322results about How to "High capacitance" patented technology

A physiological sensing stethoscope suitable for use in high-noise environments is disclosed. The stethoscope is designed to be substantially matched to the mechanical impedance of monitored physiological activity and substantially mismatched to the mechanical impedance of air-coupled acoustic activity. One embodiment of the stethoscope utilizes a passive acoustic system. Another embodiment utilizes an active Doppler system. The passive and active systems can be combined in one stethoscope enabling switching from a passive mode to an active mode suitable for use in very high-noise environments. The stethoscope is suitable for use in environments having an ambient background noise of 100 dBA and higher. The passive includes a head having a housing, a flexural disc mounted with the housing, and an electromechanical stack positioned between the housing and the flexural disc in contact with the skin of a patient. The active system detects Doppler shifts using a high-frequency transmitter and receiver.

Engineered structure for charge storage. An electrolyte is disposed between two electrically conducting plates, each plate serving as a base for an aligned array of electrically conducting nanostructures extending from the surface of each plate into the electrolyte. The nanostructures have diameter and spacing comparable to the dimension of an ion of the electrolyte. An electrically insulating separator is disposed between the two plates. A CVD process (or other processes yielding similar results) is used to make the aligned array of electrically conducting nanostructures.

A touch sensitive in-plane switching (IPS) liquid crystal display (LCD) includes a liquid crystal layer, an active-matrix transistor layer with an electrode pair, a color filter substrate, and a sensing electrode layer. The sensing electrode layer may be disposed above or below the color filter substrate, and the sensing electrode layer may include two parts that are disposed above and below the color filter layer respectively.

Non-volatile memory devices and a method thereof are provided. A non-volatile memory device according to an example embodiment of the present invention may include a first transistor including a source, a drain, and a control gate, a first storage node coupled to the first transistor, the first storage node configured to store information in a first manner, a first diode having a first end connected to the source of the transistor, the first diode configured to rectify a flow of current from the source of the transistor and a second storage node connected to a second end of the first diode, the second storage node configured to store information in a second manner. Another non-volatile memory device according to another example embodiment of the present invention may include a semiconductor substrate having a first conductivity type including an active region defined by a device isolating layer, a source region and a drain region formed by doping an impurity having a second conductivity type in the active region, a control gate electrode insulated from the active region, the control gate electrode extending across the active region disposed between the source region and the drain region, a first storage node layer interposed between the active region and the control gate electrode configured to store information in a first manner, a second storage node layer disposed on the source region configured to store information in a second manner and a diode interposed between the source region and the second storage node layer to rectify a flow of current to the source region. The example method may be directed to obtaining a higher storage capacity per cell area in either of the above-described example non-volatile memory devices.

Provided is a power storage device having a high discharge capacitance and a light-transmitting property. The power storage device includes a first current collector having a net-like planar shape; a first active material layer over the first current collector; a solid electrolyte layer over the first active material layer; a second active material layer over the solid electrolyte layer; and a second current collector over the second active material layer.

Method of producing Ta powder for tantalum solid electrolytic capacitor capable of stably providing CV value of more than 220 k and to provide the Ta powder and its Ta granulated powder. In method of producing Ta powder by vaporizing TaCl₅ through heating and reducing with H₂ gas, the reduction is performed under conditions that feeding rate of TaCl₅ vapor passing through section area of reaction field of 1 cm² for 1 minute is 0.05˜5.0 g/cm²·min and residence time of TaCl₅ vapor in the reduction reaction field is 0.1˜5 seconds and reduction temperature of TaCl₅ is 1100˜1600° C., whereby Ta powder including a single phase of β-Ta of tetragonal system or mixed phase of β-Ta and α-Ta of cubic system and having average particle size of 30˜150 nm is obtained. Further, Ta granulated powder is obtained by granulating the Ta powder.

Disclosed is a multilayer insulator, a metal-insulator-metal (MIM) capacitor with the same, and a fabricating method thereof. The capacitor includes: a first electrode; an insulator disposed on the first electrode, the insulator including: a laminate structure in which an aluminum oxide (Al₂O₃) layer and a hafnium oxide (HfO₂) layer are laminated alternately in an iterative manner and a bottom layer and a top layer are formed of the same material; and a second electrode disposed on the insulator.

An electrostatic capacitive touch-sensitive panel has an active area; a touch electrode forming area; a routing wire forming area disposed; a plurality of first touch electrode lines disposed in the active area, with both ends extending to a plurality of electrode pattern extension regions; a plurality of second touch electrode lines disposed in the active area to cross the first direction so as to cross the first touch electrode lines without contact; a plurality of first routing wires connected to the plurality of first touch electrode lines, respectively; and a plurality of second routing wires connected to the plurality of second touch electrode lines, respectively. Each of the second touch electrode lines includes a plurality of second touch electrode patterns and a plurality of second connecting portions connecting neighboring second touch electrode patterns. The second touch electrode pattern has an asymmetrical portion.

A LED tube includes a substantially fluorescent-tube-shaped and fluorescent-tube-sized translucent or fluorescent tube having one or more LED components and a current control unit installed therein. Both ends of the LED tube are provided with a pair of contact pins for connecting the LED tube mechanically and electrically to the tube holders of the fluorescent tube lighting fixture. The tube has a safety unit arranged to prevent a voltage from transferring through the tube from its one end to the other until a voltage supplied from the corresponding tube holder of the lighting fixture to the pair of contact pins has been detected at each end of the tube separately. Electric power or switching control of electric power is cross-connected between the ends of the LED tube.

