mhurhangee/ep-ind-claims huggingface dataset:
A pressure-sensitive sensor comprising: a pair of electrodes (26,28); and an intermediate layer between the pair of electrodes (26,28), the intermediate layer being formed of a rubber or a rubber composition and configured to cause electrification to occur between the intermediate layer and the electrodes (26,28) and generate electricity when deformed by contact with a target object, wherein the pressure-sensitive sensor has a stack structure in which the intermediate layer is sandwiched on both sides in a thickness direction by the pair of electrodes (26,28), and wherein one side in the stacking direction of the intermediate layer has been subjected to a surface modification treatment such that a degree of deformation for an identical deforming force, pressed in the direction orthogonal to the plane of the intermediate layer, differs between the one side and the other side, characterized in that the surface modification treatment modifies the side of the intermediate layer such that the hardness of the layer differs between the one side and the other side. a pair of electrodes (26,28); and an intermediate layer between the pair of electrodes (26,28), the intermediate layer being formed of a rubber or a rubber composition and configured to cause electrification to occur between the intermediate layer and the electrodes (26,28) and generate electricity when deformed by contact with a target object, wherein the pressure-sensitive sensor has a stack structure in which the intermediate layer is sandwiched on both sides in a thickness direction by the pair of electrodes (26,28), and wherein one side in the stacking direction of the intermediate layer has been subjected to a surface modification treatment such that a degree of deformation for an identical deforming force, pressed in the direction orthogonal to the plane of the intermediate layer, differs between the one side and the other side, characterized in that the surface modification treatment modifies the side of the intermediate layer such that the hardness of the layer differs between the one side and the other side.
An integrated circuit to drive a plurality of fluid actuation devices (102 0-n), the integrated circuit comprising: a plurality of memory cells (104 0-n), each memory cell (104 0-n) corresponding to a fluid actuation device (102 0-n); a select circuit to select fluid actuation devices (102 0-n) and memory cells (104 0-n) corresponding to the selected fluid actuation devices (102 0-n); configuration logic to enable or disable access to the plurality of memory cells (104 0-n); and control logic to either activate the selected fluid actuation devices (102 0-n) or access the memory cells (104 0-n) corresponding to the selected fluid actuation devices (102 0-n) based on a state of the configuration logic. a plurality of memory cells (104 0-n), each memory cell (104 0-n) corresponding to a fluid actuation device (102 0-n); a select circuit to select fluid actuation devices (102 0-n) and memory cells (104 0-n) corresponding to the selected fluid actuation devices (102 0-n); configuration logic to enable or disable access to the plurality of memory cells (104 0-n); and control logic to either activate the selected fluid actuation devices (102 0-n) or access the memory cells (104 0-n) corresponding to the selected fluid actuation devices (102 0-n) based on a state of the configuration logic.
A medical imaging system (100, 300) comprising: - a memory storing machine executable instructions; and - a processor for controlling the medical imaging system, wherein the processor is configured to: - receive a static angiographic image of a region of interest, wherein the region of interest comprises voxels; - receive a time series of angiographic images (116, 116') of the region of interest; - construct an image mask using the static angiographic image, wherein the image mask is an identification of voxels within the region of interest; - determine a time dependent signal for each voxel within the image mask using the time series of angiographic images; characterized in that the processor is further configured to construct a composite angiographic image by: - assigning a fill time to each voxel within the image mask using an extremum of the time dependent signal if the extremum deviates from an average of the time dependent signal more than a predetermined threshold; and - identifying voxels within the image mask as being unfilled voxels if the extremum deviates from the average of the time dependent signal less than the predetermined threshold - rendering the composite angiographic image such that a measure for the fill time is displayed in the composite angiographic image. - a memory storing machine executable instructions; and - a processor for controlling the medical imaging system, wherein the processor is configured to: - receive a static angiographic image of a region of interest, wherein the region of interest comprises voxels; - receive a time series of angiographic images (116, 116') of the region of interest; - construct an image mask using the static angiographic image, wherein the image mask is an identification of voxels within the region of interest; - determine a time dependent signal for each voxel within the image mask using the time series of angiographic images; characterized in that the processor is further configured to construct a composite angiographic image by: - assigning a fill time to each voxel within the image mask using an extremum of the time dependent signal if the extremum deviates from an average of the time dependent signal more than a predetermined threshold; and - identifying voxels within the image mask as being unfilled voxels if the extremum deviates from the average of the time dependent signal less than the predetermined threshold - rendering the composite angiographic image such that a measure for the fill time is displayed in the composite angiographic image.
