mhurhangee/ep-ind-claims huggingface dataset:
Mould for a production apparatus for producing fibre-reinforced components by means of an injection method, wherein the mould has a mould surface for moulding a surface of the fibre-reinforced component, wherein the mould is formed of a plurality of partial moulds (18, 20) and comprises: a first partial mould which comprises a first partial region of the mould surface and which has an evacuation region for evacuating a mould volume which is delimited by the mould through the first partial region, wherein flow aids for supporting evacuation of the mould volume are arranged in the first partial region, and a second partial mould which comprises a second partial region of the mould surface and which has an injection region which is configured for injecting matrix material through the second partial region into fibrous material located at the mould surface, wherein flow aids for supporting distribution of the injected matrix material are arranged in the second partial region of the mould surface, characterized in that the flow aids have grooves or channels such that the matrix material can be distributed uniformly over the fibrous material. a first partial mould which comprises a first partial region of the mould surface and which has an evacuation region for evacuating a mould volume which is delimited by the mould through the first partial region, wherein flow aids for supporting evacuation of the mould volume are arranged in the first partial region, and a second partial mould which comprises a second partial region of the mould surface and which has an injection region which is configured for injecting matrix material through the second partial region into fibrous material located at the mould surface, wherein flow aids for supporting distribution of the injected matrix material are arranged in the second partial region of the mould surface, characterized in that the flow aids have grooves or channels such that the matrix material can be distributed uniformly over the fibrous material.
A method for constructing a contact sharing history, comprising: receiving, at a computing device of a second user, a communication contact information element of a first user, wherein said communication contact information element is linked to a personal identification key associated with the first user; adding a link to a personal identification key associated with the second user to the communication contact information element to form the contact sharing history; and communicating the contact sharing history from the computing device of the second user to the first user when communicating with the first user to show the first user where the second user obtained the first user's communication contact information element. receiving, at a computing device of a second user, a communication contact information element of a first user, wherein said communication contact information element is linked to a personal identification key associated with the first user; adding a link to a personal identification key associated with the second user to the communication contact information element to form the contact sharing history; and communicating the contact sharing history from the computing device of the second user to the first user when communicating with the first user to show the first user where the second user obtained the first user's communication contact information element.
Paint nozzle assembly (1; 901) for a paint spraying device for creating a paint spray jet, - wherein the paint nozzle assembly (1; 901) comprises a needle (3; 903), a nozzle body and a seal (5; 905), - wherein the nozzle body comprises a nozzle opening, a paint feed and a needle guide, and - wherein the seal (5; 905) subdivides an interior enclosed by the nozzle body into an antechamber and a paint chamber, - wherein the seal (5; 905) is connected fixedly to the needle (3; 903), - wherein the seal (5; 905) is in the form of a membrane seal and is connected fixedly to the nozzle body, - wherein the interior comprises a diverging portion as far as the needle guide, characterized - in that the paint nozzle assembly (1; 901) comprises a compression spring, wherein the compression spring is clamped in place between the needle guide and a collar of the needle (3; 903) in such a way that the needle (3; 903) is extracted from the nozzle opening. - wherein the paint nozzle assembly (1; 901) comprises a needle (3; 903), a nozzle body and a seal (5; 905), - wherein the nozzle body comprises a nozzle opening, a paint feed and a needle guide, and - wherein the seal (5; 905) subdivides an interior enclosed by the nozzle body into an antechamber and a paint chamber, - wherein the seal (5; 905) is connected fixedly to the needle (3; 903), - wherein the seal (5; 905) is in the form of a membrane seal and is connected fixedly to the nozzle body, - wherein the interior comprises a diverging portion as far as the needle guide, - in that the paint nozzle assembly (1; 901) comprises a compression spring, wherein the compression spring is clamped in place between the needle guide and a collar of the needle (3; 903) in such a way that the needle (3; 903) is extracted from the nozzle opening.
