mhurhangee/ep-ind-claims huggingface dataset:
A solid-state image pickup unit (1, 91) comprising: a sensor substrate having a pixel region in which photoelectric conversion sections are arranged in an array; a circuit on a surface opposed to a light reception surface for the photoelectric conversion sections of the sensor substrate; a through hole via in a peripheral region located outside the pixel region and extending to the circuit from the light reception surface of the sensor substrate; a pad wiring line directly laminated on the through hole via on the light reception surface in the peripheral region; and an insulating layer disposed in a first area and a second area, the first area corresponding to the peripheral region and the second area corresponding to the pixel region, wherein the insulating layer has a stepwise structure including an upper step portion and a lower step portion, the first area includes the upper step portion and the second area includes the lower step portion, and the pad wiring line is disposed above the upper step portion of the insulating layer, characterized in that a light-receiving surface side of the stepwise structure on the lower step portion is closer to the sensor substrate than a light-receiving surface side of the stepwise structure on the upper step portion and the lower step portion is thinner than the upper step portion, and in that a light-shielding film having light reception openings corresponding to the photoelectric conversion sections is disposed above the lower step portion of the insulating layer. a sensor substrate having a pixel region in which photoelectric conversion sections are arranged in an array; a circuit on a surface opposed to a light reception surface for the photoelectric conversion sections of the sensor substrate; a through hole via in a peripheral region located outside the pixel region and extending to the circuit from the light reception surface of the sensor substrate; a pad wiring line directly laminated on the through hole via on the light reception surface in the peripheral region; and an insulating layer disposed in a first area and a second area, the first area corresponding to the peripheral region and the second area corresponding to the pixel region, wherein the insulating layer has a stepwise structure including an upper step portion and a lower step portion, the first area includes the upper step portion and the second area includes the lower step portion, and the pad wiring line is disposed above the upper step portion of the insulating layer, characterized in that a light-receiving surface side of the stepwise structure on the lower step portion is closer to the sensor substrate than a light-receiving surface side of the stepwise structure on the upper step portion and the lower step portion is thinner than the upper step portion, and in that a light-shielding film having light reception openings corresponding to the photoelectric conversion sections is disposed above the lower step portion of the insulating layer.
Insert module for placing in a lining of a traffic tunnel, wherein the insert module is slidable in a recess provided in the lining and comprises a pre-assembled functional element and a wall, wall on which the functional element is placed, characterized in that the wall is a wall plate, wherein the ratio of the thickness of the wall plate to the maximal height of the wall plate is between 1:10 and 1:20, preferably between 1:15 and 1:20 and particularly preferably between 1:18 and 1:20.
A method of determining torsional deformation in a drivetrain in a wind turbine which includes a first shaft and a second shaft connected by a gearbox providing a difference between a first rotational speed of the first shaft and a second rotational speed of the second shaft, the method comprising generating a first signal representing the first rotational speed, generating a second signal representing the second rotational speed, generating a third signal which includes the first and second signals and determining torsional deformation based on the first and second signals, characterised by the method comprising the step of comparing the third signal with a reference signal, where the reference signal is based on at least one of the first and the second signals.
Fibre composite components based on polyisocyanurate and on polyurethane, comprising one or more fibre layers impregnated with polyurethane and polyisocyanurate, wherein the polyurethane and polyisocyanurate are obtainable from a reaction mixture consisting of A) one or more polyisocyanates B) one or more polyols C) one or more polyepoxides D) one or more latent catalysts E) optionally additives and F) optionally fibre material, wherein the mixture has a viscosity at 25°C of 20 to 500 mPas, preferably 50 to 400 mPas, more preferably 60 to 350 mPas (measured to DIN EN ISO 1342), a ratio of the number of NCO groups in component A) to the number of OH groups in component B) of 10:1 to 16:1, preferably 11:1 to 14:1, a ratio of the number of NCO groups in component A) to the number of epoxy groups in component C) of 2:1 to 25:1, preferably 7:1 to 15:1, most preferably 10:1 to 14:1, and a ratio of the number of epoxy groups in component C) to the number of moles of latent catalyst in component D) of 1.1:1 to 12:1, preferably 3:1 to 10:1, most preferably 5:1 to 7:1. A) one or more polyisocyanates B) one or more polyols C) one or more polyepoxides D) one or more latent catalysts E) optionally additives and F) optionally fibre material,
Method for manufacturing conglomerate slabs comprising the steps of: preparing a mixture comprising granules and powders of stone material having a predetermined grain size, and an organic binder in the form of a liquid resin; pouring of said mixture on a support comprising an upper and lower temporary containment element; vibrocompression under vacuum of the mixture; and hot hardening of the compacted mixture; wherein the upper and/or lower temporary containment element of the mixture comprises a sheet of paper, at least one of its surfaces having, applied thereon, a film of plastic material which is: (i) impermeable to organic vapours; (ii) impermeable to the liquids and in particular to the liquid resin constituting the binder of said mixture; (iii) resistant to the catalysis temperatures of said resin; (iv) resistant to hot solvents and chemical vapours; and (v) soluble in water; and wherein the plastic material is polyvinyl alcohol; characterized in that another sheet of paper is applied on said film of plastic material. preparing a mixture comprising granules