Abstract: A system and method for monitoring an individual's physiological condition and detecting abnormalities therein, comprising concurrently receiving an electrocardiograph signal and a ballistocardiograph signal. The electrocardiograph and ballistocardiograph signals are conditioned to minimize background extraneous noise after which, each signal is concurrently processed and analyzed to detect repeating cyclical patterns and further characterized to identify individual components of the repeating cycles. At least one individual component in one signal is selected as a reference marker or a selected component in the other signal. The two signals are then synchronized, outputs produced therefrom and stored in a database.

Abstract: A security document is disclosed which includes an electrical circuit embedded in a document substrate, where the electrical circuit includes a power source with at least one electroactive polymer power generator, and an optical display including at least one electroluminescent display element and at least one nanohole array which forms a layer of the electroluminescent display element. A method of authenticating a security document is also disclosed, the method including illuminating an encoded nanohole array in the security document with a focused light beam or laser light source emitting at least one defined wavelength of incident light, detecting a transmitted portion of the incident light transmitted through the nanohole array with an optoelectronic sensor, analyzing at least one wavelength of the transmitted portion of light to produce a detected signal, and comparing the detected signal with an authentication signal to authenticate the security document.

Abstract: A system and method for monitoring an individual's physiological condition and detecting abnormalities therein, comprising concurrently receiving an electrocardiograph signal and a ballistocardiograph signal. The electrocardiograph and ballistocardiograph signals are conditioned to minimize background extraneous noise after which, each signal is concurrently processed and analyzed to detect repeating cyclical patterns and further characterized to identify individual components of the repeating cycles. At least one individual component in one signal is selected as a reference marker or a selected component in the other signal. The two signals are then synchronized, outputs produced therefrom and stored in a database.

Abstract: A light emitting/charge storage device is disclosed. The light emitting/charge storage device includes an organic light emitting diode (OLED) portion and at least one charge storage portion electrically and physically connected therewith. The OLED portion includes a first anode layer, a first cathode layer, and an electroluminescent layer disposed at least partially between the first anode layer and the first cathode layer. The at least one charge storage portion includes a second anode layer, a second cathode layer, and an ionic polymer dielectric layer disposed at least partially between the second anode layer and the second cathode layer, and/or a thin film battery layer. A light emitting/charge storage system is also disclosed. Certain embodiments of the device and system of the invention may provide integrated illumination and charge storage in a unitary stacked layered structure with flexible mechanical characteristics.

Abstract: A security document is disclosed which includes an electrical circuit embedded in a document substrate, where the electrical circuit includes a power source with at least one electroactive polymer power generator, and an optical display including at least one electroluminescent display element and at least one nanohole array which forms a layer of the electroluminescent display element. Security features comprising nanohole arrays are also provided. A method of authenticating a security document is disclosed, including illuminating an encoded nanohole array in the security document with a focused light beam or laser light source emitting at least one defined wavelength of incident light, detecting a transmitted portion of the incident light transmitted through the nanohole array with an optoelectronic sensor, analyzing at least one wavelength of the transmitted portion of light to produce a detected signal, and comparing the detected signal with an authentication signal to authenticate the security document.

Abstract: A method of self-organizing sensor nodes in a wireless sensor network (WSN); a method of localizing mobile nodes in a WSN; and a method of self-calibrating a WSN are disclosed. The method of self-organizing sensor nodes in a WSN includes configuring sensor nodes to in turn broadcast consecutive messages at a plurality of pre-defined and incrementally increasing power levels; detecting receipt of the broadcasted messages at each of the sensor nodes and notifying a master node as to the identity of each sensor node receiving the broadcasted message and the power level at which it was received to define a detected neighbourhood for each sensor node; determining relative locations of sensor nodes with the detected neighbourhoods; and mapping relative locations of the sensor nodes by the master node based on results of the neighborhood detection and known locations of two anchor nodes.

