mhurhangee/ep-ind-claims huggingface dataset:
A field-effect transistor, such as an FDSOI transistor, comprising: - a substrate 200 covered by a thin surface layer made of a first semi-conducting material, in which a channel region is formed, the channel region being overlaid by a gate structure, the gate structure comprising a gate and insulating spacers lining the sidewalls of the gate, - a source region and a drain region, situated on either side of the insulating spacers, the source region and the drain region being formed from a faceted crystalline structure made of a second crystalline semi-conducting material comprising: - a first layer (231a, 231b) along the plane 100, non-faceted, in contact with the first semi-conducting material of the channel region, the first layer (231a, 231b) comprising two main faces parallel to one another and two lateral faces parallel to one another, the main faces being perpendicular to the lateral faces, one of the lateral faces being in contact with one of the spacers, - a second layer (232a, 232b) faceted along the plane 111, overlapping the first layer (231a, 231b), the second layer (232a, 232b) comprising a first main face and a second main face parallel to one another and two lateral faces, the first main face being in contact with an upper main face of the first layer (231a, 231b), the lateral faces forming a 50° to 59° angle, and preferably a 53° angle, with the first main face, the upper main face of the first layer being entirely overlapped by, and in contact with, the first main face of the second layer characterized in that the upper main face of the first layer is completely covered by and in contact with the first main face of the second layer. - a substrate 200 covered by a thin surface layer made of a first semi-conducting material, in which a channel region is formed, the channel region being overlaid by a gate structure, the gate structure comprising a gate and insulating spacers lining the sidewalls of the gate, - a source region and a drain region, situated on either side of the insulating spacers, - a first layer (231a, 231b) along the plane 100, non-faceted, in contact with the first semi-conducting material of the channel region, the first layer (231a, 231b) comprising two main faces parallel to one another and two lateral faces parallel to one another, the main faces being perpendicular to the lateral faces, one of the lateral faces being in contact with one of the spacers, - a second layer (232a, 232b) faceted along the plane 111, overlapping the first layer (231a, 231b), the second layer (232a, 232b) comprising a first main face and a second main face parallel to one another and two lateral faces, the first main face being in contact with an upper main face of the first layer (231a, 231b), the lateral faces forming a 50° to 59° angle, and preferably a 53° angle, with the first main face,
A detergent composition, comprising: a) from 1 to 40 wt.%, preferably from 2 to 30 wt.%, most preferably from 3 to 15 wt.%, of a secondary alkane sulfonate surfactant, wherein greater than 50 wt.%, preferably greater than 60 wt.%, more preferably greater than 70 wt.% of the secondary alkane sulfonate is C17 and/or C18 secondary alkane sulfonate; and, b) from 1 to 60 wt.%, preferably from 2 to 40 wt.%, more preferably from 4 to 30 wt.%, most preferably from 5 to 15 wt.% of further surfactants selected from further anionic and non-ionic surfactants. a) from 1 to 40 wt.%, preferably from 2 to 30 wt.%, most preferably from 3 to 15 wt.%, of a secondary alkane sulfonate surfactant, wherein greater than 50 wt.%, preferably greater than 60 wt.%, more preferably greater than 70 wt.% of the secondary alkane sulfonate is C17 and/or C18 secondary alkane sulfonate; and, b) from 1 to 60 wt.%, preferably from 2 to 40 wt.%, more preferably from 4 to 30 wt.%, most preferably from 5 to 15 wt.% of further surfactants selected from further anionic and non-ionic surfactants.
