Abstract: A method is provided for automating management of automatic renewal of a public key infrastructure (PKI) certificate issued by a certificate authority (CA) for a subscriber. The method includes steps of causing the subscriber to (i) transmit a first alert to a management entity for initiating renewal of the PKI certificate, and (ii) transmit a certificate signing request (CSR) to a registration authority (RA) for issuance of a renewal certificate. The method further includes steps of (iii) transmitting, from the RA to the CA, the CSR signed by the RA, (iv) receiving, at the RA from the CA, an issued renewal certificate signed by the CA, (v) sending, from the RA to the subscriber, the issued renewal certificate signed by the CA, and (vi) causing the subscriber to transmit a second alert to a management entity indicating renewal of the PKI certificate.

Abstract: A method for distributed wireless encryption includes (a) establishing, at a first wireless access point (WAP), a first encrypted wireless communication link between the first WAP and a first device, (b) receiving, at the first WAP, an encrypted data packet from the first device via the first encrypted wireless communication link, and (c) forwarding the encrypted data packet from the first WAP to a first node within the first local area network (LAN), without decrypting the encrypted data packet.

Abstract: Minimizing latency when streaming media, such as but not necessarily limited to limiting or otherwise ameliorating polling latency, network response latency and/or other communication related latencies, is contemplated. The latency minimization may include facilitating long polling or otherwise facilitating instantaneously transmitting requested media once available.

Abstract: Service discovery and other operations related to enabling devices to announce, discover or otherwise control their services and/or the services offered or available from other devices is contemplated. The service discovery may facilitate service discovery for services sourced from devices inside and outside of a network and/or from devices having incompatible messaging capabilities.

Abstract: A wireless communication system includes an external provider subsystem and an electronic network subsystem in operable communication with the external provider subsystem. The electronic network subsystem is configured to provide a first microservice and a second microservice different from the first microservice. The wireless communication system further includes an in-home subsystem (i) separate from the external provider subsystem, (ii) in operable communication with the electronic network subsystem, and (iii) including a first micronet and a second micronet different from the first micronet. The first micronet is configured to operably interact with the first microservice, and the second micronet is configured to operably interact with the second microservice. The wireless communication system further includes at least one electronic device configured to operably connect with one of the first micronet and the second micronet.

Abstract: Service discovery and other operations related to enabling devices to announce, discover or otherwise control their services and/or the services offered or available from other devices is contemplated. The service discovery may facilitate service discovery for services sourced from devices inside and outside of a network and/or from devices having incompatible messaging capabilities.

Abstract: Minimizing latency when streaming media, such as but not necessary limited to limiting or otherwise ameliorating polling latency, network response latency and/or other communication related latencies, is contemplated. The latency minimization may include facilitating long polling or otherwise facilitating instantaneously transmitting requested media once available.

Abstract: A system for monitoring the communication with a connected Internet of Things (IoT) device is provided. The system includes a first computing device including a least one processor in communication with at least one memory device. The at least one memory device stores a plurality of instructions, which when executed by the at least one processor cause the at least one processor to execute an IoT device communication application. The IoT device communication application monitors the IoT device. The instructions also cause the at least one processor to store IoT device data including a current location of the IoT device, determine an optimal communication path between the IoT device communication application and the IoT device based on the IoT device data, and transfer execution of the IoT device communication application to a second computing device based on the optimal communication path.

Abstract: Authenticating a device is contemplated. The authenticating may include generating an authentication sufficient to represent trust in an identity of a device when being provisioned or re-provisioned for network access, reconciling inventory management and/or otherwise performing operations dependent on trust.

Abstract: A system for monitoring the security of a connected Internet of Things (IoT) device is provided. The system includes a network doppelgänger (ND) computer device. The ND computer device is in communication with the IoT device and a service provider computer device associated with the IoT device. The ND computer device is programmed to store a plurality of policies associated with the service provider computer device. The ND computer device is also programmed to receive a communication from the IoT device addressed to the service provider computer device. The ND computer device is further programmed to analyze the communication in view of the plurality of policies to determine whether the communication is approved. If the communication is approved, the ND computer device is programmed to route the communication to the service provider computer device.

