Abstract: A tilt monitoring system for a mobile irrigation system including a sensor and a controller. The sensor is configured to detect a tilt magnitude of the span and generate a corresponding tilt signal. The controller is configured to receive the tilt signal representing the tilt magnitude, generate a deactivation signal representing an instruction to deactivate the drive motor if the tilt magnitude is greater than a tilt threshold, transmit the deactivation signal to the drive motor, generate a notification signal representing a notification that the drive motor has been deactivated due to the tilt magnitude, transmit the notification signal, receive a follow-up input signal representing a follow-up input, generate a follow-up command signal representing a command for implementing the follow-up input, and transmit the follow-up command signal so that the mobile irrigation system implements the follow-up input.

Abstract: A control system for use with an irrigation system that includes a plurality of towers comprises a plurality of node controllers and a main controller. Each node controller is associated with a successive one of the towers and is configured to monitor operation of a plurality of components of the tower and to transmit data that includes a node identification number which corresponds to a positional number of the associated tower. The main controller is configured to receive the data. The control system executes a configuration process in which each node controller is assigned the node identification number in a sequence.

Abstract: A mobile irrigation system including a number of spans, a number of mobile irrigation towers supporting the spans, and a control system. The control system includes a position switch configured to be triggered and transmit a trigger signal and a controller configured to receive the trigger signal from the position switch. Upon receiving the trigger signal, the controller is configured to determine whether a current position of the mobile irrigation system equates to an auto-reverse position. If the current position equates to the auto-reverse position, the controller is configured to transmit a reverse direction signal to a drive motor of one of the mobile irrigation towers to reverse direction so that the drive motor reverses direction.

Abstract: An automated apparatus and method for configuring and producing packaging for orders of variable configurations of perishable items includes an automatic case erector-sealer; a packing liner dispenser; a cold pack dispenser; a control system; a point of sale ecommerce platform; and a data processor to capture order configuration, order destination, and available order points of origin. The control system captures and uses the order configuration, destination, and delivery date, to generate a time in transit (TNT), total volume, cold volume, and ambient volume, of items in the order. The total volume and cold volume are used to generate a product cube category (PCC). The TNT and the PCC are used to generate a packaging configuration for the order. The system uses the packaging configuration to generate and send operational directives to one or more of the automatic case erector-sealer, the packing liner dispenser, and the cold pack dispenser.

Abstract: An irrigation control panel, an irrigation system, and a method of monitoring operations of the irrigation system are provided. The irrigation control panel comprises a display and a processing element. The display comprises an electrophoretic portion. The processing element is configured to determine an operating condition of the irrigation system, and display an indication representative of the operating condition on the electrophoretic portion so that the indication representative of the operating condition displayed on the electrophoretic portion persists after disconnecting power.

Abstract: An irrigation system comprises a plurality of towers, a time domain reflectometry (TDR) unit, and a central controller. Each tower includes a successive one of a plurality of safety switches, with each safety switch being either closed or open. The safety switch of each tower is electrically connected to at least one safety switch of another tower. The TDR unit is electrically connected to at least one safety switch and is configured to output data regarding an open safety switch. The central controller is configured to receive data from the TDR unit, and determine, according to the data from the TDR unit, at least one of a location of the open safety switch and an identifier of the tower associated with the open safety switch.

Abstract: A smart irrigation system including a mechanized irrigation machine having a main machine controller, a plurality of distributed controllers, and a communications network. The distributed controllers may be located at a plurality of spaced apart locations on the mechanized irrigation machine. The communications network may communicably couple the plurality of distributed controllers, the main machine controller, and local or remote cloud storage. Furthermore, the main machine controller and the plurality of distributed controllers may retrieve or store information from the local or remote cloud storage for maintenance, firmware updates, or troubleshooting of the mechanized irrigation machine. The distributed controllers may perform the following functions: individual tower motor control, span joint control, corner arm control, GPS guidance or positioning of one or more actuatable features of the smart irrigation system, and/or valve control of individual sprinklers for variable rate irrigation.

Abstract: A mobile irrigation system including a number of spans, a number of mobile irrigation towers supporting the spans, and a control system. The control system includes a position switch configured to be triggered and transmit a trigger signal and a controller configured to receive the trigger signal from the position switch. Upon receiving the trigger signal, the controller is configured to determine whether a current position of the mobile irrigation system equates to an auto-reverse position. If the current position equates to the auto-reverse position, the controller is configured to transmit a reverse direction signal to a drive motor of one of the mobile irrigation towers to reverse direction so that the drive motor reverses direction.

Abstract: An alignment control system for controlling an alignment of a plurality of mobile towers, each mobile tower supporting a section of conduit in an irrigation system comprises a plurality of tower angle measurement devices and a control processing element. Each tower angle measurement device is associated with a successive one of the mobile towers and is configured to measure an angle value which varies according to a rotation angle of the associated mobile tower relative to one or more of the other mobile towers. The control processing element is configured or programmed to receive the angle value from each tower angle measurement device, compare the angle value to a threshold angle value, and generate and transmit control signals, data, or both that include an activation hysteresis value to a drive motor associated with each mobile tower that has an angle value greater than the threshold angle value.

Abstract: Systems and methods to predict and optimize automated recipe selection and item delivery for a customer. A server uses an artificial intelligence model to selects a plurality of predicted recipes for a customer based on customer preferences. Different types of constraints are obtained for the customer to generate a plurality of sets of recipes from the predicted recipes and to optimize those sets of recipes for the customer. A specific set of recipes is selected for the customer based on the optimization, and the filling of the order is initiated for the customer with items associated with the selected set of recipes.

