Locus Robotics Corporation

Other

Bruce Welty

Sean Johnson

Michael Charles Johnson

Luis Jaquez

Bradley Powers

Karen Leavitt

Ryan Sven Johnson

Ryan Loron Johnson

Mike Johnson

Eric Tappan

Ryan Johnson

Systems and methods for proximate robot object detection and avoidance are provided herein which include a receiver in electronic communication with an autonomous robot and configured to receive a broadcast message from a beacon, a processor, and a memory, the memory storing instructions that, when executed by the processor, cause the autonomous robot to detect, based on the received broadcast message, a proximity of the beacon to the autonomous robot, determine, from the received broadcast message, a beacon status, the beacon status indicating whether the beacon is stationary, approaching the autonomous robot, or withdrawing from the autonomous robot, identify, according to the detected proximity and the determined beacon status, a corresponding proximity operation, and control the autonomous robot to stop an ordinary operation and operate according to the identified proximity operation.

Proximate robot object detection and avoidance

A method for assigning orders to a plurality of robots fulfilling orders in a warehouse with the assistance of a plurality of operators. The method includes providing a first robot of the plurality of robots to a be assigned an order set, including one or more orders to be fulfilled and assessing the locations of at least one of the plurality of robots or at least one of the plurality of operators in the warehouse. The method also includes selecting an anchor location in the warehouse and generating an order set for the first robot correlated to the anchor location in the warehouse. The method also includes assigning the order set to the first robot for fulfillment.

Tote induction in warehouse order fulfillment operations

Methods and systems are provided for improving operator performance by robot gamification, the method including parking a robot at a pose location within a navigational space, identifying, by a sensor in electronic communication with an interactive display device, an operator located within a zone proximate the robot for acquiring an item to be picked, receiving, at the interactive display device, operator performance data associated with the acquiring of the item, and rendering, on the interactive display device in response to the received operator performance data, at least one graphic representation of operator achievement within a gamified performance tracking environment.

Robot gamification for improvement of operator performance

A method for recommending a tote type for an operator to select for use in robot induction process, wherein the robot operates under the control of a warehouse management system to fulfill orders, each order including one or more items and each item being located in a warehouse. The method includes grouping one or more orders from an order queue to form at least one order set. The method also includes identifying, based on a characteristic of the at least one order set, a preferred tote type to be assigned to the robot to carry the order set on the robot. The method further includes communicating to an operator the preferred tote type to enable the operator to select from a plurality of totes a tote of the preferred tote type to assign to the robot for execution of the order.

Optimized tote recommendation process in warehouse order fulfillment operations

A method for customer assisted robot picking includes navigating a robot to a pose location within a retail space in proximity to an item to be picked, the retail space having items for purchase by customers, the robot identifying, by a sensor in communication with the robot, a customer located within a zone proximate the robot, communicating to the customer information identifying the item to be picked, detecting presentation of the item by the customer for identification, and updating customer performance data stored in a customer account to include data corresponding to picking of the item by the customer.

Customer assisted robot picking

A method for grouping a plurality of orders in an order queue of a warehouse management system, each order including one or more items and each item being associated with a physical location in a warehouse. The method includes determining a physical location in the warehouse of each item in the plurality of orders. For each order, the method also includes establishing at least one cluster region, each cluster region including at least one item from the respective order. The method further includes grouping the plurality of orders based on the physical locations of the cluster regions in the warehouse to form at least one order set.

Order grouping in warehouse order fulfillment operations

A robot system includes at least one robot configured to interact with a plurality of operators in a warehouse. The robot has a proximity detector configured to detect the presence of an operator of the plurality of operators when they are within a predetermined distance of the at least one robot. There is a processor configured to retrieve from a memory a set of operator interaction preferences for the operator detected. And, there is a display device configured to allow the at least one robot to interact with the detected operator based on the set of operator interaction preferences of the detected operator.

Operator robot interaction using operator interaction preferences

A robot capable of autonomously navigating through a warehouse to execute orders on items at locations in the warehouse with the assistance of the human operators. There is a mobile base unit and a display device associated with the mobile base unit having a display area to allow the human operators to interact with the robot. And, there is a processor configured to display on a first portion of the display area information corresponding to an item on which an operator is to assist the robot execute the order at a first location and to display on a second portion of the display area icons representing other robots within a predetermined area surrounding the first location.

Display for improved efficiency in robot assisted order-fulfillment operations

A system for identifying and tracking performance of operators in a warehouse. The system comprises at least one robot configured to interact with the operators in the warehouse. The at least one robot includes a first transceiver, a proximity detector, and a memory. The first transceiver defines a zone surrounding the robot and the proximity detector is coupled to the first transceiver. The proximity detector is configured to detect entry, into the zone, of an operator and to detect exit of the operator from the zone. The memory contains information identifying said operators who have entered and exited the zone.

Operator identification and performance tracking

A method for performing tasks on items located in a space using a robot, the items being located proximate fiducial markers, each fiducial marker having a fiducial identification. The method includes receiving an order to perform a task on at least one item and determining the fiducial identification associated with the at least one item. The method also includes obtaining, using the fiducial identification of the at least one item, a set of coordinates representing a position of the fiducial marker with the determined fiducial identification, in a coordinate system defined by the space. The method further includes navigating the robot to the coordinates of the fiducial marker associated with said determined fiducial identification.

Robotic navigation utilizing semantic mapping

A method for generating a navigation map of an environment in which a plurality of robots will navigate, includes obtaining an image of the environment defined by a plurality of pixels, each having a cost value. The environment includes an image of a fixed object having a set of pixels corresponding to its location and having a first defined cost value. The method includes obtaining a planned path image for the robots, which include a first set of pixels corresponding to the location of each robot in the environment and a second set of pixels adjacent to the first set of pixels and extending along a planned path of travel toward a destination. The first set of pixels of each robot having the first defined cost value and the second set of pixels having a second defined cost value. The second defined cost value is less than the first defined cost value.

Growing community of inventors

Boston, MA, United States of America

Bruce Welty