Abstract: A centralized network environment is provided for processing validated executable data based on authorized hash outputs. In particular, the system may generate cryptographic hash outputs of code or software that has been evaluated (e.g., within a virtual environment). The system may then store the hash outputs within a hash database which may be accessible by multiple entity networks, where multiple entities may upload hash output values to and/or retrieve hash output values from the hash database. Based on the data within the hash database, each entity may efficiently identify code that may be safe or unsafe to execute on certain computing systems within its network environment. The system may further comprise an artificial intelligence-powered component which may be configured to detect patterns within code that has been identified by the system as unsafe and provide notifications containing systems likely to be affected and recommended countermeasures.

Abstract: A cross-coupled differential activated latch circuit with circuitry comprising a plurality of n-FETs and inverters that can be implemented completely in GaN. The circuitry prevents the digital latched values on the outputs of the latch from changing unless the digital input values on the inputs are different, thus preventing common-mode voltage on the inputs from corrupting the stored latch values.

Abstract: Aspects of the disclosure relate to managing enterprise security by utilizing a smart keyboard and a smart mouse. The smart keyboard may include pressure sensitive keys, a physical sensor configurable to detect a user characteristic associated with a user of the smart keyboard, an image capturing device configurable to capture an image of an activity in a vicinity of the smart keyboard, and a switch, communicatively coupled to the pressure sensitive keys, the physical sensor, and the image capturing device, where the switch is configurable to activate or deactivate the pressure sensitive keys, the physical sensor, and the image capturing device. The smart mouse may include a wheel, one or more pressure sensitive clickable components, and at least one physical sensor configurable to detect a user characteristic associated with a user of the smart mouse. Systems and methods for utilizing a smart keyboard and a smart mouse are also disclosed.

Abstract: An intelligent autonomous electrical vehicle platform assembly provides a mobile platform that comprises a self-motorized, electrical power drive to carry at least one platform container or passenger vehicle while being controlled remotely by an operator, or autonomously driven through artificial intelligence, or operated in a shared transportation system. The mobile platform has a platform chassis having wheels with a hub motor assembly contained therein. The hub motor is powered electrically from a battery charged by an external power source and/or a solar panel. The mobile platform carries a platform container that forms an enclosed area with various themes, including: a cargo transport area, a food and beverage area, a medical assistance area, or a home area having an inhabitant-assigned parking area and utility. The inhabitant of the mobile home receives creature comforts of a home environment, and controls movement, parking, energy, temperature, and payment options for the mobile home.

Abstract: A system and method for intelligent blockchain ride sharing distribution of autonomous electric vehicles. The electric vehicles accommodate commercial transport, public transport, and personal transport. The system and method includes a ride service network of autonomous, electric vehicles that are intelligently distributed through blockchain-regulated vehicle distribution means. The vehicle distribution means includes: on-demand, through reservations, and through traffic detection. A secure chain of data blocks from a blockchain represents the individual vehicle distribution transactions. The blockchain verifies that distribution of vehicles is efficient and accurate. The electric vehicles are defined by octagonal body frame powered by induction charging and/or solar energy charging of a battery for powering hub motors integrated into wheels at the outer corners of the body frame.

Abstract: A virtual environment system for validating executable data using authorized hash outputs is provided. In particular, the system may generate a virtual environment using a virtual environment device, where the virtual environment is logically and/or physically separated from other devices and/or environments within the network. The system may then open a specified set of executable data within the virtual environment and perform a set of commands or processes with respect to the executable data. If the system determines that the executable data is unsafe to run, the system may generate a hash output of the executable data and store the hash output in a database of unauthorized executable data. In this way, the system may securely generate a repository of authorized and unauthorized hashes such that the system may ensure that unsafe executable data is blocked from being processed within a network environment.

Abstract: A virtual environment system for validating using accelerated time-based process execution is provided. In particular, the system may generate a virtual environment using a virtual environment device, where the virtual environment is logically and/or physically separated from other devices and/or environments within the network. The system may then open a specified set of executable data within the virtual environment and perform a set of commands or processes with respect to the executable data. The set of commands or processes may be executed on an accelerated-time basis such that processes that would be executed on a longer timeline may be executed at a greater speed (e.g., a shorter timeline). In this way, the system may securely detect the presence of latent defects or issues that may arise from executing the code on a long-term basis.

Abstract: A system already on a network may be analyzed when the system takes an action or may be periodically reviewed. The analysis of the system may include the creation of an environment hash for the system, which is a representation of the configuration (e.g., hardware, software, or the like) of the system, and a comparison with hash requirements. The hash requirements may be stored authorized hashes, stored unauthorized hashes, past hashes for the same system, hashes for other systems with the same or similar configurations, or the like. When the environment hash of the system meets hash requirements, the system may be allowed to continue to operate on the system or may be allowed to take the action on the network. When the hash of the system fails to meet a hash requirement, the system may be isolated from the network and investigated for a non-compliant configuration.

