mhurhangee/ep-ind-claims huggingface dataset:
A urinary incontinence device comprising: a body configured to be inserted into a vagina, wherein the body comprises a compressed configuration, an expanded configuration, and a lateral cross-sectional diameter; the body comprising: a proximal insertion portion; a plurality of legs coupled to and extending distally from the insertion portion, wherein each leg has a length, a width, and a distal end and the distal ends of the plurality of legs are coupled together forming a distal surface; and a distal retrieval portion coupled to the distal surface, wherein, in the expanded configuration, the lateral cross-sectional diameter of the body is largest at a widest point of each of the plurality of legs. a proximal insertion portion; a plurality of legs coupled to and extending distally from the insertion portion, wherein each leg has a length, a width, and a distal end and the distal ends of the plurality of legs are coupled together forming a distal surface; and a distal retrieval portion coupled to the distal surface, wherein, in the expanded configuration, the lateral cross-sectional diameter of the body is largest at a widest point of each of the plurality of legs.
Method for separating or purifying a gaseous mixture, comprising oxygen or nitrogen, or a gaseous mixture containing hydrogen and at least one impurity chosen from CO, CH 4, CO 2, O 2 and N 2, or a gaseous mixture containing air and an impurity chosen from CO 2 and H 2 O, by adsorption of at least one gaseous compound of said gaseous mixture in a formed adsorbant material, comprising an adsorbant solid phase and a gaseous phase providing the transport of the gaseous components to the adsorbant phase, said material being constituted in such a way that the kinetic transport constants of the adsorbable components in the gaseous phase and in the solid phase are in a ratio between 0.1 and 10, determined for a gas flow speed equal to 0.2 m.s -1 measured in air at 1 bar and 20°C.
An integrated circuit precursor structure comprising a substrate having a surface; and a cured layer for use as a barrier or anti-reflective layer in photolithographic processes, said cured layer being adjacent said surface and comprising alternating metal atom and oxygen atom bonds and having a refractive index of at least 1.4 at 365 nm, said cured layer being wet developable, wherein said cured layer is formed from a composition comprising: a solvent system; and a polymer dispersed or dissolved in said solvent system, said polymer including recurring units having the formula wherein X is a light-attenuating moiety, M is a metal and each R is individually selected from the group consisting of hydrogen, alkyls, aryls, alkoxys, and phenoxys. a solvent system; and a polymer dispersed or dissolved in said solvent system, said polymer including recurring units having the formula wherein X is a light-attenuating moiety, M is a metal and each R is individually selected from the group consisting of hydrogen, alkyls, aryls, alkoxys, and phenoxys.
A filter for separating particles entrained in a fluid flowing into a wellbore from a surface location, the filter comprising: a section of a conduit having a bore through which the fluid flows from the surface location into the wellbore; a ring (60, 82) fixed to an inner surface of the bore of the conduit; and a bag (62, 80) connected to the ring (60, 82), positioned inside the bore and having perforations through which the fluid flows, characterised in that the bag (62, 80) is formed of a non-metal material and in that the bag (62, 80) is pliable such that the bag (62, 80) deforms without undergoing plastic deformation. a section of a conduit having a bore through which the fluid flows from the surface location into the wellbore; a ring (60, 82) fixed to an inner surface of the bore of the conduit; and a bag (62, 80) connected to the ring (60, 82), positioned inside the bore and having perforations through which the fluid flows, characterised in that the bag (62, 80) is formed of a non-metal material and in that the bag (62, 80) is pliable such that the bag (62, 80) deforms without undergoing plastic deformation.
A thermosetting resin composition obtainable by a method which comprises the following steps 1 and 2: step 1: dispersing a flame retardant in a dispersion medium to prepare a flame retardant dispersion; and step 2: mixing a maleimide compound, an epoxy resin having at least two epoxy groups in one molecule, a copolymer resin having a structural unit derived from an aromatic vinyl compound and a structural unit derived from a maleic anhydride, a silica treated with an aminosilane coupling agent, and the flame retardant dispersion prepared in step 1, wherein the component comprises a metal salt of a di-substituted phosphinic acid as a flame retardant. step 1: dispersing a flame retardant in a dispersion medium to prepare a flame retardant dispersion; and step 2: mixing a maleimide compound, an epoxy resin having at least two epoxy groups in one molecule, a copolymer resin having a structural unit derived from an aromatic vinyl compound and a structural unit derived from a maleic anhydride, a silica treated with an aminosilane coupling agent, and the flame retardant dispersion prepared in step 1, wherein the component comprises a metal salt of a di-substituted phosphinic acid as a flame retardant.
