent foreign matter from being mixed into objects due to the falling of screw members from a support frame supporting the object supply chute. A combination weighing device is provided with a dispersion section, weighing hoppers, a control unit, an object supply chute (150), and a support frame (100). The dispersion section disperses and supplies objects around the dispersion section. The weighing hoppers are arranged around the dispersion section. The control unit performs combination calculation based on weighing values in the weighing hoppers. The object supply chute is placed above the dispersion section and supplies the objects to the dispersion section. The support frame supports the object supply chute. The support frame includes members (111, 113, and 114) as engaged members, hooks as engaging members that engage with the engaged members, and fixing members (140) as non-screw members. The fixing members press the engaging members against the engaged members and fix the engaging members to the engaged members.

Provided is a dispersion and supply apparatus and a combination weighing apparatus capable of uniformly supplying articles to a plurality of positions from a dispersion table. A dispersion and supply apparatus 20 includes an acquisition unit 64 that acquires a load amount of an article on a dispersion table 22, a calculation unit 104 that calculates a deviation in a loading state of the article based on the load amount acquired by the acquisition unit 64, and a control unit 106 that controls a driving unit 30 such that a conveying direction of the article on the dispersion table 22 is changed based on the deviation in the loading state of the article calculated by the calculation unit 104.

Provided is a dispersion and supply apparatus and a combination weighing apparatus capable of uniformly supplying articles to a plurality of positions from a dispersion table. A dispersion and supply apparatus 20 includes an acquisition unit 64 that acquires a load amount of an article on a dispersion table 22, a calculation unit 104 that calculates a deviation in a loading state of the article based on the load amount acquired by the acquisition unit 64, and a control unit 106 that controls a driving unit 30 such that a conveying direction of the article on the dispersion table 22 is changed based on the deviation in the loading state of the article calculated by the calculation unit 104.

Described are systems, methods, and computer readable medium for drone dispatch and operation. Exemplary embodiments provide a group of drones, a server in communication with the drones, and a detachable basket coupled to a shopping cart including an optical machine-readable label that represents identifying data for the basket. The identifying data for the basket is received from a client device at a server. The basket is associated with a user profile corresponding to the client device. Information identifying a vehicle associated with the user profile is determined. A checkout message is received indicating that a user of the client device completed a purchase transaction and requested a drone for transporting the basket. In response to the checkout message, identifying data for the basket is transmitted to a selected drone in the group of drones, and instructions to carry the basket to the vehicle are also transmitted to the selected drone.

Described are systems, methods, and computer readable medium for drone dispatch and operation. Exemplary embodiments provide a group of drones, a server in communication with the drones, and a detachable basket coupled to a shopping cart including an optical machine-readable label that represents identifying data for the basket. The identifying data for the basket is received from a client device at a server. The basket is associated with a user profile corresponding to the client device. Information identifying a vehicle associated with the user profile is determined. A checkout message is received indicating that a user of the client device completed a purchase transaction and requested a drone for transporting the basket. In response to the checkout message, identifying data for the basket is transmitted to a selected drone in the group of drones, and instructions to carry the basket to the vehicle are also transmitted to the selected drone.