Abstract: A virtual environment system for validating executable data using authorized hash outputs is provided. In particular, the system may generate a virtual environment using a virtual environment device, where the virtual environment is logically and/or physically separated from other devices and/or environments within the network. The system may then open a specified set of executable data within the virtual environment and perform a set of commands or processes with respect to the executable data. If the system determines that the executable data is safe to run, the system may generate a hash output of the executable data and store the hash output in a database of approved executable data. In this way, the system may securely generate a repository of authorized hashes such that the system may ensure that only safely executable code is processed by the computing systems within the network environment.

Abstract: A navigation system and method for an autonomous vehicle (AV) that includes a system controller and an environmental sensor. The system controller determines a fixed local frame (LCF) having a coordinate system originating at a fixed location in three-dimensional space. Additionally, the system controller determines an AV positional pose in LCF coordinates, which identifies an AV position in three-dimensional space and an AV orientation in three-dimensional space. An environmental sensor detects an asset feature of an asset moving within three-dimensional space. The system controller then identifies an asset feature frame (AFF) having a coordinate system originating at the asset feature. A localization module determines the AV positional pose in the AFF coordinates. The system controller then dynamically transforms the AV position pose from the LCF coordinates to the AFF coordinates and generates a motion control command based on the AV positional pose in the AFF coordinates.

Abstract: Systems, methods, and apparatuses are described herein that allow users to create and manage flexible, highly modular data processing pipelines. Such pipelines may be associated with any number of connected nodes connected via dependency injection to define the location and type of data that a pipeline uses as input or output and the operations to be performed by the pipeline. The pipelines may also be associated with context information, which specifies dataset-specific configurations and includes logic required to generate and execute the associated nodes. The context information may further include logic that allows for node substitution, caching of node output, data filtering, and/or dynamic node modification.

Abstract: Aspects of the disclosure relate to information security by identifying unique or related factors in common between individuals subject to a common threat vector. Data mining and data acquisition of public and non-public user information is performed to prevent, disrupt, and/or address criminal, cyber, and fraudulent threats. The information can be normalized into template(s) to align information across disparate datasets and enable efficient storage of the big data into appropriate fields to be tracked. The information can be stored in data warehouse(s) or in multidimensional data structure(s) for investigation if a threat vector against a group of individuals is detected. The multidimensional data can be analyzed to identify direct connections, common connecting entities, and/or connectivity clusters between individuals who were attacked or who may be attacked in the future.

Abstract: Example embodiments of systems and methods for application verification are provided. An application may generate a cryptographic key, and encrypt the cryptographic key with a predefined public key. A server, in data communication with the application, may include a predefined private key. The application may transmit the cryptographic key to the server. The server may receive, from the application, the cryptographic key; decrypt the cryptographic key using the predefined private key; encrypt an authorization token using the decrypted key; and transmit, to the client application, the authorization token via an out-of-band channel. The application may receive, from the server, the authorization token via the out-of-band channel; and decrypt the authorization token to obtain access to one or more services associated with the server.

Abstract: Techniques are described herein that are capable of evaluating a result of enforcement of access control policies instead of enforcing the access control policies. For instance, a result of enforcement of an access control policy with regard to sign-in processes is evaluated instead of enforcing the access control policy with regard to the sign-in processes. The evaluation includes monitoring access requests that are received during the sign-in processes. Each access request requests access to a resource. The evaluation further includes comparing attributes of each access request against the access control policy that specifies criteria that are to be satisfied as a prerequisite to granting access to the resource to which access is requested by the respective access request. Metadata associated with the sign-in processes is generated instead of enforcing the access control policy with regard to the sign-in processes.

Abstract: Aspects of the disclosure relate to account lineage tracking and automatically executing responsive actions upon detecting an account lineage. A computing platform may receive a first account-change message from a source-level interceptor. The first account-change message may include information identifying a source account associated with a first computing device and identifying a first target account. The first target account may be associated with a target application configured to access the target database. The computing platform may receive a second account-change message from a database-level interceptor. The second account-change message may include information identifying the first target account as a database-level source account and identifying a second target account associated with one or more target databases.

Abstract: Aspects of the disclosure relate to account lineage tracking and automatically executing responsive actions upon detecting an incomplete lineage chain. A computing platform may receive an account-change message from a database-level interceptor. The account-change message may include information identifying a first target account as a database-level source account and identifying a second target account associated with one or more target databases. The first target account may be associated with a target application configured to access the target database. After receiving the account-change message, the computing platform may determine, based on a failure to detect a source account associated with the first target account, that an account lineage chain associated with the account-change message is incomplete.