mhurhangee/patent-ind-claim-en huggingface dataset:
An axial flow compressor comprising: multiple rotor blade rows (12; 12C; 12D) configured to include multiple rotor blades and multiple stator blade rows (14; 14A; 14B) configured to include multiple stator blades, the multiple rotor blades and the multiple stator blades being arranged inside an annular channel (P) through which a working fluid flows, wherein a portion of at least one wall surface (20A; 20C; 21D; 23; 23B) on an inner peripheral side and an outer peripheral side of the annular channel (P), the portion being at an arrangement portion where at least any one blade row of the rotor blade rows (12; 12C; 12D) and the stator blade rows (14; 14A; 14B) is located, has a protruding portion (24; 24B; 44; 54; 74) such that a downstream side part of the portion is curved so as to further protrude into the annular channel (P) than an upstream side part of the portion, and characterized in that each blade of the blade row (12C; 12D;14; 14A; 14B) located at the protruding portion (24; 24B; 44; 54; 74) of the wall surface is configured such that a blade outlet angle in a blade height intermediate portion monotonously changes toward the wall surface having the protruding portion and an increase rate in a wall surface direction of the blade outlet angle in a blade end portion on the side of the wall surface having the protruding portion is greater than an increase rate in the wall surface direction of the blade outlet angle in the blade height intermediate portion. multiple rotor blade rows (12; 12C; 12D) configured to include multiple rotor blades and multiple stator blade rows (14; 14A; 14B) configured to include multiple stator blades, the multiple rotor blades and the multiple stator blades being arranged inside an annular channel (P) through which a working fluid flows, wherein a portion of at least one wall surface (20A; 20C; 21D; 23; 23B) on an inner peripheral side and an outer peripheral side of the annular channel (P), the portion being at an arrangement portion where at least any one blade row of the rotor blade rows (12; 12C; 12D) and the stator blade rows (14; 14A; 14B) is located, has a protruding portion (24; 24B; 44; 54; 74) such that a downstream side part of the portion is curved so as to further protrude into the annular channel (P) than an upstream side part of the portion, and characterized in that each blade of the blade row (12C; 12D;14; 14A; 14B) located at the protruding portion (24; 24B; 44; 54; 74) of the wall surface is configured such that a blade outlet angle in a blade height intermediate portion monotonously changes toward the wall surface having the protruding portion and an increase rate in a wall surface direction of the blade outlet angle in a blade end portion on the side of the wall surface having the protruding portion is greater than an increase rate in the wall surface direction of the blade outlet angle in the blade height intermediate portion.
A cable for use in biopotential measurements in a magnetic resonance (MR) environment, the cable comprising: a flexible plastic or polymer sheet extending as a single unitary structure from a first end to an opposite second end; an electrically conductive trace disposed on the flexible plastic or polymer sheet and running from the first end to the opposite second end, the electrically conductive trace having sheet resistance of one ohm/square or higher; an electrode disposed on the electrically conductive trace at the second end, the electrode including: a layer of electrically conductive material disposed on the electrically conductive trace at the second end that is more electrically conductive than the material comprising the electrically conductive trace, and an attachment layer coating disposed on the layer of electrically conductive material and configured to attach the electrode to human skin. a flexible plastic or polymer sheet extending as a single unitary structure from a first end to an opposite second end; an electrically conductive trace disposed on the flexible plastic or polymer sheet and running from the first end to the opposite second end, the electrically conductive trace having sheet resistance of one ohm/square or higher; an electrode disposed on the electrically conductive trace at the second end, the electrode including: a layer of electrically conductive material disposed on the electrically conductive trace at the second end that is more electrically conductive than the material comprising the electrically conductive trace, and an attachment layer coating disposed on the layer of electrically conductive material and configured to attach the electrode to human skin. a layer of electrically conductive material disposed on the electrically conductive trace at the second end that is more electrically conductive than the material comprising the electrically conductive trace, and an attachment layer coating disposed on the layer of electrically conductive material and configured to attach the electrode to human skin.
