Abstract: Provided are system and method for establishing a topology for advertising supplicants a network. According to embodiments, the system may include: a memory storage storing computer-executable instructions; and at least one processor communicatively coupled to the memory storage, wherein the at least one processor may be configured to execute the instructions to: create a first authentication list for a first network entity, wherein the first authentication list specify one or more network entities that are authenticated with the first network entity; and advertise the first authentication list to a second agent deployed in a second network entity, wherein the second network entity is authenticated with the first network entity.

Abstract: In an aspect, an apparatus for managing credentials is presented. The apparatus includes a processor and a memory communicatively connected to the processor. The memory contains instructions configuring the processor to receive a user request. The processor is configured to authenticate the user request through an authentication module. The processor is configured to combine the authentication data with the user request to generate an authentication request. The processor is configured to communicate the authentication request to an authorization module. The processor is configured to authorize the user request at the authorization module based on the authentication data. The processor is configured to sign the user request to generate a user signature, wherein the user signature provides a user with access to an immutable sequential listing.

Abstract: A computer-implemented method for controlling access to a site, comprising an enrollment phase and a control phase. The enrollment phase produces a signed enrollment hash based on enrollment data, and the hash is delivered to the sender of the enrollment data. The control phase produces a result indicating whether requested access to the site should be accepted, based on proof data comprising a proof hash in the form of a signed enrollment hash.

Abstract: Systems and methods are presented herein which are configured to provide access to high quality, verifiable random numbers from entropy sources including quantum entropy sources on-demand through application program interfaces (APIs) and other interfaces. A Randomness as a Service (RaaS) provider system can be configured to host an API offering random numbers from a predetermined selection of entropy types and may offer other selections and/or data such as specific entropy source, health check data associated with the random number, source verification data, etc. A RaaS management system can be configured to make requests to one or more RaaS provider systems for random numbers of specific entropy type(s) and then perform cryptographic functions on random numbers and/or pass random numbers to an end user system.

Abstract: System, methods, and machine-readable media may facilitate minimally monitored anomaly source detection based on seasonality. Time series data individually corresponding to entities may be obtained. For each entity or for each cluster of entities, statistical parameter fingerprints may be generated. For each entity or cluster, the statistical parameter fingerprints may be updated using a weighted averaging technique that incorporates newly received time series data. The statistical parameter fingerprints for a given entity or cluster may be compared across the time horizons to detect discrepancies indicative of seasonality. Anomaly detection thresholds may be defined for each time horizon based on the corresponding statistical parameter fingerprints. An anomalous value in the time series data of an entity or cluster may be detected by determining that a value falls outside the anomaly detection threshold for at least one time horizon. Automated interventions may be performed based on a severity assessment.

Abstract: This disclosure relates to systems and methods for managing connected devices and associated network connections. In certain embodiments, trust, privacy, safety, and/or security of information communicated between connected devices may be established in part through use of security associations and/or shared group tokens. In some embodiments, these security associations may be used to form an explicit private network associated with the user. A user may add and/or manage devices included in the explicit private network through management of various security associations associated with the network's constituent devices.

Abstract: Techniques and systems for detecting malicious activity within a network are provided herein. A method for detecting malicious activity within a network may include receiving, by a network-based authentication system, a network transaction. The network-based authentication system may identify a first attribute of the network transaction. The method may also include selecting, by the network-based authentication system, a first learning statistical model and a second learning statistical model from a plurality of models for handling the network transaction. Each of the first learning statistical model and the second learning statistical model may create a likelihood that the network transaction is authentic. The first learning statistical model may calculate a first score and the second learning statistical score may calculate a second score. Based on a comparison of the first score to a first threshold and the second score to a second threshold, the network transaction may be authenticated.

Abstract: Techniques for secure communication between an operational technology (OT) network and an information technology (IT) network are described. In one aspect, for secure communication, a data diode comprising a transmitting end and a receiving end to facilitate unidirectional communication between a source network and a destination network is provided. The source and destination network are any one of the OT network and the IT network. Further, a folder-based data exchange module communicatively coupled to the receiving end of the data diode is provided to facilitate exchange of data between the source network and the destination network through one or more files, where the one or more files include data to be communicated between the OT network and the IT network. Further, the folder-based data exchange module comprises a first folder to store files designated for the destination network and a second folder to store files designated for the source network.

Abstract: A system for secure packet recordation in multisource virtual environments includes: a computing system having one or more processor and a network connection for operatively connecting the computing system to a modeling server providing a geometric model. The computing system, upon user navigation action directed to the first modeling server, accesses the first geometric model and causes display a three dimensional virtual environment based. An asset indicium representing a virtual asset of the user and a graphical representation of a secure packet are displayed. Upon a deposit request by the user, the first virtual asset is received into the secure packet. Upon user navigation directed away from the first modeling server, display of the three dimensional virtual environment is terminated, for example as a user explores another environment. In the absence of user attention, a content record is maintained including tabulation of at least the first virtual asset.

