mhurhangee/ep-ind-claims huggingface dataset:
An opening and closing device comprising: a sensing unit which is arranged to sense an object; a liquid crystal device which is capable of varying between an invisible state and a visible state reversibly, and which is driven at a low voltage, to be made into a visible state or an invisible state in the case where the sensing unit senses an object; characterized by a main body in which an aperture portion is formed; and a handheld portion which is attached to the main body, the sensing unit being arranged to sense an object which comes into contact with the handheld portion, and the liquid crystal device being arranged to be made into an invisible state or a visible state in the case where sensing by the sensing unit is released. a sensing unit which is arranged to sense an object; a liquid crystal device which is capable of varying between an invisible state and a visible state reversibly, and which is driven at a low voltage, to be made into a visible state or an invisible state in the case where the sensing unit senses an object; characterized by a main body in which an aperture portion is formed; and a handheld portion which is attached to the main body, the sensing unit being arranged to sense an object which comes into contact with the handheld portion, and the liquid crystal device being arranged to be made into an invisible state or a visible state in the case where sensing by the sensing unit is released.
An injection needle assembly comprising: an injection needle; a fitting portion which is formed into a cylindrical shape and has one end serving as a fitting opening, the fitting portion having a female taper shape in which an inner diameter of a cylinder hole of the fitting portion becomes smaller toward the inner side from the fitting opening; and a hub provided with the fitting portion for holding the injection needle, the injection needle assembly configured to be used in such a manner that the female taper shape of the fitting portion is fitted to a drug discharge tube, which has a male taper shape in which an outer diameter of a cylinder becomes smaller toward a tip, from the fitting opening, wherein when the male taper shape of the drug discharge tube has a taper ratio of N/100, the female taper shape of the fitting portion is formed to have a taper ratio of M/100, wherein M > N characterized in that the fitting portion is formed within a range of M = 1.5 N to 10 N, and to satisfy the relationship of Dmax > K > Dmin, when the diameter of the tip of the drug discharge tube is defined as K, the diameter of the fitting portion at the side of the fitting opening is defined as Dmax and the diameter at the inner side is defined as Dmin. an injection needle; a fitting portion which is formed into a cylindrical shape and has one end serving as a fitting opening, the fitting portion having a female taper shape in which an inner diameter of a cylinder hole of the fitting portion becomes smaller toward the inner side from the fitting opening; and a hub provided with the fitting portion for holding the injection needle, the injection needle assembly configured to be used in such a manner that the female taper shape of the fitting portion is fitted to a drug discharge tube, which has a male taper shape in which an outer diameter of a cylinder becomes smaller toward a tip, from the fitting opening, wherein when the male taper shape of the drug discharge tube has a taper ratio of N/100, the female taper shape of the fitting portion is formed to have a taper ratio of M/100, wherein M > N characterized in that the fitting portion is formed within a range of M = 1.5 N to 10 N, and to satisfy the relationship of Dmax > K > Dmin, when the diameter of the tip of the drug discharge tube is defined as K, the diameter of the fitting portion at the side of the fitting opening is defined as Dmax and the diameter at the inner side is defined as Dmin.
A polyolefin article comprising a polymeric substrate and a_surface modifying agent applied on at least one surface of the-polymeric substrate, the surface modifying agent comprising: a first component comprising an aryl sulfonyl azide polymer or a copolymer thereof and a second component that comprises a chemical component capable of imparting a property to a surface of the substrate, the surface modifying agent is applied to the substrate in a weight range of 0.05-1.0 g/m 2, and at least one azide of the first component has been reacted with a carbon atom of the substrate to form a sulfonamide linking group,_wherein the polymeric substrate is a polyolefinic substrate being selected from the group consisting of: a textile substrate, a fiber, a polyolefin material, a polypropylene material, a polyethylene material, a porous polyolefin substrate, a nonporous polyolefin substrate, a porous hollow fiber, a nonporous hollow fiber, a porous battery separator, a film, a polyolefin surface layer, a composite, and combination thereof.