A device marking method for use in a terminal, the method comprising: receiving a marking request forwarded by a gateway device having the terminal bound therewith in advance, when a preset physical button is triggered at a target smart device in a case where the target smart device accesses the gateway device for a first time; and marking the target smart device in a device list currently displayed, according to the marking request, wherein the marking request requests the terminal to mark the target smart device in the device list and the marking request carries a device identification of the target smart device, and the device list contains information of at least one smart device added into a device list of a target device, and after marking the target smart device in the device list currently displayed, stopping marking the target smart device, when the target smart device has been marked for a preset time length. receiving a marking request forwarded by a gateway device having the terminal bound therewith in advance, when a preset physical button is triggered at a target smart device in a case where the target smart device accesses the gateway device for a first time; and marking the target smart device in a device list currently displayed, according to the marking request, wherein the marking request requests the terminal to mark the target smart device in the device list and the marking request carries a device identification of the target smart device, and the device list contains information of at least one smart device added into a device list of a target device, and after marking the target smart device in the device list currently displayed, stopping marking the target smart device, when the target smart device has been marked for a preset time length.
An emulsifiable concentrate consisting of a) a pesticide, b) 1,2-cyclohexandicarboxylic acid diisononyl ester, c) an amide of the formula R 1 -C N(R 2) 2 where R 1 is C 5 -C 19 -alkyl and R 2 is C 1 -C 4 -alkyl, and d) a nonionic surfactant. a) a pesticide, b) 1,2-cyclohexandicarboxylic acid diisononyl ester, c) an amide of the formula R 1 -C N(R 2) 2 where R 1 is C 5 -C 19 -alkyl and R 2 is C 1 -C 4 -alkyl, and d) a nonionic surfactant.
A packaged food concentrate in the form of a gel, comprising • Water, • Sodium salt and optionally potassium salt in a total amount of from 5 wt% to 40 wt%, based on the total water content, and calculated as (weight of salt / (weight of salt + weight of total water content))*100%, • Gelling pectin, being all pectin with a DE below 55%, wherein gelling pectin is dissolved in the water, • Calcium salt, • Non-gelatinised starch. • Water, • Sodium salt and optionally potassium salt in a total amount of from 5 wt% to 40 wt%, based on the total water content, and calculated as (weight of salt / (weight of salt + weight of total water content))*100%, • Gelling pectin, being all pectin with a DE below 55%, wherein gelling pectin is dissolved in the water, • Calcium salt, • Non-gelatinised starch.
Device for specifically dividing a non-Netonian fluid, flowing through a channel, for example molten plastic, which exhibits a flow-caused cross sectional outwardly decreasing viscosity, when flowing through a preferably or essentially T-shaped channel branching which diverts and divides the stream of fluid, characterized in that in order to achieve a distribution of the fluid to the outgoing channels (2a,2b) of the channel branching in such a manner that the fluid flowing into the outgoing channels incurs as little as possible an uneven distribution of the different viscous portions of the fluid, there is installed at the end or shortly before or shortly behind the end of the supply channel a separating wall in the channel branching, which separating wall is not adapted to close one of the outgoing channels (2a,2b), and which separating wall divides the fluid stream onstreaming from the supply channel section into two halves, whereby the rotation angle position of the separating wall around the longitudinal axis of the supply channel assumes a position adapted to the distribution of the different viscous portions of the fluid in the supply channel section (Figure 7).