An organic electrolyte capacitor having a high energy density and a high power and having a high capacitance even at −20° C. is provided.

According to the organic electrolyte capacitor of the present invention, an organic electrolyte capacitor having a high discharge capacity even at a low temperature state as low as −20° C. while having a high voltage and a high energy density can be attained in an organic electrolyte capacitor having a positive electrode, a negative electrode, and an electrolyte capable of transporting lithium ions, in which the positive electrode can reversibly support lithium ions and anions, and the negative electrode can reversibly support the lithium ions by using a mesopored carbon material having a pore volume of 0.10 ml/g or more for pore diameter of 3 nm or larger.

An electrostatic capacitive coupling-type touch panel is provided which interacts not only with a finger-based input but also with a touch using non-conductive input means. The touch panel includes coordinate detection electrodes for detecting XY position coordinates and transparent Z electrodes. The Z electrodes are arranged over the coordinate detection electrodes at certain intervals with spacers disposed therebetween. An elastic layer that is deformed along the shape of the spacers by compressive force resulting from touch pressing presses the Z electrodes.

The present invention relates to devices and methods for analyzing ion channels in membranes. The invention is characterized by a biochip comprising a substrate in which openings are provided in the form of an M×N matrix for receiving therein a cell membrane including at least one ion channel (I) or an artificial lipid membrane (Me), wherein M≧1 and N≧1.

A laminated ceramic capacitor that includes a ceramic laminated body having a stacked plurality of ceramic dielectric layers and a plurality of internal electrodes opposed to each other with the ceramic dielectric layers interposed therebetween, and external electrodes on the outer surface of the ceramic laminated body and electrically connected to the internal electrodes. The internal electrodes contain Ni and Sn, a proportion of the Sn/(Ni+Sn) ratio is 0.001 or more in molar ratio is 75% or more in a region of the internal electrode at a depth of 20 nm from a surface opposed to the ceramic dielectric layer, and the proportion of the Sn/(Ni+Sn) ratio is 0.001 or more in molar ratio is less than 40% in a central region in a thickness direction of the internal electrode.

A substrate processing apparatus enable fouling due to deposit to be monitored in real time. To monitor deposit attached to an inner wall surface of a processing chamber in which processing is carried out on a substrate, a deposit monitoring apparatus of the substrate processing apparatus includes a sensor for measuring a capacitance between two conductors spaced apart from each other and both connected to the sensor. The capacitance between the conductors increases with increase in an mount of deposit and reflects the state of fouling due to deposit.

A cold cathode tube lamp is fed with power from a first conductive member and a second conductive member provided outside in a mounted state, and includes a glass tube, first and second internal electrodes provided inside the glass tube, a first external electrode provided outside the glass tube and connected to the first internal electrode, a second external electrode provided outside the glass tube and connected to the second internal electrode, a first insulating layer coated on the first external electrode, and a second insulating layer coated on the second external electrode. In a mounted state, the first conductive member and the first external electrode are capacitively coupled together, and the second conductive member and the second external electrode are capacitively coupled together. With such a structure, parallel lighting can be achieved by parallel driving.

A low reflective window structure in an existent electro-absorption optical modulator involves a trading off problem between the increase in the parasitic capacitance and the pile-up. This is because the capacitance density of the pn junction in the window structure is higher compared with the pin junction as the optical absorption region, and the application of electric field to the optical absorption region becomes insufficient in a case of receding the electrode structure from the junction between the optical absorption region and the window structure making it difficult to discharge photo-carriers generated in the optical absorption region. An undope waveguide structure comprising a structure having such compositional wavelength and a film thickness that the compositional wavelength for each of multi-layers constituting the waveguide structure is sufficiently shorter than that of the signal light and the average refractive index is about identical with that in the optical absorption region may be disposed. In a case of forming the electrode structure so as to overlap the junction boundary between the optical absorption region and the undope waveguide, and do not extend on the joined boundary between the undope waveguide and the window structure, increase in the parasitic capacitance due to the pn junction of the window structure and pile up can be suppressed simultaneously.

A multilayer capacitor array having a plurality of multilayer capacitor devices formed in a single multilayer structure, the multilayer capacitor array including: a capacitor body formed by depositing a plurality of dielectric layers and having first and second side surfaces opposite to each other; a plurality of first polarity internal electrodes and second polarity internal electrodes, disposed oppositely to each other in the capacitor body, interposing the dielectric layer there between, and formed of a single electrode plate comprising a single lead, respectively; and a plurality of first polarity external electrodes and second polarity external electrodes, formed on the first side surface and second side surface, respectively, and connected to a correspondent polarity internal electrode via the lead, the first polarity external electrode formed on the first side surface and the second polarity external electrode formed on the second side surface, wherein the numbers of the first polarity external electrodes and the second polarity external electrodes are two or more, respectively, and are identical to each other, and a total number of the multilayer capacitor devices in the multilayer capacitor array is identical to the number of the first polarity external electrodes.

A multilayer ceramic capacitor includes a laminate including dielectric layers and internal electrode layers, and first and second external electrodes respectively including first and second base electrode layers. The internal electrode layers, and the first and second base electrode layers are connected through first and second alloy layers that cover first and second end surfaces of the laminate. A predetermined portion of ridges between each of the first and second end surfaces, and each of first and second principal surfaces and first and second side surfaces, among ridges of the laminate, has a curvature radius of about 5.4 μm or more and about 10 μm or less, and the first and second external electrodes extend from the first and second end surfaces to cover the ridges.