mhurhangee/patent-ind-claim-en huggingface dataset:
A prosthetic heart valve (100; 200; 400; 500; 700), comprising: a frame (102; 402; 502) comprising a plurality of strut members (104; 404; 504) and having an inflow end (106; 406; 508) and an outflow end (108; 408; 510), a leaflet structure situated at least partially within the frame (102; 402; 502), and a covering (112; 202; 412; 514; 700) disposed around the frame (102; 402; 502), the covering (112; 202; 412; 514; 700) comprising: a cushioning layer (116; 208; 414; 516; 702) having a plush surface, an inflow protective portion (120; 416; 518; 706) folded over a circumferential inflow edge portion of the cushioning layer (116; 208; 414; 516; 702) so as to cover apices (124; 420; 506) of the strut members (104; 404; 504) at the inflow end (106; 406; 508) of the frame (102; 402; 502), and optionally an outflow protective portion (122; 418; 520; 708) folded over a a circumferential outflow edge portion of the cushioning layer (116; 208; 414; 516; 702) so as to cover apices (124; 420; 506) of the strut members (104; 404; 504) at the outflow end (108; 408; 510) of the frame (102; 402; 502). a frame (102; 402; 502) comprising a plurality of strut members (104; 404; 504) and having an inflow end (106; 406; 508) and an outflow end (108; 408; 510), a leaflet structure situated at least partially within the frame (102; 402; 502), and a covering (112; 202; 412; 514; 700) disposed around the frame (102; 402; 502), the covering (112; 202; 412; 514; 700) comprising: a cushioning layer (116; 208; 414; 516; 702) having a plush surface, an inflow protective portion (120; 416; 518; 706) folded over a circumferential inflow edge portion of the cushioning layer (116; 208; 414; 516; 702) so as to cover apices (124; 420; 506) of the strut members (104; 404; 504) at the inflow end (106; 406; 508) of the frame (102; 402; 502), and optionally an outflow protective portion (122; 418; 520; 708) folded over a a circumferential outflow edge portion of the cushioning layer (116; 208; 414; 516; 702) so as to cover apices (124; 420; 506) of the strut members (104; 404; 504) at the outflow end (108; 408; 510) of the frame (102; 402; 502). a cushioning layer (116; 208; 414; 516; 702) having a plush surface, an inflow protective portion (120; 416; 518; 706) folded over a circumferential inflow edge portion of the cushioning layer (116; 208; 414; 516; 702) so as to cover apices (124; 420; 506) of the strut members (104; 404; 504) at the inflow end (106; 406; 508) of the frame (102; 402; 502), and optionally an outflow protective portion (122; 418; 520; 708) folded over a a circumferential outflow edge portion of the cushioning layer (116; 208; 414; 516; 702) so as to cover apices (124; 420; 506) of the strut members (104; 404; 504) at the outflow end (108; 408; 510) of the frame (102; 402; 502).
A capacitive strain sensor for sensing strain of a structure, the sensor comprising: a first cap configured and adapted to be attached to a structure at a first location, a first segment made of an insulating material secured within the first cap and a first capacitor plate on the first segment, wherein the first capacitor plate is electrically isolated from the first cap by the first segment; a second cap (32; 132) configured and adapted to be attached to the structure at a second location, a second segment made of an insulating material secured within the second cap and a second capacitor plate on the second segment, wherein the second capacitor plate is electrically isolated from the second cap by the second segment; and a bellows (34; 134) connected to the first and second caps, wherein the first capacitor plate is separated from the second capacitor plate by a capacitive gap, wherein a normal vector to respective surfaces of the capacitive plates is approximately parallel to a longitudinal axis of the sensor, wherein the longitudinal axis of the sensor is approximately parallel with direction of strain to be measured, and wherein the first and second end caps are configured such that strain experienced by the structure causes a change in the capacitive gap due to relative motion between the first and second capacitor plates of the first and second caps in a direction parallel to the longitudinal axis of the sensor; characterised in that the sensor further comprises a means for adjusting the gap. a first cap configured and adapted to be attached to a structure at a first location, a first segment made of an insulating material secured within the first cap and a first capacitor plate on the first segment, wherein the first capacitor plate is electrically isolated from the first cap by the first segment; a second cap (32; 132) configured and adapted to be attached to the structure at a second location, a second segment made of an insulating material secured within the second cap and a second capacitor plate on the second segment, wherein the second capacitor plate is electrically isolated from the second cap by the second segment; and a bellows (34; 134) connected to the first and second caps, wherein the first capacitor plate is separated from the second capacitor plate by a capacitive gap, wherein a normal vector to respective surfaces of the capacitive plates is approximately parallel to a longitudinal axis of the sensor, wherein the longitudinal axis of the sensor is approximately parallel with direction of strain to be measured, and wherein the first and second end caps are configured such that strain experienced by the structure causes a change in the capacitive gap due to relative motion between the first and second capacitor plates of the first and second caps in a direction parallel to the longitudinal axis of the sensor; characterised in that the sensor further comprises a means for adjusting the gap.
