38 results about "Monolithic system" patented technology

Certain example embodiments of this invention relate to composite pillar arrangements for VIG units that include both harder and softer materials. The softer materials are located on the outside or extremities of the central, harder pillar material. In certain example embodiments, a high aspect ratio mineral lamellae is separated by an organic “glue” or polymer. When provided around a high strength pillar, the combination of the pillar and such a nano-composite structure may advantageously result in superior strength compared to a monolithic system, e.g., where significant wind loads, thermal stresses, and / or the like are encountered.

The present invention relates to a drug delivery system, in which a drug containing core, either alone or coated with a rate controlling membrane system, is enveloped on its circumference by an optionally bioadhesive coating, thereby yielding a monolithic system that allows for drug release in a regulated manner.

An electronic design automation system combines features of discrete EDA / CAD systems and manufacturing systems into a monolithic system to enable a layperson to efficiently design, construct and have manufactured a specific class of custom electronic device, namely a computer processing unit with embedded software. A Graphical User Interface (GUI) is provided as the front-end to a Computer Aided Design (CAD) server that generates sophisticated control and manufacturing instructions that are delivered to a fabrication supply chain, which produces a specified device that is then transported via managed logistics into inventory and ordering systems at vendors for delivery to a designated customer.

A single chip architecture with multiple programmable processors is described. Each processor has a small and fast acting kernel-based operating system which has primitives for performing only fundamental functions of multi-processing. Many distributed threads may be executed simultaneously on many processors while allowing the device to be programmed as a single monolithic system.

Devices, systems, and methods for enhancing Raman spectroscopy and hyper-Raman are disclosed. A molecular analysis device for performing Raman spectroscopy comprises a substrate and a laser source disposed on the substrate. The laser source may be configured for emanating a laser radiation, which may irradiate an analyte disposed on a Raman enhancement structure. The Raman enhancement structure may be disposed in a waveguide. The molecular analysis device also includes a wavelength demultiplexer and radiation sensors disposed on the substrate and configured for receiving a Raman scattered radiation, which may be generated by the irradiation of the analyte and Raman enhancement structure.

The invention discloses a device capable of improving measurement precision of gas analysis instrument, which comprises a filter wheel which is provided with a plurality of infrared filters; an electric motor which is used to drive the an infrared stationary light source and a monolithic system, wherein, a plurality of infrared filters are arranged on the filter wheel, the electric motor is used to drive the filter wheel to rotate against a preset frequency; an infrared stable light source which is used to irradiate a detecting gas cell through the infrared filters and is provided with an infrared sensor behind the detecting gas cell to receive the beam from the infrared stable light source; a single chip system which is used to control the drive of the electric motor and conduct wavelet contraction thresholds filtering on the signals received by the infrared sensor. The method and device of the invention are optimized by decomposing Haar wavelet and rebuilding wavelet, multiplication is transferred to addition in wavelet transform and meanwhile section wavelet filtering is adopted, which reduces operation volume, can be applied on a single chip system or imbedded system, effectively reducing the noise signals of gas analysis instrument, improving the measurement precision and decreasing the dependence on the hard circuit filter and model selection.

The invention provides an intelligent monitoring terminal of an electric distribution system. The intelligent monitoring terminal of the electric distribution system comprises a monolithic system circuit, a temperature signal acquisition circuit, a leakage protection detection circuit, a switching signal detection port circuit, an integrated electrical parameter detecting unit circuit, a harmonic wave detecting and analyzing unit circuit, a control signal outputting port circuit, a data communication interface circuit, a transmitting and receiving communication module circuit, a voltage signal acquisition circuit, a current signal acquisition circuit, a harmonic wave signal acquisition circuit connected with the harmonic wave detecting and analyzing unit circuit, an auxiliary working power supply circuit, a standby battery charging source circuit, a power substation computer connected with a two-way communication module, a mobile phone for an electricity manager and a mobile communication base station, wherein the temperature signal acquisition circuit, the leakage protection detection circuit, the switching signal detection port circuit, the integrated electrical parameter detecting unit circuit, the harmonic wave detecting and analyzing unit circuit, the control signal outputting port circuit, the data communication interface circuit and the transmitting and receiving communication module circuit are respectively connected with the monolithic system circuit; the voltage signal acquisition circuit and the current signal acquisition circuit are respectively connected with the integrated electrical parameter detecting unit circuit; and the auxiliary working power supply circuit and the standby battery charging source circuit provide power for the terminal. The invention has the advantages of economical efficiency, practicability, convenient application, ideal operating characteristics and suitability for national condition development of China.