Wall holder comprising an anchor element having a fastening portion for fastening to a building and having a receiving portion which adjoins the fastening portion and which extends along a centre axis, a threaded rod which is mounted in the receiving portion so as to be rotatable about the centre axis and which has an external thread, and a threaded element having an internal thread portion, which threaded element is movably mounted in the receiving portion and is movable with respect to the threaded rod from a release position into an engagement position, wherein there is no engagement between the external thread and internal thread portion in the release position, with the result that the threaded rod is freely displaceable in the receiving portion in the direction of the centre axis, and wherein the external thread and the internal thread portion are in engagement in the engagement position, with the result that a screwing movement between the threaded element and threaded rod is made possible, characterized in that the wall holder further comprises a locking element which is mounted on the anchor element in particular on the receiving portion, so as to be movable from a starting position into a locking position, wherein, in the locking position, the locking element engages in the external thread of the threaded rod and provides locking for the threaded rod.
Double screw volumetric press, comprising two parallel horizontal sub-screws, each sub-screw having a complete second thread flight or edge identical to a first thread flight or edge in the same sub-screw, both sub-screws being introduced in a longitudinal cage or envelope and disposed such as to prevent the existence of collision during the free travel of the threads in the zone where they are closest to the two sub-screws; therefore, each sub-screw being formed by two thread flights or edges having the same distance to the filtering cage, said distance being constant and comprised between one and two millimetres to the filtering cage or envelope that contains the pulp, characterised in that both the first-flight and second-flight thread edge (1,2) have a thread extension or scraper/cleaner in the manner of hardfacing by means of overlay welding and with a blade effect along its travel path through the interior of the filtering cage and with scraping or cleaning effect capacity that forms the cutting edge of all the threads of each one of the two sub-screws, based on its end, which forms an obtuse angle with the filtering cage itself on the side that carries out the compression of the pulp, maintaining a constant distance to the filtering cage throughout its outer perimeter of between one to two millimetres.
A method for data transmission between a sender and a receiver, the method comprising: monitoring data packets transmitted from the sender to the receiver, the data packets being received in discontinuous reception operation on the basis of a discontinuous reception cycle configured at the receiver; and on the basis of said monitoring, estimating at least a starting time of an active period of a discontinuous reception cycle implemented at the receiver, said method being characterised in that said monitoring and estimating being performed on an application layer, without requiring access to lower protocol layers implementing the discontinuous reception operation. monitoring data packets transmitted from the sender to the receiver, the data packets being received in discontinuous reception operation on the basis of a discontinuous reception cycle configured at the receiver; and on the basis of said monitoring, estimating at least a starting time of an active period of a discontinuous reception cycle implemented at the receiver, said method being characterised in that said monitoring and estimating being performed on an application layer, without requiring access to lower protocol layers implementing the discontinuous reception operation.
A method of monitoring a region in which a carrier is located, the method comprising the steps of: · using at least one sensor of a first type to detect successive positions of a moving body (101, 102, 103) following a path in said region; and · displaying a polar plot having a center symbolizing the current position of the carrier and having placing thereon a first moving-body symbol (1, 2, 3) representing the current position of the moving body (101, 102, 103) as a function of the bearing angle and of the distance of the moving body (101, 102, 103) relative to the carrier; the method being characterized in that it further comprises the steps of: · displaying an annular band around the polar plot, the band being of width (l) that represents a predetermined monitoring duration; and · placing second moving-body symbols (1', 2', 3') in the annular band, the second symbols being representative of successive readings of angles along the path of said moving body (101, 102, 103), the annular band having an inner outline corresponding to a recent time and an outer outline corresponding to a past time preceding the recent time by a duration equal to the predetermined monitoring duration, and the second moving-body symbols (1', 2', 3') being placed closer to the outer outline of the annular band with increasing age of the corresponding angle readings. · using at least one sensor of a first type to detect successive positions of a moving body (101, 102, 103) following a path in said region; and · displaying a polar plot having a center symbolizing the current position of the carrier and having placing thereon a first moving-body symbol (1, 2, 3) representing the current position of the moving body (101, 102, 103) as a function of the bearing angle and of the distance of the moving body (101, 102, 103) relative to the carrier; · displaying an annular band around the polar plot, the band being of width (l) that represents a predetermined monitoring duration; and · placing second moving-body symbols (1', 2', 3') in the annular band, the second symbols being representative of successive readings of angles along the path of said moving body (101, 102, 103), the annular band having an inner outline corresponding to a recent time and an outer outline corresponding to a past time preceding the recent time by a duration equal to the predetermined monitoring duration, and the second moving-body symbols (1', 2', 3') being placed closer to the outer outline of the annular band with increasing age of the corresponding angle readings.
