mhurhangee/patent-ind-claim-en huggingface dataset:
Electroacoustic converter, in particular transmitter, for underwater operation, with a hollow cylindrical ring body with a plurality of ring segments which can be positioned next to one another in a ring shape, with a configuration of the ring segments such that each ring segment receives a ceramic segment , wherein the ceramic segment is a piezoceramic, and with a wrapping , in particular consisting of glass-fibre-reinforced plastic, which can be applied to the outside of the ceramic segment and which is configured so as to fix the ceramic segments , and a gel filling which encloses the ceramic segment and which is designed to embed the ceramic segment in each ring segment , characterized by a configuration of the gel filling with a shape memory effect, with the result that the gel filling returns to its original shape following a mechanical deformation.
A curable organopolysiloxane composition comprising: (A) 100 parts by mass of an organopolysiloxane having at least two alkenyl groups with 2 to 12 carbon atoms per molecule; (B) 0.05 to 5 parts by mass of an organosiloxane having one silicon atom-bonded hydrogen atom per molecule and free of alkenyl groups and silicon atom-bonded alkoxy groups; (C) 0.01 to 10 parts by mass of an organosiloxane having one silicon atom-bonded hydrogen atom and at least one silicon atom-bonded alkoxy group per molecule and free of alkenyl groups; (D) 0.1 to 20 parts by mass of an organopolysiloxane having at least two silicon atom-bonded hydrogen atoms per molecule and free of alkenyl groups and silicon atom-bonded alkoxy groups; (E) a catalytic amount of a hydrosilylation reaction catalyst; and (F) a catalytic amount of a condensation reaction catalyst, wherein a mole ratio of the silicon atom-bonded hydrogen atoms in components (B), (C) and (D) with respect to the alkenyl groups in component (A) is in a range of 0.2 to 0.9. (A) 100 parts by mass of an organopolysiloxane having at least two alkenyl groups with 2 to 12 carbon atoms per molecule; (B) 0.05 to 5 parts by mass of an organosiloxane having one silicon atom-bonded hydrogen atom per molecule and free of alkenyl groups and silicon atom-bonded alkoxy groups; (C) 0.01 to 10 parts by mass of an organosiloxane having one silicon atom-bonded hydrogen atom and at least one silicon atom-bonded alkoxy group per molecule and free of alkenyl groups; (D) 0.1 to 20 parts by mass of an organopolysiloxane having at least two silicon atom-bonded hydrogen atoms per molecule and free of alkenyl groups and silicon atom-bonded alkoxy groups; (E) a catalytic amount of a hydrosilylation reaction catalyst; and (F) a catalytic amount of a condensation reaction catalyst,
A sprinkler for a fire suppression system, comprising: a body defining an inlet and an outlet fluidly coupled to the inlet ; a frame assembly including a frame member coupled to the body and extending away from the outlet ; a deflector coupled to the frame member and offset from the outlet ; a seal assembly configured to sealingly engage the body to prevent flow through the outlet ; and a trigger assembly including a shape memory alloy element configured to deform from an unactuated configuration to an actuated configuration in response to reaching an activation temperature, wherein in the unactuated configuration, the trigger assembly directly engages both the frame assembly and the seal assembly and holds the seal assembly in sealed engagement with the body ; and wherein in the actuated configuration, the trigger assembly enables the seal assembly to disengage from the body , characterized in that the shape memory alloy element is one of a plurality of shape memory alloy elements of the trigger assembly , and wherein the shape memory alloy elements extend substantially parallel to a central axis (CA) of the body in the unactuated configuration. a body defining an inlet and an outlet fluidly coupled to the inlet ; a frame assembly including a frame member coupled to the body and extending away from the outlet ; a deflector coupled to the frame member and offset from the outlet ; a seal assembly configured to sealingly engage the body to prevent flow through the outlet ; and a trigger assembly including a shape memory alloy element configured to deform from an unactuated configuration to an actuated configuration in response to reaching an activation temperature, wherein in the unactuated configuration, the trigger assembly directly engages both the frame assembly and the seal assembly and holds the seal assembly in sealed engagement with the body ; and wherein in the actuated configuration, the trigger assembly enables the seal assembly to disengage from the body ,
A bone filler composition comprising: an alkaline earth phosphate-based cement consisting essentially of monetite; nanotubular structures comprising carboxyl-functionalized multi-walled carbon nanotubes; and at least one of: a therapeutic agent or cells; wherein the composition is a paste that sets into a hardened mass, and the hardened mass is capable of releasing the therapeutic agent or cells. an alkaline earth phosphate-based cement consisting essentially of monetite; nanotubular structures comprising carboxyl-functionalized multi-walled carbon nanotubes; and at least one of: a therapeutic agent or cells; wherein the composition is a paste that sets into a hardened mass, and the hardened mass is capable of releasing the therapeutic agent or cells.
