mhurhangee/ep-ind-claims huggingface dataset:
A fine-structure layered product comprising: a substrate; a resin layer that Is formed on one main surface of the substrate and that has a fine concavo-convex structure on a surface thereof, wherein the resin layer contains (meth)acrylate, fluorine-containing (meth)acrylate and photoinitiator and an inorganic layer that is provided on the fine concavo-convex structure of the resin layer, wherein the inorganic layer contains (i) a hardened material of a sol-gel material, or (ii) a semi-hardened material of a sol-gel material, and wherein the inorganic layer has a fine concavo-convex structure in a shape associated with the fine concavo-convex structure of the resin layer and wherein the inorganic layer contains functional fine particles added to the sol-gel material selected from metal fine particles, carbon fine particles and metal oxide particles, wherein the metal oxide particles are selected from the group consisting of titania, zirconia, ceria, alumina, zinc oxide and tin oxide; and wherein the fluorine element concentration (Es) in the region on the inorganic layer side of the resin layer is higher than the average fluorine concentration (Eb) in the resin layer. a substrate; a resin layer that Is formed on one main surface of the substrate and that has a fine concavo-convex structure on a surface thereof, wherein the resin layer contains (meth)acrylate, fluorine-containing (meth)acrylate and photoinitiator and an inorganic layer that is provided on the fine concavo-convex structure of the resin layer, wherein the inorganic layer contains (i) a hardened material of a sol-gel material, or (ii) a semi-hardened material of a sol-gel material, and (i) a hardened material of a sol-gel material, or (ii) a semi-hardened material of a sol-gel material, and wherein the inorganic layer has a fine concavo-convex structure in a shape associated with the fine concavo-convex structure of the resin layer and wherein the inorganic layer contains functional fine particles added to the sol-gel material selected from metal fine particles, carbon fine particles and metal oxide particles, wherein the metal oxide particles are selected from the group consisting of titania, zirconia, ceria, alumina, zinc oxide and tin oxide; and wherein the fluorine element concentration (Es) in the region on the inorganic layer side of the resin layer is higher than the average fluorine concentration (Eb) in the resin layer.
A keyboard threshold change apparatus comprising: a keyboard that includes an illumination unit illuminating key tops of a plurality of keys and a threshold change unit capable of changing, for each key among the keys, a threshold used to determine an occurrence of a press of the key; and a computer that is connected to the keyboard and that includes an input unit used to input the threshold and an image output unit outputting the threshold input with the input unit as an image, wherein the illumination unit illuminates the key tops in accordance with the threshold, when the threshold for a key among the keys is changed with the input unit, the threshold change unit changes, on the basis of the changed threshold for the key from the computer, a threshold for the key in the keyboard, and the illumination unit changes an illumination color of the key for which the threshold is changed to a color corresponding to the threshold. a keyboard that includes an illumination unit illuminating key tops of a plurality of keys and a threshold change unit capable of changing, for each key among the keys, a threshold used to determine an occurrence of a press of the key; and a computer that is connected to the keyboard and that includes an input unit used to input the threshold and an image output unit outputting the threshold input with the input unit as an image, wherein the illumination unit illuminates the key tops in accordance with the threshold, when the threshold for a key among the keys is changed with the input unit, the threshold change unit changes, on the basis of the changed threshold for the key from the computer, a threshold for the key in the keyboard, and the illumination unit changes an illumination color of the key for which the threshold is changed to a color corresponding to the threshold.
A computer-implemented method for planning multiple interventional procedures, the method comprising: identifying a target structure in an anatomic frame of reference; determining a target region (311, 452) in the anatomic frame of reference, wherein the target region represents a location of the target structure with respect to an interventional instrument as a probabilistic collection of target points (312, 454); identifying a first engagement location within the target region for deploying the interventional instrument; and identifying a second engagement location within the target region for deploying the interventional instrument; characterised in that the probabilistic collection of target points is based on error factors between the location of the target structure relative to the interventional instrument. identifying a target structure in an anatomic frame of reference; determining a target region (311, 452) in the anatomic frame of reference, wherein the target region represents a location of the target structure with respect to an interventional instrument as a probabilistic collection of target points (312, 454); identifying a first engagement location within the target region for deploying the interventional instrument; and identifying a second engagement location within the target region for deploying the interventional instrument; characterised in that the probabilistic collection of target points is based on error factors between the location of the target structure relative to the interventional instrument.
