mhurhangee/ep-ind-claims huggingface dataset:
A communication device having an internet protocol, IP, address set therein, comprising: a purpose determining unit that determines whether a packet to be transmitted is a packet for general interactive communication or a packet for one-way communication; a source address selection unit that, in a case where the purpose determining unit determines the packet to be transmitted is a packet for one-way communication, selects, as a source address, a formal node identification address provided separately from the IP address in order to identify the communication device, the formal node identification address not having a function of being set in the communication device to achieve an IP communication or a function of being set as a destination address of the packet to be transmitted to the communication device so as to make the communication device correctly receive the packet; and a transmitting unit that transmits a packet having the formal node identification address selected by the source address selection unit set therein as the source address. a purpose determining unit that determines whether a packet to be transmitted is a packet for general interactive communication or a packet for one-way communication; a source address selection unit that, in a case where the purpose determining unit determines the packet to be transmitted is a packet for one-way communication, selects, as a source address, a formal node identification address provided separately from the IP address in order to identify the communication device, the formal node identification address not having a function of being set in the communication device to achieve an IP communication or a function of being set as a destination address of the packet to be transmitted to the communication device so as to make the communication device correctly receive the packet; and a transmitting unit that transmits a packet having the formal node identification address selected by the source address selection unit set therein as the source address.
A polymer microparticle-dispersed resin composition, comprising: 100 parts by weight of a resin which is at least one selected from epoxy resins; and 0.1 parts by weight to 150 parts by weight of polymer microparticles each comprising at least two layers including a crosslinked polymer layer as a core layer and a coating polymer layer as a shell layer, the resin composition having a particle dispersity of the polymer microparticles in the resin of not lower than 50%, the crosslinked polymer layer comprising 50% by weight to 99% by weight of at least one monomer having a Tg, as determined as a homopolymer, of not lower than 80°C, and 50% by weight to 1% by weight of at least one monomer having a Tg, as determined as a homopolymer, of lower than 0°C, wherein the particle dispersity (%) = (1-(B 1 /B 0))×100, wherein B 0 refers to the sum of the number of unbound polymer microparticles and the number of aggregates consisting of two or more polymer microparticles in contact with each other in a sample, and B 1 refers to the number of aggregates consisting of two or more polymer microparticles in contact with each other. 100 parts by weight of a resin which is at least one selected from epoxy resins; and 0.1 parts by weight to 150 parts by weight of polymer microparticles each comprising at least two layers including a crosslinked polymer layer as a core layer and a coating polymer layer as a shell layer, the resin composition having a particle dispersity of the polymer microparticles in the resin of not lower than 50%, the crosslinked polymer layer comprising 50% by weight to 99% by weight of at least one monomer having a Tg, as determined as a homopolymer, of not lower than 80°C, and 50% by weight to 1% by weight of at least one monomer having a Tg, as determined as a homopolymer, of lower than 0°C, wherein the particle dispersity (%) = (1-(B 1 /B 0))×100, wherein B 0 refers to the sum of the number of unbound polymer microparticles and the number of aggregates consisting of two or more polymer microparticles in contact with each other in a sample, and B 1 refers to the number of aggregates consisting of two or more polymer microparticles in contact with each other.
An ecological removable insole for footwear that comprises an active layer and an outer layer, intended to be in contact with a foot, wherein: - the active layer comprises: - first holes, comprising first elements in the form of capsules configured to aromatise or protect the inside of the footwear from infections, and - second holes, comprising second elements in the form of grains of rice configured to absorb moisture; - the outer layer is made of a breathable and absorbent material, such that it enables the transfer of the aroma and the moisture with the active layer, wherein the holes (4, 5) are configured to house: - the first elements in the form of capsules, and - the second elements in the form of grains of rice. - the active layer comprises: - first holes, comprising first elements in the form of capsules configured to aromatise or protect the inside of the footwear from infections, and - second holes, comprising second elements in the form of grains of rice configured to absorb moisture; - the outer layer is made of a breathable and absorbent material, such that it enables the transfer of the aroma and the moisture with the active layer, wherein the holes (4, 5) are configured to house: - the first elements in the form of capsules, and - the second elements in the form of grains of rice.
A printer including a system comprising a removable platen assembly; and an edge guide associated with the platen assembly, the edge guide configured for guiding an edge of a print substrate and for holding down edges of the print substrate on the removable platen assembly; wherein the edge guide is fixed to the platen assembly such that the edge guide is inserted into the printer and removed from the printer together with the platen assembly.
