Abstract:
An ultrasonic transducer and a transducer holder for preventing the transmission of housing waves has a decoupling ring between a housing flange of a transducer housing and a holder flange of the transducer holder. Preferably, there is a gasket between the housing flange of the transducer housing and the decoupling ring in addition to a gasket between the decoupling ring and the holder flange of the transducer holder.
Abstract:
A wireless sensing device including a vibration plate, an antenna, a sensor, an energy harvesting circuit and a data processing circuit is provided. The antenna and the sensor are disposed on the vibration plate. The sensor generates a sensing data according to the vibration of the vibration plate. The energy harvesting circuit generates an electrical energy in response to the vibration of the vibration plate. The data processing circuit is coupled to the sensor and the antenna, and the data processing circuit is operated by the electrical energy to store the sensing data, or to transmit the sensing data through the antenna.
Abstract:
A dual damascene article of manufacture comprises a trench containing a conductive metal column where the trench and the conductive metal column extend down into and are contiguous with a via. The trench and the conductive metal column and the via have a common axis. These articles comprise interconnect structures incorporating air-gap spacers containing metal/insulator structures for Very Large Scale Integrated (VLSI) and Ultra Large Scale Integrated (ULSI) devices and packaging. The trench in this regard comprises a sidewall air-gap immediately adjacent the side walls of the trench and the conductive metal column, the sidewall air-gap extending down to the via to a depth below a line fixed by the bottom of the trench, and continues downward in the via for a distance of from about 1 Angstrom below the line to the full depth of the via. In another aspect, the article of manufacture comprises a capped dual damascene structure.
Abstract:
A handheld ultrasound detection apparatus includes a portable housing with a flexible tube that extends from the housing and includes a sound cup and an ultrasound receiver for converting received ultrasound energy into an electronic signal. A gain/active filter includes four amplifiers each having an associated gain range. The apparatus is programmed based on a size of the electronic signal, to direct the electronic signal along a linear scale through one or more amplifiers and apply an appropriate gain to the signal, and to generate a percentage value corresponding to the gain and with respect to the linear scale. In a manual mode, data is generated corresponding to a particular gain range and a percentage value from 0-100% with respect to the particular gain range, while during an automatic mode data is generated corresponding to a percentage value from 0-400% with respect to a collective gain range.
Abstract:
System for monitoring an environment, such as a vehicular environment, including at least one sound-receiving/vibration-detecting component that receives sounds from an environment in or around the vehicle, a processor coupled to the at least one sound-receiving/vibration-detecting component and that analyzes the sounds to identify non-speech sounds, and a communications device coupled to the processor that transmits a signal, data or information about analysis by the processor of the identified non-speech sounds.
Abstract:
It is disclosed a wireless sensing device comprising a vibration sensor configured to detect a mechanical vibration and to generate an electric signal in response to the mechanical vibration. The device also comprises a transceiver suitable for establishing a wireless connection between the wireless sensing device and a remote device. The transceiver is configured to receive at least a portion of the electric signal from the vibration sensor and, depending on the intensity of electric signal portion, to switch on and transmit a radio signal to the remote device. The radio signal is suitable for triggering a consequent action at the remote device.
Abstract:
Provided is a noise identifying apparatus and noise identifying method, allowing automatic identification of whether or not a measured noise has been influenced by a non-object noise, using a simple system.Apparatus includes a sound detection unit, including plural microphones and/or particle velocity sensors; a sound source direction specifying unit, specifying an instantaneous direction of a sound source for each unit time, on the result of detection by the sound detection unit; a variation degree calculating unit, calculating a variation degree of the plural instantaneous directions specified by the sound source direction specifying unit for a prescribed period set longer than the unit time; and a non-object noise determining unit, determining the existence/absence of a non-object noise having influenced the measurement of an object noise taken as an object to be measured, coming from a noise source, on the variation degree calculated by the variation degree calculating unit.
Abstract:
An audio controller is provided which includes an audio transducer interface that is capable of receiving audio signals from one or more audio transducers each associated with a channel. A channel selector is configured to selectively connect the audio signals to an output of the audio controller. A tone detector receives a tone from a mobile device and the tone is associated with a selected channel or indicating a channel change. The tone causes the channel selector to output audio associated with a channel. A listening device interface transmits the audio output from the channel selector to a listening device. The audio signal is presented to a mobile device, such as a smartphone or table device. Audio signal received by mobile device may be displayed in graphical form, recorded, or processed and one or more modification may be made to the audio signal such as equalization or an offset.
Abstract:
Systems and methods are disclosed that may be implemented to locally and remotely record, control, monitor and analyze sounds generated in an information handling system environment, e.g., such as in a server environment. Among other things, remote monitoring and observation of sound in a data center environment may be implemented to assist administrators with data center management and forensics analysis related to physical chassis events (e.g., such as chassis access and/or chassis intrusion), as well as providing live streaming, and local technician recorded sound bite capabilities. A sound policy may also be implemented involving server sound optimizations that works in conjunction with system thermal and power algorithms.
Abstract:
A Remotely Powered Underwater Acoustic Sensor Networks (RPUASN) paradigm and the node architecture for RPUASN are disclosed. In RPUASN, sensor nodes harvest and store power supplied by an external acoustic source, extending their lifetime indefinitely. Necessary source characteristics are determined. The ability of an RPUASN sensor to harvest its required power is disclosed with respect to source parameters and distance to the source. Performance of RPUASN is directly related to the sensing coverage and communication connectivity over the field the sensor nodes are deployed. The required number of RPUASN nodes and the volume which is guaranteed to be covered by the nodes is disclosed in terms of electrical power, range, directivity and transmission frequency of the external acoustic source, and node power requirements.