A deployment method for an operator in a deep learning framework, comprising: acquiring (S101; S201) a source file of the operator; compiling (S102) the source file of the operator to form a dynamic link library of the operator; being characterized by : generating (S103; S205) an application programming interface, API, file of a front-end system of the deep learning framework transferred from the dynamic link library of the operator; generating (S104; S206) an installable library file according to the dynamic link library and the interface file; installing (S105; S207) the installable library file to a target programming language library; acquiring (S401) a function code to be injected corresponding to the dynamic link library; injecting (S402) the function code to be injected into an entry file to generate a target calling function code of the dynamic link library; and writing (S403) the target calling function code into the interface file. acquiring (S101; S201) a source file of the operator; compiling (S102) the source file of the operator to form a dynamic link library of the operator; being characterized by : generating (S103; S205) an application programming interface, API, file of a front-end system of the deep learning framework transferred from the dynamic link library of the operator; generating (S104; S206) an installable library file according to the dynamic link library and the interface file; installing (S105; S207) the installable library file to a target programming language library; acquiring (S401) a function code to be injected corresponding to the dynamic link library; injecting (S402) the function code to be injected into an entry file to generate a target calling function code of the dynamic link library; and writing (S403) the target calling function code into the interface file. generating (S103; S205) an application programming interface, API, file of a front-end system of the deep learning framework transferred from the dynamic link library of the operator; generating (S104; S206) an installable library file according to the dynamic link library and the interface file; installing (S105; S207) the installable library file to a target programming language library; acquiring (S401) a function code to be injected corresponding to the dynamic link library; injecting (S402) the function code to be injected into an entry file to generate a target calling function code of the dynamic link library; and writing (S403) the target calling function code into the interface file.
A control device used for a movable body including: three or more drive wheels to be driven independently from each other; one or more rotational velocity detection units configured to detect respective rotational velocities of the three or more drive wheels ; a movement velocity detection unit configured to detect a movement velocity of the movable body using the respective rotational velocities detected by the one or more rotational velocity detection units ; an object detection unit configured to detect an object within a monitoring area around the movable body ; a movement control unit configured to move the movable body in accordance with a movement plan; a stopping unit configured to stop the movable body when the movement velocity detected by the movement velocity detection unit reaches a threshold value of a protective stop velocity; and a changing unit configured to, on the basis of an operation signal output from the movement control unit and of the respective rotational velocities of the drive wheels detected by the one or more rotational velocity detection units , reduce or invalidate a range of the monitoring area and set a lower value as the threshold value of the protective stop velocity than a value that is set as the threshold value of the protective stop velocity. three or more drive wheels to be driven independently from each other; one or more rotational velocity detection units configured to detect respective rotational velocities of the three or more drive wheels ; a movement velocity detection unit configured to detect a movement velocity of the movable body using the respective rotational velocities detected by the one or more rotational velocity detection units ; an object detection unit configured to detect an object within a monitoring area around the movable body ; a movement control unit configured to move the movable body in accordance with a movement plan; a stopping unit configured to stop the movable body when the movement velocity detected by the movement velocity detection unit reaches a threshold value of a protective stop velocity; and a changing unit configured to, on the basis of an operation signal output from the movement control unit and of the respective rotational velocities of the drive wheels detected by the one or more rotational velocity detection units , reduce or invalidate a range of the monitoring area and set a lower value as the threshold value of the protective stop velocity than a value that is set as the threshold value of the protective stop velocity.
A process for making a three dimensional foam article of non-uniform shape comprising the steps of: (a) providing a pre-form comprising a polymer in a pressure vessel (b) subjecting the pre-form to at least one inert gas at a pressure higher than atmospheric in order to drive gas into the pre-form, (c) raising the temperature of the pre-form to or above its softening point, wherein steps (b) and (c) can take place in any order or simultaneously, (d) reducing the pressure to a pressure higher than atmospheric pressure but lower than the pressure of step (b) and then cooling the pre-form to below its softening point to result in a partially expanded article, (e) transferring said article to a second vessel and heating it to a temperature above its softening point under a pressure of inert gas or air, and (f) reducing the pressure whilst maintaining the temperature at or above the softening point of the polymer, in order to expand the partially expanded article to form a foamed article, wherein the cross-section of the polymer pre-form in at least one dimension or in at least two dimensions or in at least three dimensions is non-uniform, and wherein the pre-form is comprised of areas of different materials. (a) providing a pre-form comprising a polymer in a pressure vessel (b) subjecting the pre-form to at least one inert gas at a pressure higher than atmospheric in order to drive gas into the pre-form, (c) raising the temperature of the pre-form to or above its softening point, wherein steps (b) and (c) can take place in any order or simultaneously, (d) reducing the pressure to a pressure higher than atmospheric pressure but lower than the pressure of step (b) and then cooling the pre-form to below its softening point to result in a partially expanded article, (e) transferring said article to a second vessel and heating it to a temperature above its softening point under a pressure of inert gas or air, and (f) reducing the pressure whilst maintaining the temperature at or above the softening point of the polymer, in order to expand the partially expanded article to form a foamed article, wherein the cross-section of the polymer pre-form in at least one dimension or in at least two dimensions or in at least three dimensions is non-uniform, and wherein the pre-form is comprised of areas of different materials.
