Abstract: Systems and methods are provided for intelligent driving monitoring systems, advanced driver assistance systems and autonomous driving systems, and providing one-click driver image labeling to facilitate the assignment of drive time to a driver. Various aspects of the driver and/or passengers may be determined, which may include a driver identifier previously associated with the driver, whether the driver is wearing a facial covering, whether an image of the driver is partially occluded, whether the driver is facing in the direction of the camera, and whether an image of the driver is expected to be easily recognizable to a person tasked with assigning representative driver images to driver identifiers. These determinations may be used to improve the efficacy and ease-of-use of a visual login system.

Abstract: An example system creates a video based on a user's financial profile for a specified time period and displays the video on a virtual reality device to help the user visualize the user's financial decisions resulting in the user's current financial status as well as visualize the user's predicted financial status in the future. The system analyzes the user's historical financial transactional data, profile information and relevant market and peer information to extract and predict one or more data points regarding the user's financial profile from the past, present and the future. The system generates a video about the user's financial profile by creating a storyline based on the one or more data points.

Abstract: Systems and methods are provided for distributed video storage and search with edge computing. The method may comprise caching a first portion of data on a first device. The method may further comprise determining, at a second device, whether the first device has the first portion of data. The determining may be based on whether the first piece of data satisfies a specified criterion. The method may further comprise sending the data, or a portion of the data, and/or a representation of the data from the first device to a third device.

Abstract: An example system creates a video based on a user's financial profile for a specified time period and displays the video on a virtual reality device to help the user visualize the user's financial decisions resulting in the user's current financial status as well as visualize the user's predicted financial status in the future. The system analyzes the user's historical financial transactional data, profile information and relevant market and peer information to extract and predict one or more data points regarding the user's financial profile from the past, present and the future. The system generates a video about the user's financial profile by creating a storyline based on the one or more data points.

Abstract: An illustrative embodiment disclosed herein is an apparatus including a processor and a memory. In some embodiments, the memory includes programmed instructions that, when executed by the processor, cause the apparatus to upload an object to a source bucket in an object store and create a lambda bucket in the object store that is symlinked to the source bucket. In some embodiments, the lambda bucket is associated with a predefined transformation. In some embodiments, the memory includes the programmed instructions that, when executed by the processor, cause the apparatus to receive a request to download the object from the lambda bucket, detect that the object is in the source bucket, fetch the object from the source bucket, transform the object, by compute resources of the object store, using the predefined transformation, and download the transformed object.

Abstract: An illustrative embodiment disclosed herein is an apparatus including a processor and a memory. In some embodiments, the memory includes programmed instructions that, when executed by the processor, cause the apparatus to upload an object to a source bucket in an object store and create a lambda bucket in the object store that is symlinked to the source bucket. In some embodiments, the lambda bucket is associated with a predefined transformation. In some embodiments, the memory includes the programmed instructions that, when executed by the processor, cause the apparatus to receive a request to download the object from the lambda bucket, detect that the object is in the source bucket, fetch the object from the source bucket, transform the object, by compute resources of the object store, using the predefined transformation, and download the transformed object.

Abstract: An illustrative embodiment disclosed herein is a computer-implemented method. In some embodiments, the method includes uploading, by a processor, an object to a source bucket in an object store and creating, by the processor, a lambda bucket in the object store that is symlinked to the source bucket. In some embodiments, the lambda bucket is associated with a transformation function. In some embodiments, the method includes associating, by the processor, a lambda function with the object in the source bucket, receiving, by the processor, a request to download the object from the lambda bucket, detecting, by the processor, that the object is in the source bucket and associated with the lambda function, fetching, by the processor, the object from the source bucket, generating, by the processor, a transformed object by invoking the lambda function and the transformation function on the object, and downloading, by the processor, the transformed object.

Abstract: An illustrative embodiment disclosed herein is a computer-implemented method. In some embodiments, the method includes uploading, by a processor, an object to a source bucket in an object store and creating, by the processor, a lambda bucket in the object store that is symlinked to the source bucket. In some embodiments, the lambda bucket is associated with a transformation function. In some embodiments, the method includes associating, by the processor, a lambda function with the object in the source bucket, receiving, by the processor, a request to download the object from the lambda bucket, detecting, by the processor, that the object is in the source bucket and associated with the lambda function, fetching, by the processor, the object from the source bucket, generating, by the processor, a transformed object by invoking the lambda function and the transformation function on the object, and downloading, by the processor, the transformed object.

Abstract: A vulnerability-solution resolution (VSR) system is disclosed that is designed to create and maintain associations between vulnerabilities identified by third-party scanners (TPSs) and solutions, such as software patches received from third-party vendors. The VSR system includes a data scheme that enables information regarding vulnerabilities and solutions to be stored, and enables certain relationships to be automatically created between these vulnerabilities and solutions. In particular, the VSR system is designed to automatically form certain relationships between particular vulnerabilities and solutions based on solution supersedence and inheritance. Additionally, the VSR system includes a graphical user interface (GUI) that enables a user to exclude particular relationships from consideration when recommending solutions to resolve a vulnerability or when calculating metrics regarding the vulnerability.

Abstract: A lidar system having a lidar transmitter and lidar receiver that are in a bistatic arrangement with each other can be deployed in a climate-controlled compartment of a vehicle to reduce the exposure of the lidar system to harsher elements so it can operate in more advantageous environments with regards to factors such as temperature, moisture, etc. In an example embodiment, the bistatic lidar system can be connected to or incorporated within a rear view mirror assembly of a vehicle.