A roller shutter apron: - including at least two slats articulated with respect to each other, each slat including, on the one hand, at the level of one of its longitudinal edges, a groove and, on the other hand, at the level of its opposite longitudinal edge, a hooking head; - provided with a device for joining said two slats, said device being in the form of a longitudinal element made of a flexible material, said element having, at the level of a first longitudinal edge, hooking means cooperating in insertion within the groove, which the edge of one of said slats is provided with; - wherein said element has, at the level of its second longitudinal edge, receiving means cooperating through encasement of the opposite edge of the other one of said slats, said receiving means comprising two deformable lips located on both sides of a recess for receiving said opposite edge, said receiving means having adapted and complementary shapes and dimensions so as to permit to receive in insertion and to maintain the opposite edge of said other slat, and said receiving means cooperating through encasement with said hooking head of the other slat. - including at least two slats articulated with respect to each other, each slat including, on the one hand, at the level of one of its longitudinal edges, a groove and, on the other hand, at the level of its opposite longitudinal edge, a hooking head; - provided with a device for joining said two slats, said device being in the form of a longitudinal element made of a flexible material, said element having, at the level of a first longitudinal edge, hooking means cooperating in insertion within the groove, which the edge of one of said slats is provided with; - wherein said element has, at the level of its second longitudinal edge, receiving means cooperating through encasement of the opposite edge of the other one of said slats, said receiving means comprising two deformable lips located on both sides of a recess for receiving said opposite edge, said receiving means having adapted and complementary shapes and dimensions so as to permit to receive in insertion and to maintain the opposite edge of said other slat, and said receiving means cooperating through encasement with said hooking head of the other slat.
A polyester sheet comprising crystals of polyester which is a polycondensate of polyvalent carboxylic acid and polyalcohol, the crystals being nano-oriented crystals including crystals of polyester in each of which a polymer molecular chain is oriented and each of which has a crystal size of 50 nm or less, the orientation being determined by at least one method selected from the group consisting of a polarization microscope, a small-angle X-ray scattering method, and a wide-angle X-ray scattering method, the crystal size being determined by the small-angle X-ray scattering method, a heatproof temperature of said polyester sheet being higher than a temperature that is lower than an equilibrium melting point of the polyester by 80°C.
A method of wireless communication operable at a scheduled entity, the method comprising: obtaining (2002, 2102, 2202, 2302, 2402, 2502) a first set of indications associated with a beam failure recovery procedure; starting (2004, 2104, 2204, 2304, 2404, 2504) at least one timer (1104, 1202, 1302, 1402, 1604, 1802, 1806, 1902, 1906) of a first timer (1104, 1202, 1302, 1402, 1604, 1802, 1806, 1902, 1906) or a second timer (1104, 1202, 1302, 1402, 1604, 1802, 1806, 1902, 1906) based on the obtained first set of indications, wherein the at least one timer (1104,1202,1302,1402,1604,1802,1806,1902,1906) is started when N out-of-sync indications are obtained over a network configured time window, the N out-of-sync indications including aperiodic out-of-sync indications from the first set of indications and out-of-sync indications associated with a radio link monitoring procedure; and detecting (2006, 2110, 2210, 2310, 2410, 2510, 2610) a radio link failure when the timer (1104, 1202, 1302, 1402, 1604, 1802, 1806, 1902, 1906) expires. obtaining (2002, 2102, 2202, 2302, 2402, 2502) a first set of indications associated with a beam failure recovery procedure; starting (2004, 2104, 2204, 2304, 2404, 2504) at least one timer (1104, 1202, 1302, 1402, 1604, 1802, 1806, 1902, 1906) of a first timer (1104, 1202, 1302, 1402, 1604, 1802, 1806, 1902, 1906) or a second timer (1104, 1202, 1302, 1402, 1604, 1802, 1806, 1902, 1906) based on the obtained first set of indications, wherein the at least one timer (1104,1202,1302,1402,1604,1802,1806,1902,1906) is started when N out-of-sync indications are obtained over a network configured time window, the N out-of-sync indications including aperiodic out-of-sync indications from the first set of indications and out-of-sync indications associated with a radio link monitoring procedure; and detecting (2006, 2110, 2210, 2310, 2410, 2510, 2610) a radio link failure when the timer (1104, 1202, 1302, 1402, 1604, 1802, 1806, 1902, 1906) expires.
A high temperature control rod for a nuclear fuel assembly comprising: a cladding material having a melting point greater than 1500 °C; an anti-oxidation coating; a neutron absorbing material having a melting point greater than 1500 °C; wherein the cladding and absorbing materials do not form a eutectic that has a melting point less than 1500 °C; characterised by an intermediate layer positioned between the anti-oxidant coating and the cladding material, the intermediate layer selected from the group consisting of niobium, molybdenum, and tantalum. a cladding material having a melting point greater than 1500 °C; an anti-oxidation coating; a neutron absorbing material having a melting point greater than 1500 °C; wherein the cladding and absorbing materials do not form a eutectic that has a melting point less than 1500 °C; characterised by an intermediate layer positioned between the anti-oxidant coating and the cladding material, the intermediate layer selected from the group consisting of niobium, molybdenum, and tantalum.