and powders of stone material having a predetermined grain size, and an organic binder in the form of a liquid resin; pouring of said mixture on a support comprising an upper and lower temporary containment element; vibrocompression under vacuum of the mixture; and hot hardening of the compacted mixture; wherein the upper and/or lower temporary containment element of the mixture comprises a sheet of paper, at least one of its surfaces having, applied thereon, a film of plastic material which is: (i) impermeable to organic vapours; (ii) impermeable to the liquids and in particular to the liquid resin constituting the binder of said mixture; (iii) resistant to the catalysis temperatures of said resin; (iv) resistant to hot solvents and chemical vapours; and (v) soluble in water; and (i) impermeable to organic vapours; (ii) impermeable to the liquids and in particular to the liquid resin constituting the binder of said mixture; (iii) resistant to the catalysis temperatures of said resin; (iv) resistant to hot solvents and chemical vapours; and (v) soluble in water; and wherein the plastic material is polyvinyl alcohol; characterized in that another sheet of paper is applied on said film of plastic material.
A modified conjugated diene rubber having a modifying structure derived from a siloxane compound at at least one terminal of a polymer chain containing conjugated diene monomer unit and a monomer unit of a vinyl compound having a functional group interactive with silica, wherein the monomer unit of a vinyl compound having a functional group interactive with silica is represented by General Formula: where X 1 represents a chemical single bond or a hydrocarbylene group, and X 2, X 3, and X 4 each independently represent a hydroxyl group, a substituted amino group, a hydrocarbyloxy group, or an optionally substituted hydrocarbyl group; excluding a modified conjugated diene rubber obtained by using a functionalizing lithium initiator obtained by reacting an organolithium compound, a secondary amine and a diene-containing compound as a polymerization initiator.
A method for producing a single crystal SiC substrate, comprising: a P-type ion introduction step for introducing P-type ions from a side of a surface Si layer into an SOI substrate in which the surface Si layer and an embedded oxide layer having a predetermined thickness are formed on an Si base material layer to convert the embedded oxide layer into an embedded glass layer to lower a softening point, wherein, in advance, the thickness of the embedded oxide layer is set to be about 100 to 200 nm and the surface Si layer of the SOI substrate is made thinner to about 4 nm to 10 nm for use; an SiC forming step for heating the SOI substrate having the embedded glass layer formed therein in an atmosphere of hydrocarbon-based gas to convert the surface Si layer into SiC; and thereafter, a SiC forming step for cooling the resulting substrate to room temperature to form a single crystal SiC layer on a surface thereof, a P-type ion introduction step for introducing P-type ions from a side of a surface Si layer into an SOI substrate in which the surface Si layer and an embedded oxide layer having a predetermined thickness are formed on an Si base material layer to convert the embedded oxide layer into an embedded glass layer to lower a softening point, wherein, in advance, the thickness of the embedded oxide layer is set to be about 100 to 200 nm and the surface Si layer of the SOI substrate is made thinner to about 4 nm to 10 nm for use; an SiC forming step for heating the SOI substrate having the embedded glass layer formed therein in an atmosphere of hydrocarbon-based gas to convert the surface Si layer into SiC; and thereafter, a SiC forming step for cooling the resulting substrate to room temperature to form a single crystal SiC layer on a surface thereof,
A gesture recognition apparatus for detecting a gesture from an acquired image and transmitting an instruction to move a pointer in correspondence with the gesture to an object device, the pointer being for performing an input operation by operating the pointer on a GUI screen, the gesture recognition apparatus including: an image acquiring unit configured to acquire an image; a gesture extracting unit configured: to detect an object part from the acquired image, and to determine a shape of the detected object part performing the gesture and a motion of the object part; and a pointer control unit configured: to determine a movement amount of the pointer based on the shape of the object part and the motion of the object part, to set a recognition region that is a region, coordinates of which are associated with the GUI screen provided on the object device, in the acquired image, to determine a position of a pointer by mapping the motion of the object part in the recognition region onto the GUI screen, to change a size of the recognition region based on the shape of the object part, to correct the movement amount of the pointer according to the size of the recognition region; to generate an instruction to move the pointer in correspondence with the motion and the shape of the object part and the corrected movement amount of the pointer, and to output the instruction to the object device. an image acquiring unit configured to acquire an image; a gesture extracting unit configured: to detect an object part from the acquired image, and to determine a shape of the detected object part performing the gesture and a motion of the object part; and to detect an object part from the acquired image, and to determine a shape of the detected object part performing the gesture and a motion of the object part; and a pointer control unit configured: to determine a movement amount of the pointer based on the shape of the object part and the motion of the object part, to determine a movement amount of the pointer based on the shape of the object part and the motion of the object part, to set a recognition region that is a region, coordinates of which are associated with the GUI screen provided on the object device, in the acquired image, to determine a position of a pointer by mapping the motion of the object part in the recognition region onto the GUI screen, to change a size of the recognition region based on the shape of the object part, to correct the movement amount of the pointer according to the size of the recognition region; to generate an instruction to move the pointer in correspondence with the motion and the shape of the object part and the corrected movement amount of the pointer, and to output the instruction to the object device.