A porphyrazine coloring matter or a salt thereof represented by the following formula wherein, the rings of A to D represented by broken lines each independently represent a benzene ring or a 6-membered nitrogen-containing heteroaromatic ring fused to a porphyrazine ring, where the number of the nitrogen-containing heteroaromatic ring is over 0.00 and 3.00 or less as an average value and the rest are benzene rings, E represents C2-C12 alkylene, X is a sulfoanilino group, a carboxyanilino group, a phosphonoanilino group, a sulfonaphthylamino group, a carboxynaphthylamino group or a phosphononaphthylamino group and may further have, as a substituent, at least one kind of group selected from the group consisting of a sulfo group, a carboxy group, a phosphono group, a sulfamoyl group, a carbamoyl group, a hydroxy group, a C1-C6 alkoxy group, an amino group, a mono C1-C4 alkylamino group, a di C1-C4 alkylamino group, a monoarylamino group, a diarylamino group, a C1-C3 alkylcarbonylamino group, an ureido group, a C1-C6 alkyl group, a nitro group, a cyano group, a halogen atom, a C1-C6 alkylsulfonyl group and a C1-C6 alkylthio group, R 1 represents a C1-C6 alkyl group, b is, as an average value, 0.00 or more and less than 3.90, c is, as an average value, 0.10 or more and less than 4.00, and the sum of b and c is, as an average value, 1.00 or more and less than 4.00.
An alumina-based thermally conductive oxide obtained by firing a starting material mixture comprising an aluminum starting material, wherein the aluminum starting material is at least one selected from the group consisting of boehmite, aluminum hydroxide, and alumina, the starting material mixture further comprises: a boric acid compound; and at least one oxide starting material selected from the group consisting of a tungsten compound, a bismuth compound, a vanadium compound, a titanium compound, a frit, a phosphorus compound, a zinc compound, and a cerium compound, and in the staring material mixture, a content of the boric acid compound is 0.1 to 5 parts by mass, and a content of the oxide starting material is 0.1 to 20 parts by mass each based on 100 parts by mass of the aluminum starting material. the aluminum starting material is at least one selected from the group consisting of boehmite, aluminum hydroxide, and alumina, the starting material mixture further comprises: a boric acid compound; and at least one oxide starting material selected from the group consisting of a tungsten compound, a bismuth compound, a vanadium compound, a titanium compound, a frit, a phosphorus compound, a zinc compound, and a cerium compound, and in the staring material mixture, a content of the boric acid compound is 0.1 to 5 parts by mass, and a content of the oxide starting material is 0.1 to 20 parts by mass each based on 100 parts by mass of the aluminum starting material.
An adjustable size suitcase, comprising: a main body having a top section, a middle section and a bottom section that define a hollow interior space; at least one flap that is disposed along an outside portion of the main body, said flap being configured to selectively allow access to the hollow interior space; a frame that is positioned within the hollow interior space, said frame including an upper frame assembly, a middle frame assembly and a lower frame assembly; a handle disposed along a back side of the main body and in communication with the frame, wherein the handle includes an adjustable length and is configured to operate independently of the frame; and a grip positioned along the upper frame assembly comprising an actuator, wherein the actuator is mechanically linked to a plurality of latches within the frame to selectively transition the suitcase between a first size, a second size and a third size. a main body having a top section, a middle section and a bottom section that define a hollow interior space; at least one flap that is disposed along an outside portion of the main body, said flap being configured to selectively allow access to the hollow interior space; a frame that is positioned within the hollow interior space, said frame including an upper frame assembly, a middle frame assembly and a lower frame assembly; a handle disposed along a back side of the main body and in communication with the frame, wherein the handle includes an adjustable length and is configured to operate independently of the frame; and a grip positioned along the upper frame assembly comprising an actuator, wherein the actuator is mechanically linked to a plurality of latches within the frame to selectively transition the suitcase between a first size, a second size and a third size.
A ballistic resistant fabric comprising a plurality of fibers arranged in an array, said fibers being united and forming a fabric, said fibers having a tenacity of 6cN/dtex (7 g/denier) or more and a tensile modulus of 132 cN/dtex (150 g/denier or more; and said fibers having a fluorine-containing polymeric binder composition on a surface thereof, wherein said fluorine-containing polymeric binder composition comprises from 10% by weight to 22% by weight of the ballistic resistant fabric.
A method for communicating resource requests from a user equipment, UE, operating in a wireless heterogeneous communications network which comprises a set of macro cells each of which includes a respective macro node and a respective low-power, LP, node, characterised in that the method comprises transmitting uplink control information from the UE to a macro node of the network using a first uplink channel, said uplink control information indicating whether an allocated uplink data rate for the UE is sufficient, and transmitting the uplink control information to the macro node using a second uplink channel which carries no other information apart from the uplink control information.