A woven geotextile wicking fabric comprising: a polymeric yarn disposed in one axis of the fabric, and a plurality of wicking fibers disposed substantially parallel to one another and woven with the polymeric yarn in another axis of the fabric, the wicking fiber comprising a non-round and non-oval cross-section characterised in that the wicking fiber has a flux range of about 100 cc/g/hr to about 250 cc/g/hr. a polymeric yarn disposed in one axis of the fabric, and a plurality of wicking fibers disposed substantially parallel to one another and woven with the polymeric yarn in another axis of the fabric, the wicking fiber comprising a non-round and non-oval cross-section characterised in that the wicking fiber has a flux range of about 100 cc/g/hr to about 250 cc/g/hr.
Electrical machine with - a stator, - a rotor, that interacts magnetically with the stator, - a shaft (3, 3'), on which the rotor is disposed and that is supported on the stator for rotation in a first direction of rotation and in an opposing second direction of rotation, - a first axial fan that is connected to rotate along with the shaft for a movement in the first direction of rotation, - a second axial fan that is disposed on the same side of the rotor as the first axial fan to rotate along with the shaft for a movement in the second direction of rotation, characterised in that - the first axial fan possesses a freewheeling capability on the shaft in relation to the second direction of rotation and - the second axial fan possesses a freewheeling capability on the shaft in relation to the first direction of rotation. - a stator, - a rotor, that interacts magnetically with the stator, - a shaft (3, 3'), on which the rotor is disposed and that is supported on the stator for rotation in a first direction of rotation and in an opposing second direction of rotation, - a first axial fan that is connected to rotate along with the shaft for a movement in the first direction of rotation, - a second axial fan that is disposed on the same side of the rotor as the first axial fan to rotate along with the shaft for a movement in the second direction of rotation, - the first axial fan possesses a freewheeling capability on the shaft in relation to the second direction of rotation and - the second axial fan possesses a freewheeling capability on the shaft in relation to the first direction of rotation.
Device for relative positioning of multi-aperture optics comprising several optical channels (14a-f) in relation to an image sensor, comprising: a reference object arranged such that the reference object is imaged to an image region (22a-e) per channel (14a-f) by the multi-aperture optics in the optical channels (14a-f); a positioning device controllable to change a relative location between the multi-aperture optics and the image sensor; a calculating device configured to determine actual positions of the reference object in at least three image regions (22a-e) in images of the reference object and to control the positioning device on the basis of a comparison of the actual positions with positions that are reference positions in a respective one and/or in other image regions. a reference object arranged such that the reference object is imaged to an image region (22a-e) per channel (14a-f) by the multi-aperture optics in the optical channels (14a-f); a positioning device controllable to change a relative location between the multi-aperture optics and the image sensor; a calculating device configured to determine actual positions of the reference object in at least three image regions (22a-e) in images of the reference object and to control the positioning device on the basis of a comparison of the actual positions with positions that are reference positions in a respective one and/or in other image regions.
An adhesively coupled power-meter for measurement of one or more of force, torque, power, and velocity of a mechanical arm, comprising: a plate having a first surface prepared for adhesively coupling with the mechanical arm; at least one strain gauge physically coupled with a second surface of the plate opposite the first and with an orientation corresponding to an orientation of the adhesively coupled power meter, wherein mechanical forces are transferred from mechanical arm to the at least one strain gauge when the plate is adhesively coupled to the mechanical arm; electronics for receiving a signal from the at least one strain gauge and for determining one or more of force, torque, and power from the signal; and a wireless transmitter for transmitting, to a receiving device, one or more of force, torque, and power, characterized in that the plate is formed of vertical honeycomb structures that improve transfer of shear forces and reduce transfer of vertical compression forces, thereby mitigating the effect of surface imperfections on the mechanical arm. a plate having a first surface prepared for adhesively coupling with the mechanical arm; at least one strain gauge physically coupled with a second surface of the plate opposite the first and with an orientation corresponding to an orientation of the adhesively coupled power meter, wherein mechanical forces are transferred from mechanical arm to the at least one strain gauge when the plate is adhesively coupled to the mechanical arm; electronics for receiving a signal from the at least one strain gauge and for determining one or more of force, torque, and power from the signal; and a wireless transmitter for transmitting, to a receiving device, one or more of force, torque, and power, characterized in that the plate is formed of vertical honeycomb structures that improve transfer of shear forces and reduce transfer of vertical compression forces, thereby mitigating the effect of surface imperfections on the mechanical arm.