A first base-station configured to communicate with a set of first remote customer devices using a first wireless protocol and a first spectrum, the first base-station being configured to co-exist with a remote wireless system having a remote base-station configured to communicate with a set of second remote customer devices using the first wireless protocol and the first spectrum, the first base-station comprising; a physical layer, PHY, device configured to transmit and receive wireless signals of the first protocol and the first spectrum; a suppression device coupled to the PHY device, wherein the suppression device is configured to inhibit the PHY device from transmitting while the PHY device detects a remote set of wireless signals transmitted by at least one of the remote base-station and a second remote customer device; and a media access control, MAC, device coupled to the PHY device and configured to receive the remote set of wireless signals from the PHY device, wherein the MAC device includes a timing estimation device configured to estimate the protocol timing of the remote base-station's and/or second remote customer device's transmitted signal based on the received wireless signals, and wherein the MAC device is further configured to adjust the first base-station's own protocol timing based on said estimated protocol timing in a manner as to lessen signal interference between the first base-station and remote wireless system.
A propylene polymer composition comprising: A) 70-94 %wt of a propylene-ethylene copolymer comprising from 3.1 to 4 %wt of ethylene derived units; and B) 6-30 %wt of a second propylene-ethylene copolymer comprising from 41 to 55 %wt of ethylene derived units; said propylene polymer composition having a MFR L (Melt Flow Rate according to ISO 1133, condition L, i.e. 230°C and 2.16 kg load) from 0.1 to 5 g/10 min, and an Intrinsic Viscosity of the fraction soluble in xylene [XSIV] at room temperature from 2 to 4 dl/g. A) 70-94 %wt of a propylene-ethylene copolymer comprising from 3.1 to 4 %wt of ethylene derived units; and B) 6-30 %wt of a second propylene-ethylene copolymer comprising from 41 to 55 %wt of ethylene derived units; said propylene polymer composition having a MFR L (Melt Flow Rate according to ISO 1133, condition L, i.e. 230°C and 2.16 kg load) from 0.1 to 5 g/10 min, and an Intrinsic Viscosity of the fraction soluble in xylene [XSIV] at room temperature from 2 to 4 dl/g.
A vacuum adiabatic body comprising: a first plate member which defines at least a portion of a wall for a first space; a second plate member which defines at least a portion of a wall for a second space which has a temperature different from that of the first space; a sealing part which seals the first plate member and the second plate member so as to provide a third space which has a temperature between the temperature of the first space and the temperature of the second space and is a space in a vacuum state; a conductive resistance sheet which connects the first plate member and the second plate member to each other for preventing conduction between the first plate member and the second plate member; an exhaust port which exhausts a gas in the third space; and a sealing frame which covers the conductive resistance sheet; characterized in that, the vacuum adiabatic body further comprises: a part fixing frame which is supported by the sealing frame; and an electrical part which is mounted to the part fixing frame; and wherein a wiring (402, 403) for the operation of the electrical part connects the first space and the second space to each other at an outside of the conductive resistance sheet, and the vacuum adiabatic body further comprises: a reinforcing member which reinforces at least one of the first plate member and the second plate member, and a slit (115, 116) provided in the reinforcing member and through which the wiring (402, 403) is passed. a first plate member which defines at least a portion of a wall for a first space; a second plate member which defines at least a portion of a wall for a second space which has a temperature different from that of the first space; a sealing part which seals the first plate member and the second plate member so as to provide a third space which has a temperature between the temperature of the first space and the temperature of the second space and is a space in a vacuum state; a conductive resistance sheet which connects the first plate member and the second plate member to each other for preventing conduction between the first plate member and the second plate member; an exhaust port which exhausts a gas in the third space; and a sealing frame which covers the conductive resistance sheet; a part fixing frame which is supported by the sealing frame; and an electrical part which is mounted to the part fixing frame; and wherein a wiring (402, 403) for the operation of the electrical part connects the first space and the second space to each other at an outside of the conductive resistance sheet, and the vacuum adiabatic body further comprises: a reinforcing member which reinforces at least one of the first plate member and the second plate member, and a slit (115, 116) provided in the reinforcing member and through which the wiring (402, 403) is passed.
A liquid resin composition for compression molding, comprising an aliphatic epoxy compound, an epoxy compound having an aromatic ring in a molecule, a nitrogen-containing heterocyclic compound, and an inorganic filler wherein the epoxy compound having an aromatic ring in a molecule comprises at least one of N,N-diglycidylorthotoluidine or N,N-bis(2,3-epoxypropyl)-4-(2,3-epoxypropoxy)aniline, wherein the nitrogen-containing heterocyclic compound comprises an imidazole, and wherein the percentage content of the aliphatic epoxy compound is from 3% by mass to 40% by mass with respect to a total amount of compounds having an epoxy group. wherein the epoxy compound having an aromatic ring in a molecule comprises at least one of N,N-diglycidylorthotoluidine or N,N-bis(2,3-epoxypropyl)-4-(2,3-epoxypropoxy)aniline, wherein the nitrogen-containing heterocyclic compound comprises an imidazole, and wherein the percentage content of the aliphatic epoxy compound is from 3% by mass to 40% by mass with respect to a total amount of compounds having an epoxy group.