Abstract: An organic electronic device (e.g. OLED, OPV, OES, OTFT) is disclosed. The organic electronic device includes a carrier substrate, a first electrode layer disposed on the carrier substrate, an organic active electronic region disposed on the first electrode layer, and an indium second electrode layer disposed and formed on the organic active electronic region by applying heat on an indium solid at a temperature between the melting temperature of indium and a threshold operating temperature of the organic layers to melt the indium solid on the organic active electronic region. The organic active electronic region includes one or more organic layers. A method of manufacturing an organic electronic device is also disclosed.

Abstract: A system for monitoring an individual's physiological condition and detecting abnormalities therein, comprising concurrently receiving at least a first signal and a second signal. The first and second signals are conditioned to minimize background extraneous noise after which, each signal is concurrently processed and analyzed to detect repeating cyclical patterns and further characterized to identify individual components of the repeating cycles. At least one individual component in one signal is selected as a reference marker for a selected component in the other signal. The two signals are then synchronized, outputs produced therefrom and stored in a database.

Abstract: A system for monitoring an individual's physiological condition and detecting abnormalities therein, comprising concurrently receiving at least first signal and a second signal. The first and second signals are conditioned to minimize background extraneous noise after which, each signal is concurrently processed and analyzed to detect repeating cyclical patterns and further characterized to identify individual components of the repeating cycles. At least one individual component in one signal is selected as a reference marker for a selected component in the other signal. The two signals are then synchronized, outputs produced therefrom and stored in a database.

Abstract: A method for monitoring an individual's physiological condition and detecting abnormalities therein, comprising concurrently receiving an electrocardiograph signal and a ballistocardiograph signal. The electrocardiograph and ballistocardiograph signals are conditioned to minimize background extraneous noise after which, each signal is concurrently processed and analyzed to detect repeating cyclical patterns and further characterized to identify individual components of the repeating cycles. At least one individual component in one signal is selected as a reference marker for a selected component in the other signal. The two signals are then synchronized, outputs produced therefrom and stored in a database.

Abstract: A security document is disclosed which includes an electrical circuit embedded in a document substrate, where the electrical circuit includes a power source with at least one electroactive polymer power generator, and an optical display including at least one electroluminescent display element and at least one nanohole array which forms a layer of the electroluminescent display element. A method of authenticating a security document is also disclosed, the method including illuminating an encoded nanohole array in the security document with a focused light beam or laser light source emitting at least one defined wavelength of incident light, detecting a transmitted portion of the incident light transmitted through the nanohole array with an optoelectronic sensor, analyzing at least one wavelength of the transmitted portion of light to produce a detected signal, and comparing the detected signal with an authentication signal to authenticate the security document.

Abstract: A light emitting/charge storage device is disclosed. The light emitting/charge storage device includes an organic light emitting diode (OLED) portion and at least one charge storage portion electrically and physically connected therewith. The OLED portion includes a first anode layer, a first cathode layer, and an electroluminescent layer disposed at least partially between the first anode layer and the first cathode layer. The at least one charge storage portion includes a second anode layer, a second cathode layer, and an ionic polymer dielectric layer disposed at least partially between the second anode layer and the second cathode layer, and/or a thin film battery layer. A light emitting/charge storage system is also disclosed. Certain embodiments of the device and system of the invention may provide integrated illumination and charge storage in a unitary stacked layered structure with flexible mechanical characteristics.

Abstract: An ionic polymer metal composite (IPMC) capacitor is disclosed which includes a thin single layer non-hydrated ionic polymer substrate with conductive film electrodes applied to at least a portion of each side of the non-hydrated ionic polymer substrate. The disclosed capacitor is suited for providing thin capacitance structures made to substantially any desired dimensions and shape and may be particularly suited for short term power storage in low power electronics, sensors, micro-electronics, MEMs and high temperature applications. A method of manufacturing an IPMC capacitor is also disclosed including providing a thin single layer non-hydrated ionic polymer substrate, applying a conductive film electrode to both sides of the substrate, and attaching electrical connections to the electrodes. The disclosed method of manufacture may optionally also include heat curing the capacitor and coating the capacitor with at least one moisture-resistant protective coating layer.