An air compression device , comprising: a compressor compressing air suctioned therein and discharging compressed air; a casing housing the compressor therein, the casing having a main air inlet and an auxiliary air inlet for introducing air for the compressor ; a main air inlet filter filtering air introduced into the main air inlet; and an opening-closing mechanism configured to open the auxiliary air inlet to allow air outside the casing to flow into the casing , the opening-closing mechanism configured to close the auxiliary air inlet when a pressure difference between inside and outside of the casing has not reached to a predetermined value, and configured to open the auxiliary air inlet when the pressure difference between the inside and the outside of the casing is equal to or greater than the predetermined value. a compressor compressing air suctioned therein and discharging compressed air; a casing housing the compressor therein, the casing having a main air inlet and an auxiliary air inlet for introducing air for the compressor ; a main air inlet filter filtering air introduced into the main air inlet; and an opening-closing mechanism configured to open the auxiliary air inlet to allow air outside the casing to flow into the casing , the opening-closing mechanism configured to close the auxiliary air inlet when a pressure difference between inside and outside of the casing has not reached to a predetermined value, and configured to open the auxiliary air inlet when the pressure difference between the inside and the outside of the casing is equal to or greater than the predetermined value.
A device for improving readability of content displayed to a viewer , the device comprising: a screen for displaying the content to the viewer, and a motion sensor for measuring a displacement ( d ( t )) of the device, the device comprising: an eye tracker for measuring a change in gaze (112, g ( t )) of the viewer when gazing at the screen, the device being operative to, in response to determining that the change in gaze and the displacement of the device are out-of-sync, such that an eye or eyes of the viewer cannot cope following the displacement of the device, adjust the displayed content so as to improve the readability of the displayed content by at least one of increasing a font size of displayed text , enlarging one or more displayed graphical objects , and increasing a zoom level of the displayed content, wherein the device is operative to determine that the change in gaze and the displacement of the device are out-of-sync by: deriving a phase difference ( p ( t )) between the measured change in gaze ( g ( t )) and the measured displacement ( d ( t )) of the device, and determining that the change in gaze and the displacement of the device are out-of-sync if the derived phase difference exceeds a threshold value ( p max ). a screen for displaying the content to the viewer, and a motion sensor for measuring a displacement ( d ( t )) of the device, the device comprising: an eye tracker for measuring a change in gaze (112, g ( t )) of the viewer when gazing at the screen, the device being operative to, in response to determining that the change in gaze and the displacement of the device are out-of-sync, such that an eye or eyes of the viewer cannot cope following the displacement of the device, adjust the displayed content so as to improve the readability of the displayed content by at least one of increasing a font size of displayed text , enlarging one or more displayed graphical objects , and increasing a zoom level of the displayed content, wherein the device is operative to determine that the change in gaze and the displacement of the device are out-of-sync by: deriving a phase difference ( p ( t )) between the measured change in gaze ( g ( t )) and the measured displacement ( d ( t )) of the device, and determining that the change in gaze and the displacement of the device are out-of-sync if the derived phase difference exceeds a threshold value ( p max ). deriving a phase difference ( p ( t )) between the measured change in gaze ( g ( t )) and the measured displacement ( d ( t )) of the device, and determining that the change in gaze and the displacement of the device are out-of-sync if the derived phase difference exceeds a threshold value ( p max ).
Method of recirculating materials of value in solid deposition product of an adsorptive and sodium bicarbonate-based offgas cleaning operation applied to offgas from a first primary process in the metallurgical industry including deposition of a solid deposition product, wherein combination of at least a portion of the solid deposition product with dissolution water results in substantial removal of water-insoluble material, wherein the first primary process is the operation of a sintering plant or the operation of a pelletizing plant, and the materials of value are ore dust and/or material comprising ore dust, which is characterized in that it comprises subjecting the aqueous starting solution obtained in the removal to multiple successive treatment steps until a limit specification is attained for a product solution obtained after implementation of the treatment steps, wherein one or more limit-relevant parameters are monitored and the treatment steps are controlled on the basis of the monitoring results, and wherein at least a portion - of the water-insoluble material obtained in the removal, and/or - of a solid material obtained in the treatment steps, and/or - of a solid material present from one or more products from one or more of the treatment steps is fed to the first primary process. applied to offgas from a first primary process in the metallurgical industry including deposition of a solid deposition product, wherein combination of at least a portion of the solid deposition product with dissolution water results in substantial removal of water-insoluble material, wherein the first primary process is the operation of a sintering plant or the operation of a pelletizing plant, and the materials of value are ore dust and/or material comprising ore dust, which is characterized in that it comprises subjecting the aqueous starting solution obtained in the removal to multiple successive treatment steps until a limit specification is attained for a product solution obtained after implementation of the treatment steps, wherein one or more limit-relevant parameters are monitored and the treatment steps are controlled on the basis of the monitoring results, and wherein at least a portion - of the water-insoluble material obtained in the removal, and/or - of a solid material obtained in the treatment steps, and/or - of a solid material present from one or more products from one or more of the treatment steps is fed to the first primary process. - of the water-insoluble material obtained in the removal, and/or - of a solid material obtained in the treatment steps, and/or - of a solid material present from one or more products from one or more of the treatment steps is fed to the first primary process.