A photovoltaic device adapted for receiving incident light, comprising: a plurality of photovoltaic cells, wherein each cell of the plurality of photovoltaic cells comprises: a first conductive layer; a photoactive layer adjacent the first conductive layer; a second conductive layer adjacent the photoactive layer; a substrate layer adjacent one of the first conductive layer and the second conductive layer wherein the plurality of photovoltaic cells are stacked and are substantially vertically oriented, wherein the vertical direction is the direction of incident light, characterized in that the substrate layer of each cell comprises a channel therethrough. wherein each cell of the plurality of photovoltaic cells comprises: a first conductive layer; a photoactive layer adjacent the first conductive layer; a second conductive layer adjacent the photoactive layer; a substrate layer adjacent one of the first conductive layer and the second conductive a first conductive layer; a photoactive layer adjacent the first conductive layer; a second conductive layer adjacent the photoactive layer; a substrate layer adjacent one of the first conductive layer and the second conductive layer wherein the plurality of photovoltaic cells are stacked and are substantially vertically oriented, wherein the vertical direction is the direction of incident light, characterized in that the substrate layer of each cell comprises a channel therethrough.
A control method for a vehicle injector, comprising: an injection time determination step in which a controller determines whether it is necessary for multiple injectors arranged on an intake port to inject fuel towards one and the same combustion chamber according to a combustion cycle of a combustion chamber; an individual injection step in which the controller controls each of the injectors to individually inject fuel in at least two subsequent injections, in a state in which intake valves are open, where the times for the first injections of each injector would not overlap each other; and characterised by a simultaneous injection step in which the controller controls each of the injectors to simultaneously inject fuel, in a state in which the intake valves are open, where the time for the last injections of each injector would be identical, wherein the individual injection step and the simultaneous injection step are performed within one combustion cycle, and injections of the multiple injectors do not overlap each other, except at the simultaneous injection step. an injection time determination step in which a controller determines whether it is necessary for multiple injectors arranged on an intake port to inject fuel towards one and the same combustion chamber according to a combustion cycle of a combustion chamber; an individual injection step in which the controller controls each of the injectors to individually inject fuel in at least two subsequent injections, in a state in which intake valves are open, where the times for the first injections of each injector would not overlap each other; and characterised by a simultaneous injection step in which the controller controls each of the injectors to simultaneously inject fuel, in a state in which the intake valves are open, where the time for the last injections of each injector would be identical, wherein the individual injection step and the simultaneous injection step are performed within one combustion cycle, and injections of the multiple injectors do not overlap each other, except at the simultaneous injection step.
A refill station for refilling the infusible liquid reservoir for an infusion pump having a plunger head axially movable within the reservoir and a plunger arm connected to the plunger head, the station comprises: a vial containing a supply of the infusible liquid; a transfer guard having a first adapter adapted to mate with the vial, a second adapter for connection to the reservoir and a first needle extended from the vial through the transfer guard to project from the second adapter; a tubular handle for receiving the plunger arm and having a transverse engagement finger displaceable radially within the handle from a first radially inward position for engaging the plunger arm when it is in the handle to a second radially outward position for releasing the plunger arm; a manually operable slide on said tubular handle which, in a first axial position, moves and holds the engagement finger in the radially inward position, and in a second axial position moves and holds the engagement finger in the radially outward position. a vial containing a supply of the infusible liquid; a transfer guard having a first adapter adapted to mate with the vial, a second adapter for connection to the reservoir and a first needle extended from the vial through the transfer guard to project from the second adapter; a tubular handle for receiving the plunger arm and having a transverse engagement finger displaceable radially within the handle from a first radially inward position for engaging the plunger arm when it is in the handle to a second radially outward position for releasing the plunger arm; a manually operable slide on said tubular handle which, in a first axial position, moves and holds the engagement finger in the radially inward position, and in a second axial position moves and holds the engagement finger in the radially outward position.