An electrolyte composition containing at least one compound of formula (I) wherein q is 1, 2 or 3, r is 1, 2 or 3, and Y is a q+r valent non-fluorinated alkylene group having 2 to 6 C-atoms. q is 1, 2 or 3, r is 1, 2 or 3, and Y is a q+r valent non-fluorinated alkylene group having 2 to 6 C-atoms.
An operation method of a user equipment, UE, supporting an unlicensed band, the operation method comprising: receiving, from a base station, discovery signal measurement timing configuration, DMTC, related information including a DMTC period and a DMTC offset; identifying a DMTC duration, in which a discovery reference signal, DRS, including a cell-specific reference signal, CRS, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, is transmitted, based on the DMTC related information; characterized by , detecting the SSS included in the DRS which is transmitted from the base station in the DMTC duration of the unlicensed band; calculating a sequence of the CRS based on a slot number which is determined based on a subframe in which the SSS is detected; and measuring the CRS included in the DRS using the sequence in the DMTC duration, wherein a radio frame includes subframes#0 to 9 in the unlicensed band, each subframe includes two slots, the sequence is calculated using the slot number belonging to a subframe #0 when the SSS is detected in one subframe among subframes #1 to 4, and the sequence is calculated using the slot number belonging to a subframe #5 when the SSS is detected in one subframe among subframes #6 to 9. receiving, from a base station, discovery signal measurement timing configuration, DMTC, related information including a DMTC period and a DMTC offset; identifying a DMTC duration, in which a discovery reference signal, DRS, including a cell-specific reference signal, CRS, a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, is transmitted, based on the DMTC related information; characterized by , detecting the SSS included in the DRS which is transmitted from the base station in the DMTC duration of the unlicensed band; calculating a sequence of the CRS based on a slot number which is determined based on a subframe in which the SSS is detected; and measuring the CRS included in the DRS using the sequence in the DMTC duration, wherein a radio frame includes subframes#0 to 9 in the unlicensed band, each subframe includes two slots, the sequence is calculated using the slot number belonging to a subframe #0 when the SSS is detected in one subframe among subframes #1 to 4, and the sequence is calculated using the slot number belonging to a subframe #5 when the SSS is detected in one subframe among subframes #6 to 9.
A vehicle axle assembly comprising: an axle shaft in the form of an elongate body extending along an axis of rotation (R) and having a first planar portion extending from the shaft perpendicular to the axis of rotation; an axle housing partially surrounding and rotatably supporting the axle shaft , wherein a second planar portion extends from the axle housing adjacent and substantially parallel to the first planar portion ; characterised in that two or more sensor arrangements each having a first sensor part on the first planar portion and a second sensor part on the second planar portion , with each sensor arrangement being configured to generate a signal indicative of a measured gap (G) between the first and second planar portions; and a data processor coupled with the sensor arrangements and arranged to generate an indication of axle shaft bending from differences in the measured gap between sensor arrangements. an axle shaft in the form of an elongate body extending along an axis of rotation (R) and having a first planar portion extending from the shaft perpendicular to the axis of rotation; an axle housing partially surrounding and rotatably supporting the axle shaft , wherein a second planar portion extends from the axle housing adjacent and substantially parallel to the first planar portion ; characterised in that two or more sensor arrangements each having a first sensor part on the first planar portion and a second sensor part on the second planar portion , with each sensor arrangement being configured to generate a signal indicative of a measured gap (G) between the first and second planar portions; and a data processor coupled with the sensor arrangements and arranged to generate an indication of axle shaft bending from differences in the measured gap between sensor arrangements.