An isolated polypeptide having protease activity, selected from the group consisting of: (a) a polypeptide having at least 85% sequence identity to the mature polypeptide of SEQ ID NO: 4, wherein the mature polypeptide is amino acids 1 to 314 of SEQ ID NO: 4; (b) a variant of the mature polypeptide of SEQ ID NO: 4 comprising a substitution, deletion, and/or insertion at one or more and not exceeding 20 positions; and (c) a fragment of the polypeptide of (a) or (b) that has protease activity. (a) a polypeptide having at least 85% sequence identity to the mature polypeptide of SEQ ID NO: 4, wherein the mature polypeptide is amino acids 1 to 314 of SEQ ID NO: 4; (b) a variant of the mature polypeptide of SEQ ID NO: 4 comprising a substitution, deletion, and/or insertion at one or more and not exceeding 20 positions; and (c) a fragment of the polypeptide of (a) or (b) that has protease activity.
A variable pitch rotor arrangement comprising a bladed rotor (23, 24) provided with a primary actuator for displacing a component (6, 8) of the rotor under the control of primary control means, the arrangement further comprising: a secondary actuator mounted on the rotor for displacing the component; power generating means at least partially mounted on the rotor, the power generating means being drivable to generate power by rotation of the rotor relative to a further part of the arrangement; and a secondary control means configured to respond to a failure signal representing operative failure of the primary actuator, the secondary control means being further configured to deliver power from the power generating means to the second actuator to displace the component. a secondary actuator mounted on the rotor for displacing the component; power generating means at least partially mounted on the rotor, the power generating means being drivable to generate power by rotation of the rotor relative to a further part of the arrangement; and a secondary control means configured to respond to a failure signal representing operative failure of the primary actuator, the secondary control means being further configured to deliver power from the power generating means to the second actuator to displace the component.
A video decoding method comprising: obtaining a motion vector of a current block belonging to a first picture from a bitstream, performed by a first decoding unit; determining whether a reference block indicated by the motion vector is decoded, performed by the first decoding unit; and when the reference block is not decoded, modifying the motion vector, performed by the first decoding unit; and decoding the current block by using the modified motion vector, performed by the first decoding unit, wherein the reference block is included in a second picture decoded by a second decoding unit, and the first picture and the second picture are decoded in parallel, wherein the motion vector is modified by modifying a vertical component value of the motion vector to indicate a location on a decoded region of the second picture. obtaining a motion vector of a current block belonging to a first picture from a bitstream, performed by a first decoding unit; determining whether a reference block indicated by the motion vector is decoded, performed by the first decoding unit; and when the reference block is not decoded, modifying the motion vector, performed by the first decoding unit; and decoding the current block by using the modified motion vector, performed by the first decoding unit, wherein the reference block is included in a second picture decoded by a second decoding unit, and the first picture and the second picture are decoded in parallel, wherein the motion vector is modified by modifying a vertical component value of the motion vector to indicate a location on a decoded region of the second picture.
A perfusion imaging data processor, comprising: an agent peak characteristic-time determiner configured to determine two or more agent peak characteristic-times respectively for two or more circulatory sub-systems represented in a same sub-set of voxels of a set of time-series data of perfusion imaging data; an agent peak argument determiner configured to determine an agent peak argument for each of the two or more agent peak characteristic-times; an agent peak argument relation determiner configured to determine a relationship between the agent peak arguments of the two or more agent peak characteristic-times; and a perfusion map generator configured to generate, based on the determined relationship and the perfusion imaging data, at least one perfusion map, wherein the at least one perfusion map includes volumetric image data visually presenting at least one of a relationship or a difference between the two or more circulatory sub-systems. an agent peak characteristic-time determiner configured to determine two or more agent peak characteristic-times respectively for two or more circulatory sub-systems represented in a same sub-set of voxels of a set of time-series data of perfusion imaging data; an agent peak argument determiner configured to determine an agent peak argument for each of the two or more agent peak characteristic-times; an agent peak argument relation determiner configured to determine a relationship between the agent peak arguments of the two or more agent peak characteristic-times; and a perfusion map generator configured to generate, based on the determined relationship and the perfusion imaging data, at least one perfusion map, wherein the at least one perfusion map includes volumetric image data visually presenting at least one of a relationship or a difference between the two or more circulatory sub-systems.
An imaging cassette comprising a base support, a first image sensor, a marker, and a light-tight lid, wherein the imaging cassette is configured to receive a piece of exposable film, wherein the marker is a light emitting diode or a liquid crystal diode configured to identify and/or align the exposable film in the imaging cassette.
