Disclosed herein are techniques related to product consumption recommendations. In some embodiments, the techniques may involve receiving activity data from an activity monitoring device. The activity monitoring device may comprise an activity sensor for tracking movement of a user during an activity. The techniques may also involve receiving glucose data from a continuous glucose monitoring device. The techniques may further involve determining a product consumption recommendation based on the glucose data and the activity data. The product consumption recommendation may include a recommendation of when the user should consume a carbohydrate-containing product in order to maintain glucose levels with a specified target range during the activity. Additionally, the technique may involve causing display of the product consumption recommendation on a display device

In a marker system (1) which includes a plurality of magnetic markers (10) disposed on a road surface for driving assist control of a vehicle (5) including automatic traveling control and in which a wireless tag is affixed to a partial magnetic marker (10A) of the plurality of magnetic markers (10), a sign (1M) for distinguishing between a partial magnetic marker (10A) with a wireless tag affixed thereto and another magnetic marker (10B) without a wireless tag affixed thereto is provided. Thus, it is possible to associate the detected magnetic marker (10) and the wireless tag as a transmission source of tag waves with each other with high reliability.

Mobile gateway devices for connecting to a wireless mesh network having a plurality of nodes include a wireless radio module structured to communicate with the plurality of nodes via the wireless mesh network, wherein the plurality of nodes includes at least one instrument to collect information; and a computer structured to: receive the information from the plurality of nodes via the wireless radio module; and transmit the information to a remote server via a satellite connection.

A rack assembly for use with an automatic retail device. The rack assembly includes a rack body comprising and a load bar configured to mount to the rack body. The rack body includes a fastening element configured to mount the rack body to a portion of the automatic retail device and a main shelf controller disposed within the rack body and in communication with a microcontroller of the automatic retail device. The load bar includes a weight sensor configured to sense a weight of products positioned on the load bar and a circuit board. The circuit board is disposed on the load bar and in electrical communication with the weight sensor and the main shelf controller. The circuit board transmits a signal corresponding to the weight sensed by the weight sensor to the microcontroller via the main shelf controller.

A RFID system includes an RFID controller and an RFID reader communicatively coupled to at least one RFID antenna positioned within a cargo area of a vehicle. The RFID controller includes a status indicator for generating a visual indication, a processor, and memory storing a manifest defining RFID identifiers corresponding to assets for transport by the vehicle. The memory further stores firmware having machine-readable instructions that, when executed by the processor, cause the processor to: control the RFID reader to receive an RFID signal from an RFID tag using one of the at least one RFID antenna, decode an RFID identifier from the RFID signal identifying an RFID tag attached to an asset located within the cargo area, and generate, using the status indicator, a visual indication indicative of the asset being loaded in error when the RFID identifier is not listed in the manifest.

A static memory device including an instrument, a wireless radio, a shared memory, an outgoing memory portion and an incoming memory portion. The instrument includes an environmental sensing device, a hazard detection device, and/or an industrial safety device. The wireless radio sends and receives information on a wireless mesh network. The shared memory is connected to the instrument and wireless radio and includes static message memory having static messages related to the instrument. The outgoing memory portion receives outgoing information from the instrument and transmits the outgoing information to the wireless radio for transmission on the wireless mesh network. The incoming memory portion receives incoming information from the wireless radio and transmits the incoming information to the instrument. The shared memory restricts the wireless radio and the instrument from both raising grant lines and granting data to either the incoming memory portion or the outgoing memory portion simultaneously.

Detecting, locating, identifying, engaging, and/or shifting objects in automated or semi-automated fashion as well as methods, systems, apparatuses, and computer-program products therefor. Embodiments used for shifting objects in automated or semi-automated fashion may be implemented in stationary environments, and/or in moving, e.g., in-transit, environments, and may be used to transfer, route, and/or organize objects based on their designated destinations. The embodiments may further be implemented in a logistics network, thereby increasing the efficiency and capacity of the logistics network, among other benefits.

Methods, devices and systems for enabling a specific registered user to log into a computerized system having multiple registered users by continuously staring at a display associated with the computerized system for at least a pre-determined threshold duration, without requiring any input other than staring to initiate the login process, and without requiring the user to provide any additional login information or authentication information.

According to one embodiment, a sensor device to be used with a wearable electronic device including a smart terminal device and a band that enables the smart terminal to be worn on a forearm of a user has a first end portion that is nearer the hand of the user when worn on the forearm of the user, a second end portion that is nearer the elbow of the user when worn, and an attachment portion that is configured to connect the sensor to the band. The attachment portion is offset from a midpoint between the first end portion and the second end portion along a direction along the forearm from the elbow to the hand towards the first end portion.

In a computer-implemented method, a computer program product, and a system, at least one processor obtains and decides a signal of decodable indicia to obtain information identifying an object made up of items. The processor obtains data comprising descriptive text characterizing the portion of the object, including quantitative inventory data related to the portion of the object. The processor displays the visual representation as a three dimensional image and the descriptive text, via an AR/VR device, generating a virtual projection in three dimensional space in a range of view of a user utilizing the device. The processor obtains a designation of a region in the visual representation and executes an action that changes a quantitative or a qualitative element of the descriptive text for an item represented by the region. The processor updates the descriptive text in the visual representation, to reflect the change.