The invention relates to a touch switch power on-of control circuit in a monolithic system and a control method. The circuit comprises a power circuit, a switch circuit, a DC / DC converting circuit, a single chip circuit, a switch drive circuit and a touch switch circuit. The power circuit is connected with the DC / DC converting circuit by the switch circuit. The DC / DC converting circuit outputs regulated voltage and supplies power for the system. One output end of the touch switch circuit is connected with a control end of the switch circuit while the other output end is connected with an interruption interface in the single chip circuit. One I / O interface of the single chip circuit is connected with a control end of the switch circuit by the switch drive circuit. After the touch switch is pressed, the power is connected and the system is electrified and works; after the touch switch is pressed again, the single chip goes into the interruption procedure, the level of the I / O interface becomes low level, the switch drive circuit stops, and the power is closed. The invention has the advantage that after power source of a power source circuit using the touch switch is shut off, a work circuit which consumes electrical energy is not existed in the circuit of the single chip system, thus saving electric energy.

The invention discloses a logic control device, which comprises an input circuit, a monolithic system, a relay output circuit, a transistor output circuit and a power supply. The logic control device belongs to the field of automation control, solves the problem that general small and medium-sized equipment is high in controlling cost, and provides a new way to control the small and medium-sized equipment. The logic control device is characterized in that an input interface adopts a 20-point on-off output, and can perform NPN / PNP input switching and displayed through inputting a LED; an output interface adopts a 8-point relay output and a 4-point transistor output; and the core system adopts a single-chip, and has the functions of logic operation, timing, counting and the like. The logic control device is a general-purpose control device, and can universally replace the PLC controlling of small and medium-sized equipment, thereby achieving the purpose of saving cost.

Certain example embodiments of this invention relate to composite pillar arrangements for VIG units that include both harder and softer materials. The softer materials are located on the outside or extremities of the central, harder pillar material. In certain example embodiments, a high aspect ratio mineral lamellae is separated by an organic “glue” or polymer. When provided around a high strength pillar, the combination of the pillar and such a nano-composite structure may advantageously result in superior strength compared to a monolithic system, e.g., where significant wind loads, thermal stresses, and / or the like are encountered.

A masonry block system that employs blocks with unique surfaces, top and bottom, and a locking starter rail for placement below the block wall. The surfaces of the block and the shape of the starter rail are configured so as to lock together, providing a wall system. The system can either be mortarless wherein grout-like material is placed within the blocks to provide a monolithic system. A method of making and installing and various parts, such as the starter rail and block are also disclosed.

The present invention relates to the upgrading process and monitoring circuit for 8051 monolithic computer system. The upgrading process includes the following steps: receiving the newest upgrading program via DSLAM equipment network management and external data interface, setting in local buffering memory and sending on-line upgrading command; power-on to start the 8051 monolithic computer system, and performing proper mode switching with some control pins of the 8051 monolithic computer system and peripheral logic control circuit to realize the on-line upgrading of the system via the cooperation of the different work modes. The on-line upgrading may be completed without needing the maintenance worker to attend site, being fast and saving in time and labor.

The invention relates to an intellectual full bridge soft switching potentiostat, pertaining to the technical field of corrosion and protection. The input end of an AC rectification circuit is connected with an AC input power and the output end thereof is communicated with an AC filter circuit; the output end of the AC filter circuit, a soft switching circuit, a pulse phase shifting control drive circuit and the input port of a high frequency transformer are respectively electrically communicated with a full bridge converter schematically; the output end of the high frequency transformer is in butt-joint with the input end of a high frequency rectification filter circuit, and the output end of the high frequency rectification filter circuit outputs DC power; the pulse phase shifting control drive circuit is composed of a reference electrode separation amplification circuit, a phase shift controller, a switch valve drive circuit, a signal comparison control circuit, a liquid-crystal display and a keying circuit as well as a monolithic system which are communicated electrically. The whole machine is characterized by novel structure and principle, simple principle, small product volume and light weight, low preparation cost and convenient application and operation and energy saving.