An imaging apparatus comprising: a plurality of pixels, arranged in rows and columns, each including a plurality of photoelectric conversion units (10-1, A, 10-2, B) generating an electric charge based on an incident light; a controlling unit configured to control each of the plurality of pixels to output a first signal (A signal) based on an electric charge accumulated in one (10-1, A) of the plurality of photoelectric conversion units (10-1, A, 10-2, B) for each of the plurality of pixels, and a second signal (A+B signal) based on a sum of electric charges accumulated in the plurality of photoelectric conversion units (10-1, A, 10-2, B) for each of the plurality of pixels; characterized by further comprising: a combining unit configured to generate a plurality of first combining signals ((A+A) signal) by combining mutually the first signals (A signal) of the plurality of pixels, and a plurality of second combining signals ((A+B)+(A+B) signal) by combining mutually the second signals (A+B signal) of the plurality of pixels; and an output unit configured to output a part of the plurality of first combining signals ((A+A) signal) generated by the combining unit from pixels in a focus detection region in which a phase difference is measured between the signals, without outputting the other part of the plurality of first combining signals ((A+A) signal) from pixels not in the focus detection region. a plurality of pixels, arranged in rows and columns, each including a plurality of photoelectric conversion units (10-1, A, 10-2, B) generating an electric charge based on an incident light; a controlling unit configured to control each of the plurality of pixels to output a first signal (A signal) based on an electric charge accumulated in one (10-1, A) of the plurality of photoelectric conversion units (10-1, A, 10-2, B) for each of the plurality of pixels, and a second signal (A+B signal) based on a sum of electric charges accumulated in the plurality of photoelectric conversion units (10-1, A, 10-2, B) for each of the plurality of pixels; a combining unit configured to generate a plurality of first combining signals ((A+A) signal) by combining mutually the first signals (A signal) of the plurality of pixels, and a plurality of second combining signals ((A+B)+(A+B) signal) by combining mutually the second signals (A+B signal) of the plurality of pixels; and an output unit configured to output a part of the plurality of first combining signals ((A+A) signal) generated by the combining unit from pixels in a focus detection region in which a phase difference is measured between the signals, without outputting the other part of the plurality of first combining signals ((A+A) signal) from pixels not in the focus detection region.
A method of manufacturing a measurement device comprising a readhead for an optical position measurement encoder apparatus, the readhead comprising at least one sensor (36, 38), the sensor comprising at least one photodetector, characterized in that the method comprises: positioning at least one component of the readhead and the at least one sensor with respect to each other using the output from the at least one sensor, which comprises tweaking the relative location of the at least one sensor and the at least one component using the output from the sensor, the at least one component comprising an optical component, wherein the method comprises a manufacturing apparatus comprising an actuator holding and moving the at least one sensor and a processor device using the output from the sensor to control the motion of the actuator so as to position the at least one sensor.
A speed reducer for an industrial robot, comprising: an outer tube having a plurality of internal teeth surrounding an axis of rotation; a carrier rotatably provided inside the outer tube, the carrier being fixedly attached to an output shaft; an input shaft provided on a driving source; a plurality of crankshafts rotatably supported by the carrier and connected to the input shaft, the crankshafts each having an eccentric portion eccentric to an axis of rotation of the output shaft; an oscillating gear (14, 16) configured to oscillatorily rotate together with the eccentric portions of the crankshafts; a plurality of transmission gears (20, 20A, 20B, 20C) configured to rotate when acted upon by the oscillatory rotation of the oscillating gear (14, 16), the transmission gears (20, 20A, 20B, 20C) being respectively coaxial with the crankshafts; and an input gear provided on the input shaft, the input gear engaging with the transmission gears (20, 20A, 20B, 20C) to synchronously rotate the transmission gears (20, 20A, 20B, 20C), wherein the input gear and the transmission gears (20, 20A, 20B, 20C) engage with each other with 6 to 8 teeth, characterized in that the input gear and the transmission gears (20, 20A, 20B, 20C) are configured such that a pressure angle is no less than 14.5° and no more than 20.0°, a tooth thickness is no less than 3 mm and no more than 30 mm and a module (a pitch circle diameter/the number of teeth) is no less than 0.8 and no more than 3.0. an outer tube having a plurality of internal teeth surrounding an axis of rotation; a carrier rotatably provided inside the outer tube, the carrier being fixedly attached to an output shaft; an input shaft provided on a driving source; a plurality of crankshafts rotatably supported by the carrier and connected to the input shaft, the crankshafts each having an eccentric portion eccentric to an axis of rotation of the output shaft; an oscillating gear (14, 16) configured to oscillatorily rotate together with the eccentric portions of the crankshafts; a plurality of transmission gears (20, 20A, 20B, 20C) configured to rotate when acted upon by the oscillatory rotation of the oscillating gear (14, 16), the transmission gears (20, 20A, 20B, 20C) being respectively coaxial with the crankshafts; and an input gear provided on the input shaft, the input gear engaging with the transmission gears (20, 20A, 20B, 20C) to synchronously rotate the transmission gears (20, 20A, 20B, 20C), wherein the input gear and the transmission gears (20, 20A, 20B, 20C) engage with each other with 6 to 8 teeth, characterized in that the input gear and the transmission gears (20, 20A, 20B, 20C) are configured such that a pressure angle is no less than 14.5° and no more than 20.0°, a tooth thickness is no less than 3 mm and no more than 30 mm and a module (a pitch circle diameter/the number of teeth) is no less than 0.8 and no more than 3.0.