Abstract: A public key infrastructure (PKI) ecosystem includes a first organization computer system having a first processor, a first memory, and a first organization process including instructions that are (i) encoded in the first memory, and (ii) executable by the first processor. The ecosystem further includes a second organization computer system having a second processor and a second memory, a digital ledger, and domain name system security extensions (DNSSEC). When executed, the first instructions cause the first processor to create at least one public/private PKI keypair for a first domain name, in the DNSSEC, register the first domain name and create a certificate authority (CA), register the CA in the blockchain, using the CA, create a certificate for a first entity, register the certificate in the blockchain and/or the DNSSEC, and assert, to the second organization computer system, trust in the first entity based on the registered certificate.

Abstract: Authenticating devices utilizing Transport Layer Security (TLS) protocol to facilitate exchange of authentication information or other data to permit or otherwise enable access to services requiring authentication credentials, certificates, tokens or other information. The authentication may utilize Digital Transmission Content Protection (DTCP) certificates, Diffie-Hellman (DH) parameters or other information available to the authenticating devices, optionally without requiring device requesting authentication to obtain an X.509 certificate.

Abstract: Authenticating devices utilizing Transport Layer Security (TLS) protocol to facilitate exchange of authentication information or other data to permit or otherwise enable access to services requiring authentication credentials, certificates, tokens or other information. The authentication may utilize Digital Transmission Content Protection (DTCP) certificates, Diffie-Hellman (DH) parameters or other information available to the authenticating devices, optionally without requiring device requesting authentication to obtain an X.509 certificate.

Abstract: Disclosed is a dynamic-PKI social Certificate Authority (CA) system and method. The present system and method generates and issues certificates at deployment time instead of manufacture time. In an embodiment, the system and method utilizes an interface to initiate a Certificate Signing Request (CSR) and generates and signs the CSR with a public key. The signed CSR is then securely transmitted to a Certificate Signing Request Processor (CSRP), which undergoes an optional verification process and is then processed to return a signed cert. The signed cert is then directly or indirectly provided to the device for provisioning into the network.

Abstract: Service discovery and other operations related to enabling devices to announce, discover or otherwise control their services and/or the services offered or available from other devices is contemplated. The service discovery may facilitate service discovery for services sourced from devices inside and outside of a network and/or from devices having incompatible messaging capabilities.

Abstract: Service discovery and other operations related to enabling devices to announce, discover or otherwise control their services and/or the services offered or available from other devices is contemplated. The service discovery may facilitating service discovery for services sourced from devices inside and outside of a network and/or from devices having incompatible messaging capabilities.

Abstract: Minimizing latency when streaming media, such as but not necessary limited to limiting or otherwise ameliorating polling latency, network response latency and/or other communication related latencies, is contemplated. The latency minimization may include facilitating long polling or otherwise facilitating instantaneously transmitting requested media once available.

Abstract: Authenticating devices utilizing Transport Layer Security (TLS) protocol to facilitate exchange of authentication information or other data to permit or otherwise enable access to services requiring authentication credentials, certificates, tokens or other information. The authentication may utilize Digital Transmission Content Protection (DTCP) certificates, Diffie-Hellman (DH) parameters or other information available to the authenticating devices, optionally without requiring device requesting authentication to obtain an X.509 certificate.

Abstract: Authenticating devices utilizing Transport Layer Security (TLS) protocol to facilitate exchange of authentication information or other data to permit or otherwise enable access to services requiring authentication credentials, certificates, tokens or other information. The authentication may utilize Digital Transmission Content Protection (DTCP) certificates, Diffie-Hellman (DH) parameters or other information available to the authenticating devices, optionally without requiring device requesting authentication to obtain an X.509 certificate.

Abstract: Service discovery and other operations related to enabling devices to announce, discover or otherwise control their services and/or the services offered or available from other devices is contemplated. The service discovery may facilitating service discovery for services sourced from devices inside and outside of a network and/or from devices having incompatible messaging capabilities.