A radio receiver comprising: a serial data interface configured to receive a wideband noise-like serial data signal from another radio receiver, the serial data signal providing a first received radio signal produced by a radio front-end of the another receiver configured to receive a first clock signal from an oscillator, and a second clock signal; wherein the second clock signal corresponds to the first clock signal; a clock /data recovery circuit configured to produce the second clock signal and the first received radio signal from the serial data signal; and a radio front-end configured to receive the second clock signal from the clock/data recovery circuit to produce a second received radio signal; and signal combining circuit configured to combine the second received radio signal and the first received radio signal. a serial data interface configured to receive a wideband noise-like serial data signal from another radio receiver, the serial data signal providing a first received radio signal produced by a radio front-end of the another receiver configured to receive a first clock signal from an oscillator, and a second clock signal; wherein the second clock signal corresponds to the first clock signal; a clock /data recovery circuit configured to produce the second clock signal and the first received radio signal from the serial data signal; and a radio front-end configured to receive the second clock signal from the clock/data recovery circuit to produce a second received radio signal; and signal combining circuit configured to combine the second received radio signal and the first received radio signal.
A re-terminable fiber optic stub fiber connector for reversibly terminating a field fiber, the connector comprising: a housing matable to a mating adapter; a backbone retained within the housing; a ferrule holder provided within the housing and adapted to hold a ferrule, the ferrule holder comprising a radially extending alignment key providing radial alignment between said ferrule holder and said mating adapter, the ferrule holder secured to the backbone such that the ferrule holder and backbone are locked in rotation; and a cam positioned around said ferrule holder, the cam having a cutout receiving the alignment key therethrough, the cam being configured to activate a field fiber clamp, wherein rotation of the cam relative to the alignment key activates the field fiber clamp to reversibly terminate the field fiber. a housing matable to a mating adapter; a backbone retained within the housing; a ferrule holder provided within the housing and adapted to hold a ferrule, the ferrule holder comprising a radially extending alignment key providing radial alignment between said ferrule holder and said mating adapter, the ferrule holder secured to the backbone such that the ferrule holder and backbone are locked in rotation; and a cam positioned around said ferrule holder, the cam having a cutout receiving the alignment key therethrough, the cam being configured to activate a field fiber clamp, wherein rotation of the cam relative to the alignment key activates the field fiber clamp to reversibly terminate the field fiber.
A method for controlling the movement of a polynucleotide through a transmembrane pore, comprising: (a) providing the polynucleotide with one or more active helicases attached to the polynucleotide and one or more molecular brakes attached to the polynucleotide, wherein the one or more molecular brakes comprise one or more helicases modified such that they bind the polynucleotide but do not function as a helicase; (b) contacting the polynucleotide provided in step (a) with the pore; and (c) applying a potential across the pore such that the one or more active helicases and the one or more molecular brakes are brought together and both control the movement of the polynucleotide through the pore. (a) providing the polynucleotide with one or more active helicases attached to the polynucleotide and one or more molecular brakes attached to the polynucleotide, wherein the one or more molecular brakes comprise one or more helicases modified such that they bind the polynucleotide but do not function as a helicase; (b) contacting the polynucleotide provided in step (a) with the pore; and (c) applying a potential across the pore such that the one or more active helicases and the one or more molecular brakes are brought together and both control the movement of the polynucleotide through the pore.