A method of making threo glycopyrronium tosylate comprising: a) treating racemic cyclopentylmandelic acid with racemic 1-methylpyrrolidin-3-ol and 1,1' carbonyldiimidazole in a suitable solvent to form glycopyrrolate base; b) treating the glycopyrronium base in a suitable solvent with a resolving acid to form a salt of threo glycopyrronium; c) treating the salt of the threo glycopyrronium salt with a suitable base in a suitable solvent to form a base of threo glycopyrronium; and d) treating the base of threo glycopyrronium with p -toluenesulfonic acid methyl ester in a suitable solvent to form threo glycopyrronium tosylate. a) treating racemic cyclopentylmandelic acid with racemic 1-methylpyrrolidin-3-ol and 1,1' carbonyldiimidazole in a suitable solvent to form glycopyrrolate base; b) treating the glycopyrronium base in a suitable solvent with a resolving acid to form a salt of threo glycopyrronium; c) treating the salt of the threo glycopyrronium salt with a suitable base in a suitable solvent to form a base of threo glycopyrronium; and d) treating the base of threo glycopyrronium with p -toluenesulfonic acid methyl ester in a suitable solvent to form threo glycopyrronium tosylate.
A cross-linkable rubber composition, the cross-linkable rubber composition comprising, per hundred parts by weight of rubber (phr): ≥ 1 phr to ≤ 99 phr of a rubber component selected from the group of styrene-butadiene rubber (SBR), polybutadiene rubber (BR), natural rubber (NR) or a mixture thereof; and ≥ 1 phr to ≤ 120 phr of an aliphatic resin component; characterised in that the composition further comprises ≥ 1 phr to ≤ 50 phr of a polyisoprene rubber (IR) having ≥ 10 mol-%, as determined by NMR spectroscopy, of 3,4-linked units derived from isoprene. ≥ 1 phr to ≤ 99 phr of a rubber component selected from the group of styrene-butadiene rubber (SBR), polybutadiene rubber (BR), natural rubber (NR) or a mixture thereof; and ≥ 1 phr to ≤ 120 phr of an aliphatic resin component;
A method for processing a handover procedure of a mobile communication system, the method comprising: receiving (S100), by a user equipment, UE, a radio resource reconfiguration message from a base station; recognizing (S102), by the UE, a handover type based on information included in the received radio resource reconfiguration message; and performing, by the UE, a first or second handover procedure according to the recognized handover type, characterized in that : if the radio resource reconfiguration message includes a new cell-radio network identifier, new C-RNTI different from that used in a source cell, the UE recognizes the handover as the first handover; if the radio resource reconfiguration message includes a handover type indicator, the UE recognizes the first or second handover according to whether or not the handover type indicator indicates an intra base station handover type or an inter base station handover type; and if the radio resource reconfiguration message includes a new physical cell identity, new PCI different from that used in the source cell, the UE recognizes the handover as the first handover. receiving (S100), by a user equipment, UE, a radio resource reconfiguration message from a base station; recognizing (S102), by the UE, a handover type based on information included in the received radio resource reconfiguration message; and performing, by the UE, a first or second handover procedure according to the recognized handover type, characterized in that : if the radio resource reconfiguration message includes a new cell-radio network identifier, new C-RNTI different from that used in a source cell, the UE recognizes the handover as the first handover; if the radio resource reconfiguration message includes a handover type indicator, the UE recognizes the first or second handover according to whether or not the handover type indicator indicates an intra base station handover type or an inter base station handover type; and if the radio resource reconfiguration message includes a new physical cell identity, new PCI different from that used in the source cell, the UE recognizes the handover as the first handover. if the radio resource reconfiguration message includes a new cell-radio network identifier, new C-RNTI different from that used in a source cell, the UE recognizes the handover as the first handover; if the radio resource reconfiguration message includes a handover type indicator, the UE recognizes the first or second handover according to whether or not the handover type indicator indicates an intra base station handover type or an inter base station handover type; and if the radio resource reconfiguration message includes a new physical cell identity, new PCI different from that used in the source cell, the UE recognizes the handover as the first handover.
A microfluidic detection system comprising a microfluidic cartridge and a detector assembly , the microfluidic cartridge comprises a first and a second side and at least one flow channel and an inlet to the at least one flow channel for feeding a liquid sample, the at least one flow channel comprises a plurality of first optical detection sites , the detector assembly comprises a slot for inserting the microfluidic cartridge , said detector assembly further comprising a first fixed light source with a beam path and an optical reader for reading out optical signals from the first optical detection site(s), said detector assembly and the microfluidic cartridge being constructed such that when said microfluidic cartridge is inserted to a first predetermined position into said slot, one of the first optical detection sites of the microfluidic cartridge is positioned in the beam path of the first source, and when said cartridge is inserted to a second predetermined position into said slot, another one of the first optical detection sites of the microfluidic cartridge is positioned in the beam path of the first light source, wherein each of said first and said second predetermined positions of said microfluidic cartridge into said slot are determined by a click arrangement holding the microfluidic cartridge in a temporally fixed position.
An ice-shedding coating solution for forming a polyurethane-based, stress-localized ice-shedding coating, wherein the ice-shedding coating solution comprises: a Phase I solution having a polyurethane resin; a Phase II-A solution having a thermoplastic elastomer, a wax, and a high-oleic oil; and a Phase II-B solution having a silicone elastomer and a silicone oil. a Phase I solution having a polyurethane resin; a Phase II-A solution having a thermoplastic elastomer, a wax, and a high-oleic oil; and a Phase II-B solution having a silicone elastomer and a silicone oil.
