Abstract: Techniques for discovering a network using a sensor installed in the network, where the network is communicatively coupled to an external network by a router, are presented. The techniques can include: determining, automatically and by the sensor, a network address of the router; detecting, automatically and by the sensor, a network address of a client in the network; assessing, automatically and by the sensor, that the client in the network is actively communicating on the network; communicating, by the sensor, with the network address of the router; and participating, by the sensor, in communications on the network by emulating the network address of the client and by using the network address of the router.

Abstract: A computer-implemented method of identifying associated communications between a first network with a first addressing scheme and a second network with a second addressing scheme is presented. The technique can include: detecting a first protocol data unit addressed from a first device in the first network and addressed to a destination in the second network, prior to translation by a network address translator; inserting, prior to translation from the first addressing scheme to the second addressing scheme, a breadcrumb protocol data unit that is addressed to the second network, the breadcrumb protocol data unit including, in a location immune from address translation by the network address translator, the source address of the first protocol data unit; receiving a translated breadcrumb protocol data unit; and reporting an association of the source address of the first protocol data unit with the translated source address of the first protocol data unit.

Abstract: A computer-implemented method of identifying associated communications between a first network with a first addressing scheme and a second network with a second addressing scheme is presented. The technique can include: detecting a first protocol data unit addressed from a first device in the first network and addressed to a destination in the second network, prior to translation by a network address translator; inserting, prior to translation from the first addressing scheme to the second addressing scheme, a breadcrumb protocol data unit that is addressed to the second network, the breadcrumb protocol data unit including, in a location immune from address translation by the network address translator, the source address of the first protocol data unit; receiving a translated breadcrumb protocol data unit; and reporting an association of the source address of the first protocol data unit with the translated source address of the first protocol data unit.

Abstract: Techniques for discovering a network using a sensor installed in the network, where the network is communicatively coupled to an external network by a router, are presented. The techniques can include: determining, automatically and by the sensor, a network address of the router; detecting, automatically and by the sensor, a network address of a client in the network; assessing, automatically and by the sensor, that the client in the network is actively communicating on the network; communicating, by the sensor, with the network address of the router; and participating, by the sensor, in communications on the network by emulating the network address of the client and by using the network address of the router.

Abstract: A computer-implemented method of identifying associated communications between a first network with a first addressing scheme and a second network with a second addressing scheme is presented. The technique can include: detecting a first protocol data unit addressed from a first device in the first network and addressed to a destination in the second network, prior to translation by a network address translator; inserting, prior to translation from the first addressing scheme to the second addressing scheme, a breadcrumb protocol data unit that is addressed to the second network, the breadcrumb protocol data unit including, in a location immune from address translation by the network address translator, the source address of the first protocol data unit; receiving a translated breadcrumb protocol data unit; and reporting an association of the source address of the first protocol data unit with the translated source address of the first protocol data unit.

Abstract: Designs, strategies and methods for forming micro-batteries are described. In some examples, ultrasonic welded seals may be used to seal battery chemistry within the micro-battery. In some further examples, the micro-battery is encapsulated by a copper film where at least a portion of the copper film is formed by electroless plating.

Abstract: Designs, strategies and methods for forming micro-batteries are described. In some examples, ultrasonic welded seals may be used to seal battery chemistry within the micro-battery. In some further examples, the micro-battery is encapsulated by a copper film where at least a portion of the copper film is formed by electroless plating.

Abstract: Designs, strategies and methods for forming micro-batteries are described. In some examples, ultrasonic welded seals may be used to seal battery chemistry within the micro-battery. In some further examples, the micro-battery is encapsulated by a copper film where at least a portion of the copper film is formed by electroless plating.

Abstract: Designs, strategies and methods for forming micro-batteries are described. In some examples, ultrasonic welded seals may be used to seal battery chemistry within the micro-battery. In some further examples, the micro-battery is encapsulated by a copper film where at least a portion of the copper film is formed by electroless plating.

Abstract: Designs, strategies and methods for forming micro-batteries are described. In some examples, ultrasonic welded seals may be used to seal battery chemistry within the micro-battery. In some further examples, the micro-battery is encapsulated by a copper film where at least a portion of the copper film is formed by electroless plating.

Abstract: A system receives suspect traffic information pertaining to possible network threats. A router detects and redirects suspect traffic from within a subnetwork to an interrogation module. The interrogation module receives the redirected suspect traffic and identifies the source device from within the subnetwork. The interrogation module can also identify the type of suspect traffic, the original destination of the suspect traffic and the protocol type of the packet. Suspect traffic information can be updated and the router can be reconfigured to accommodate the updated information.