Abstract: A system configured to assist blockchain-based Internet of Things (IoT) applications connect with one another and share data securely and privately is described. The system includes an IoT network configured to interact with a blockchain network. The IoT network includes IoT systems, which include IoT devices that comprise sensors. The blockchain network includes a mainchain and sidechains. Each sidechain includes a consensus protocol that run on each node and is configured to increase data and synchronization between nodes. The consensus protocol utilizes a reasoning mechanism to enable each node to deduce states of events on other nodes, a gossip algorithm to synchronize data between nodes, and a vector clock algorithm in a knowledge graph deployed on every node to allow the event created during synchronization to be linked to the previous two events.

Abstract: One embodiment of the present invention provides a system that associates a digital certificate with an enterprise profile. During operation, an identity store receives a digital certificate from a client. Next, the identity store searches for a mapping rule which determines if an enterprise profile is associated with the digital certificate, wherein the enterprise profile facilitates in identifying user capabilities. If a mapping rule is found, the identity store executes the mapping rule to determine if an enterprise profile is associated with the digital certificate. If so, the enterprise profile, which is associated with the digital certificate, is returned to the client.

Abstract: An electronic module comprises (a) an electrical assembly of electrical components and a cap. The cap surrounds a portion of the electrical assembly of electrical components to form a pocket between a portion of the electrical assembly of electrical components and the cap. The cap has at least one sidewall, each of the at least one sidewalls having an end, one of at least one sidewalls proximately positioned to at least one electrical lead and having at least one notch positioned in the end, the pocket filled with an encapsulant. A process comprises providing a cap and filling the cap with encapsulant, placing an electrical assembly of electrical components in the cap filled with the preselected amount of encapsulant, and allowing the electrical assembly to seat to a proper depth.

Abstract: An electronic module comprises (a) an electrical assembly of electrical components and a cap. The cap surrounds a portion of the electrical assembly of electrical components to form a pocket between a portion of the electrical assembly of electrical components and the cap. The cap has at least one sidewall, each of the at least one sidewalls having an end, one of at least one sidewalls proximately positioned to at least one electrical lead and having at least one notch positioned in the end, the pocket filled with an encapsulant. A process comprises providing a cap and filling the cap with encapsulant, placing an electrical assembly of electrical components in the cap filled with the preselected amount of encapsulant, and allowing the electrical assembly to seat to a proper depth.

Abstract: An electronic module comprises (a) an electrical assembly of electrical components and a cap. The cap surrounds a portion of the electrical assembly of electrical components to form a pocket between a portion of the electrical assembly of electrical components and the cap. The cap has at least one sidewall, each of the at least one sidewalls having an end, one of at least one sidewalls proximately positioned to at least one electrical lead and having at least one notch positioned in the end, the pocket filled with an encapsulant. A process comprises providing a cap and filling the cap with encapsulant, placing an electrical assembly of electrical components in the cap filled with the preselected amount of encapsulant, and allowing the electrical assembly to seat to a proper depth.