Abstract: Methods, systems, and devices for interface techniques for stacked memory architectures are described. A semiconductor system, such as a memory system, may distribute memory access circuitry among multiple semiconductor dies of a stack. A first die of the system may include logic circuitry operable to configure a set of multiple first interface blocks of the first die. Each first interface block may include circuitry operable to communicate with one or more second interface blocks of one or more second dies of the system to access a respective set of one or more memory arrays of the one or more second dies. In some examples, the system may include a respective controller for each first interface block to support access operations via the first interface block. The system may also include non-volatile storage, one or more sensors, or a combination thereof to support various operations of the system.

Abstract: An assembly is provided with a funnel having one or more side walls extending from an entrance to an outlet, and a liner having one or more elastic panels, with the liner extending over an inner surface of the one or more side walls. A system is provided with the assembly, a die, a fluid bath, and at least one hose to direct fluid from the fluid bath onto the liner of the assembly. A method includes covering an inner surface of a funnel with a liner comprising one or more elastic panels, wetting the liner, and forming a stranded mesh material member by extruding material from a die and through the funnel. A stranded mesh material member is provided and formed using the method.

Abstract: An example method may include receiving, via a graphical user interface, credentials for connecting to a data store containing a plurality of datasets and connecting to the data store using the credentials. A selection of a target metric to predict using the machine learning model can be received, via the graphical user interface, and datasets included in the plurality of datasets that correlate to the target metric can be identified by analyzing the datasets to identify an association between the target metric and data contained within the datasets. The datasets can be input to the machine learning model to train the machine learning model to generate predictions of the target metric, and the machine learning model can be deployed to computing resources in a service provider environment to generate predictions associated with the target metric.

Abstract: A snowmobile warning and control method for a snowmobile having an engine and a brake system, including: sensing a temperature of the brake system of the vehicle; determining that the temperature of the brake system is above a first predetermined temperature threshold; issuing a first brake-system temperature warning in response to the temperature of the brake system exceeding the first predetermined temperature threshold; determining that the temperature of the brake system is above a second predetermined temperature, the second predetermined temperature being greater than the first predetermined temperature; issuing a second brake-system temperature warning in response to the temperature of the brake system exceeding the second predetermined temperature threshold; and modifying an operation of the engine in response to the temperature of the brake system exceeding the second predetermined temperature threshold.

Abstract: Systems, methods, and apparatuses for managing and controlling movable barrier operator systems are described herein. A method for controlling a movable barrier operator system comprises receiving a credential associated with a first user account from a first user device, storing the credential in a memory of the movable barrier operator system, communicating the credential and an identifier of the movable barrier operator system to a remote computer to register the movable barrier operator system with the remote computer, and configuring the movable barrier operator system to change a state of a movable barrier in response to the movable barrier operator system receiving a state change request from a second user device associated with a second user account, the state change request from the second user device including the credential or a derivative of the credential received from the first user device.

Abstract: Compounds, particles, and cathode active materials that include lithium, cobalt, manganese, nickel, aluminum, and other elements can be used in lithium ion batteries. The cathode active materials include compounds having the general Formula (I): compound represented by Formula (I): Li?CO1-x-y-zMewMnxNiyAlzO?, as well as Formula (II): Li?CO1-s-u-vMesMntNiuAlyO?.

Abstract: An antenna assembly includes at least one conductive dipole arm and an adjacent conductive wall (“H-wall”), which enables efficient radiation from the conductive dipole arm without added losses. A single-ended antenna feed is configured to receive a single-ended signal. The antenna assembly further includes a ground plane and a conductive dipole arm in planar alignment with a surface of the ground plane. The conductive wall is electrically coupled with the ground plane and has an end adjacent to, and physically separate from, the conductive dipole arm, an axial length of the H-wall being orthogonal to the ground plane. The antenna assembly further includes a feedline electrically coupled with the conductive dipole arm and the single-ended antenna feed.

Abstract: An antenna assembly includes a balanced antenna feed configured to receive a differential signal and a ground plane. The assembly further includes a first conductive dipole arm in planar alignment with a surface of the ground plane and a second conductive dipole arm in planar alignment with the surface of the ground plane and adjacent to the first conductive dipole arm. The assembly further includes a first feedline in electrical communication with the first conductive dipole arm and the balanced antenna feed and a second feedline in electrical communication with the second conductive dipole arm and the balanced antenna feed. The assembly further includes a conductive wall (“H-wall”) in electrical communication with the ground plane and having an end adjacent to, and physically separate from, the second conductive dipole arm. The H-wall has an axial length orthogonal to the ground plane.

Abstract: An antenna assembly includes a first dielectric material, a ground plane above the first dielectric material, and two or more patch antennas above the ground plane. In an example, the ground plane has a first aperture slot, and a second aperture slot that is non-intersecting with the first aperture slot. The antenna assembly further includes a second dielectric material separating the two or more patch antennas from the ground plane. In an example, the first dielectric material comprises a printed circuit board (PCB). In some examples, the ground plane and the two or more patch antennas are manufactured using additive manufacturing techniques (such as three-dimensional printing techniques), and in some such examples, the second dielectric material includes dielectric foam. For example, the dielectric foam supports the two or more patch antennas above the ground plane.