A pharmaceutical combination comprising: (a) a first compound having the structure of formula (I): or a pharmaceutically acceptable salt or solvate thereof, and (b) a second compound having the structure of formula (II): or a pharmaceutically acceptable salt or solvate thereof. (a) a first compound having the structure of formula (I): or a pharmaceutically acceptable salt or solvate thereof, and (b) a second compound having the structure of formula (II): or a pharmaceutically acceptable salt or solvate thereof.
A nanostructured environmental sensor comprising: a silicon based substrate ; a structural base assembly located above the silicon based substrate and comprising a first set of two sensing pillars and two heating pillars disposed on a top surface of the substrate and a second set of two sensing pillars and two heating pillars disposed on a bottom surface of the substrate ; a first sensor portion suspended above the substrate by the first set of two sensing pillars and two heating pillars ; and a second sensor portion suspended above the substrate by the second set of two sensing pillars and two heating pillars ; wherein each of the first sensor portion and the second sensor portion comprises: a sensor layer , wherein a top surface of the sensor layer is a top surface of its sensor portion , an insulator layer , a seed layer , and a heater layer disposed between the insulator layer and the seed layer of its sensor portion , wherein the seed layer is configured to electrically isolate the sensor layer of its sensor portion from the heater layer of the same sensor portion , and wherein a top surface of the sensor portion is formed from at least one of nickel oxide, copper oxide, or chromium oxide using atomic layer deposition. a silicon based substrate ; a structural base assembly located above the silicon based substrate and comprising a first set of two sensing pillars and two heating pillars disposed on a top surface of the substrate and a second set of two sensing pillars and two heating pillars disposed on a bottom surface of the substrate ; a first sensor portion suspended above the substrate by the first set of two sensing pillars and two heating pillars ; and a second sensor portion suspended above the substrate by the second set of two sensing pillars and two heating pillars ; wherein each of the first sensor portion and the second sensor portion comprises: a sensor layer , wherein a top surface of the sensor layer is a top surface of its sensor portion , an insulator layer , a seed layer , and a heater layer disposed between the insulator layer and the seed layer of its sensor portion , wherein the seed layer is configured to electrically isolate the sensor layer of its sensor portion from the heater layer of the same sensor portion , and wherein a top surface of the sensor portion is formed from at least one of nickel oxide, copper oxide, or chromium oxide using atomic layer deposition. a sensor layer , wherein a top surface of the sensor layer is a top surface of its sensor portion , an insulator layer , a seed layer , and a heater layer disposed between the insulator layer and the seed layer of its sensor portion , wherein the seed layer is configured to electrically isolate the sensor layer of its sensor portion from the heater layer of the same sensor portion , and wherein a top surface of the sensor portion is formed from at least one of nickel oxide, copper oxide, or chromium oxide using atomic layer deposition.
An epoxy resin compound comprising an epoxy resin including a crystalline epoxy and an inorganic filler, the epoxy resin compound satisfying the following condition i): i) a thermal conductivity of 2.13 (W/m·K) or higher, as measured in the description, characterized in that the crystalline epoxy is represented by the following chemical formula 1: wherein, R 1 , R 3 , R 5 and R 7 each independently represent a single bond, or an aromatic ring structure having C6 to C24, R 2 and R 6 each independently represent a single bond or a double bond (i.e., -C=N-) of C and N, and at least any one of R 2 and R 6 represents a double bond (i.e., -C=N-) of C and N, R 4 represents an oxygen atom, a sulfur atom, or a phosphorus atom, and m and n are each independently an integer of 0 to 5 and when m or n is 0, it refers to a single bond, in which hydrogen of each of R 1 to R 7 is substituted with at least one group selected from the group consisting of an alkyl group having of C1 to C4, an aryl group having C6 to C18, and a cyanide group. i) a thermal conductivity of 2.13 (W/m·K) or higher, as measured in the description, characterized in that the crystalline epoxy is represented by the following chemical formula 1: wherein, R 1 , R 3 , R 5 and R 7 each independently represent a single bond, or an aromatic ring structure having C6 to C24, R 2 and R 6 each independently represent a single bond or a double bond (i.e., -C=N-) of C and N, and at least any one of R 2 and R 6 represents a double bond (i.e., -C=N-) of C and N, R 4 represents an oxygen atom, a sulfur atom, or a phosphorus atom, and m and n are each independently an integer of 0 to 5 and when m or n is 0, it refers to a single bond, in which hydrogen of each of R 1 to R 7 is substituted with at least one group selected from the group consisting of an alkyl group having of C1 to C4, an aryl group having C6 to C18, and a cyanide group. R 1 , R 3 , R 5 and R 7 each independently represent a single bond, or an aromatic ring structure having C6 to C24, R 2 and R 6 each independently represent a single bond or a double bond (i.e., -C=N-) of C and N, and at least any one of R 2 and R 6 represents a double bond (i.e., -C=N-) of C and N, R 4 represents an oxygen atom, a sulfur atom, or a phosphorus atom, and m and n are each independently an integer of 0 to 5 and when m or n is 0, it refers to a single bond, in which hydrogen of each of R 1 to R 7 is substituted with at least one group selected from the group consisting of an alkyl group having of C1 to C4, an aryl group having C6 to C18, and a cyanide group.
