Abstract: A universal replaceable fan unit and method of reversing an airflow direction of a universal replaceable fan unit is provided. The universal replaceable fan unit includes a fan assembly designed to create an airflow from an intake end to an output end. The universal replaceable fan unit also includes a fan mounting that receives and secures the fan assembly in an operable position. The fan mounting includes a frame member and a securing member. The fan mounting is designed to allow the fan assembly to be moved between a first position defining a first airflow direction and a second position defining a second airflow direction. The first airflow direction is opposite the second airflow direction. The universal replaceable fan unit further includes an electrical connector removably attached to the fan assembly. The electrical connector allows electricity to be provided to the fan assembly for operation.

Abstract: A universal replaceable fan unit and method of reversing an airflow direction of a universal replaceable fan unit is provided. The universal replaceable fan unit includes a fan assembly designed to create an airflow from an intake end to an output end. The universal replaceable fan unit also includes a fan mounting that receives and secures the fan assembly in an operable position. The fan mounting includes a frame member and a securing member. The fan mounting is designed to allow the fan assembly to be moved between a first position defining a first airflow direction and a second position defining a second airflow direction. The first airflow direction is opposite the second airflow direction. The universal replaceable fan unit further includes an electrical connector removably attached to the fan assembly. The electrical connector allows electricity to be provided to the fan assembly for operation.

Abstract: Apparatuses, systems, and associated methods are described that provide signal transmission over copper media. An example module includes a number of electrical signal generators that each generate an electrical signal, and a signal modulation system that receives the electrical signals generated by the electrical signal generators. The signal modulation system further modulates each of the electrical signals such that each modulated electrical signal is distinguishable from the other modulated electrical signals. The module further includes an active copper multiplexer in electrical communication with the electrical signal generators that receives the modulated electrical signals from the signal modulation system. The active copper multiplexer further combines the multiple modulated signals into a single combined electrical signal and transmits the single combined electrical signal through a single copper cable.

Abstract: A system for cooling an integrated circuit of an electronic device includes a cooling body and a shelf that is positioned relative to the cooling body for the device to be reversibly inserted onto the shelf so that the cooling body is in thermal contact with the integrated circuit. The cooling body is cooled by introducing a fluid therein via an input conduit. The hot fluid is received from the cooling body by an output conduit and is cooled for recycling. The housing of the electronic device includes a rearward gap that admits the cooling body into the housing of the electronic device. Preferably, further cooling is provided by forcing a gas to flow past the output conduit.

Abstract: A system for cooling an integrated circuit of an electronic device includes a cooling body and a shelf that is positioned relative to the cooling body for the device to be reversibly inserted onto the shelf so that the cooling body is in thermal contact with the integrated circuit. The cooling body is cooled by introducing a fluid therein via an input conduit. The hot fluid is received from the cooling body by an output conduit and is cooled for recycling. The housing of the electronic device includes a rearward gap that admits the cooling body into the housing of the electronic device. Preferably, further cooling is provided by forcing a gas to flow past the output conduit.

Abstract: A system for cooling an integrated circuit of an electronic device includes a cooling body and a shelf that is positioned relative to the cooling body for the device to be reversibly inserted onto the shelf so that the cooling body is in thermal contact with the integrated circuit. The cooling body is cooled by introducing a fluid therein via an input conduit. The hot fluid is received from the cooling body by an output conduit and is cooled for recycling. The housing of the electronic device includes a rearward gap that admits the cooling body into the housing of the electronic device. Preferably, further cooling is provided by forcing a gas to flow past the output conduit.

Abstract: A method for fabricating an integrated optical interconnect includes disposing a layer over a substrate on which at least one optoelectronic transducer has been formed. A groove is formed in the layer in alignment with the optoelectronic transducer. A slanted mirror is formed in the layer at an end of the groove adjacent to the optoelectronic transducer to direct light between the optoelectronic transducer and an optical fiber placed in the groove.

Abstract: A method for fabricating an integrated optical interconnect includes disposing a layer over a substrate on which at least one optoelectronic transducer has been formed. A groove is formed in the layer in alignment with the optoelectronic transducer. A slanted mirror is formed in the layer at an end of the groove adjacent to the optoelectronic transducer to direct light between the optoelectronic transducer and an optical fiber placed in the groove.

Abstract: A system for cooling an integrated circuit of an electronic device includes a cooling body and a shelf that is positioned relative to the cooling body for the device to be reversibly inserted onto the shelf so that the cooling body is in thermal contact with the integrated circuit. The cooling body is cooled by introducing a fluid therein via an input conduit. The hot fluid is received from the cooling body by an output conduit and is cooled for recycling. The housing of the electronic device includes a rearward gap that admits the cooling body into the housing of the electronic device. Preferably, further cooling is provided by forcing a gas to flow past the output conduit.