Abstract: A lidar receiver that includes a photodetector circuit can be controlled so that the detection intervals used by the lidar receiver to detect returns from fired laser pulse shots are closely controlled. Such control over the detection intervals used by the lidar receiver allows for close coordination between a lidar transmitter and the lidar receiver where the lidar receiver is able to adapt to variable shot intervals of the lidar transmitter (including periods of high rate firing as well as periods of low rate firing). The lidar receiver can define the detection intervals based on a region in the field of view that a laser pulse shot is targeting (e.g., setting longer detection intervals for laser pulse shots targeting a horizon region, setting shorter detection intervals for laser pulse shots targeting a region that intersects within the ground within a relatively short distance of the lidar system).

Abstract: A lidar receiver that includes a photodetector circuit can be controlled so that the detection intervals used by the lidar receiver to detect returns from fired laser pulse shots are closely controlled. Such control over the detection intervals used by the lidar receiver allows for close coordination between a lidar transmitter and the lidar receiver where the lidar receiver is able to adapt to variable shot intervals of the lidar transmitter (including periods of high rate firing as well as periods of low rate firing). The detection intervals can vary across different shots, and at least some of the detection intervals can be controlled to be of different durations than the shot intervals that correspond to such detection intervals.

Abstract: An illustrative embodiment disclosed herein is an apparatus including a processor having programmed instructions to maintain an object store including a primary cluster having one or more compute resources and one or more first storage resources, identify a secondary cluster having one or more second storage resources, select the secondary cluster to be added to the object store, allocate an available portion of the one or more second storage resources to the object store, and shard an object across the one or more second storage resources and the available portion of the one or more second storage resources.

Abstract: An illustrative embodiment disclosed herein is an apparatus including a processor having programmed instructions that identify a temporary bucket linked to one or more objects of a main bucket, detect that an object is uploaded to the main bucket, determine whether the object has an object attribute satisfying an object attribute relationship, and responsive to determining that the object has the object attribute that satisfies the object attribute relationship, add, to the temporary bucket, a link to the object.

Abstract: A vulnerability-solution resolution (VSR) system is disclosed that is designed to create and maintain associations between vulnerabilities identified by third-party scanners (TPSs) and solutions, such as software patches received from third-party vendors. The VSR system includes a data scheme that enables information regarding vulnerabilities and solutions to be stored, and enables certain relationships to be automatically created between these vulnerabilities and solutions. In particular, the VSR system is designed to automatically form certain relationships between particular vulnerabilities and solutions based on solution supersedence and inheritance. Additionally, the VSR system includes a graphical user interface (GUI) that enables a user to exclude particular relationships from consideration when recommending solutions to resolve a vulnerability or when calculating metrics regarding the vulnerability.

Abstract: A vulnerability-solution resolution (VSR) system is disclosed that is designed to create and maintain associations between vulnerabilities identified by third-party scanners (TPSs) and solutions, such as software patches received from third-party vendors. The VSR system includes a data scheme that enables information regarding vulnerabilities and solutions to be stored, and enables certain relationships to be automatically created between these vulnerabilities and solutions. In particular, the VSR system is designed to automatically form certain relationships between particular vulnerabilities and solutions based on solution supersedence and inheritance. Additionally, the VSR system includes a graphical user interface (GUI) that enables a user to exclude particular relationships from consideration when recommending solutions to resolve a vulnerability or when calculating metrics regarding the vulnerability.

Abstract: A lidar receiver can employ multiple processors to distribute the workload of processing returns from laser pulse shots. Activation/deactivation times of pixel sets that are used by the lidar receiver to sense returns can be used to define which samples in a return buffer will be used for processing to detect each return, and multiple processors can share the workload of processing these samples in an effort to improve the latency of return detection.

Abstract: A lidar system that includes a laser source and a scannable mirror can be controlled to fire laser pulse shots from the laser source toward targeted range points via the scannable mirror at a variable rate of firing those laser pulse shots. A control circuit for the lidar system can determine a shot order of the targeted laser pulse shots for the variable rate firing based on a plurality of simulations of different shot order candidates with respect to a laser energy model that models how much energy is available from the laser source for laser pulse shots over time as compared to a plurality of energy requirements for the targeted laser pulse shots. Parallelized logic resource in the control circuit can be used to perform the simulations in parallel to support low latency shot scheduling.

Abstract: A lidar system having a lidar transmitter and lidar receiver that are in a bistatic arrangement with each other can be deployed in a climate-controlled compartment of a vehicle to reduce the exposure of the lidar system to harsher elements so it can operate in more advantageous environments with regards to factors such as temperature, moisture, etc. In an example embodiment, the bistatic lidar system can be connected to or incorporated within a rear view mirror assembly of a vehicle.

Abstract: A lidar receiver that includes a photodetector circuit can be controlled so that the detection intervals used by the lidar receiver to detect returns from fired laser pulse shots are closely controlled. Such control over the detection intervals used by the lidar receiver allows for close coordination between a lidar transmitter and the lidar receiver where the lidar receiver is able to adapt to variable shot intervals of the lidar transmitter (including periods of high rate firing as well as periods of low rate firing). The lidar receiver can determine the detection intervals using a cost function that optimizes determination of the detection intervals for a plurality of the laser pulse shots from a shot list.