Abstract: A low-observable encryption device for facilitating communications includes an encryption unit for encrypting an egressing native packet received from a device to create an encrypted egressing native packet and adding a connectionless header to the encrypted egressing native packet to form an egressing connectionless datagram, a communication unit for receiving and adding a complex header to the egressing connectionless datagram for forming an egressing packet, and a computing unit for establishing a communication session between the computing unit and an external computing unit of an external encryption device, transmitting an identifier list comprising identifiers and an identifier selecting parameter to the external computing unit, and receiving and forwarding the egressing packet to the external computing unit during a time interval through a path identified by the computing unit and the external computing unit based on the identifier list and the identifier selecting parameter.

Abstract: An apparatus, system, and methods to use a low-observable encryption device that includes an encryption unit; a communication unit; and a computing unit, wherein a microprocessor comprises two encryption units. The low-observable encryption device may also include an interchangable device. In some embodiments, the interchangable device comprises a computing unit, a software defined radio, an electrical to optical converter, or a combination thereof. In some embodiments, power is delivered by a USB port. In some embodiments, an input interconnect comprises an Ethernet interface, a USB interface, a Wi-Fi interface, a radio interface, a SATCOM interface, or a Bluetooth interface. In some embodiments, an output interconnect comprises an Ethernet interface, a USB interface, a Wi-Fi interface, a radio interface, a SATCOM interface, or a Bluetooth interface.

Abstract: A low-observable encryption device for facilitating communications includes an encryption unit for encrypting an egressing native packet received from a device to create an encrypted egressing native packet and adding a connectionless header to the encrypted egressing native packet to form an egressing connectionless datagram, a communication unit for receiving and adding a complex header to the egressing connectionless datagram for forming an egressing packet, and a computing unit for establishing a communication session between the computing unit and an external computing unit of an external encryption device, transmitting an identifier list comprising identifiers and an identifier selecting parameter to the external computing unit, and receiving and forwarding the egressing packet to the external computing unit during a time interval through a path identified by the computing unit and the external computing unit based on the identifier list and the identifier selecting parameter.

Abstract: An encryption retransmission Industrial Internet of Things (IIoT) device for providing resiliency against attacks comprises a sensor for generating sensor data, a processing unit for analyzing the sensor data to generate analytics data, a network switch comprising ports, and encryption retransmission devices connected to the network switch through the ports.

Abstract: A system for facilitating secure updating of a machine learning model. The system includes a processing device and a first encryption device. The processing device generates a request and updates the machine learning model using an update. The first encryption device includes a first encryption unit and a first communication unit. The first encryption unit encrypts a native packet corresponding to the request and adds a connectionless header forming a first egressing connectionless datagram, decrypts a second encrypted native packet of an ingressing connectionless datagram to obtain the update.

Abstract: A system for facilitating fog computing and providing resiliency against attacks. The system comprises a data center device, a network switch, and encryption retransmission devices. The encryption retransmission devices comprise an encryption unit and a communication unit. The encryption unit encrypts an egressing native packet received from the network switch and adds a connectionless header forms an egressing connectionless datagram, and decrypts an encrypted ingressing native packet of an ingressing connectionless datagram. The communication unit adds a complex header to the egressing connectionless datagram for forming an egressing packet for delivery to an external encryption retransmission device, receives an ingressing packet comprising the encrypted ingressing native packet and a complex header from the external encryption retransmission device, removes the complex header and adds a connectionless header forming the ingressing connectionless datagram.

Abstract: A system facilitating attack-resilient communications between devices. The system comprises a master system comprising a master network switch and master encryption retransmission devices. The master encryption retransmission devices comprises a master encryption unit and a master communication unit communicatively coupled with the master encryption unit. The master system is configurable for connecting with a slave system comprising a slave network switch and slave encryption retransmission devices connected with the slave network switch. Each of a managing master encryption retransmission device and a managing slave encryption retransmission device receives a managing packet.

Abstract: A system for facilitating secure updating of a machine learning model. The system includes a processing device and a first encryption device. The processing device generates a request and updates the machine learning model using an update. The first encryption device includes a first encryption unit and a first communication unit. The first encryption unit encrypts a native packet corresponding to the request and adds a connectionless header forming a first egressing connectionless datagram, decrypts a second encrypted native packet of an ingressing connectionless datagram to obtain the update. The first communication unit adds a complex header to the first egressing connectionless datagram for forming a first packet for delivery to a second encryption device, receives a second packet comprising the second encrypted native packet and a complex header from the second encryption device, removes the complex header and adds a connectionless header for forming the ingressing connectionless datagram.

Abstract: An encryption retransmission device for providing resiliency against attacks. The encryption retransmission device includes an encryption unit, a communication unit, and a galvanic isolator. The encryption unit encrypts an egressing native packet and adds a connectionless header forms an egressing connectionless datagram, and decrypts an encrypted ingressing native packet of an ingressing connectionless datagram. The communication unit communicatively couples with the encryption unit, adds a complex header to the egressing connectionless datagram for forming an egressing packet for delivery to the first encryption retransmission device, receives an ingressing packet comprising the encrypted ingressing native packet and a complex header from the first encryption retransmission device, removes the complex header and adds a connectionless header for forming the ingressing connectionless datagram.