Abstract: An apparatus for monitoring one or more than one biological parameter is provided. The apparatus comprises two or more than two layers, each layer comprising a flexible substrate, the two or more than two layers comprising two or more than two sensors for sensing the one or more than one biological parameter; a signal conditioning module in communication with one or more than one of the two or more than two sensors; a signal processor in communication with the signal conditioning module and producing a processed signal; a communication module in communication with the signal processor and transmitting the processed signal to a storage module, a display device, a host processing system, or a combination thereof; and a power module to provide power to the two or more than two sensors, the signal conditioning module, the signal processor, and the communication module.

Abstract: A system for monitoring an individual's physiological condition and detecting abnormalities therein, comprising concurrently receiving at least a first signal and a second signal. The first and second signals are conditioned to minimize background extraneous noise after which, each signal is concurrently processed and analyzed to detect repeating cyclical patterns and further characterized to identify individual components of the repeating cycles. At least one individual component in one signal is selected as a reference marker for a selected component in the other signal. The two signals are then synchronized, outputs produced therefrom and stored in a database.

Abstract: An angular filter is provided, including a straight tunnel within a material, the tunnel having a roughened surface. When scattered light enters the tunnel, and strikes the roughened surface at a shallow angle, the scatter light is further scattered within the tunnel, striking the surface of the tunnel a multiplicity of times. Each such strike partially absorbs the light ray, such that the intensity of the scattered light exiting the tunnel is minimized.

Abstract: A method is provided for producing a synthesizable RT-Level specification, having a testability enhancement from a starting RT-Level specification representative of a circuit to be designed, for input to a synthesis tool to generate a gate-level circuit. The method includes the steps of performing a testability analysis on a Directed Acyclic Graph by computing and propagating Testability Measures forward and backward through VHDL statements, identifying the bits of each signal and/or variable, and adding test point statements into the specification at the RT-Level to improve testability of the circuit to be designed. The computation of Controllability and Observability method is purely functional, and does not subsume the knowledge of a gate-level implementation of the circuit being analyzed.

Abstract: A method and associated circuitry test propagation delay through a path in digital circuits and integrated circuits. The method first sensitizes the target path in the circuit. Then depending on the path a feedback is established between the output and the input of the path to construct an inverting loop. If the path is inverting, the feedback will be noninverting and if the path is noninverting, the feedback will be inverting. The inverting loop or ring carries oscillation signals. In one implementation, the feedback element is connected using a multiplexer coupled to the circuit under test. As the oscillation frequency is determined by the propagation delay through the path, it can be used to measure the path propagation delay. Any kind of faults that can stop the oscillations, such as stuck at faults in the loop, can be detected by observing the oscillation frequency.

Abstract: The oscillation-based test method and device is applied to at least partially analog circuits. The at least partially analog circuit is first divided into building blocks each having a given structure. Each building block is then inserted into an oscillator circuit to produce an output signal having an oscillation frequency related to the structure of the building block under test. The oscillation frequency is then measured and a fault in the building block under test is detected when the measured oscillation frequency deviates from a given, nominal frequency. Experiments have demonstrated that the frequency deviation enables the detection of catastrophic and/or parametric faults, and ensures a high fault coverage. In this new time-domain test method, a single output frequency is evaluated for each building block whereby the test duration is very short. These characteristics make the test strategy very attractive for wafer-probe testing as well as final production testing.

Abstract: A serial optical signal distribution system and method uses first and second coextending optical waveguides. First and second trains of light pulses are propagated through the first and second optical waveguides, respectively. A series of first delay lines are distributed along the first waveguide for delaying the first train of light pulses, while a series of second delay lines are distributed along the second waveguide for delaying the second train of light pulses. Optical/electrical converters are distributed along the first and second optical waveguides for receiving a fraction of the delayed first train of light pulses from one of the first delay lines and a fraction of the delayed second train of light pulses from a corresponding one of the second delay lines for producing in response thereto a train of electric pulses.