Abstract: A system for cooling a data center and energy recovery includes at least one electronics cabinet having electronics, a heat exchanger tank having heat exchanger piping, and closed loop nitrogen gas piping coupling the at least one electronics cabinet to the heat exchanger piping and configured to recirculate nitrogen gas. Heated nitrogen gas from the at least one electronics cabinet enters the heat exchanger tank via the closed loop piping, which causes the liquid nitrogen to vaporize. The system also includes an engine, a generator coupled to the engine, and outlet piping coupled to a top portion of the heat exchanger tank and to the engine. Energy from the vaporized nitrogen is utilized to drive the engine, which generates rotary motion to drive the generator to produce electricity. The system includes a condenser coupled to the engine to collect the nitrogen gas exiting the engine to repeat the cycle.

Abstract: A data center cooling system includes an air handler, a blower coupled to the air handler, and a thermal-polarization pipe coupled to the blower. The blower is configured to supply air through the thermal-polarization pipe. The system also includes at least one pressure box coupled to the thermal-polarization pipe, where the at least one pressure box is configured to house electronics. The thermal-polarization pipe includes an inner tube, an outer tube surrounding the inner tube and forming an annular cavity between the inner and outer tubes, and a thermal-polarization membrane carried by an outer surface of the inner tube.

Abstract: A data center cooling system includes an air handler, a blower coupled to the air handler, and a thermal-polarization pipe coupled to the blower. The blower is configured to supply air through the thermal-polarization pipe. The system also includes at least one pressure box coupled to the thermal-polarization pipe, where the at least one pressure box is configured to house electronics. The thermal-polarization pipe includes an inner tube, an outer tube surrounding the inner tube and forming an annular cavity between the inner and outer tubes, and a thermal-polarization membrane carried by an outer surface of the inner tube.

Abstract: An integrated building monitoring system including a conductive grid having a plurality of rows, where each row has a plurality of interwoven positive and negative electrodes forming a hexagon pattern, and the conductive grid is integrated within a wall. The system also includes a plurality of signal nodes, where a signal node is coupled to a respective row and each of the rows is insulated from one another. A controller is coupled to the plurality of signal nodes and has a current sensing circuit. In addition, the current sensing circuit is configured to measure the current for each of the rows of the conductive grid to sense when an electrical signal from a row of the conductive grid indicates that moisture is present within the wall when a voltage is applied.

Abstract: An integrated building monitoring system including a conductive grid having a plurality of rows, where each row has a plurality of interwoven positive and negative electrodes forming a hexagon pattern, and the conductive grid is integrated within a wall. The system also includes a plurality of signal nodes, where a signal node is coupled to a respective row and each of the rows is insulated from one another. A controller is coupled to the plurality of signal nodes and has a current sensing circuit. In addition, the current sensing circuit is configured to measure the current for each of the rows of the conductive grid to sense when an electrical signal from a row of the conductive grid indicates that moisture is present within the wall when a voltage is applied.

Abstract: A system and method of cooling and ventilating for an electronics cabinet is disclosed. In a particular embodiment, the system includes a cooling unit and a distribution unit in communication with the cooling unit to blow supply air through at least one main supply line. The system further includes at least one supply branch line connected to the at least one main supply line, at least one cabinet supply line connected to the at least one supply branch line, and at least one cabinet having an inlet port and an exit port, wherein the at least one cabinet supply line is connected to the inlet port. In addition, the system includes at least one cabinet return line connected to the exit port and a main return line to receive air exiting from the at least one cabinet, wherein the main return line is in communication with the cooling unit.

Abstract: Consumer data that is submitted through a company's website is tagged and then monitored to assure that the consumer data is not used for unauthorized purposes. A filtering program is capable of identifying pre-authorized users and routing the consumer data only to those pre-authorized users. A banner logo or seal is used to identify websites that comply with pre-determined standards for maintaining the security and privacy of website submissions. The banner logo or seal is automatically removed from a company's website for the failure of the company to maintain compliance with security and privacy standards of consumer data.

Abstract: A system and method of cooling and ventilating for an electronics cabinet is disclosed. In a particular embodiment, the system includes a cooling unit and a distribution unit in communication with the cooling unit to blow supply air through at least one main supply line. The system further includes at least one supply branch line connected to the at least one main supply line, at least one cabinet supply line connected to the at least one supply branch line, and at least one cabinet having an inlet port and an exit port, wherein the at least one cabinet supply line is connected to the inlet port. In addition, the system includes at least one cabinet return line connected to the exit port and a main return line to receive air exiting from the at least one cabinet, wherein the main return line is in communication with the cooling unit.