A smart base for use with an automated weight scale nutrient and caloric monitoring system is provided. The smart base includes an enclosure and one or more load cells positioned proximate the enclosure and configured to weigh consumable items. A microprocessor is positioned proximate the enclosure and has a processor, an analog-to-digital converter and an input/output interface. A wireless interface, a display interface and a power source are positioned proximate the enclosure. The power source is configured to power the one or more load cells, the microprocessor, the wireless interface and the display interface. The one or more load sensors are configured to measure weight data of consumable items. The microprocessor and the wireless interface are configured to generate an output signal indicative of the measured weight data and transmit the output signal to an electronic device in real-time while the consumable item is being weighed.

The invention discloses a solar electronic scale which comprises a casing without an external interface; a panel is covered with the casing, and together with the casing forms an accommodating cavity; a display assembly is installed in the accommodating cavity, and can display various information to the outside; the sensing component is arranged on the casing and can be in contact with the support platform; wherein the sensing component is used to sense the target weighing object placed on the panel to obtain the target weighing object and transmit the weight information to the display assembly for display; the power supply component includes the battery and the solar charging component, both of which are arranged in the accommodating cavity; the battery is electrically connected to the display assembly, the induction component and the solar charging component, and can balance power consumption for power consumption components in the accommodating cavity through the solar charging assembly. The solar electronic scale can meet the needs of users for weighing anytime and anywhere, and is conducive to ensuring the weighing accuracy of the electronic scale.

A portable food scale includes: (a) a body portion having an upper body portion and a lower body portion, wherein a cavity is defined between the upper body portion and the lower body portion; (b) a plurality of load cells housed within the cavity; and (c) a plurality of clip portions securing the upper body portion to the lower body portion, each of the clip portions being engaged with at least one of the plurality of load cells.

A measurement circuit of a body weight measuring apparatus is provided. The measurement circuit comprises a load sensing unit including at least one wheatstone bridge circuit for generating a load information comprising at least one of: a left-side weight, a right-side weight, an anterior-side weight, and a posterior-side weight in the form of an output voltage, upon application of a load. The load sensing unit is powered by an input excitation voltage across the at least one wheatstone bridge circuit. The measurement circuit includes an amplifier circuit to amplify the output voltage to generate an amplified output, an analog to digital converter circuit for converting the amplified output to a digital representation of the weight of the load, and a microcontroller to receive and transmit the digital representation of the weight of the load to a server for computing an exact weight of the load.

Methods of detecting scan avoidance events during decode sessions are disclosed herein. An example method includes during a timeout period at one or more processors of the symbology scanner, identifying and decoding a transaction affecting indicia on an object in one or more images to obtain a transaction affecting payload; during the timeout period at the one or more processors, identifying one or more visual features in the one or more images; and in response to identifying a non-transaction affecting indicia associated with the one or more visual features, and failing to identify or decode the transaction affecting indicia, determining a potential scan avoidance attempt and generating a scan avoidance alarm signal.

A modular wireless scale system comprising microscales comprises a master scale that may be configured to be used with one or more slave scales. The master scale includes a heavy load cell and a light load cell disposed on opposite sides of a cuboid master housing. The master scale housing encloses a master computer-based microcontroller, a wireless transceiver, an accelerometer, and a power source, and may optionally include a display. The master scale may be used as a stand-alone scale for weights up to the maximum weight supported by the heavy load cell and the scale housing. Each of the slave scales includes a heavy load cell supported by a cuboid housing that encloses a slave computer-based microcontroller, a wireless transceiver, and a power source.

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.

The present disclosure pertains to a wireless scale, interface and release system for recreational and commercial weighing of items of any kind in a uniform and secure manner, furthermore designed for use on any form of bodies of water, tributaries, ocean, vehicle or land. The present disclosure comprises, scale inside of a waterproof housing, and a user interface to prompt the user through the weighing and release of the item or animal.

A method includes generating, via a camera, image data that is reproducible as an image of at least a portion of a subject. The method also includes receiving, via a sensor, first biomeasurement data associated with the subject, the first biomeasurement data including a first biomeasurement of the subject. The method also includes verifying the first biomeasurement of the subject based at least in part on a comparison between at least a portion of the image data and at least a portion of the first biomeasurement data.

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.