A scale platform mounting assembly, a scale and a method of assembly. The scale may generally include a housing assembly supportable on a surface; a weight sensor supported in the housing assembly; a platform operable to support an object to be weighed, a force on the platform being applied to the weight sensor; and a mounting assembly to removably connect the platform relative to the housing assembly. The mounting assembly may include a stud supported by one of the housing assembly and the platform, the stud having a ball end, and a mount supported by the other of the housing assembly and the platform, the mount defining a recess having an open end, the ball end of the stud being receivable in the recess through the open end to removably connect the platform.

A scale platform mounting assembly, a scale and a method of assembly. The scale may generally include a housing assembly supportable on a surface; a weight sensor supported in the housing assembly; a platform operable to support an object to be weighed, a force on the platform being applied to the weight sensor; and a mounting assembly to removably connect the platform relative to the housing assembly. The mounting assembly may include a stud supported by one of the housing assembly and the platform, the stud having a ball end, and a mount supported by the other of the housing assembly and the platform, the mount defining a recess having an open end, the ball end of the stud being receivable in the recess through the open end to removably connect the platform.

An object measurement device for ascertaining measurements of cuboidal and boxed packages to provide measurement data to a host computer is provided. The device may include a frame, a weight sensor, and one or more dimension sensors. The frame may include a base and a vertical support member that extends vertically from the base. The weight sensor may be positioned on the base and may be configured to emit a weight data signal. The dimension sensors may include an upper sensor and one or more side sensors. The upper sensor may be positioned on the vertical support member, and the side sensors may be positioned adjacent to the base. The dimension sensors may be configured to emit dimensional data signals. The host computer may be in communication with the weight and dimension sensors. The host computer may be configured to receive the weight and the dimensional measurement data.

The disclosure includes a scale comprising a housing, an arm hingedly coupled to the housing, and a display located on the housing. In some embodiments, the arm is configured to receive at least a portion of an item to be weighed, and the display is configured to show the weight of the item. The scale may be configured to couple to a wall of a building.

The disclosure includes a scale comprising a housing, an arm hingedly coupled to the housing, and a display located on the housing. In some embodiments, the arm is configured to receive at least a portion of an item to be weighed, and the display is configured to show the weight of the item. The scale may be configured to couple to a wall of a building.

A foldable weighing scale includes first and second steel frames, connecting rods fastened at bottoms of the first and second steel frames, first pressure sensors fastened at ends of the connecting rods away from the first frame, second pressure sensors fastened at ends of the connecting rods away from the second frame, a display fastened on the first steel frame, and a power supply box fastened on the first steel frame. The display and the first and second pressure sensors are battery powered. There is further provided a switch button connected to a power supply box, and a rotating connection component between the first steel frame and second steel frame. The rotating connection component includes a first connector for rotating in the first steel frame and a second connector fastened on the second steel frame. Part between the first connector and second connector can rotate and is detachable.

A foldable weighing scale includes first and second steel frames, connecting rods fastened at bottoms of the first and second steel frames, first pressure sensors fastened at ends of the connecting rods away from the first frame, second pressure sensors fastened at ends of the connecting rods away from the second frame, a display fastened on the first steel frame, and a power supply box fastened on the first steel frame. The display and the first and second pressure sensors are battery powered. There is further provided a switch button connected to a power supply box, and a rotating connection component between the first steel frame and second steel frame. The rotating connection component includes a first connector for rotating in the first steel frame and a second connector fastened on the second steel frame. Part between the first connector and second connector can rotate and is detachable.

A load weighing luggage rack having a first top rail and a second top rail, wherein each top rail is comprised of a rail base, a pair of load sensors configured to be seated on the rail base and a top platform configured to be seated on top of each corresponding load sensor and the rail base, such that each load sensor is nested within a corresponding top rail, a plurality of straps configured to engage with the first and second top rails and a strain meter in electrical communication with each load sensor, such that a weight exerted on each load sensor may be measured and displayed by the strain meter. Each top rail may be supported by a corresponding rail support, wherein the rail supports may be configured to allow for selective folding of the load weighing luggage rack to facilitate easy storage and transit.

A load weighing luggage rack having a first top rail and a second top rail, wherein each top rail is comprised of a rail base, a pair of load sensors configured to be seated on the rail base and a top platform configured to be seated on top of each corresponding load sensor and the rail base, such that each load sensor is nested within a corresponding top rail, a plurality of straps configured to engage with the first and second top rails and a strain meter in electrical communication with each load sensor, such that a weight exerted on each load sensor may be measured and displayed by the strain meter. Each top rail may be supported by a corresponding rail support, wherein the rail supports may be configured to allow for selective folding of the load weighing luggage rack to facilitate easy storage and transit.

A device receives a first signal where the first signal includes information about a location or a position of a user. The device determines the location or the position of the user based on the information. The device may determine at least one of an adjusted height value or an adjusted angle value of a display based on the location or the position of the user. The device sends to a control motor a second signal, the second signal including the adjusted angle value or the adjusted height value. Responsive to receiving the second signal, a control motor performs at least one of: adjust a rotatable bracket based on the adjusted angle value, or adjust an adjustable height pole based on the adjusted height value. The controller device may determine the location or the position of the user based on the user profile.