A system comprising: a non-linear subsystem configured to receive an input signal and provide an output signal; a predistorter configured to effect predistortion of the input signal of the non-linear subsystem to compensate for a non-linear characteristic of the non-linear subsystem; a narrowband filter configured to receive a feedback signal representative of the output signal of the non-linear subsystem and output a filtered feedback signal having a bandwidth that is less than a bandwidth of the output signal of the non-linear subsystem; and an adaptor configured to adaptively configure the predistorter based on the filtered feedback signal, characterized in that the adaptor is configured to adaptively configure the predistorter based on an input signal of the adaptor that is representative of the input signal of the non-linear subsystem by: providing the input signal of the adaptor to a non-linear model such that the non-linear model outputs a reference signal for the non-linear characteristic of the non-linear subsystem; training an inverse model of the non-linear model based on the input signal of the adaptor and the reference signal for the non-linear characteristic of the non-linear subsystem; and providing one or more parameters that define the inverse model to the predistorter to thereby adaptively configure the predistorter. a non-linear subsystem configured to receive an input signal and provide an output signal; a predistorter configured to effect predistortion of the input signal of the non-linear subsystem to compensate for a non-linear characteristic of the non-linear subsystem; a narrowband filter configured to receive a feedback signal representative of the output signal of the non-linear subsystem and output a filtered feedback signal having a bandwidth that is less than a bandwidth of the output signal of the non-linear subsystem; and an adaptor configured to adaptively configure the predistorter based on the filtered feedback signal, characterized in that the adaptor is configured to adaptively configure the predistorter based on an input signal of the adaptor that is representative of the input signal of the non-linear subsystem by: providing the input signal of the adaptor to a non-linear model such that the non-linear model outputs a reference signal for the non-linear characteristic of the non-linear subsystem; training an inverse model of the non-linear model based on the input signal of the adaptor and the reference signal for the non-linear characteristic of the non-linear subsystem; and providing one or more parameters that define the inverse model to the predistorter to thereby adaptively configure the predistorter. providing the input signal of the adaptor to a non-linear model such that the non-linear model outputs a reference signal for the non-linear characteristic of the non-linear subsystem; training an inverse model of the non-linear model based on the input signal of the adaptor and the reference signal for the non-linear characteristic of the non-linear subsystem; and providing one or more parameters that define the inverse model to the predistorter to thereby adaptively configure the predistorter.
A battery pack, comprising: at least one battery module; a controller configured to control the battery module; a housing configured to accommodate the battery module and the controller therein; an isolator portion positioned between the controller and the battery module so as to separate a space accommodating the battery module from a space accommodating the controller in such a way as to hermetically seal a gap between the spaces; and a connector configured such that at least portion thereof passes through the isolator portion, thus electrically connecting the battery module with the controller; wherein the connector is in the shape of a pillar having an insert part formed therein, the insert part comprises a first insert part on a first side thereof and a second insert part on a second side thereof that is opposite to the first side, the first insert part is opened towards the battery module, and the second insert part is opened in an opposite direction to the first insert part. at least one battery module; a controller configured to control the battery module; a housing configured to accommodate the battery module and the controller therein; an isolator portion positioned between the controller and the battery module so as to separate a space accommodating the battery module from a space accommodating the controller in such a way as to hermetically seal a gap between the spaces; and a connector configured such that at least portion thereof passes through the isolator portion, thus electrically connecting the battery module with the controller; wherein the connector is in the shape of a pillar having an insert part formed therein, the insert part comprises a first insert part on a first side thereof and a second insert part on a second side thereof that is opposite to the first side, the first insert part is opened towards the battery module, and the second insert part is opened in an opposite direction to the first insert part.
A method for presenting geographic data on a client computing device, the method comprising: generating, by one or more processors, geographic information cards (510, 520, 530) for respective geographic entities, wherein at least two of the geographic information cards of an equal size correspond to geographic areas of different sizes or geometries, and wherein each geographic information card includes indications displayed within the geographic information card of one or more of: (i) photographs of the geographic entity, (ii) points of interest (POIs) within the geographic entity, or (iii) reviews of POIs within the geographic entity; generating a representation of a geographic area using the geographic information cards, including placing each geographic information card relative to the rest of the geographic information cards in accordance with relative geographic positioning of the corresponding geographic entities; and providing the representation of the geographic area in a grid pattern via a user interface of the client computing device, wherein at least some of the geographic information cards are individually selectable to display additional information related to the corresponding geographic entities, wherein a same amount of panning is required to traverse two different geographic information cards in the grid-pattern, the two different geographic information cards representing areas having different sizes. generating, by one or more processors, geographic information cards (510, 520, 530) for respective geographic entities, wherein at least two of the geographic information cards of an equal size correspond to geographic areas of different sizes or geometries, and wherein each geographic information card includes indications displayed within the geographic information card of one or more of: (i) photographs of the geographic entity, (ii) points of interest (POIs) within the geographic entity, or (iii) reviews of POIs within the geographic entity; generating a representation of a geographic area using the geographic information cards, including placing each geographic information card relative to the rest of the geographic information cards in accordance with relative geographic positioning of the corresponding geographic entities; and providing the representation of the geographic area in a grid pattern via a user interface of the client computing device, wherein at least some of the geographic information cards are individually selectable to display additional information related to the corresponding geographic entities, wherein a same amount of panning is required to traverse two different geographic information cards in the grid-pattern, the two different geographic information cards representing areas having different sizes.