A method of production of aluminum alloy with refined Al-Fe-Si-based compounds and primary crystal Si characterized by adding to an aluminum alloy melt which contains Si: 10 to 20 mass%, Fe: 0.5 to 4 mass%, and P: 0.003 to 0.02 mass% optionally Mn: 0.6 × Fe mass% or less, optionally one or more of any of Mg: 0,05 to 1,5 mass%, Ti: 0,01 to 1.0 mass%, Cr:0,01 to 1.0 mass%, Zr: 0,01 to 1.0 mass%, and V: 0,01 to 1.0 mass%, and optionally one or both of Ni: 0,5 to 6 mass% and Cu: 0.5 to 8 mass % and has a balance of Al and unavoidable impurities, a substance which contains fine particles of a metal silicide which are present as a solid phase in the melt at the time of precipitation of an Al-Fe-Si-based compound, in 0.01 to 1 mass% as a silicide.
An apparatus for moulding plastic preforms into plastic containers, comprising at least one moulding unit that includes a blow mould unit forming a cavity, within which the plastic preforms can be moulded by applying a gaseous medium to the plastic containers, wherein the moulding unit includes an application unit that applies a gaseous medium to the plastic preforms via the mouth thereof, and wherein said application unit includes at least one valve unit for controlling the gaseous medium to be supplied to the plastic preform, and wherein the valve unit has a working chamber to which a gaseous medium can be applied, as well as an opening, via which the gaseous medium can be supplied from the working space to the plastic preforms and/or can be discharged therefrom, and wherein the valve unit has a working piston, which is movable within said working chamber between at least two positions (P1, P2), wherein in a first position of said working piston, the gaseous medium can flow via the opening, and wherein in a second position of the working piston opposite the working chamber, a flow of the gaseous medium through the opening is prevented, and wherein the valve unit has a control piston that is movable within a control chamber between at least two positions, wherein a movement of the control piston is coupled, at least at times, to a movement of the working piston, and wherein the control chamber has an opening for supplying and/or discharging a control medium, characterised in that the valve unit includes a sealing unit that substantially prevents a gas flow between the working chamber and the control chamber at least in one position of the working piston, and wherein the valve unit further includes a membrane body that seals at least one area (154a, 154b) of the control piston against at least one area (152a, 152b) of the control chamber, wherein the sealing unit is provided between the membrane body and at least one section of the working piston.
Antifouling coating composition comprising a copper acrylate polymer, 2-(p-chlorophenyl)-3-cyano-4-bromo-5-trifluoromethyl pyrrole (tralopyril), and solvent, with the coating composition being substantially free of further biocidal compounds, wherein the copper acrylate polymer is present in an amount of 60-99 wt.% and the tralopyril is present in an amount of 0.1-30 wt.%, the weight percentages for copper acrylate polymer and tralopyril being calculated on the dry weight of the coating composition.
A polymer composition in form of polymeric particles comprising at least one stage forming a layer comprising a polymer having a glass transition temperature of at least 60°C and at least one stage forming a layer comprising a polymer having a glass transition temperature of less than 60°C and polymer comprises at least 50wt% of polymeric units coming from ethyl acrylate, obtained by a multistage process characterized that the weight ratio r of the layer in the composition comprising the two layers is at least 2wt%, characterized that the mass average molecular weight Mw of the polymer is less than 1 000 000 g/mol, wherein the glass transition temperatures and the average molecular weight are measured as defined in the description. at least one stage forming a layer comprising a polymer having a glass transition temperature of at least 60°C and at least one stage forming a layer comprising a polymer having a glass transition temperature of less than 60°C and polymer comprises at least 50wt% of polymeric units coming from ethyl acrylate, obtained by a multistage process characterized that the weight ratio r of the layer in the composition comprising the two layers is at least 2wt%, characterized that the mass average molecular weight Mw of the polymer is less than 1 000 000 g/mol, wherein the glass transition temperatures and the average molecular weight are measured as defined in the description.