A position detection data generating method for use in a position detection system which in response to an exciting reference A.C. input signal produces a first A.C. output signal having an electric phase angle (+θ) shifted in a positive direction in correspondence to a position-to-be-detected and a second A.C. output signal having an electric phase angle (-θ) shifted in a negative direction in correspondence to the position-to-be-detected, characterized in that said position detection data generating method comprises: a first step of generating first detection data (P 1) by detecting a phase difference of said first A.C. output signal from a predetermined reference phase and generating second detection data (M 1) by detecting a phase difference of said second A.C. output signal from the predetermined reference phase; a second step of providing a first predicted value (ΔP) on the basis of at least two samples of said first detection data and providing a second predicted value (ΔM) on the basis of at least two samples of said second detection data; a third step of providing at least one standard predicted value on the basis of said first and second predicted values; a fourth step of performing interpolation on said first detection data and said second detection data, sequentially with passage of time, using the standard predicted value, to thereby provide first interpolated detection data and second interpolated detection data; and a fifth step of, on the basis of said first and second interpolated detection data, outputting position detection data corresponding to the position-to-be-detected. a first step of generating first detection data (P 1) by detecting a phase difference of said first A.C. output signal from a predetermined reference phase and generating second detection data (M 1) by detecting a phase difference of said second A.C. output signal from the predetermined reference phase; a second step of providing a first predicted value (ΔP) on the basis of at least two samples of said first detection data and providing a second predicted value (ΔM) on the basis of at least two samples of said second detection data; a third step of providing at least one standard predicted value on the basis of said first and second predicted values; a fourth step of performing interpolation on said first detection data and said second detection data, sequentially with passage of time, using the standard predicted value, to thereby provide first interpolated detection data and second interpolated detection data; and a fifth step of, on the basis of said first and second interpolated detection data, outputting position detection data corresponding to the position-to-be-detected.
A method for separating, from a raw gas containing a specific gas, the specific gas using a gas separation membrane module, wherein the specific gas is carbon dioxide (CO 2), the gas separation membrane module including a housing and a gas separation membrane element enclosed in the housing, the gas separation membrane element including a gas separation membrane including a hydrophilic resin composition layer for selectively allowing for permeation of the specific gas, the method comprising the steps of: preparing the gas separation membrane module; increasing a pressure in an interior of the gas separation membrane module; increasing a temperature in the interior of the gas separation membrane module; and feeding the raw gas to the interior of the gas separation membrane module, wherein the hydrophilic resin composition layer included in the gas separation membrane module prepared in the step of preparing the gas separation membrane module is adjusted to contain moisture, a moisture content of the hydrophilic resin composition layer is an amount that allows an equilibrium relative humidity at a temperature of 23°C of a gas phase portion in the housing to be greater than or equal to 10%RH, the step of feeding the raw gas is performed after the step of preparing the gas separation membrane module, the step of increasing a pressure and the step of increasing a temperature are performed after the step of preparing the gas separation membrane module and before the step of feeding the raw gas, and at the start of the raw gas feeding the temperature in the interior of the gas separation membrane module is higher than or equal to 100°C and lower than or equal to 200°C and the pressure in the interior of the gas separation membrane module is greater than or equal to 0.5 MPaG and less than or equal to 10 MPaG. preparing the gas separation membrane module; increasing a pressure in an interior of the gas separation membrane module; increasing a temperature in the interior of the gas separation membrane module; and feeding the raw gas to the interior of the gas separation membrane module, wherein the hydrophilic resin composition layer included in the gas separation membrane module prepared in the step of preparing the gas separation membrane module is adjusted to contain moisture, a moisture content of the hydrophilic resin composition layer is an amount that allows an equilibrium relative humidity at a temperature of 23°C of a gas phase portion in the housing to be greater than or equal to 10%RH, the step of feeding the raw gas is performed after the step of preparing the gas separation membrane module, the step of increasing a pressure and the step of increasing a temperature are performed after the step of preparing the gas separation membrane module and before the step of feeding the raw gas, and at the start of the raw gas feeding the temperature in the interior of the gas separation membrane module is higher than or equal to 100°C and lower than or equal to 200°C and the pressure in the interior of the gas separation membrane module is greater than or equal to 0.5 MPaG and less than or equal to 10 MPaG.
