Walmart Apollo, LLC

Jeffrey Scott Cruz

Robert J Taylor

Aaron James Vasgaard

Matthew David Alexander

Sara Vaught

Nicholaus Adam Jones

William Mark Propes

Jason D Bellar

John Crecelius

Jesse Berry

Ryan Sands Magnusson

Marc Ashley Fletter

Jeremy L Velten

Joseph Wayne Hendricks

Christopher R Heeney

Leigh Ann Marie Scobey

Lacrecia Lynn Billings

Brandon Joel Easterling

Hoang-Anh Au

Donald Busse

Sayak S Majumdar

Mike Graen

Christopher S Hoheisal

Abiy Hailemichael

Leigh Ann Scobey

A system and method for error correction using radiofrequency identification (RFID) signals. The method includes analyzing one or more signal properties of received RFID tag data obtained from location tag(s) associated with one or more predetermined locations and item tag(s) associated with one or more items in the scan zone. The current location of the items is calculated based on the analyzed signal properties, such as, but not limited to, signal strength. If an item is located in the correct location, the assigned location of the item is verified. If the current location of the item differs from an expected location, the item location data for that item is updated with the current location of the item in a data store. Error correction data is generated, which can include updating the item location and/or providing instructions to move the item from the item's current location to the assigned item location.

Error correction using combination RFID signals

A system and method for radiofrequency identification (RFID) driven stocking priority determination. The method includes associating a first plurality of items with a first set of containers, analyzing first item data associated with the first plurality of items associated with the first set of containers and second item data for a second plurality of items associated with a second container, calculating a plurality of priorities for the first set of containers based on the analyzed first item data, the analyzed second item data, and a set of prioritization rules, assigning the plurality of priorities to the first set of containers, and transmitting the plurality of priorities to a user interface device.

Radio frequency identification (RFID) driven stocking priority determination

Examples provide a system for managing inventory updates based on RFID data using product in-scope and out-of-scope rules (PISOS). The PISOS system adjusts on-hand inventory count values for an item upward based on item scan data if the scan data identifies a higher number of instances of a given item than is recorded in on-hand inventory. The PISOS system does not permit adjusting on-hand inventory downward based on the scan data indicating fewer instances of the given item within an item display area than is recorded in on-hand inventory unless a set of PISOS rules indicate the given item is in-scope for downward adjustments. If the item is out-of-scope, no downward adjustments to on-hand inventory are made based on the number of items detected during the scan.

In-scope and out-of-scope RFID-based item management

Examples provides on-hand inventory accuracy using radio frequency identification (RFID) tag data and expected populations of items for a plurality of sub-locations within a scan area. The system calculates a dynamic expected population of items value for each sub-location using item level data and modular display data for an item assortment assigned to a modular display within each sub-location. If the items detected by the RFID tag data match the expected population of items with a minimum confidence level, the system provides user feedback in the form of status indicators and/or accuracy indicators on a user interface. The feedback can also include audio feedback. If a discrepancy is detected, the system requests a rescan of each sub-location having a detected discrepancy. The system disallows update of on-hand inventory data using the RFID tag data if the discrepancy remains unresolved after the second scan and/or requests a manual verification.

On-hand inventory accuracy system

Shipment receiving systems and methods are disclosed. Invoice and store inventory management data is provided to an invoice processor for assigning expected destinations to lanes of a material transporter having and a plurality of outlet lanes that each have an indicator. A scanner determines a case identifier for each case which is routed accordingly. One or more notifications is provided to the indicator of one or more of the plurality of outlet lanes. Received shipment data enables reconciliation of upstream supply change management systems and downstream store inventory systems.

Shipment receiving systems and methods including notification and reconciliation features

Examples provide a system for a temperature-controlled receiving tunnel. A main body includes an interior compartment and a set of adjustable bulkheads configured to create a set of temperature-controlled zones within the interior compartment. A set of cooling devices are configured to adjust an internal temperature of the set of temperature-controlled zones within the interior compartment. A control device analyzes dynamic truck delivery data and ambient temperature data to generate a predicted cooling time and a cooling initiation time. The predicted cooling time comprises an estimated quantity of time after the cooling initiation time to reach a target temperature within a selected zone in the set of temperature-controlled zones.

Temperature-controlled receiving tunnel

System and methods for dynamic replenishment in a facility are disclosed. A mobile inventory processing device reads a machine readable tag affixed to a perishable item and transmits an indication of the perishable item to a stock inventory processing device. The stock inventory processing device retrieves a stock inventory value corresponding to the perishable item and a historic daily sales value for the perishable item from a database. The stock inventory processing device determines a restocking value based on whether the historic daily sales value exceeds the stock inventory value. The stock inventory processing device transmits a second indication to the mobile inventory processing device. The second indication correspond to insufficient shelf stock of the perishable item. The mobile inventory processing device receives the second indication and outputs an auditory alert in response to the second indication.

System and method for dynamic perishable item replenishment

Systems, apparatuses, and methods are provided herein for securing merchandise. In one embodiment an apparatus for securing merchandise comprises a locking mechanism limiting access to one or more items, one or more optical sensors configured to detect a plurality of wavelengths and an intensity associated with each wavelength from at least one light beam emitted by an optical key, and a control device comprising a control circuit and a memory device. The control device being configured to store a lock code comprising a plurality of wavelength values and a plurality of intensity values each associated with a wavelength value on the memory device and determine whether to release the locking mechanism based on whether intensities of each of the plurality of wavelengths detected by the one or more optical sensors match the lock code.

Apparatus and method for securing items with optical lock and key

In some embodiments, systems, apparatus and methods are disclosed that utilize customer feedback to obtain store intelligence and automatically respond to the customer without the need to involve a store associate or employee, thereby allowing employees to continue on with other tasks. For example, customers may provide feedback for a particular product not on the shelves and be advised that it is being pulled (if it is on-site, such as in a back room), or offered the opportunity to order the product or advised of an alternate on-site or off-site location where the product can be found. The system, method or apparatus may also identify products the store should add to its assortment of products based on such customer inquiries and/or may take automated actions in response (e.g., generating pick requests, generating orders for products, reporting potential new products to add to offerings, etc.).

Customer-triggered store management

In some embodiments, systems, apparatuses and methods are described herein useful to indicate the number of products on a merchandising unit. Counting devices as described herein maintain an accurate count of the number of products on a given merchandising unit and provides a display of the count.

Growing community of inventors

Bentonville, AR, United States of America

Jeffrey Scott Cruz