Abstract: Various methods, systems, and devices for treating tissue ablation are disclosed. Some embodiments disclosed herein pertain to methods of treating tumors, systems used for irradiating tissue and tumors with electromagnetic radiation, components and devices of that system, and kits for providing systems used for irradiating tissue and tumors with electromagnetic radiation. In some embodiments, the system provides sub-ablative infrared radiation that is absorbed by nanoparticles. In some embodiments, the nanoparticles absorb the radiation converting it into heat energy. In some embodiments, though the infrared radiation itself may be sub-ablative, the heat energy generated by the nanoparticles is sufficient to cause thermal coagulation, hyperthermia, and/or tissue ablation.

Abstract: Various methods, systems, and devices for treating tissue ablation are disclosed. Some embodiments disclosed herein pertain to methods of treating tumors, systems used for irradiating tissue and tumors with electromagnetic radiation, components and devices of that system, and kits for providing systems used for irradiating tissue and tumors with electromagnetic radiation. In some embodiments, the system provides sub-ablative infrared radiation that is absorbed by nanoparticles. In some embodiments, the nanoparticles absorb the radiation converting it into heat energy. In some embodiments, though the infrared radiation itself may be sub-ablative, the heat energy generated by the nanoparticles is sufficient to cause thermal coagulation, hyperthermia, and/or tissue ablation.

Abstract: Various methods, systems, and devices for treating tissue ablation are disclosed. Several embodiments disclosed herein pertain to methods of treating tumors, systems used for irradiating tissue and tumors with electromagnetic radiation, components and devices of that system, and kits for providing systems used for irradiating tissue and tumors with electromagnetic radiation. In several embodiments, the system can provide sub-ablative infrared radiation that can be absorbed by nanoparticles. In several embodiments, the nanoparticles absorb the radiation converting it into heat energy. In several embodiments, though the infrared radiation itself may be sub-ablative, the heat energy generated by the nanoparticles can be sufficient to cause thermal coagulation, hyperthermia, and/or tissue ablation.

Abstract: Various methods, systems, and devices for treating tissue ablation are disclosed. Some embodiments disclosed herein pertain to methods of treating tumors, systems used for irradiating tissue and tumors with electromagnetic radiation, components and devices of that system, and kits for providing systems used for irradiating tissue and tumors with electromagnetic radiation. In some embodiments, the system provides sub-ablative infrared radiation that is absorbed by nanoparticles. In some embodiments, the nanoparticles absorb the radiation converting it into heat energy. In some embodiments, though the infrared radiation itself may be sub-ablative, the heat energy generated by the nanoparticles is sufficient to cause thermal coagulation, hyperthermia, and/or tissue ablation.

Abstract: Various methods, systems, and devices for treating tissue ablation are disclosed. Some embodiments disclosed herein pertain to methods of treating tumors, systems used for irradiating tissue and tumors with electromagnetic radiation, components and devices of that system, and kits for providing systems used for irradiating tissue and tumors with electromagnetic radiation. In some embodiments, the system provides sub-ablative infrared radiation that is absorbed by nanoparticles. In some embodiments, the nanoparticles absorb the radiation converting it into heat energy. In some embodiments, though the infrared radiation itself may be sub-ablative, the heat energy generated by the nanoparticles is sufficient to cause thermal coagulation, hyperthermia, and/or tissue ablation.

Abstract: Various methods, systems, and devices for treating tissue ablation are disclosed. Some embodiments disclosed herein pertain to methods of treating tumors, systems used for irradiating tissue and tumors with electromagnetic radiation, components and devices of that system, and kits for providing systems used for irradiating tissue and tumors with electromagnetic radiation. In some embodiments, the system provides sub-ablative infrared radiation that is absorbed by nanoparticles. In some embodiments, the nanoparticles absorb the radiation converting it into heat energy. In some embodiments, though the infrared radiation itself may be sub-ablative, the heat energy generated by the nanoparticles is sufficient to cause thermal coagulation, hyperthermia, and/or tissue ablation.