An electrophoresis device comprising two joined substrates in which a concavity is provided in at least one of the opposing surfaces of the two substrates whereby to form a channel within the device, wherein the two substrates are covalently bonded via a crosslinking agent which is ionic, and the crosslinking agent is exposed on an inner wall surface of the channel.
An anti-CTLA4 humanised antibody which inhibits the binding of CTLA4 to human B7, wherein said antibody comprises variable regions having CDR sequences of: (i) CDRH1 comprising sequence DYNMD (SEQ ID NO:9) (ii) CDRH2 comprising sequence NINPNSESTSYNQKFKG (SEQ ID NO: 10) (iii) CDRH3 comprising sequence DGNRYDAWFAY (SEQ ID NO:11) (iv) CDRL1 comprising sequence SASSSVTYMH (SEQ ID NO:12) (v) CDRL2 comprising sequence STSILAS (SEQ ID NO:13), and (vi) CDRL3 comprising sequence QQRTSYPLT (SEQ ID NO:14); or (i) CDRH1 comprising sequence SYWIN (SEQ ID NO:15) (ii) CDRH2 comprising sequence RIAPGSGTTYYNEVFKG (SEQ ID NO: 16) (iii) CDRH3 comprising sequence GDYGSY (SEQ ID NO:17) (iv) CDRL1 comprising sequence SASSSISYMH (SEQ ID NO:18); (v) CDRL2 comprising sequence DTSKLAS (SEQ ID NO:19); and (vi) CDRL3 comprising sequence HQRTSYPLT (SEQ ID NO:20). (i) CDRH1 comprising sequence DYNMD (SEQ ID NO:9) (ii) CDRH2 comprising sequence NINPNSESTSYNQKFKG (SEQ ID NO: 10) (iii) CDRH3 comprising sequence DGNRYDAWFAY (SEQ ID NO:11) (iv) CDRL1 comprising sequence SASSSVTYMH (SEQ ID NO:12) (v) CDRL2 comprising sequence STSILAS (SEQ ID NO:13), and (vi) CDRL3 comprising sequence QQRTSYPLT (SEQ ID NO:14); (i) CDRH1 comprising sequence SYWIN (SEQ ID NO:15) (ii) CDRH2 comprising sequence RIAPGSGTTYYNEVFKG (SEQ ID NO: 16) (iii) CDRH3 comprising sequence GDYGSY (SEQ ID NO:17) (iv) CDRL1 comprising sequence SASSSISYMH (SEQ ID NO:18); (v) CDRL2 comprising sequence DTSKLAS (SEQ ID NO:19); and (vi) CDRL3 comprising sequence HQRTSYPLT (SEQ ID NO:20).
A method, in a radio transceiver, for facilitating frequency offset estimation at a remote receiver, characterized in that the method comprises: determining that phase coherence between reference symbol transmissions in a first transmission time interval, TTI, and in a second TTI is required; selectively maintaining phase coherence between reference symbol transmissions in the first and second TTIs, in response to said determining; and transmitting during at least part of a third TTI, following said second TTI, without maintaining phase coherence to the reference symbol transmissions in the first and second TTIs. determining that phase coherence between reference symbol transmissions in a first transmission time interval, TTI, and in a second TTI is required; selectively maintaining phase coherence between reference symbol transmissions in the first and second TTIs, in response to said determining; and transmitting during at least part of a third TTI, following said second TTI, without maintaining phase coherence to the reference symbol transmissions in the first and second TTIs.