A system configured to treat spasmodic dysphonia comprising an electrode configured to be inserted into a thyroarytenoid, lateral cricoarytenoid, interarytenoid, posterior cricoarytenoid, or cricothyroid muscle and deliver an electrical impulse thereto, said electrode being in communication with a processor configured to set one or more stimulation parameters governing said electrical impulse, wherein said processor causes said electrical impulse to deliver a level of stimulation to the thyroarytenoid, lateral cricoarytenoid, interarytenoid, posterior cricoarytenoid, or cricothyroid muscle that is too weak to stimulate alpha motor neurons of a muscle spindle of the stimulated muscle, but that stimulates an afferent nerve of the muscle spindle and/or disrupts the action of a gamma neuron of the muscle spindle.
A muffler cover which is mountable to an engine so as to cover an exhaust muffler of the engine, the muffler cover comprising: a tank facing surface formed so as to face a muffler side surface of a fuel tank of the engine via a gap when mounted to the engine, and configured to guide cooling air to an outside-air intake port of a cooling fan of the engine with the muffler side surface; and at least two ribs (42,43) being independent from each other and being formed so as to protrude toward the muffler side surface of the fuel tank from the tank facing surface, characterized in that least one of the ribs (42,43) includes an inclined portion (42a, 43a) formed such that a height decreases toward the outside-air intake port. a tank facing surface formed so as to face a muffler side surface of a fuel tank of the engine via a gap when mounted to the engine, and configured to guide cooling air to an outside-air intake port of a cooling fan of the engine with the muffler side surface; and at least two ribs (42,43) being independent from each other and being formed so as to protrude toward the muffler side surface of the fuel tank from the tank facing surface, characterized in that least one of the ribs (42,43) includes an inclined portion (42a, 43a) formed such that a height decreases toward the outside-air intake port.
Pumping mechanism comprising a pump tube and a control unit, the pumping mechanism being assigned at least one pressure sensor which transmits sensor data to the control unit, characterized in that it is a pumping mechanism for a container pump and comprises an outlet nozzle that branches off from the pump tube, and the at least one pressure sensor is internally assigned to the pump tube and/or the outlet nozzle, the control unit being suitable for determining the flow rate and the control unit being assigned means for recording motor parameters of a motor connected to the pumping mechanism as well as means for recording media parameters of the medium conveyed by the pumping mechanism, the flow rate being determined using the sensor data from the pressure sensor, the motor parameters and the parameters of the medium to be conveyed. characterized in that it is a pumping mechanism for a container pump and comprises an outlet nozzle that branches off from the pump tube, and the at least one pressure sensor is internally assigned to the pump tube and/or the outlet nozzle, the control unit being suitable for determining the flow rate and the control unit being assigned means for recording motor parameters of a motor connected to the pumping mechanism as well as means for recording media parameters of the medium conveyed by the pumping mechanism, the flow rate being determined using the sensor data from the pressure sensor, the motor parameters and the parameters of the medium to be conveyed.