An electron tube comprising: an envelope including a side tube having at least one end part formed with an opening and a joining member airtightly joined to the opening; and a photocathode contained within the envelope, the photocathode emitting a photoelectron into the envelope in response to light incident thereon from the outside; characterized in that intermediate layers (15a, 15b) made of aluminum or silicon oxide are formed on each of the opening and a joint part of the joining member with the opening; a multilayer metal film (10a, 10b) constituted by a metal film made of titanium (11 a, 11 b), a metal film made of platinum (12a, 12b), and a metal film made of gold (13a, 13b) successively laminated toward a joining direction is formed on both said intermediate layers (15a, 15b); wherein the side tube and the joining member are joined to each other by holding a joint material containing indium between the respective multilayer metal films. an envelope including a side tube having at least one end part formed with an opening and a joining member airtightly joined to the opening; and a photocathode contained within the envelope, the photocathode emitting a photoelectron into the envelope in response to light incident thereon from the outside; characterized in that intermediate layers (15a, 15b) made of aluminum or silicon oxide are formed on each of the opening and a joint part of the joining member with the opening; a multilayer metal film (10a, 10b) constituted by a metal film made of titanium (11 a, 11 b), a metal film made of platinum (12a, 12b), and a metal film made of gold (13a, 13b) successively laminated toward a joining direction is formed on both said intermediate layers (15a, 15b); wherein the side tube and the joining member are joined to each other by holding a joint material containing indium between the respective multilayer metal films.
A process for producing a polyester resin composition comprising at least one polyester matrix resin and a second barrier resin comprising the steps of: polymerizing a dicarboxylic acid and at least one diol without solid state polymerization to obtain the polyester matrix resin having an intrinsic viscosity of from 0.7 to 0.9; mixing the second barrier resin with the molten polyester matrix resin obtained thus above to form a polyester resin composition; and cooling the polyester resin composition to carry out solidification of the polyester resin composition, wherein the process further comprises the step of mixing a second barrier/ filler master batch with the molten polyester matrix resin obtained thus above to form a polyester resin composition, the dicarboxylic acid comprising units of isophthalic acid in an amount of 5 to 30 mol% based on the total number of moles of all of the dicarboxylic acid monomer units, the intrinsic viscosity is measured at 30°C in a mixed solvent of 60% phenol and 40% 1,1,2,2-tetrachloroethane wherein % is wt % based on the total weight of phenol and 1,1,2,2-tetrachloroethane, and wherein the second barrier resin comprises reacted units of meta-xylene diamine, adipic acid, and isophthalic acid. polymerizing a dicarboxylic acid and at least one diol without solid state polymerization to obtain the polyester matrix resin having an intrinsic viscosity of from 0.7 to 0.9; mixing the second barrier resin with the molten polyester matrix resin obtained thus above to form a polyester resin composition; and cooling the polyester resin composition to carry out solidification of the polyester resin composition, wherein the process further comprises the step of mixing a second barrier/ filler master batch with the molten polyester matrix resin obtained thus above to form a polyester resin composition, the dicarboxylic acid comprising units of isophthalic acid in an amount of 5 to 30 mol% based on the total number of moles of all of the dicarboxylic acid monomer units, the intrinsic viscosity is measured at 30°C in a mixed solvent of 60% phenol and 40% 1,1,2,2-tetrachloroethane wherein % is wt % based on the total weight of phenol and 1,1,2,2-tetrachloroethane, and wherein the second barrier resin comprises reacted units of meta-xylene diamine, adipic acid, and isophthalic acid.
A brush seal for a gas turbine engine, the brush seal comprising: a first plate; a wire mesh adjacent the first plate; a bristle pack adjacent the wire mesh; and a second plate adjacent the bristle pack; wherein the wire mesh has a first length that is less than a second length of the bristle pack and is greater than a third length of the second plate, the first plate, the wire mesh, the bristle pack and the second plate are stacked in that order, and the wire mesh is disposed along a surface of the bristle pack and along a surface of the first plate. a first plate; a wire mesh adjacent the first plate; a bristle pack adjacent the wire mesh; and a second plate adjacent the bristle pack; wherein the wire mesh has a first length that is less than a second length of the bristle pack and is greater than a third length of the second plate, the first plate, the wire mesh, the bristle pack and the second plate are stacked in that order, and the wire mesh is disposed along a surface of the bristle pack and along a surface of the first plate.