Door for a household appliance, with a handle, which can be pivoted from a first position, in which the handle is folded in between an inner wall and an outer wall of the door, into a second position, in which the handle is folded out, and a pivot facility, which is configured to automatically pivot the handle into the second position when the handle is displaced from the first position in the direction of the second position, wherein the pivot facility is configured to automatically pivot the handle into the first position when the handle is displaced from the second position in the direction of the first position, wherein the pivot facility has a spring element, which is actively connected to the handle, in order to pivot it into the second position with the aid of a spring force when it is displaced from the first position in the direction of the second position, wherein the handle is mounted on the door such that it can rotate with the aid of a first axis of rotation, wherein the spring element is actively connected to a second axis of rotation of the handle, characterised in that the pivot facility has a damping element, which is configured to damp a rotational movement of the handle when the same is pivoted from the first position into the second position, or vice versa, and wherein the damping element is a rotary damper, and the pivot facility has a coupling element, which is coupled to the second axis of rotation of the handle and to the door and which is configured to transfer the spring force of the spring element to the handle, wherein the coupling element comprises a coupling sleeve and a coupling rod that is accommodated in the coupling sleeve such that it can be shifted.
A blood treatment cassette having a cassette body designed as a hard part and a film, the film being connected to the hard part and covering the hard part at least in portions, wherein the hard part comprises at least one valve base of a valve, the valve being designed so that it takes, when applying a force to a portion of the film, in addition to a first open position of the valve in which the valve base and a portion of the film covering it don't touch each other, a second closed position of the valve in which the valve base and the portion of the film touch each other, wherein the valve base is designed concave or convex in its longitudinal direction, wherein the hard part and the film touch each other in a main contact plane and are connected to each other in the main contact plane along channel bridges, which border or delimit chambers or channels of the hard part, characterized in that the blood treatment cassette additionally comprises, in a region of the valve, at least one hump integrally produced with the hard part, wherein the hump is arranged to ensure that the valve remains in the first open position when the blood treatment cassette is in a non-use state.
A skin gripping means for use with an injector, the skin gripping means having: an exterior surface with a curved frustoconical portion which has a substantially semi-parabolic profile; and a plurality of slender fingers extending from the curved frustoconical portion, each of the slender fingers having a tip which is adapted to grip a subject's skin when engaged at an angle to the skin, in use, such that when the skin gripping means is moved substantially parallel to the skin it forms a fold in the skin, which the injector can then inject into. an exterior surface with a curved frustoconical portion which has a substantially semi-parabolic profile; and a plurality of slender fingers extending from the curved frustoconical portion, each of the slender fingers having a tip which is adapted to grip a subject's skin when engaged at an angle to the skin, in use, such that when the skin gripping means is moved substantially parallel to the skin it forms a fold in the skin, which the injector can then inject into.
A method of driving an electric motor including a plurality of windings (A, B, C), the method including: - sensing currents ( i a *, i b *, i c *) in the motor windings (A, B, C), - generating (14, 16) a motor rotation angle signal (θ) from the currents sensed ( i a *, i b *, i c *), - generating motor control voltages ( V a, V b, V c) as a function of said motor rotation angle signal (θ), - driving the motor windings with motor drive voltages ( V a *, V b *, V c *) obtained by injecting into said motor control voltages ( V a, V b, V c) injection pulses ( V ainj, V binj, V cinj), wherein said currents sensed ( i a *, i b *, i c *) include torque components ( i a0, ib 0, i c0) and injection components ( i ainj, i binj, i cinj), wherein the driven motor includes three windings (A, B, C) energized in three respective phases, and the method being characterised by - injecting injection pulses ( V ainj, V binj, V cinj) in two of said three phases while refraining from injecting injection pulses in the third of said three phases, wherein the injection pulses ( V ainj, V binj, V cinj) comprise pairs of injection pulses, each pair including injection pulses (V B, V C) of opposed polarities, and - generating (14, 16) said motor rotation angle signal (θ) as a function of the injection component ( i ainj) of the current sensed ( i a *) in the third of said three phases. - sensing currents ( i a *, i b *, i c *) in the motor windings (A, B, C), - generating (14, 16) a motor rotation angle signal (θ) from the currents sensed ( i a *, i b *, i c *), - generating motor control voltages ( V a, V b, V c) as a function of said motor rotation angle signal (θ), - driving the motor windings with motor drive voltages ( V a *, V b *, V c *) obtained by injecting into said motor control voltages ( V a, V b, V c) injection pulses ( V ainj, V binj, V cinj), wherein said currents sensed ( i a *, i b *, i c *) include torque components ( i a0, ib 0, i c0) and injection components ( i ainj, i binj, i cinj), wherein the driven motor includes three windings (A, B, C) energized in three respective phases, and the method being characterised by - injecting injection pulses ( V ainj, V binj, V cinj) in two of said three phases while refraining from injecting injection pulses in the third of said three phases, wherein the injection pulses ( V ainj, V binj, V cinj) comprise pairs of injection pulses, each pair including injection pulses (V B, V C) of opposed polarities, and - generating (14, 16) said motor rotation angle signal (θ) as a function of the injection component ( i ainj) of the current sensed ( i a *) in the third of said three phases.