Abstract: Efficient and effective internal material property monitoring systems and methods are presented. In one embodiment, a method for monitoring variations in an internal material property of an object comprises sensing variations in a characteristic over time and communicating information on the variations in the characteristic from within the object to a remote component, wherein the communication is wireless. The characteristic is related to an internal material property of an object and the variations are sensed from within the object. The characteristic can be related to a parameter associated with the material property. The characteristic can be one of a plurality of characteristics sensed, and the sensed variations are associated with a plurality of various material characteristics of a material in the object (e.g., material properties related to a composite material, etc.). A plurality of data points can be collected and the plurality of data points correspond to the sensing of the characteristic.

Abstract: Efficient and effective internal material property monitoring systems and methods are presented. In one embodiment, a monitoring tag device comprises a sensing component, a wireless unit, and a control component. The sensing component is configured to sense variations in a characteristic over time, wherein the characteristic is related to a material property of an object. The wireless unit is configured to communicate with a remote device, including transmitting information associated with the variations in the characteristic. The control component is coupled to the sensing component, wherein the control component is configured to control the sensing component and the wireless unit, wherein the control component also recognizes an indication of the variations in the characteristic over time.

Abstract: A network device provides a plurality of user configurable and controllable ports for supporting one or more powered devices and one or more power sources on a network, via a unique “n” port switch or similar hardware device. The network device disclosed herein allows each of the network ports to be functionally interchangeable in multiple application environments. Controller circuits and a logic unit or logic controller automatically detect changes on the ports and reconfigure voltage and/or data paths so that the external devices connected to the switch continue to be able to communicate and provide or consume power. Since all ports function in a substantially identical manner, there is no need to label the ports as either inputs or outputs, where an input port would be connected to a provider of POE power and an output would be a consumer of POE power.

Abstract: An optical circuit can include a bidirectional amplifier connected so as to amplify source light prior to emission through an output device such as a telescope as well as amplification of reflected light received by the telescope. Such an optical circuit can be used in laser doppler velocimeter applications as well as other applications. The optical circuit can also include passive splitters or active switches to provide for advantageous multiplexing.

Abstract: An optical circuit can include a bidirectional amplifier connected so as to amplify source light prior to emission through an output device such as a telescope as well as amplification of reflected light received by the telescope. Such an optical circuit can be used in laser doppler velocimeter applications as well as other applications. The optical circuit can also include passive splitters or active switches to provide for advantageous multiplexing.