A plug for plugging a port in a flow reactor, the plug comprising: a metal guide having first and second ends (14,16) and a wall surrounding a cylindrical interior volume, the interior volume having an opening at the first end of the guide and being closed at the second end of the guide by a screw mated to a screw thread on the interior of the second end of the guide, the screw having a screw end face opposite the opening of the interior volume; and a plug body having a first face and an opposing second face and a side surface connecting the first face and the second face, the plug body positioned partially within the interior volume of the guide with the second face of the plug body and a first portion of the side surface of the plug body positioned inside the interior volume of the guide, and with the first face of the plug body and a second portion of the side surface of the plug body protruding from the opening of the interior volume of the guide, the first face comprising a recess for receiving a gasket, the second face facing the screw end face for contact therewith, the plug body comprising a chemically resistant first polymer, said first face of the plug body being formed of said first polymer; wherein the plug body further comprises a thermally resistant second polymer, with at least the first portion of the side surface of the plug body and the second face of the plug body being formed of said second polymer. a metal guide having first and second ends (14,16) and a wall surrounding a cylindrical interior volume, the interior volume having an opening at the first end of the guide and being closed at the second end of the guide by a screw mated to a screw thread on the interior of the second end of the guide, the screw having a screw end face opposite the opening of the interior volume; and a plug body having a first face and an opposing second face and a side surface connecting the first face and the second face, the plug body positioned partially within the interior volume of the guide with the second face of the plug body and a first portion of the side surface of the plug body positioned inside the interior volume of the guide, and with the first face of the plug body and a second portion of the side surface of the plug body protruding from the opening of the interior volume of the guide, the first face comprising a recess for receiving a gasket, the second face facing the screw end face for contact therewith, the plug body comprising a chemically resistant first polymer, said first face of the plug body being formed of said first polymer; wherein the plug body further comprises a thermally resistant second polymer, with at least the first portion of the side surface of the plug body and the second face of the plug body being formed of said second polymer.
A method for producing a steel sheet having a microstructure consisting, in area fraction, of 20% to 50% of intercritical ferrite, 10% to 20% of retained austenite, 25% to 45% of tempered martensite, 10% to 20% of fresh martensite, and bainite, the sum of tempered martensite and bainite being comprised between 30% and 60%, wherein the method comprises the following successive steps: - providing a cold-rolled steel sheet, the chemical composition of the steel containing in weight %: 0.18 ⁢ % ≤ C ≤ 0.25 ⁢ %, 0.9 ⁢ % ≤ Si ≤ 1.8 ⁢ % 0.02 ⁢ % ≤ Al ≤ 1.0 ⁢ %, with 1.0 ⁢ % ≤ Si + Al ≤ 2.35 ⁢ %, 1.5 ⁢ % ≤ Mn ≤ 2.5 ⁢ %, 0.010 ⁢ % ≤ Nb ≤ 0.035 ⁢ %, 0.10 ⁢ % ≤ Cr ≤ 0.40 ⁢ %, the remainder being Fe and unavoidable impurities, - annealing the steel sheet at an annealing temperature T A and for an annealing time t A so as to obtain a structure comprising from 50% to 80% of austenite and from 20% to 50% of ferrite, - quenching the sheet at a cooling rate comprised between 20°C/s and 50°C/s down to a quenching temperature QT comprised between Ms-50°C and Ms-5°C, - heating the sheet up to a partitioning temperature PT comprised between 375°C and 450°C and maintaining the sheet at the partitioning temperature PT for a partitioning time Pt of at least 50s, - cooling the sheet down to the room temperature. - providing a cold-rolled steel sheet, the chemical composition of the steel containing in weight %: 0.18 ⁢ % ≤ C ≤ 0.25 ⁢ %, 0.9 ⁢ % ≤ Si ≤ 1.8 ⁢ % 0.02 ⁢ % ≤ Al ≤ 1.0 ⁢ %, with 1.0 ⁢ % ≤ Si + Al ≤ 2.35 ⁢ %, 1.5 ⁢ % ≤ Mn ≤ 2.5 ⁢ %, 0.010 ⁢ % ≤ Nb ≤ 0.035 ⁢ %, 0.10 ⁢ % ≤ Cr ≤ 0.40 ⁢ %, the remainder being Fe and unavoidable impurities, - annealing the steel sheet at an annealing temperature T A and for an annealing time t A so as to obtain a structure comprising from 50% to 80% of austenite and from 20% to 50% of ferrite, - quenching the sheet at a cooling rate comprised between 20°C/s and 50°C/s down to a quenching temperature QT comprised between Ms-50°C and Ms-5°C, - heating the sheet up to a partitioning temperature PT comprised between 375°C and 450°C and maintaining the sheet at the partitioning temperature PT for a partitioning time Pt of at least 50s, - cooling the sheet down to the room temperature.
