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.

A barcode reader has a weigh platter and an off-platter detection assembly. The weigh platter is configured to measure a weight of an object and has a surface extending in a first transverse plane, a proximal edge, a first lateral edge extending non-parallel to the proximal edge, and a distal edge. The off-platter detection assembly includes a light emission assembly and a light detection assembly. The light emission assembly is configured to emit a collimated light beam along the first lateral edge, above the surface. The light diffusing barrier is positioned in a path of the collimated light beam and is configured to diffuse the light beam such that the light diffusing barrier appears to be illuminated when contacted by the light beam and appears not to be illuminated when not contacted by the light beam.

A barcode reader has a weigh platter and an off-platter detection assembly. The weigh platter is configured to measure a weight of an object and has a surface extending in a first transverse plane, a proximal edge, a first lateral edge extending non-parallel to the proximal edge, and a distal edge. The off-platter detection assembly includes a light emission assembly and a light detection assembly. The light emission assembly is configured to emit a collimated light beam along the first lateral edge, above the surface. The light diffusing barrier is positioned in a path of the collimated light beam and is configured to diffuse the light beam such that the light diffusing barrier appears to be illuminated when contacted by the light beam and appears not to be illuminated when not contacted by the light beam.

A combination weighing device is provided that discharges, from a hopper, an article oversupplied into and received by the hopper and that collects the article using the collection container. The combination weighing device includes an oversupplied article retainer disposed at a position on a discharge path for the article to be discharged from the hopper and collected by the collection container. The oversupplied article retainer has a collection chute and a blocking shutters and temporarily retains the article guided to flow downward using the collection chute and the blocking shutter.

A combination weighing device is provided that discharges, from a hopper, an article oversupplied into and received by the hopper and that collects the article using the collection container. The combination weighing device includes an oversupplied article retainer disposed at a position on a discharge path for the article to be discharged from the hopper and collected by the collection container. The oversupplied article retainer has a collection chute and a blocking shutters and temporarily retains the article guided to flow downward using the collection chute and the blocking shutter.

The vibration strength of a linear feeder is changeable depending on whether an article is currently present at a downstream end of a trough of the linear feeder. When articles continue to be vibrationally transported, arriving continuously at the downstream end of the trough of the linear feeder, the vibration strength is set to a vibration strength suitable for discharge of the articles from the downstream end. When there is currently no article at the downstream end of the trough of the linear feeder, the vibration strength is set to a vibration strength suitable for transport of the articles to allow the articles that follow to swiftly arrive at the downstream end of the trough.

The vibration strength of a linear feeder is changeable depending on whether an article is currently present at a downstream end of a trough of the linear feeder. When articles continue to be vibrationally transported, arriving continuously at the downstream end of the trough of the linear feeder, the vibration strength is set to a vibration strength suitable for discharge of the articles from the downstream end. When there is currently no article at the downstream end of the trough of the linear feeder, the vibration strength is set to a vibration strength suitable for transport of the articles to allow the articles that follow to swiftly arrive at the downstream end of the trough.

A collapsible luggage scale assembly includes a panel that has a top side, a bottom side and a perimeter edge extending between the top and bottom sides. The panel includes a plurality of sections pivotally coupled together such that the panel is foldable. A processor is mounted in the panel. A plurality of weight sensors is positioned in the panel such that each section includes one of the weight sensors. The weight sensors each are electrically coupled to the processor. The processor is programmed to receive signals from the weight sensors and determines a weight positioned on the panel. A transmitter is mounted in the panel and is electrically coupled to the processor. The transmitter is configured to wirelessly transmit the weight to a receiver.

A collapsible luggage scale assembly includes a panel that has a top side, a bottom side and a perimeter edge extending between the top and bottom sides. The panel includes a plurality of sections pivotally coupled together such that the panel is foldable. A processor is mounted in the panel. A plurality of weight sensors is positioned in the panel such that each section includes one of the weight sensors. The weight sensors each are electrically coupled to the processor. The processor is programmed to receive signals from the weight sensors and determines a weight positioned on the panel. A transmitter is mounted in the panel and is electrically coupled to the processor. The transmitter is configured to wirelessly transmit the weight to a receiver.

An apparatus and method of calibrating the apparatus are disclosed. The apparatus may include a scale platform, a warming therapy device comprising a bassinet and at least one electrical device, the warming therapy device being disposed on the scale platform, the scale platform disposed between the warming therapy device and the base; and a conductor assembly adapted to (a) supply electrical power between a power supply and at least some of the at least one electrical device, and (b) enable the transmission of electrical signals from the at least one electrical device to the computer system, the conductor assembly comprising a scale platform cable assembly comprising a plurality of conductors, the scale platform cable assembly having a first connector end and a second connector end, the first connector end being rigidly affixed to the load cell carrier and the second connector end being rigidly affixed to the scale platform cover.