Abstract: An apparatus, system, and methods to use a low-observable encryption device that includes an encryption unit; a communication unit; and a computing unit, wherein a microprocessor comprises two encryption units. The low-observable encryption device may also include an interchangable device. In some embodiments, the interchangable device comprises a computing unit, a software defined radio, an electrical to optical converter, or a combination thereof. In some embodiments, power is delivered by a USB port. In some embodiments, an input interconnect comprises an Ethernet interface, a USB interface, a Wi-Fi interface, a radio interface, a SATCOM interface, or a Bluetooth interface. In some embodiments, an output interconnect comprises an Ethernet interface, a USB interface, a Wi-Fi interface, a radio interface, a SATCOM interface, or a Bluetooth interface.

Abstract: A system facilitating attack-resilient communications between devices. The system comprises a master system comprising a master network switch and master encryption retransmission devices. The master encryption retransmission devices comprises a master encryption unit and a master communication unit communicatively coupled with the master encryption unit. The master system is configurable for connecting with a slave system comprising a slave network switch and slave encryption retransmission devices connected with the slave network switch. Each of a managing master encryption retransmission device and a managing slave encryption retransmission device receives a managing packet.

Abstract: A system for facilitating fog computing and providing resiliency against attacks. The system comprises a data center device, a network switch, and encryption retransmission devices. The encryption retransmission devices comprise an encryption unit and a communication unit. The encryption unit encrypts an egressing native packet received from the network switch and adds a connectionless header forms an egressing connectionless datagram, and decrypts an encrypted ingressing native packet of an ingressing connectionless datagram. The communication unit adds a complex header to the egressing connectionless datagram for forming an egressing packet for delivery to an external encryption retransmission device, receives an ingressing packet comprising the encrypted ingressing native packet and a complex header from the external encryption retransmission device, removes the complex header and adds a connectionless header forming the ingressing connectionless datagram.

Abstract: A system for facilitating secure updating of a machine learning model. The system includes a processing device and a first encryption device. The processing device generates a request and updates the machine learning model using an update. The first encryption device includes a first encryption unit and a first communication unit. The first encryption unit encrypts a native packet corresponding to the request and adds a connectionless header forming a first egressing connectionless datagram, decrypts a second encrypted native packet of an ingressing connectionless datagram to obtain the update. The first communication unit adds a complex header to the first egressing connectionless datagram for forming a first packet for delivery to a second encryption device, receives a second packet comprising the second encrypted native packet and a complex header from the second encryption device, removes the complex header and adds a connectionless header for forming the ingressing connectionless datagram.

Abstract: An encryption retransmission device for providing resiliency against attacks. The encryption retransmission device includes an encryption unit, a communication unit, and a galvanic isolator. The encryption unit encrypts an egressing native packet and adds a connectionless header forms an egressing connectionless datagram, and decrypts an encrypted ingressing native packet of an ingressing connectionless datagram. The communication unit communicatively couples with the encryption unit, adds a complex header to the egressing connectionless datagram for forming an egressing packet for delivery to the first encryption retransmission device, receives an ingressing packet comprising the encrypted ingressing native packet and a complex header from the first encryption retransmission device, removes the complex header and adds a connectionless header for forming the ingressing connectionless datagram.

Abstract: An encryption retransmission Industrial Internet of Things (IIoT) device for providing resiliency against attacks comprises a sensor for generating sensor data, a processing unit for analyzing the sensor data to generate analytics data, a network switch comprising ports, and encryption retransmission devices connected to the network switch through the ports.

Abstract: A low-observable encryption device for facilitating communications includes an encryption unit for encrypting an egressing native packet received from a device to create an encrypted egressing native packet and adding a connectionless header to the encrypted egressing native packet to form an egressing connectionless datagram, a communication unit for receiving and adding a complex header to the egressing connectionless datagram for forming an egressing packet, and a computing unit for establishing a communication session between the computing unit and an external computing unit of an external encryption device, transmitting an identifier list comprising identifiers and an identifier selecting parameter to the external computing unit, and receiving and forwarding the egressing packet to the external computing unit during a time interval through a path identified by the computing unit and the external computing unit based on the identifier list and the identifier selecting parameter.

Abstract: An innovative method is implemented to determine a robocall and blocks the incoming communication deemed to be a robocall. The method leverages blockchain's shared storage, memory, and ability to transact all information across a network and independently verified and stored on the immutable blockchain. The method takes advantage high-speed cellular network to process each communication with high-speed. Further, the method integrates blockchain encryption, swarm intelligence (SI), artificial intelligence (AI) and machine learning (ML) algorithms, a telecommunication expert knowledge graph (TEKG), and real-time parsing of records to block robocalls and reduce connection delays. All modules can evolve and update themselves with each use of the present invention through various SI, AI, and ML technologies.

Abstract: An innovative method is implemented to determine a robocall and blocks the incoming communication deemed to be a robocall. The method leverages blockchain's shared storage, memory, and ability to transact all information across a network and independently verified and stored on the immutable blockchain. The method takes advantage high-speed cellular network to process each communication with high-speed. Further, the method integrates blockchain encryption, swarm intelligence (SI), artificial intelligence (AI) and machine learning (ML) algorithms, a telecommunication expert knowledge graph (TEKG), and real-time parsing of records to block robocalls and reduce connection delays. All modules can evolve and update themselves with each use of the present invention through various SI, AI, and ML technologies.