An illumination system, comprising: an elevation device that has a reel wire extending downwardly and that changes a length of the reel wire; and an illumination device that is connected to the reel wire and that is elevated by a change of the length of the reel wire, wherein electric power is supplied from a power supply through the reel wire to the illumination device, the illumination device includes: a battery for receiving the electric power supplied via the reel wire to store the electric power; and a light-emitting element for receiving the electric power supplied through the reel wire and the electric power supplied from the battery to emit light, wherein the illumination system further comprises a control circuit for receiving the electric power supplied through the reel wire to allocate the received electric power to the light-emitting element or the battery, characterized in that the illumination device further includes a substrate including therein a hollow structure, and the battery and the control circuit are accommodated in the substrate. an elevation device that has a reel wire extending downwardly and that changes a length of the reel wire; and an illumination device that is connected to the reel wire and that is elevated by a change of the length of the reel wire, wherein electric power is supplied from a power supply through the reel wire to the illumination device, the illumination device includes: a battery for receiving the electric power supplied via the reel wire to store the electric power; and a light-emitting element for receiving the electric power supplied through the reel wire and the electric power supplied from the battery to emit light, a battery for receiving the electric power supplied via the reel wire to store the electric power; and a light-emitting element for receiving the electric power supplied through the reel wire and the electric power supplied from the battery to emit light, wherein the illumination system further comprises a control circuit for receiving the electric power supplied through the reel wire to allocate the received electric power to the light-emitting element or the battery, characterized in that the illumination device further includes a substrate including therein a hollow structure, and the battery and the control circuit are accommodated in the substrate.
Process for the production of a channel-section glass element with two flanges (32, 33) and a web formed between the flanges (32, 33), comprising the steps: a) making available a flat glass ribbon by means of two cylindrical draw-in rollers (3, 4) disposed at the exit of a glass melting furnace, b) adjusting the temperature of the web to a web temperature at which the web is still plastically deformable, c) adjusting the temperature of the flanges (32, 33) to a flange temperature which is at least 10 °C, preferably at least 30 °C, lower than the web temperature, d) thereafter, erecting the flanges (32, 33) at the edges of the glass ribbon using flange forming means, e) thereafter, profiling the web with the aid of two web profiling rollers (14, 15), f) finally, cooling the channel-section glass element. a) making available a flat glass ribbon by means of two cylindrical draw-in rollers (3, 4) disposed at the exit of a glass melting furnace, b) adjusting the temperature of the web to a web temperature at which the web is still plastically deformable, c) adjusting the temperature of the flanges (32, 33) to a flange temperature which is at least 10 °C, preferably at least 30 °C, lower than the web temperature, d) thereafter, erecting the flanges (32, 33) at the edges of the glass ribbon using flange forming means, e) thereafter, profiling the web with the aid of two web profiling rollers (14, 15), f) finally, cooling the channel-section glass element.
An imaging system comprising: a reflecting component including a plurality of primary light reflecting surfaces (525A-525D), the reflecting component comprising an apex at a location of an intersection of each of the plurality of primary light reflecting surfaces; a plurality of cameras (510A-510D), each of the plurality of cameras having an optical axis (515A-515D) aligned to intersect only with a single point, the single point located at the apex of the reflecting component, and each of the plurality of cameras associated with one of the plurality of primary light reflecting surfaces and arranged to receive light reflected from the associated one of the primary light reflecting surfaces, wherein the reflecting component is disposed between at least two of the plurality of cameras; and a virtual optical axis of the plurality of cameras, passing through the apex, wherein at least one of the plurality of light reflecting surfaces is positioned such that a plane formed by the at least one of the plurality of primary light reflecting surfaces relative to the virtual optical axis form a first angle, the optical axis of one of the plurality of cameras that receives light from the at least one of the plurality of primary light reflecting surfaces forms a second angle relative to the virtual optical axis, the second angle having a value equal to double a value of the first angle. a reflecting component including a plurality of primary light reflecting surfaces (525A-525D), the reflecting component comprising an apex at a location of an intersection of each of the plurality of primary light reflecting surfaces; a plurality of cameras (510A-510D), each of the plurality of cameras having an optical axis (515A-515D) aligned to intersect only with a single point, the single point located at the apex of the reflecting component, and each of the plurality of cameras associated with one of the plurality of primary light reflecting surfaces and arranged to receive light reflected from the associated one of the primary light reflecting surfaces, wherein the reflecting component is disposed between at least two of the plurality of cameras; and a virtual optical axis of the plurality of cameras, passing through the apex, wherein at least one of the plurality of light reflecting surfaces is positioned such that a plane formed by the at least one of the plurality of primary light reflecting surfaces relative to the virtual optical axis form a first angle, the optical axis of one of the plurality of cameras that receives light from the at least one of the plurality of primary light reflecting surfaces forms a second angle relative to the virtual optical axis, the second angle having a value equal to double a value of the first angle.