Method for joining materials, comprising: - a) providing a first material and a second material, characterized by the following steps: - b) providing the first material at a joint with a lattice structure, wherein the first material is a metallic material, in particular a nickel-based or cobalt-based super alloy, wherein the second material is a ceramic material, in particular a ceramic fibre-reinforced material, and wherein the lattice structure is manufactured by an additive manufacturing method, specifically selective laser melting or electron-beam melting, wherein the lattice structure is manufactured from the same material as the first material; and - c) connecting, in particular soldering, the second material to the lattice structure such that a material composite from the first material and the second material is created, wherein the lattice structure is configured in such a manner that stresses in the material composite are at least partially compensated for by the lattice structure, wherein the material composite does not have any buffer layer or adhesion-promoting layer for compensating mechanical stresses. - a) providing a first material and a second material, - b) providing the first material at a joint with a lattice structure, wherein the first material is a metallic material, in particular a nickel-based or cobalt-based super alloy, wherein the second material is a ceramic material, in particular a ceramic fibre-reinforced material, and wherein the lattice structure is manufactured by an additive manufacturing method, specifically selective laser melting or electron-beam melting, wherein the lattice structure is manufactured from the same material as the first material; and - c) connecting, in particular soldering, the second material to the lattice structure such that a material composite from the first material and the second material is created, wherein the lattice structure is configured in such a manner that stresses in the material composite are at least partially compensated for by the lattice structure, wherein the material composite does not have any buffer layer or adhesion-promoting layer for compensating mechanical stresses.
A halved outer ring (11a, 11b, 41, 51, 61) adapted to be included in a roller bearing, and having a substantially semicylindrical shape, comprising: protruding and recessed shapes provided in abutting portions (16a, 16b, 42, 52) where a pair of said halved outer rings (11a, 11b, 41, 51, 61) abut on each other when incorporated in said roller bearing, and configured to mesh with each other to restrict axial movement of said halved outer rings (11a, 11b, 41, 51, 61), characterized in that, when said abutting portion (16a, 16b, 42, 52) is viewed from an outer diameter side, said protruding shape is formed by a first line (18a, 43a, 53a) extending straight in a circumferential direction, and a second line (18b, 43b, 53b) extending from an outer circumferential end (19a, 44a, 54a) of said first line (18a, 43a, 53a) to one axial end (13a, 45a, 55a) of said halved outer ring (11a, 11b, 41, 51, 61), and said recessed shape is formed by said first line (18a, 43a, 53a) and a third line (18c, 43c, 53c) extending from an inner circumferential end (19b, 44b, 54b) of said first line (18a, 43a, 53a) to the other axial end (13b, 45b, 55b) of said halved outer ring (11a, 11b, 41, 51, 61). protruding and recessed shapes provided in abutting portions (16a, 16b, 42, 52) where a pair of said halved outer rings (11a, 11b, 41, 51, 61) abut on each other when incorporated in said roller bearing, and configured to mesh with each other to restrict axial movement of said halved outer rings (11a, 11b, 41, 51, 61), characterized in that, when said abutting portion (16a, 16b, 42, 52) is viewed from an outer diameter side, said protruding shape is formed by a first line (18a, 43a, 53a) extending straight in a circumferential direction, and a second line (18b, 43b, 53b) extending from an outer circumferential end (19a, 44a, 54a) of said first line (18a, 43a, 53a) to one axial end (13a, 45a, 55a) of said halved outer ring (11a, 11b, 41, 51, 61), and said recessed shape is formed by said first line (18a, 43a, 53a) and a third line (18c, 43c, 53c) extending from an inner circumferential end (19b, 44b, 54b) of said first line (18a, 43a, 53a) to the other axial end (13b, 45b, 55b) of said halved outer ring (11a, 11b, 41, 51, 61).