A carrier composition for delivery of a biologically active compound, comprising: i) a phosphate compound of an electron transfer agent which is a mixture of a mono-(tocopheryl) phosphate and a di-(tocopheryl) phosphate; and ii) a polar protic solvent, wherein the polar protic solvent is a C 2 -C 3 acyclic alcohol; and the polar protic solvent concentration is within the range of 60%w/w to 90%w/w of the total concentration of the carrier composition; wherein the biologically active compound is lipophilic having a log P value within the range of 1 to 5, has a molecular mass of less than 1000 Daltons and has a melting point of less than 400 °C. i) a phosphate compound of an electron transfer agent which is a mixture of a mono-(tocopheryl) phosphate and a di-(tocopheryl) phosphate; and ii) a polar protic solvent, wherein the polar protic solvent is a C 2 -C 3 acyclic alcohol; and the polar protic solvent concentration is within the range of 60%w/w to 90%w/w of the total concentration of the carrier composition;
A connector, comprising a plurality of first terminal modules arranged in an array manner, and the first terminal module comprises a shielding unit and a first signal terminal, wherein the shielding unit comprises a plurality of shielding boards sequentially connected to form a shielding cavity, wherein a first surface of the shielding board faces away from the shielding cavity and is configured to cooperate with a peer shielding board of a paired connector, and the first signal terminal is located in the shielding cavity, characterized in that a contact unit protruding from the first surface is further disposed on the shielding board, and the contact unit (30, 31, 32) is configured to electrically connect to the peer shielding board of the paired connector. the shielding unit comprises a plurality of shielding boards sequentially connected to form a shielding cavity, wherein a first surface of the shielding board faces away from the shielding cavity and is configured to cooperate with a peer shielding board of a paired connector, and the first signal terminal is located in the shielding cavity, characterized in that a contact unit protruding from the first surface is further disposed on the shielding board, and the contact unit (30, 31, 32) is configured to electrically connect to the peer shielding board of the paired connector.
An air conditioner comprising: a case having a space therein and having an open lower side; a panel disposed in the lower side of the case, and having an inlet and a plurality of outlets disposed around the inlet; a fan disposed inside the case, the fan is provided for forming an air flow from the inlet to the plurality of outlets; a plurality of wind adjuster, one wind adjuster is disposed in one of the outlets, respectively, the outlets are provided for adjusting a wind direction of air flowing through each of the outlets; a camera disposed in one side of the panel, the camera is provided to obtain one or more images of an indoor space; a controller configured to control one or more of the wind adjusters based on image information obtained from the camera; and a timer for measuring a time during which the camera obtains an image, wherein the controller is configured to assign one or more of the outlets to a first area outlet facing a living area and to a second area outlet facing a non-living area based on image information obtained from the camera, and to adjust one or more of the wind adjusters so that air discharged from the first area outlet and air discharged from the second area outlet are formed differently in the up-and-down side direction, and wherein the controller is configured to classify a user's living area from accumulated image information obtained from the camera, after a set time measured by the timer. a case having a space therein and having an open lower side; a panel disposed in the lower side of the case, and having an inlet and a plurality of outlets disposed around the inlet; a fan disposed inside the case, the fan is provided for forming an air flow from the inlet to the plurality of outlets; a plurality of wind adjuster, one wind adjuster is disposed in one of the outlets, respectively, the outlets are provided for adjusting a wind direction of air flowing through each of the outlets; a camera disposed in one side of the panel, the camera is provided to obtain one or more images of an indoor space; a controller configured to control one or more of the wind adjusters based on image information obtained from the camera; and a timer for measuring a time during which the camera obtains an image, wherein the controller is configured to assign one or more of the outlets to a first area outlet facing a living area and to a second area outlet facing a non-living area based on image information obtained from the camera, and to adjust one or more of the wind adjusters so that air discharged from the first area outlet and air discharged from the second area outlet are formed differently in the up-and-down side direction, and wherein the controller is configured to classify a user's living area from accumulated image information obtained from the camera, after a set time measured by the timer.