Systems and methods for distributing reusable takeout food or beverage related products, such as food containers, through a communicative process between consumers, vendors and designated return stations, also referred to herein as “drop stations.” The system may include a mobile application executable on mobile devices that communicates with a server connected to a network and a database accessible by the server that includes a list of approved users, vendors, and return stations, which are physical locations to which the consumers may return the containers after use. Consumers may operate their mobile devices executing a mobile application to scan or “checkout” a container at the time of purchase of a food item. Containers may be scanned by a scanning device prior to being provided to a vendor, which scan identifies the type of container being checked out to the vendor.

It is discloses a device and method for controlling a material flow (18) in a storage and picking system (10) at a sensor-controlled node (12) of the material flow (18), where a decision on a future direction of material flow or on a velocity of the material flow (18) is to be taken, wherein at least an inlet section (28) of the node (12) is detected by a, preferably single, sensor (22), comprising the steps of: by means of the sensor (22) generating (S10) sensor data (46) representing the material flow (18) which is defined by one or more material-flow objects (36), approaching the node (12) in a downstream direction, in a field of vision (26) of the sensor (22), in particular in an inlet section (28) of the node (12); checking (S16) whether the sensor data (46) includes for each of the approaching objects (36-1, 36-2) at least one associated object feature (40) allowing certain identification of the corresponding object (36); and, if the sensor data (46) includes for each of the objects (36-1, 36-2) the at least one associated feature (40) allowing the certain identification, controlling (S18) the material flow (18) at the node (12) based on the sensor data (46); or, if the sensor data (46) does not include for each of the approaching objects (36-1, 36-2) the at least one associated feature (40) allowing the certain identification (S16), controlling (S26) the material flow (18) at the node (12) at least for such of the objects (36-1, 36-2), the associated feature (40) of which is not included in the sensor data (46), based on an information fusion (S22) of the sensor data (46) with pre-generated additional data (50), which originates from at least one information source (52) which differs from the sensor (22) of the node (12), wherein the additional data (50) includes additional object features (40) which allow, together with the features (40) from the sensor data (46), a sufficiently certain identification (S24).

A system and method is provided for delivering customized information related to a specific product of interest to consumer. In practice, the consumer uses a suitably enabled portable, mobile and/or wireless device (e.g., such as a mobile camera phone) to scan or otherwise read a marker associated with a product, retail item or other article of interest. From the marker, a unique ID is obtained (i.e., the marker ID). The marker ID is then used to cross-reference a URL or other like address in a database that relates marker IDs to corresponding URLs. The target URL is returned to the consumer's device and an http session is established with a content management server at the target URL. In one suitable embodiment, the content management server obtains a SKU and/or template web page ID that are associated with the marker ID in a database. Suitably, the SKU relates to the specific product with which the marker was associated. Having in this way determined the actual specific product of interest to the consumer, customized information related thereto can be delivered to the consumer's device, e.g., via a web page optimized for the identified device. Optionally, the web page content and/or template is obtained from a database that associates the same with the template web page ID received by the content management server.

A system to accurately and consistently read Radio-Frequency Identification (RFID) information from RFID tags placed upon objects. The system features a moving antenna or antenna array pointed toward a target detection zone. In some embodiments, a portal is constructed having electromagnetic shielding properties and containers carrying RFID tagged objects are loaded through the portal. In other embodiments, multiple antenna arrays are installed within the portal. Movement of antenna arrays may be provided using a non-electronic motor or actuator to suppress potential electromagnetic interference. A method of accurately and consistently reading RFID information from RFID sources by providing the antenna(s) and portal passing objects having RFID tags proximate the antenna(s) and through the portal, and optimizing the angle by which the antennas and/or antenna arrays may best read the RFID signals upon a target detection zone via movement of the antenna(s).

Systems and methods for managing inventory, including one or more devices, such as computers or other terminal devices and/or computer systems, for managing inventory through the supply chain and lifecycle of a product. The system and method may include features for receiving the same or similar information associated with a plurality of products from a manufacturer, a distributor, and/or a consumer or other user, and associating various information, such as product location, quantity, and/or condition information with the products via one or more RFID devices operating at a plurality of frequencies, at any one or more locations, by any one or more devices, during the product lifecycle.

A UHF RFID system used in a closed volume comprising: a UHF antenna set including at least one flat UHF antenna, a support for the UHF antenna set, and a first axle holding the support, the UHF antenna set being configured to rotate around a first axis forming an axis of symmetry for the first axle and driven by a first electrical motor, the UHF RFID system being configured for the UHF antenna set to provide a tridimensional scanning coverage around the UHF RFID system and to generate a shifting pattern of UHF intensity peaks within the closed volume.

An airport baggage recording system. The airport baggage recording system comprises a telescopic robotic arm that loads airport baggage. The robotic arm has one end connected to an upright by a pivot and a second end connected to a disc. A radio frequency identification (RFID) reader is located in the disc that reads RFID tags on the airport baggage when the airport baggage is placed on the disc during loading. Another RFID reader is located on the pivot that reads the RFID tags on the airport baggage when the airport baggage is placed on the disc during loading. The RFID reader in the disc and the RFID reader on the pivot both read the RFID tags on the airport baggage to prevent errors in reading the RFID tags on the airport baggage during loading.

A system to accurately and consistently read Radio-Frequency Identification (RFID) information from RFID tags placed upon objects. The system features a moving antenna or antenna array pointed toward a target detection zone. In some embodiments, a portal is constructed having electromagnetic shielding properties and containers carrying RFID tagged objects are loaded through the portal. In other embodiments, multiple antenna arrays are installed within the portal. Movement of antenna arrays may be provided using a non-electronic motor or actuator to suppress potential electromagnetic interference. A method of accurately and consistently reading RFID information from RFID sources by providing the antenna(s) and portal passing objects having RFID tags proximate the antenna(s) and through the portal, and optimizing the angle by which the antennas and/or antenna arrays may best read the RFID signals upon a target detection zone via movement of the antenna(s).

According to an embodiment, a control device for an image forming apparatus includes a controller that acquires reference information corresponding to expected signal strength values from a wireless tag on a sheet moving along a conveyance path and also acquires measured signal strength values for a first wireless tag on a sheet from a wireless tag communication device. The controller calculates a similarity value from the measured signal strength values and the expected signal strength values to determine whether the first wireless tag is on a sheet moving along the conveyance path. The controller controls the wireless tag communication device to write information to the first wireless tag when the calculated similarity value is above a threshold similarity value.

A system to accurately and consistently read Radio-Frequency Identification (RFID) information from RFID tags placed upon objects. The system features a moving antenna or antenna array pointed toward a target detection zone. In some embodiments, a portal is constructed having electromagnetic shielding properties and containers carrying RFID tagged objects are loaded through the portal. In other embodiments, multiple antenna arrays are installed within the portal. Movement of antenna arrays may be provided using a non-electronic motor or actuator to suppress potential electromagnetic interference. A method of accurately and consistently reading RFID information from RFID sources by providing the antenna(s) and portal passing objects having RFID tags proximate the antenna(s) and through the portal, and optimizing the angle by which the antennas and/or antenna arrays may best read the RFID signals upon a target detection zone via movement of the antenna(s).