Abstract: A communication apparatus includes a main system configured to perform first authentication processing and a subsystem configured to perform second authentication processing. The main system includes an authentication control unit configured to control the main system or the subsystem to perform authentication processing for connecting to a network. The main system includes a power saving control unit configured to control the main system to transition to a power saving state from a normal state, in which the main system performs the first authentication processing. The subsystem includes a communication unit configured to transmit and receive data through the network. The subsystem includes an event processing unit configured to, in response to occurrence of a predetermined event relating to connection to the network when the main system is in the power saving state, process the predetermined event without controlling the main system to transition to the normal state.

Abstract: Aspects of the subject technology include determining an association between a first and second user account that comprises a first condition corresponding to a first action to be performed in association with the first user account and a second condition corresponding to a second action to be performed in association with the second user account. Aspects also include generating a first entry based on the association, receiving a first indication indicating completion the first and/or second actions, generating a second entry based on the first indication, wherein the second entry corresponds to the first and/or second conditions, determining whether the first and second condition of the first entry are satisfied based in part on entries in the data structure that correspond to the first and/or second conditions, and transmitting a second indication that the first entry is complete, in response to determining that the first and second condition are satisfied.

Abstract: A verification system includes: a first verification device that verifies integrity of a first verification target; and a second verification device that has a higher security privilege than the first verification device and verifies integrity of the first verification device.

Abstract: A method for embedding an Internet of Things Universal Identifier (IoT UID) into one or more Greenfield devices is provided. The method includes manufacturing one or more Greenfield devices, and generating device property data based at least in part on the one or more Greenfield devices. The method further includes transmitting, to an Internet of Things (IoT) device registrar server, a registration request that includes the device property data. The method further includes interpreting one or more Internet of Things Universal Identifiers (IoT UIDs) generated in response to the transmitting of the registration request. The method further includes embedding the one or more IoT UIDs in the one or more Greenfield devices.

Abstract: Methods, systems, and devices are described for orchestrating server management in a modern IT network. The described techniques may be implemented to manage any number of networked severs, whether local, remote, or both. Server orchestration may leverage a central, cloud-based management system and/or one or more autonomous agents installed on servers with the network. The autonomous agents may each be registered with the supervisory server and may have awareness of one another.

Abstract: A PLC includes a storage configured to include a master area and a plurality of user areas corresponding to a plurality of users, a user authenticator that authenticates each user of the plurality of users, and a version controller that causes a first dataset created by the user authenticated by the user authenticator to be stored in the storage and implements version control of the first dataset. The version controller causes the first dataset to be stored in the master area or a user area of the plurality of user areas that corresponds to the user authenticated by the user authenticator, in association with a second dataset that is already stored in the storage and that serves as an immediate parent of the first dataset.

Abstract: The present disclosure relates generally to systems and methods for providing dynamic access levels based upon permitted provision of client system data. In particular, proactive blocking of access to protected systems, protected services, or both may be implemented when client system electronic data provision requirements of the protected systems, the protected services, or both are not met.

Abstract: Systems and methods of video password based user authentication via machine learning techniques are disclosed. In one embodiment, an exemplary computer-implemented method may comprise: receiving a request to register a video password from a first user; establishing at least one user-specific authentication criterion for the first user based on first video password data; receiving a login attempt from a second computing device associated with a second user who submits to be the first user, the login attempt comprising second video password data; utilizing a trained video password authentication machine learning model to determine a first comparison result and a second comparison result based on the first and second video password data, and accepting or rejecting the login attempt based on at least one of the first comparison result and the second comparison result.

Abstract: Embodiments of the present invention provide a system for identifying and blocking synthetic media based misappropriation attempts associated with electronic communications. The system is configured for identifying initiation of an authentication request from a user device of a user, monitoring and recording user characteristics via the user device, capturing user environment data of the user, via the user device, analyzing the user characteristics and the user environment data of the user, via an artificial intelligence engine, determining, via the artificial intelligence engine, if the authentication request is a misappropriation attempt based on at least one of the user characteristics and the user environment data, and performing an action comprising authenticating the user based on determining that the authentication request is not a misappropriation attempt or denying authentication of the user based on determining that the authentication request is a misappropriation attempt.

Abstract: This application provides a communication method and apparatus. The method includes: A first network element receives a first request message from a second network element, where the first request message is used to request to perform a first operation on a first terminal device. The first network element determines, based on the first request message, whether the second network element is authorized to request to perform the first operation on the first terminal device. Whether a network element that sends a request message is authorized to request to perform a related operation is verified, to determine whether the network element is an attacker. This reduces impact on a system service resulting from requests of an attacker and improves system security.

Abstract: A central computing platform provides users with control over multi-party information involving third-party services during different stages of a travel journey, or while users are provided with data connectivity via different networks or systems. The central computing platform provides a digital ledger on which the multi-party information is recorded. Recording of the multi-party information, as well as modification thereof, requires authentication of each party as well as input (e.g., approval) by the computing platform. The central computing platform can be communicatively coupled with local networks, such as cellular networks, as well as mobile platforms or in-vehicle connectivity systems to which user devices can be connected. As a result, the central computing platform is involved in generation, recording, modification, and fulfillment of multi-party arrangements between users and third-party services.