A sensing and digital display type weighing and code scanning integrated machine with a damping and dust-proof smart case includes a case device. A weigher is placed at an upper end of the case device. A code scanning device is fixedly connected to the upper end of the case device. The case device includes a case, a guide hole, a threaded hole, a through groove, a groove, a fan, a case door, a magnet, a guide rod, a first spring, a host base, a first clamping groove, a computer host, a filter cartridge, a circular groove and an efficient filter screen. The case door is hinged to the case. The magnet is fixedly connected to the case door. The guide rod is slidably nested in the case. The host base is fixedly connected to an upper end of the guide rod. The computer host is clamped in the host base.

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.

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 present invention relates generally to the field of home decor. More specifically, the present invention relates to a bathroom mat, carpet, or flooring accessory. The device has a body, a top surface, a bottom surface, and side edges forming a perimeter. The bottom surface has at least one grip area or fastener. In differing embodiments, the device may have a multitude of elements such as a heating element, a speaker, a light source, and/or at least one battery. In another embodiment, the device may further function as a scale and have at least one pressure sensor, at least one processor, a digital display, and at least one transmitter. The user's body weight may further be electrically communicated with a mobile application and allow a user to track their body weight via their smart device.

A windshield structure (30) is provided for a weighing balance (100) having a base body (48), a floor (46), and a load receiving arrangement (11). The base body and the floor, which is attached to the base body, are positioned horizontal to the ground surface. The load receiving arrangement has a load receiver, with the windshield structure arranged below the load receiver. The windshield structure has a central portion and a circumferential portion that surrounds the central portion. The central portion also has a topological surface with a plurality of alternating hills (32) and valleys (31) which aid in regulating airflow below the load receiver.

A windshield structure (30) is provided for a weighing balance (100) having a base body (48), a floor (46), and a load receiving arrangement (11). The base body and the floor, which is attached to the base body, are positioned horizontal to the ground surface. The load receiving arrangement has a load receiver, with the windshield structure arranged below the load receiver. The windshield structure has a central portion and a circumferential portion that surrounds the central portion. The central portion also has a topological surface with a plurality of alternating hills (32) and valleys (31) which aid in regulating airflow below the load receiver.

A weighing scale has a measuring platform which is supported by at least three supporting feet resting on a floor, wherein to each supporting foot a load cell is assigned, wherein each load cell senses the share of the weight force originating from the measuring platform supported by the respective supporting foot. Each supporting foot is designed as a vertically extending measuring foot and comprises a load cell carrier on which the load cell rests and is attached, and an adjusting foot located below the load cell carrier. The load cell carrier is screwed with its external thread into the internal thread of the adjusting foot such that, by turning the adjusting foot relative to the load cell carrier, a vertical height of the measuring foot along a vertical screw axis is adjustable.

A combination weighing device includes: a storage unit that stores time-series measurement values sequentially acquired by the measurement hoppers; a time measurement unit that measures an elapsed time from a timing corresponding to supply of the products to the measurement hoppers until a timing at which the time-series measurement values enter a region considered to be stabilized when the time-series measurement values stored in the storage unit converge to the region considered to be stabilized as a stabilization time until the measurement values become stabilized; and a selection unit that acquires the stabilization times by the time measurement unit over a plurality of cycles and can select a recommended stabilization time that is the stabilization time in which a predetermined measurement accuracy can be maintained based on a standard deviation of the acquired stabilization times for the plurality of cycles.

A combination weighing device includes: a storage unit that stores time-series measurement values sequentially acquired by the measurement hoppers; a time measurement unit that measures an elapsed time from a timing corresponding to supply of the products to the measurement hoppers until a timing at which the time-series measurement values enter a region considered to be stabilized when the time-series measurement values stored in the storage unit converge to the region considered to be stabilized as a stabilization time until the measurement values become stabilized; and a selection unit that acquires the stabilization times by the time measurement unit over a plurality of cycles and can select a recommended stabilization time that is the stabilization time in which a predetermined measurement accuracy can be maintained based on a standard deviation of the acquired stabilization times for the plurality of cycles.

A balance assembly having an assembled state and an unassembled state. The balance assembly comprises a base configured to receive a portion of a like base in a nesting relation in an unassembled state of the balance assembly, a pedestal coupled to the base in an assembled state of the balance assembly, the pedestal configured to receive a portion of a like pedestal in a nesting relation in the unassembled state, a lever removably and pivotably coupled to the pedestal about a fulcrum centered along a length of the lever in the assembled state, the lever configured to receive a portion of a like lever in a nesting relation in the unassembled state, and a pair of containers removably supported at opposite ends of the lever in the assembled state, each container configured to receive a portion of a like container in a nesting relation in the unassembled state.