An inserting unit for the insertion of furniture hardware articles into panels made of wood or the like, the inserting unit comprising an inserting assembly (14; 36; 48) to insert hardware articles into panels made of wood or the like; and a feeding assembly (8; 35; 47) to feed the hardware articles to the inserting assembly (14; 36; 48); the feeding assembly comprising a plurality of stores to store different types of hardware articles ; characterized in that the inserting assembly comprises a transfer device comprising an industrial robot (16; 42; 53) to pick up the hardware articles from the store and an inserting device (15; 54) to receive the hardware articles from the industrial robot and insert them into the panels ; the industrial robot (16; 42; 53) having at least four degrees of freedom; and the inserting device (15; 54) comprising a holding member (29; 43; 57), which is provided with a plurality of seats for the different types of hardware articles .
A thermoplastic resin composition comprising: a graft copolymer including a C 4 to C 10 alkyl (meth)acrylate-based monomer unit, a styrene-based monomer unit, and a vinyl cyan-based monomer unit; a first styrene-based copolymer including a C 1 to C 3 alkyl-substituted styrene-based monomer unit and a vinyl cyan-based monomer unit; and a second styrene-based copolymer including an unsubstituted styrene-based monomer unit and a vinyl cyan-based monomer unit, wherein the first styrene-based copolymer and the second styrene-based copolymer are included in a weight ratio of 5:95 to 32:68. a graft copolymer including a C 4 to C 10 alkyl (meth)acrylate-based monomer unit, a styrene-based monomer unit, and a vinyl cyan-based monomer unit; a first styrene-based copolymer including a C 1 to C 3 alkyl-substituted styrene-based monomer unit and a vinyl cyan-based monomer unit; and a second styrene-based copolymer including an unsubstituted styrene-based monomer unit and a vinyl cyan-based monomer unit, wherein the first styrene-based copolymer and the second styrene-based copolymer are included in a weight ratio of 5:95 to 32:68.
A method of manufacturing a container by liquid blow molding, the method comprising: a liquid blow molding step (S1) of supplying a pressurized liquid to inside of a preform (PF) placed in a mold , and molding the preform (PF) into a container body containing the liquid; a placement step (S2) of placing the container body in a cup for containing a bottom part of the container body , at a mold opening position (B) of the mold ; and a conveyance step (S3) of conveying the cup holding the container body from the mold opening position (B) to a capping position (C). a liquid blow molding step (S1) of supplying a pressurized liquid to inside of a preform (PF) placed in a mold , and molding the preform (PF) into a container body containing the liquid; a placement step (S2) of placing the container body in a cup for containing a bottom part of the container body , at a mold opening position (B) of the mold ; and a conveyance step (S3) of conveying the cup holding the container body from the mold opening position (B) to a capping position (C).
An omnidirectional ball wheel , comprising: a ball wheel skeleton having a curved outer surface, the ball wheel skeleton being pivotable and defining a first pivot axis ; a first wheel , the first wheel having a curved outer surface, being pivotably connected to the ball wheel skeleton , and defining a second pivot axis , an outer surface of the first wheel being on a same spherical surface as the outer surface of the ball wheel skeleton , and a top of the outer surface of the first wheel being provided with a through hole for receiving a second wheel , the second wheel being pivotably connected to the ball wheel skeleton and defining a third pivot axis , the outer surface of the first wheel and a portion of an outer surface of the second wheel being on the same spherical surface, characterized in that : there are at least three first wheels , the second pivot axis is perpendicular to and intersects the first pivot axis ; and the third pivot axis is perpendicular to the first pivot axis and the second pivot axis simultaneously. a ball wheel skeleton having a curved outer surface, the ball wheel skeleton being pivotable and defining a first pivot axis ; a first wheel , the first wheel having a curved outer surface, being pivotably connected to the ball wheel skeleton , and defining a second pivot axis , an outer surface of the first wheel being on a same spherical surface as the outer surface of the ball wheel skeleton , and a top of the outer surface of the first wheel being provided with a through hole for receiving a second wheel , the second wheel being pivotably connected to the ball wheel skeleton and defining a third pivot axis , the outer surface of the first wheel and a portion of an outer surface of the second wheel being on the same spherical surface, characterized in that : there are at least three first wheels , the second pivot axis is perpendicular to and intersects the first pivot axis ; and the third pivot axis is perpendicular to the first pivot axis and the second pivot axis simultaneously.
A microarray comprising: a) a substrate comprising at least one well, a surface surrounding the well and an inner well surface; b) a first layer at least partially covering the inner well surface and comprising at least one first capture primer pair; and c) a second layer covering the first layer and the surface surrounding the well, wherein the first capture primer pair in the first layer is present and functional in a kinetic exclusion assay (KEA) after the second layer has been provided. a) a substrate comprising at least one well, a surface surrounding the well and an inner well surface; b) a first layer at least partially covering the inner well surface and comprising at least one first capture primer pair; and c) a second layer covering the first layer and the surface surrounding the well, wherein the first capture primer pair in the first layer is present and functional in a kinetic exclusion assay (KEA) after the second layer has been provided.