An insert for a drill bit, comprising: a substrate; a working layer of polycrystalline diamond material on the uppermost end of the insert, wherein the polycrystalline diamond material comprises: a plurality of interconnected diamond grains; and a binder material; and an outer transition layer between the working layer and the substrate, wherein the outer transition layer is adjacent to the working layer; a second transition layer interposed between the outer transition layer and the substrate; and characterised in that the working layer has a hardness greater than or equal to 4000 HV; the outer transition layer has a hardness that is less than the working layer hardness by less than 1500 HV; and the second transition layer has a hardness that is between 500 HV and 1500 HV greater than the hardness of the substrate. a substrate; a working layer of polycrystalline diamond material on the uppermost end of the insert, wherein the polycrystalline diamond material comprises: a plurality of interconnected diamond grains; and a binder material; and a plurality of interconnected diamond grains; and a binder material; and an outer transition layer between the working layer and the substrate, wherein the outer transition layer is adjacent to the working layer; a second transition layer interposed between the outer transition layer and the substrate; and characterised in that the working layer has a hardness greater than or equal to 4000 HV; the outer transition layer has a hardness that is less than the working layer hardness by less than 1500 HV; and the second transition layer has a hardness that is between 500 HV and 1500 HV greater than the hardness of the substrate.
A cooling unit comprising: at least one heat exchanger comprising an inlet for receiving coolant from a coolant supply and an outlet to exhaust coolant to a coolant return; an input line in fluid communication with the coolant supply and the inlet of the heat exchanger; an output line in fluid communication with the outlet of the heat exchanger and the coolant return: characterised in that the cooling unit comprises: a transfer line comprising a pump configured to allow fluid communication from the output line to the input line; and a controller configured to operate the pump to control a flow rate of coolant delivered by the transfer line. at least one heat exchanger comprising an inlet for receiving coolant from a coolant supply and an outlet to exhaust coolant to a coolant return; an input line in fluid communication with the coolant supply and the inlet of the heat exchanger; an output line in fluid communication with the outlet of the heat exchanger and the coolant return: characterised in that the cooling unit comprises: a transfer line comprising a pump configured to allow fluid communication from the output line to the input line; and a controller configured to operate the pump to control a flow rate of coolant delivered by the transfer line. a transfer line comprising a pump configured to allow fluid communication from the output line to the input line; and a controller configured to operate the pump to control a flow rate of coolant delivered by the transfer line.
An isolated monoclonal antibody or an antigen-binding portion thereof which a) binds to macrophage-1 antigen (Mac-1), b) specifically inhibits the interaction of CD40L with activated Mac-1, c) does not bind to non-activated Mac-1, and d) does not induce integrin outside-in signaling, characterized in that it binds specifically to a peptide having the sequence EQLKKSKTL and that it comprises the CDRs of SEQ ID NOs:2-4 in the light chain and SEQ ID NOs:6-8 in the heavy chain. a) binds to macrophage-1 antigen (Mac-1), b) specifically inhibits the interaction of CD40L with activated Mac-1, c) does not bind to non-activated Mac-1, and d) does not induce integrin outside-in signaling,
A method for configuring uplink pilot signal resources, comprising: generating, uplink pilot signal resource configuration information, wherein the uplink pilot signal resource configuration information comprises first resource configuration information and second resource configuration information; sending the first resource configuration information to the user equipment in advance through a radio resource control protocol, RRC, message; carrying, the second resource configuration information in a physical downlink control channel, PDCCH, signaling and sending the PDCCH signaling to a user equipment; wherein, the uplink pilot signal resource configuration information is configured to enable the user equipment to perform uplink pilot signal transmission according to the uplink pilot signal resource configuration information; wherein the first resource configuration information comprises parameter information related to the physical layer radio resource used for the user equipment to perform uplink pilot signal transmission; the second resource configuration information comprises activation information or deactivation information for setting availability of the physical layer radio resource uses for the user equipment to perform uplink pilot signal transmission. generating, uplink pilot signal resource configuration information, wherein the uplink pilot signal resource configuration information comprises first resource configuration information and second resource configuration information; sending the first resource configuration information to the user equipment in advance through a radio resource control protocol, RRC, message; carrying, the second resource configuration information in a physical downlink control channel, PDCCH, signaling and sending the PDCCH signaling to a user equipment; wherein, the uplink pilot signal resource configuration information is configured to enable the user equipment to perform uplink pilot signal transmission according to the uplink pilot signal resource configuration information; wherein the first resource configuration information comprises parameter information related to the physical layer radio resource used for the user equipment to perform uplink pilot signal transmission; the second resource configuration information comprises activation information or deactivation information for setting availability of the physical layer radio resource uses for the user equipment to perform uplink pilot signal transmission.