Abstract: Various methods, systems, and devices for treating tissue ablation are disclosed. Some embodiments disclosed herein pertain to methods of treating tumors, systems used for irradiating tissue and tumors with electromagnetic radiation, components and devices of that system, and kits for providing systems used for irradiating tissue and tumors with electromagnetic radiation. In some embodiments, the system provides sub-ablative infrared radiation that is absorbed by nanoparticles. In some embodiments, the nanoparticles absorb the radiation converting it into heat energy. In some embodiments, though the infrared radiation itself may be sub-ablative, the heat energy generated by the nanoparticles is sufficient to cause thermal coagulation, hyperthermia, and/or tissue ablation.

Abstract: Various methods, systems, and devices for treating tissue ablation are disclosed. Some embodiments disclosed herein pertain to methods of treating tumors, systems used for irradiating tissue and tumors with electromagnetic radiation, components and devices of that system, and kits for providing systems used for irradiating tissue and tumors with electromagnetic radiation. In some embodiments, the system provides sub-ablative infrared radiation that is absorbed by nanoparticles. In some embodiments, the nanoparticles absorb the radiation converting it into heat energy. In some embodiments, though the infrared radiation itself may be sub-ablative, the heat energy generated by the nanoparticles is sufficient to cause thermal coagulation, hyperthermia, and/or tissue ablation.

Abstract: A switched outlet module which controls power to one or more electrically powered devices which are connected to the module and which are under the control of a wall switch has a plurality of output jacks. A first pair of output jacks are switched outlet jacks and a second pair of output jacks are unswitched outlet jacks. A switching device is coupled to the plurality of outlet jacks to control which of the plurality of output jacks are the switched output jacks. Connectors are coupled to the switched outlet jacks for connecting remote controlled devices that control electronic devices coupled to the switched outlet jacks. Control circuitry is coupled to the switching device to monitor and limit a current through the switched outlet jacks, to monitor and limit a current through the switching device, and to interpret signals from remote controlled devices coupled to the connectors. Contacts are coupled to the control circuitry to couple the module to a switched electrical receptacle.

Abstract: A switched outlet module which controls power to one or more electrically powered devices which are connected to the module and which are under the control of a wall switch has outlet jacks wherein at least one outlet jack is a switched outlet jack and at least one outlet jack is an unswitched outlet jack. A switching device is coupled to the outlet jacks to control whether the switched outlet receptacle is on the top or bottom of the wall receptacle. Connectors are coupled to the switched outlet jack for connecting remote controlled devices that control device coupled to the switched outlet jack. Control circuitry is coupled to the switching device to monitor and limit a current through the switched outlet jack, to monitor and limit a current through the switching device, and to interpret signals from remote controlled devices coupled to the connectors. Contacts are coupled to the control circuitry to couple the module to a switched electrical receptacle.

Abstract: A loop-current regulator for protecting terminal telephone equipment coupled to telephone lines from high telephone line loop-current. The loop-current regulator has a current regulator for protecting the terminal telephone equipment from excess power generated by current signals which pass through the telephone lines to the terminal telephone equipment. A signal network circuit is coupled to the current regulator for providing an alternating current (AC) path for AC signals to pass by the current regulator while minimizing attenuation of the AC signals. A bridge rectifier circuit is coupled to the current regulator, the signal network circuit, and the telephone lines for allowing the current signals to pass in only a single direction through the current regulator and the signal network circuit regardless of the polarity of the telephone lines.

Abstract: A combined audio system and automatic electronic audio signal attenuating device is disclosed which provides an audio system combined with an automatic electronic audio signal attenuating device comprising an audio attenuation portion for attenuating audio signals and a plurality of network interface portions for controlling the audio attenuation portion in response to changes in telephone system inputs to the network interfaces. In addition, the audio attenuation portion is provided with at least two separate audio input/output connections to provide a plurality of configurations of the attenuating portion to yield different degrees of audio signal attenuation. The combined audio system and automatic electronic audio signal attenuating device can accommodate plurality of telephones in addition to a plurality of audio signal channels.