A flexing structure for an insertion tube of a medical device , comprising tubular vertebrae with a proximal tubular vertebra and a distal tubular vertebra and at least one actuating cable surrounded by a sheath over at least part of its length, the flexing structure comprising a tube cut with energy-beam cutting lines (T) to create tubular vertebrae that nest in one another via cut-out areas (17m, 17f, 18m, 18f, 17'm, 17'f, 18'm, 18'f) forming pivots for rotation around pivot axes (X, Y), cutting lines being created to delimit, between the tubular vertebrae , notches cut in the tube in order to form flexing zones for the tubular vertebrae in order to obtain the flexing of the flexing structure in at least one flexing plane (D, S) perpendicular to the pivot axes (X, Y), the proximal tubular vertebra comprising, for each actuating cable, a radial and axial blocking system for the sheath, comprising an elongate cutout created in such a way as to delimit two stop edges that limit the radial engagement of the sheath in the cutout, this cutout opening at its distal part into a slot delimited by at least two cutout lines between which there is attached a pressing tab designed to press the sheath radially against the two stop edges of the cutout, this slot being bordered by a rim for axially stopping the sheath, on which the distal end of the sheath is pressed.
A hearing instrument comprising: a microphone for reception of sound and conversion of the received sound into a corresponding first audio signal, a signal processor for processing the first audio signal into a second audio signal compensating a hearing loss of a user of the hearing instrument , a speaker connected to an output of the signal processor for converting the second audio signal into an output sound signal, a wireless communication unit connected to the signal processor for wireless communication, the wireless communication unit being interconnected with an antenna structure for emission and reception of an electromagnetic field, the antenna structure comprising: an antenna element having a first end and a second end , wherein the first end is connected to a feed of the antenna structure , a controllable component being configured to change one or more characteristica of the antenna structure , CHRACTARISED in that the controllable component is provided between the first end of the antenna element and the second end of the antenna element . a microphone for reception of sound and conversion of the received sound into a corresponding first audio signal, a signal processor for processing the first audio signal into a second audio signal compensating a hearing loss of a user of the hearing instrument , a speaker connected to an output of the signal processor for converting the second audio signal into an output sound signal, a wireless communication unit connected to the signal processor for wireless communication, the wireless communication unit being interconnected with an antenna structure for emission and reception of an electromagnetic field, the antenna structure comprising: an antenna element having a first end and a second end , wherein the first end is connected to a feed of the antenna structure , a controllable component being configured to change one or more characteristica of the antenna structure , CHRACTARISED in that the controllable component is provided between the first end of the antenna element and the second end of the antenna element . an antenna element having a first end and a second end , wherein the first end is connected to a feed of the antenna structure , a controllable component being configured to change one or more characteristica of the antenna structure , CHRACTARISED in that the controllable component is provided between the first end of the antenna element and the second end of the antenna element .
A lift assembly comprising: a base ; a drive mechanism ; a drum assembly adapted to be driven by the drive mechanism , the drum assembly including first and second drum segments positioned adjacent each other, each drum segment including a small diameter portion a large diameter portion and a tapered portion between the small diameter portion and the large diameter portion ; first and second flexible drive elements at least partially wrapped around the small diameter portions of the first and second drum segments , respectively, characterized in that the large diameter portion of the first drum segment is positioned adjacent the small diameter portion of the second drum segment . a base ; a drive mechanism ; a drum assembly adapted to be driven by the drive mechanism , the drum assembly including first and second drum segments positioned adjacent each other, each drum segment including a small diameter portion a large diameter portion and a tapered portion between the small diameter portion and the large diameter portion ; first and second flexible drive elements at least partially wrapped around the small diameter portions of the first and second drum segments , respectively, characterized in that the large diameter portion of the first drum segment is positioned adjacent the small diameter portion of the second drum segment .