A door handle apparatus comprising: a handle base; an operation handle rotatably connected to the handle base via a rotating shaft and including a handle portion on which a button insertion opening is opened; a switch mounting hole opened in the handle base; a push button switch inserted from a back side opening portion of the switch mounting hole and including an operation button portion exposed from a front side opening portion of the switch mounting hole; a retaining step portion formed within the switch mounting hole and adapted to prevent the push button switch from dislocating in a front direction; and a stopper including a shaft locking piece engaging with the rotating shaft to restrict a dislocation of the rotating shaft, characterised in that the stopper has a stopper piece for restricting a dislocation of the push button switch in a back direction, the shaft locking piece has a hook shape which is restricted from moving in the back direction and engaged with the rotating shaft, and a stopper holding portion is provided on the handle base and adopted to restrict a rotation of the stopper around the rotating shaft which is caused by a dislocating force of the push button switch in the back direction and to restrict a movement of the stopper in an upper direction. a handle base; an operation handle rotatably connected to the handle base via a rotating shaft and including a handle portion on which a button insertion opening is opened; a switch mounting hole opened in the handle base; a push button switch inserted from a back side opening portion of the switch mounting hole and including an operation button portion exposed from a front side opening portion of the switch mounting hole; a retaining step portion formed within the switch mounting hole and adapted to prevent the push button switch from dislocating in a front direction; and a stopper including a shaft locking piece engaging with the rotating shaft to restrict a dislocation of the rotating shaft, characterised in that the stopper has a stopper piece for restricting a dislocation of the push button switch in a back direction, the shaft locking piece has a hook shape which is restricted from moving in the back direction and engaged with the rotating shaft, and a stopper holding portion is provided on the handle base and adopted to restrict a rotation of the stopper around the rotating shaft which is caused by a dislocating force of the push button switch in the back direction and to restrict a movement of the stopper in an upper direction.
An ice-making device for a refrigerator, comprising: a water tank detachably mounted to a rear surface of a refrigerator door; an ice-making housing (51, 61) detachably mounted to the rear surface of the door below the water tank and provided with a predetermined installation space (51 s, 61 s) therein; an ice tray mounted into the installation space and formed with a plurality of ice-making grooves (71 s) in which water supplied from the water.tank is frozen into ice; a valve assembly operating to selectively supply water stored in the water tank to the ice tray when the water tank is installed or withdrawn; and an ice bank for storing ice made in the ice tray, wherein the ice bank is installed in the installation space (61 s) to be received in or withdrawn out of the installation space. a water tank detachably mounted to a rear surface of a refrigerator door; an ice-making housing (51, 61) detachably mounted to the rear surface of the door below the water tank and provided with a predetermined installation space (51 s, 61 s) therein; an ice tray mounted into the installation space and formed with a plurality of ice-making grooves (71 s) in which water supplied from the water.tank is frozen into ice; a valve assembly operating to selectively supply water stored in the water tank to the ice tray when the water tank is installed or withdrawn; and an ice bank for storing ice made in the ice tray, wherein the ice bank is installed in the installation space (61 s) to be received in or withdrawn out of the installation space.
A hot finishing mill line comprising a cooling system (13A, 13B) for a hot-rolled steel strip, wherein: a guide (16A, 16B) is provided on a delivery side of a work roll (12A, 12B) in a last stand (Sn) of said hot finishing mill line so as to be capable of following a variation in the diameter of the work roll (12A; 12B), the guide (16A, 16B) having a guide face (16a, 16b) for guiding a rolled material, leaving from the work roll (12A, 12B), in a conveyance direction of the rolled material, jet holes (21A, 21B) are formed in the guide (16A, 16B), rolled material cooling nozzles (23A, 23B) are provided to jet cooling water directly to the rolled material through the jet holes (21A, 218), and the guide (16A, 16B) is capable of advancing and retreating relative to the work roll (12A, 12B) via a nozzle block (14A, 14B). characterised in that the guide (16A, 16B) is swingably supported at least by the nozzle block (14A, 14B) to which the rolled material cooling nozzles (23A, 23B) are attached. a guide (16A, 16B) is provided on a delivery side of a work roll (12A, 12B) in a last stand (Sn) of said hot finishing mill line so as to be capable of following a variation in the diameter of the work roll (12A; 12B), the guide (16A, 16B) having a guide face (16a, 16b) for guiding a rolled material, leaving from the work roll (12A, 12B), in a conveyance direction of the rolled material, jet holes (21A, 21B) are formed in the guide (16A, 16B), rolled material cooling nozzles (23A, 23B) are provided to jet cooling water directly to the rolled material through the jet holes (21A, 218), and the guide (16A, 16B) is capable of advancing and retreating relative to the work roll (12A, 12B) via a nozzle block (14A, 14B).