An RFID tag comprising: an RFID chip; and an antenna electrically coupled to the RFID chip, wherein the antenna is comprised of a conductor sheet formed of a base material and a secondary material having different coefficients of thermal expansion configured to cause the antenna to fracture into multiple pieces upon being subjected to heating. an RFID chip; and an antenna electrically coupled to the RFID chip, wherein the antenna is comprised of a conductor sheet formed of a base material and a secondary material having different coefficients of thermal expansion configured to cause the antenna to fracture into multiple pieces upon being subjected to heating.
Apparatus for use in single crystal casting of a component, the apparatus including a receptacle for receiving molten metal, a common feed extending downwardly from the receptacle to a filtration arrangement, the filtration arrangement including a housing which locates a filter, onto which filter liquid flowing through the common feed will pass, a plurality of outlets spaced around the perimeter of the housing to receive filtered molten metal, a respective connector leading outwardly relative to the housing from each outlet, which connector are connectable to a respective mould assembly characterised in that an annular chamber is provided within the housing to receive molten metal passing out of the filter.
Hinge part (100, 200, 300, 400) of a flap hinge for fastening to a hollow chamber profile, in particular a frame hinge part, having at least one fixing screw (11, 12), and at least one dowel extension (4, 104, 204, 304; 5, 105, 205, 305), characterized in that the fixing screw (11, 12) takes the form of a self-tapping screw, thus dispensing with the drilling process hitherto needed for the profile holes for the fixing screws, and the dowel extension (104, 204, 205, 304) takes the form of an expansion anchor, such that retention forces are also achieved in the pull-out direction, i.e. in the direction of longitudinal extent of the dowel extension.
An injection apparatus, comprising: - a housing, - a needle cannula having a lumen along a longitudinal axis and distal tip, and - a protective shield which is telescopically slidable in relation to the housing between a first position and a second position; - the first position being a position in which the tip of the needle cannula is covered by the protective shield, and - the second position being a position in which the tip of the needle cannula is exposed to perform an injection, and wherein the protective shield comprises a plurality of separate segments which segments are radially spaced from each other along the longitudinal direction such that each segment are individually and axially slidable both in relation to the housing and in relation to a neighbouring segment (10A, 10B), and wherein neighbouring segments (10A, 10B) are provided with tilting means (14, 15) which transforms relative axial movement of the neighboring segments (10A, 10B) to a radial movement of at least one of the neighboring segments (10A, 10B) thereby forcing neighbouring segments (10A, 10B) in a radial direction in relation to each other when the neighbouring segments (10A, 10B) slide axially in relation to each other and wherein the tilting means (14, 15) transforms relative axial movement of the neighbouring segments (10A, 10B) to a radial movement of at least one of the neighbouring segments (10A, 10B) and which tilting means (14, 15) further comprises: a first element provided on a first neighbouring segment, and a second element provided on a second neighbouring segment, and which first element and second element engages when the neighbouring segments (10A, 10B) slides axially in relation to each other and wherein the first element and second element are shaped such that the neighbouring first and second segments (10A, 10B) are forced to move away from each other in a radial direction upon the engagement whereby further axial movement is prevented. - a housing, - a needle cannula having a lumen along a longitudinal axis and distal tip, and - a protective shield which is telescopically slidable in relation to the housing between a first position and a second position; - the first position being a position in which the tip of the needle cannula is covered by the protective shield, and - the second position being a position in which the tip of the needle cannula is exposed to perform an injection, - the first position being a position in which the tip of the needle cannula is covered by the protective shield, and - the second position being a position in which the tip of the needle cannula is exposed to perform an injection, a first element provided on a first neighbouring segment, and a second element provided on a second neighbouring segment, and which first element and second element engages when the neighbouring segments (10A, 10B) slides axially in relation to each other and wherein the first element and second element are shaped such that the neighbouring first and second segments (10A, 10B) are forced to move away from each other in a radial direction upon the engagement whereby further axial movement is prevented.