A needle access device configured for insertion into a patient with reduced fluoroscopy, the device comprising: a needle connected to a hub portion, the hub portion comprising: an opaque cap portion; a non-opaque body portion positioned between the opaque cap portion and the needle; and a channel extending through the opaque cap portion, the channel positioned such that the non-opaque body portion only illuminates when a light source is aligned with the channel; wherein said needle access device is characterized in that: said opaque cap portion comprises an axial opening through the cap portion, the axial opening having a first diameter; said non-opaque body portion has an interior space having a second interior diameter greater than the first diameter of the axial opening, the interior space positioned in a translucent portion through which the light source beam can be visualized; and said channel extends through said axial opening. a needle connected to a hub portion, the hub portion comprising: an opaque cap portion; a non-opaque body portion positioned between the opaque cap portion and the needle; and a channel extending through the opaque cap portion, the channel positioned such that the non-opaque body portion only illuminates when a light source is aligned with the channel; wherein said needle access device is characterized in that: said opaque cap portion comprises an axial opening through the cap portion, the axial opening having a first diameter; said non-opaque body portion has an interior space having a second interior diameter greater than the first diameter of the axial opening, the interior space positioned in a translucent portion through which the light source beam can be visualized; and said channel extends through said axial opening. an opaque cap portion; a non-opaque body portion positioned between the opaque cap portion and the needle; and a channel extending through the opaque cap portion, the channel positioned such that the non-opaque body portion only illuminates when a light source is aligned with the channel; wherein said needle access device is characterized in that: said opaque cap portion comprises an axial opening through the cap portion, the axial opening having a first diameter; said non-opaque body portion has an interior space having a second interior diameter greater than the first diameter of the axial opening, the interior space positioned in a translucent portion through which the light source beam can be visualized; and said channel extends through said axial opening. said opaque cap portion comprises an axial opening through the cap portion, the axial opening having a first diameter; said non-opaque body portion has an interior space having a second interior diameter greater than the first diameter of the axial opening, the interior space positioned in a translucent portion through which the light source beam can be visualized; and said channel extends through said axial opening.
Method of manufacturing a rotor blade of a wind turbine, the method comprising: placing fibre material on a shape forming surface; arranging phase change material being in a first state at at least one predetermined first region (23a, 23b) and/or arranging phase change material being in a second state at at least one predetermined second region (31a, 31b, 31c); soaking the fibre material with resin to be in thermal contact with the phase change material at the first region (23a, 23b) and/or second region (31a, 31b, 31c); during a crosslinking reaction for crosslinking the resin: absorbing heat generated within the resin by the phase change material at the first region (23a, 23b); and/or releasing heat from the phase change material toward the resin at the second region (31a, 31b, 31c). placing fibre material on a shape forming surface; arranging phase change material being in a first state at at least one predetermined first region (23a, 23b) and/or arranging phase change material being in a second state at at least one predetermined second region (31a, 31b, 31c); soaking the fibre material with resin to be in thermal contact with the phase change material at the first region (23a, 23b) and/or second region (31a, 31b, 31c); during a crosslinking reaction for crosslinking the resin: absorbing heat generated within the resin by the phase change material at the first region (23a, 23b); and/or releasing heat from the phase change material toward the resin at the second region (31a, 31b, 31c). absorbing heat generated within the resin by the phase change material at the first region (23a, 23b); and/or releasing heat from the phase change material toward the resin at the second region (31a, 31b, 31c).
A method for synchronizing measurement views of a test and measurement instrument having a first and a second input channel, the method comprising: receiving a first signal under test associated with the first channel of the test and measurement instrument; receiving a second signal under test associated with the second channel of the test and measurement instrument; selecting a type of measurement view of the first signal associated with the first channel; receiving a synchronized view enable preference from a user control interface; synchronizing the selected measurement view type of the first signal and the second signal; receiving an input through a user control interface for adjusting one or more configuration parameters of the first signal associated with the first channel; and replicating the one or more configuration parameters to the second signal associated with the second channel. receiving a first signal under test associated with the first channel of the test and measurement instrument; receiving a second signal under test associated with the second channel of the test and measurement instrument; selecting a type of measurement view of the first signal associated with the first channel; receiving a synchronized view enable preference from a user control interface; synchronizing the selected measurement view type of the first signal and the second signal; receiving an input through a user control interface for adjusting one or more configuration parameters of the first signal associated with the first channel; and replicating the one or more configuration parameters to the second signal associated with the second channel.