Abstract: Systems, methods, and apparatuses for managing and controlling movable barrier operator systems are described herein. A method for controlling a movable barrier operator system comprises receiving a credential associated with a first user account from a first user device, storing the credential in a memory of the movable barrier operator system, communicating the credential and an identifier of the movable barrier operator system to a remote computer to register the movable barrier operator system with the remote computer, and configuring the movable barrier operator system to change a state of a movable barrier in response to the movable barrier operator system receiving a state change request from a second user device associated with a second user account, the state change request from the second user device including the credential or a derivative of the credential received from the first user device.

Abstract: Systems, methods, and apparatuses for managing and controlling movable barrier operator systems are described herein. A method for controlling a movable barrier operator system comprises receiving a credential associated with a first user account from a first user device, storing the credential in a memory of the movable barrier operator system, communicating the credential and an identifier of the movable barrier operator system to a remote computer to register the movable barrier operator system with the remote computer, and configuring the movable barrier operator system to change a state of a movable barrier in response to the movable barrier operator system receiving a state change request from a second user device associated with a second user account, the state change request from the second user device including the credential or a derivative of the credential received from the first user device.

Abstract: In one aspect, an in-vehicle computing device is provided for controlling operation of a movable barrier operator. The in-vehicle computing device includes a sensor configured to detect a vehicle characteristic and communication circuitry operable to cause automatic operation of the movable barrier operator by communicating with the movable barrier operator. The in-vehicle device further includes a processor operatively coupled to the communication circuitry, the sensor, and the memory. The processor configured to determine satisfaction of a user account condition and, upon the user account condition not being satisfied, to inhibit the communication circuitry from initiating automatic operation of the movable barrier operator.

Abstract: Systems, methods, and apparatuses for managing and controlling movable barrier operator systems are described herein. A method for controlling a movable barrier operator system comprises receiving a credential associated with a first user account from a first user device, storing the credential in a memory of the movable barrier operator system, communicating the credential and an identifier of the movable barrier operator system to a remote computer to register the movable barrier operator system with the remote computer, and configuring the movable barrier operator system to change a state of a movable barrier in response to the movable barrier operator system receiving a state change request from a second user device associated with a second user account, the state change request from the second user device including the credential or a derivative of the credential received from the first user device.

Abstract: Systems, methods, and apparatuses for managing and controlling movable barrier operator systems are described herein. A method for controlling a movable barrier operator system comprises receiving a credential associated with a first user account from a first user device, storing the credential in a memory of the movable barrier operator system, communicating the credential and an identifier of the movable barrier operator system to a remote computer to register the movable barrier operator system with the remote computer, and configuring the movable barrier operator system to change a state of a movable barrier in response to the movable barrier operator system receiving a state change request from a second user device associated with a second user account, the state change request from the second user device including the credential or a derivative of the credential received from the first user device.

Abstract: In one aspect, an in-vehicle computing device is provided for controlling operation of a movable barrier operator. The in-vehicle computing device includes a sensor configured to detect a vehicle characteristic and communication circuitry operable to cause automatic operation of the movable barrier operator by communicating with the movable barrier operator. The in-vehicle device further includes a processor operatively coupled to the communication circuitry, the sensor, and the memory. The processor configured to determine satisfaction of a user account condition and, upon the user account condition not being satisfied, to inhibit the communication circuitry from initiating automatic operation of the movable barrier operator.

Abstract: In one aspect, an in-vehicle computing device is provided for controlling operation of a movable barrier operator. The in-vehicle computing device includes a sensor configured to detect a vehicle characteristic and communication circuitry operable to cause automatic operation of the movable barrier operator by communicating with the movable barrier operator. The in-vehicle device further includes a processor operatively coupled to the communication circuitry, the sensor, and the memory. The processor configured to determine satisfaction of a user account condition and, upon the user account condition not being satisfied, to inhibit the communication circuitry from initiating automatic operation of the movable barrier operator.

Abstract: The systems and methods provided herein use a rolling voice identifier in a multi-factor authentication system to avoid the security problems present in prior voice activated control systems. By implementing a rolling voice identifier in an access control platform, users may no longer need to be concerned with being overheard or recorded when providing voice authentication commands to an access control platform because the rolling voice identifier that the user will be prompted to speak will be specific to the particular instance of control of an access control platform. An access control platform is a platform that controls operation of a movable barrier by, for example, controlling the state of a movable barrier using a remote control. An access control platform may cause a movable barrier to become opened, closed, locked, or unlocked to permit or prevent access to a physical space by a physical object.

Abstract: In one aspect, an in-vehicle computing device is provided for controlling operation of a movable barrier operator. The in-vehicle computing device includes a sensor configured to detect a vehicle characteristic and communication circuitry operable to cause automatic operation of the movable barrier operator by communicating with the movable barrier operator. The in-vehicle device further includes a processor operatively coupled to the communication circuitry, the sensor, and the memory. The processor configured to determine satisfaction of a user account condition and, upon the user account condition not being satisfied, to inhibit the communication circuitry from initiating automatic operation of the movable barrier operator.