Abstract: A tilt monitoring system for a mobile irrigation system including a sensor and a controller. The sensor is configured to detect a tilt magnitude of the span and generate a corresponding tilt signal. The controller is configured to receive the tilt signal representing the tilt magnitude, generate a deactivation signal representing an instruction to deactivate the drive motor if the tilt magnitude is greater than a tilt threshold, transmit the deactivation signal to the drive motor, generate a notification signal representing a notification that the drive motor has been deactivated due to the tilt magnitude, transmit the notification signal, receive a follow-up input signal representing a follow-up input, generate a follow-up command signal representing a command for implementing the follow-up input, and transmit the follow-up command signal so that the mobile irrigation system implements the follow-up input.

Abstract: In one implementation, an accessory mount system for a watersport tow boat includes a boat mount that is configured to be attached to a boat mounting surface that is adjacent to or part of a swim platform that extends from a rear of the watersport tow boat. The accessory mount system can further include an accessory arm that includes a first end and a second end, where the first end is configured to be fixedly attached to the accessory arm mounting surface of the boat mount and the second end is configured to be positioned above a top surface of the swim platform when the accessory arm is attached to the watersport tow boat via the boat mount. The accessory mount system can further include an accessory adapter positioned at the second end of the accessory arm.

Abstract: Systems and methods to predict and optimize automated recipe selection and item delivery for a customer. An item-selection server selects a plurality of predicted recipes based on customer preferences and order history. Hard and soft constraints are obtained to perform the optimization of the predicted recipes. The hard constraints define parameters that cannot be violated by a recipe or set of recipes, and soft constraints define parameters that expresses a tradeoff value associated with a recipe or set of recipes. Optimization includes selecting multiple sets of predicted recipes based on the hard constraints and scoring each recipe set based on the soft constraints, item inventory, and customer preferences. A specific set of recipes is selected for the order based on the scores, and the filling of the order is initiated for the customer with items associated with the selected set of recipes.

Abstract: Provided herein are systems, methods, and computer readable media for document hierarchy permissions. This may include providing a permission database comprising a plurality of users, a plurality of advisors, and a plurality of categories. A candidate document is received at a network device. A candidate user, a candidate routing action, and a candidate document category are identified from the candidate document. A candidate document permission attribute is generated identifying the candidate user, candidate file location, and the candidate document category. The candidate document is stored, and the candidate document permission attribute corresponding to the candidate document is stored.

Abstract: An automated apparatus and method for configuring and producing packaging for orders of variable configurations of perishable items includes an automatic case erector-sealer; a packing liner dispenser; a cold pack dispenser; a control system; a point of sale ecommerce platform; and a data processor to capture order configuration, order destination, and available order points of origin. The control system captures and uses the order configuration, destination, and delivery date, to generate a time in transit (TNT), total volume, cold volume, and ambient volume, of items in the order. The total volume and cold volume are used to generate a product cube category (PCC). The TNT and the PCC are used to generate a packaging configuration for the order. The system uses the packaging configuration to generate and send operational directives to one or more of the automatic case erector-sealer, the packing liner dispenser, and the cold pack dispenser.

Abstract: A method for generating a vehicle identification profile and building a vehicle identification profile database. The method may be executed at an edge of a networked system. The method identifies at least one of a number of characters on a license plate and one or more alphanumeric descriptors. The alphanumeric descriptors are obtained from physical or visual features or characteristics of a vehicle, as identified from a video stream. A vehicle profile including the alphanumeric descriptors and the one of a number of license plate characters is generated.

Abstract: A system for automated vehicle identification and detection. The system may utilize native, in-vehicle advanced driver-assistance (ADAS) systems. Native, in-vehicle sensors may include sensors installed by vehicle manufacturers as part of the building of the vehicle for the purposes of assisting drivers in driving and parking functions (i.e., as part of an ADAS system). The system may process data from the native sensors and cameras to obtain features indicative of vehicles in the surroundings proximate to the vehicle on which the ADAS system is installed.

Abstract: An irrigation control panel, an irrigation system, and a method of monitoring operations of the irrigation system are provided. The irrigation control panel comprises a display and a processing element. The display comprises an electrophoretic portion. The processing element is configured to determine an operating condition of the irrigation system, and display an indication representative of the operating condition on the electrophoretic portion so that the indication representative of the operating condition displayed on the electrophoretic portion persists after disconnecting power.

Abstract: The present invention is a plasma processing apparatus that includes a processing chamber where plasma processing is performed on a sample, a radio frequency power supply that supplies radio frequency power to generate plasma, a sample stage on which the sample is placed, and a gas supply unit that supplies a gas to the processing chamber. The gas supply unit includes a first pipe that supplies a first gas as a gas for etching process to the processing chamber, a second pipe that supplies a second gas as a gas for etching process to the processing chamber, and a third pipe through which a third gas as a gas for deposition process flows. The third pipe is coupled to the second pipe. A fourth valve is arranged on the second pipe. The fourth valve prevents the third gas from flowing in a direction toward a supply source of the second gas.

Abstract: A monitoring system for a mobile irrigation system that monitors the conditions or states of various electrical and/or mechanical components of the irrigation system and alerts an operator or automatically takes corrective action when conditions that may adversely affect operation of the irrigation system are detected. The monitoring system also monitors and records the locations of the irrigation system as it monitors the conditions or states of the electrical and/or mechanical components.