The invention discloses a multifunctional testing device based on a monolithic system, comprising a switch power supply, a testing control board and a front end control panel. The switch power supply is connected with the testing control board, which is connected with the front end control panel through a power line and a control wire. Applied to production line testing, the testing device considerably improves the testing efficiency and accuracy of keypads / display plates / audio plates and other parts. The monolithic system constructed with STC89C52 can rapidly test the reliability and consistence of parts, for example, whether the defects of no display, less display, omitted display, more display and the like exist in the display plate. The testing device consumedly improves the testing speed and the working efficiency, with the testing time being 10 seconds per piece.

An electronic design automation system combines features of discrete EDA / CAD systems and manufacturing systems into a monolithic system to enable a layperson to efficiently design, construct and have manufactured a specific class of custom electronic device, namely a computer processing unit with embedded software. A Graphical User Interface (GUI) is provided as the front-end to a Computer Aided Design (CAD) server that generates sophisticated control and manufacturing instructions that are delivered to a fabrication supply chain, which produces a specified device that is then transported via managed logistics into inventory and ordering systems at vendors for delivery to a designated customer.

The invention discloses a voltage stabilizing circuit. The voltage stabilizing circuit comprises an USB_MINI joint, a switch (S), a power supply (VCC) (Volt Current Condenser), an electrolytic capacitor (C1), a capacitor (C2), a voltage stabilizing chip AMS (Advanced Monolithic System) 117, an electrolytic capacitor (C3), a capacitor (C4), a resistor (R1) and a light emitting diode (VD); a 1st pin of the S is connected with 5V, and while a 2nd pin of the S is connected with the VCC, a positive pole of the C1, one end of the C2, and the 1st pin of the voltage stabilizing chip AMS117; the negative pole of the C1 is connected with the other end of the C2, a 3rd pin of the voltage stabilizing chip AMS117, the negative pole of the C3 and the negative pole of VD and then grounded; the 2nd pin of the voltage stabilizing chip AMS117 is connected with the positive pole of the C3, the VCC, one end of the C4 and one end of the R1. The voltage stabilizing circuit has the beneficial effects that the principle is simple and easily understood, and thus the convenience is provided for people to use.

An adaptive radar ratio method slot-coupling direct micro-nano microwave detecting and demodulating system of the invention is mainly composed of a six-port slot coupler, a microwave phase detection module, a microwave frequency and power detection module and a demodulation module. The adaptive radar consists of an antenna, a transmitting-receiving conversion circuit, a ratio method slot-couplingdirect micro-nano microwave detecting and demodulating monolithic system, a signal memory, a signal analyzer, a microwave signal reconstructor, a microwave signal modulator, and a microwave signal power amplifier. An indirect heating microwave power sensor uses polycrystalline silicon nanowire clusters to form a thermocouple arm. The polycrystalline silicon nanowire clusters have thermal conductivity much lower than that of a conventional bulk material, have high thermoelectric conversion efficiency, and can greatly improve the sensitivity of the microwave detection system. The above structurecan integrate the power detection module, the frequency detection module, and the phase detection module of the microwave signal, and can simultaneously and synchronously detects the power, the frequency and the phase of the microwave signal and demodulates a modulated signal.

An electronic design automation system combines features of discrete EDA / CAD systems and manufacturing systems into a monolithic system to enable a layperson to efficiently design, construct and have manufactured a specific class of custom electronic device, namely a computer processing unit with embedded software. A Graphical User Interface (GUI) is provided as the front-end to a Computer Aided Design (CAD) server that generates sophisticated control and manufacturing instructions that are delivered to a fabrication supply chain, which produces a specified device that is then transported via managed logistics into inventory and ordering systems at vendors for delivery to a designated customer.

An adaptive radar phase-comparing method slot-coupling direct micro-nano microwave detecting and demodulating system of the invention is mainly composed of a six-port slot coupler, a microwave phase detection module, a microwave frequency and power detection module and a demodulation module. The adaptive radar consists of an antenna, a transmitting-receiving conversion circuit, a phase-comparing method slot-coupling direct micro-nano microwave detecting and demodulating monolithic system, a signal memory, a signal analyzer, a microwave signal reconstructor, a microwave signal modulator, and amicrowave signal power amplifier. An indirect heating microwave power sensor uses polycrystalline silicon nanowire clusters to form a thermocouple arm. The polycrystalline silicon nanowire clusters have thermal conductivity much lower than that of a conventional bulk material, have high thermoelectric conversion efficiency, and can greatly improve the sensitivity of the microwave detection system.The above structure can integrate the power detection module, the frequency detection module, and the phase detection module of the microwave signal, can simultaneously and synchronously detects thepower, the frequency and the phase of the microwave signal and demodulates a modulated signal.

The adaptive radar faced by the invention consists of an antenna, a transceiver conversion circuit, an MEMS microwave detection and demodulation monolithic integrated system, a signal memory, a signalanalyzer, microwave signal reconstruction, a microwave signal modulator, and a microwave signal power amplifier. An MEMS microwave detection and demodulation monolithic integrated system with a phasecomparison method based on GaAs in the adaptive radar mainly consists of a six-port fixed beam coupler, a microwave frequency and power detection module, a microwave phase detection module, and a demodulation module. The detection of power, phase and frequency of microwave signals and the demodulation of modulated signals can be carried out at the same time by using the structure, and so the monolithic system integration of the MEMS microwave signal detection and demodulation for the adaptive radar can be realized.

An adaptive radar phase-comparing method fixed beam micro-nano microwave detecting and demodulating monolithic system of the invention is mainly composed of four parts including a six-port fixed beamcoupler, a microwave frequency detection module, a microwave phase detection module and a microwave power and demodulation module. The adaptive radar consists of an antenna, a transmitting-receiving conversion circuit, a MEMS microwave detection and demodulation monolithic integrated system, a signal memory, a signal analyzer, a microwave signal reconstructor, a microwave signal modulator, and a microwave signal power amplifier. An indirect heating microwave power sensor uses polycrystalline silicon nanowire clusters to form a thermocouple arm, has a thermal conductivity lower than that of a conventional bulk material, has high thermoelectric conversion efficiency, can greatly improve the sensitivity of the microwave detection system, can simultaneously and synchronously detects the power,the frequency and the phase of the microwave signal and demodulates a modulated signal, and achieves the adaptive radar phase-comparing method fixed beam micro-nano microwave detecting and demodulating monolithic system.

The present invention provides a Si-based amplitude-comparing method MEMS microwave detection and demodulation monolithic integration system in an adaptive radar. The adaptive radar is formed by an antenna, a receiving-transmitting conversion circuit, an adaptive radar receiving system (30) and an adaptive radar transmitting system (31). The adaptive radar receiving system (30) is formed by cascading of a MEMS microwave detection and demodulation monolithic integration system (24), a signal storage (25) and a signal analyzer (26) to achieve detection and analysis of unknown radar signals; andthe adaptive radar transmitting system (31) is formed by microwave signal reconfiguration (27), a microwave signal modulator (28) and a microwave signal power amplifier (29). Through the structure mentioned above, the detection of power, phases and frequency of the microwave signals and demodulation of the modulated signals are performed at the same time to achieve integration of the MEMS microwave detection and demodulation monolithic system facing the adaptive radar.

An MEMS microwave communication signal detection and demodulation monolithic integrated system oriented to adaptive radar is mainly composed of a six-port fixed beam coupler, a microwave frequency andpower detection module, a microwave phase detection module and a demodulation module. The adaptive radar consists of an antenna, a transmitting-receiving conversion circuit, a MEMS microwave detection and demodulation monolithic integrated system, a signal memory, a signal analyzer, a microwave signal reconstructor, a microwave signal modulator, and a microwave signal power amplifier. The above structure simultaneously and synchronously detects the power, the frequency and the phase of the microwave signal and demodulates a modulated signal, and achieves the monolithic system integration of the MEMS microwave signal detection and demodulation oriented to adaptive radar.