A toner comprising: toner base particles; and an external additive, wherein each of the toner base particles includes a binder resin, a release agent, and silica, an average abundance ratio (X surf ) of the silica on a region adjacent to a surface of the toner base particle measured according to the description is from 70% through 90%, and a projected area average value S per particle of the toner when the toner is heated to 180°C and a projected area average value S per particle of the toner when the toner is 30°C measured according to the description satisfy Formula below, 1.4 ≤ S 180 / S 30 ≤ 1.7 toner base particles; and an external additive, wherein each of the toner base particles includes a binder resin, a release agent, and silica, an average abundance ratio (X surf ) of the silica on a region adjacent to a surface of the toner base particle measured according to the description is from 70% through 90%, and a projected area average value S per particle of the toner when the toner is heated to 180°C and a projected area average value S per particle of the toner when the toner is 30°C measured according to the description satisfy Formula below, 1.4 ≤ S 180 / S 30 ≤ 1.7
A heat exchanging element (100; 60) comprising a first passage forming member and a second passage forming member stacked alternately, the heat exchanging element including a counterflow part (3; 63) that includes a first passage through which air passes and a second passage through which air flows in a direction opposite a direction in which the air passes through the first passage , wherein the first passage forming member and the second passage forming member each include: a rib portion , which constitutes the counterflow part (3; 63), including a first wall portion constituting an end in a first direction of the first passage , a second wall portion constituting an end in the first direction of the second passage , and a third wall portion separating the first passage and the second passage adjacent to each other in a second direction from each other, the first direction being a direction in which the first passage forming member and the second passage forming member are stacked, the second direction being perpendicular to the first direction; the heat exchanging element (100; 60) being characterized by a board being in contact with an end in a third direction of the rib portion, and separating a first connection passage communicating with the first passage and a second connection passage communicating with the second passage from each other, the third direction being perpendicular to the first direction and to the second direction; a first blocking portion installed at the end of the rib portion , to block between the first passage and the second connection passage; and a second blocking portion installed at the end of the rib portion , to block between the second passage and the first connection passage. a rib portion , which constitutes the counterflow part (3; 63), including a first wall portion constituting an end in a first direction of the first passage , a second wall portion constituting an end in the first direction of the second passage , and a third wall portion separating the first passage and the second passage adjacent to each other in a second direction from each other, the first direction being a direction in which the first passage forming member and the second passage forming member are stacked, the second direction being perpendicular to the first direction; the heat exchanging element (100; 60) being characterized by a board being in contact with an end in a third direction of the rib portion, and separating a first connection passage communicating with the first passage and a second connection passage communicating with the second passage from each other, the third direction being perpendicular to the first direction and to the second direction; a first blocking portion installed at the end of the rib portion , to block between the first passage and the second connection passage; and a second blocking portion installed at the end of the rib portion , to block between the second passage and the first connection passage.
Solar simulator comprising an array of light sources including LED light sources and at least one non-LED light source , wherein: - at least a portion of the infrared-light wavelength range covered by said solar simulator is covered only by said non-LED light source , and characterized in that - more than 50% of the irradiance provided by the solar simulator is provided by the LED light sources , - said solar simulator comprises further a filtering device placed above the non-LED light source with respect to the irradiation direction of the solar simulator , said filtering device reducing the total irradiance provided by said non-LED light source ; and said filtering device comprises an optical high-pass filter or an optical band pass filter. - at least a portion of the infrared-light wavelength range covered by said solar simulator is covered only by said non-LED light source , and characterized in that - more than 50% of the irradiance provided by the solar simulator is provided by the LED light sources , - said solar simulator comprises further a filtering device placed above the non-LED light source with respect to the irradiation direction of the solar simulator , said filtering device reducing the total irradiance provided by said non-LED light source ; and
A process for the exploitation of the anaerobic digestate leaving biogas energy production plants, said biogas energy production plants comprising a biodigester designed to treat an organic matrix and to produce biogas and a digestate and a cogenerator , fed by the biogas coming from said biodigester and designed to produce energy and exhaust gases; said process comprising the following steps: - separating said digestate coming from said biodigester to provide a liquid fraction, optionally comprising solid residues, and a solid fraction; - simultaneously with and/or before and/or after said separating step, grinding said digestate and/or said solid fraction; - stripping ammonia of the liquid fraction obtained in said separating step by means of the exhaust gases coming from said cogenerator , to obtain a gas rich in ammonia and water vapour and a liquid fraction which is sterilised and depleted of ammonia designed to be used as liquid fertiliser; and - insufflating the solid fraction obtained in said separating step by means of the gas obtained in said stripping step to obtain a solid fraction enriched in ammonia and pasteurised, wherein said gas insufflated in said solid fraction is pre-mixed with air; said process being characterised in that said gas insufflated in said solid fraction and pre-mixed with air has a temperature of between 60°C and 80°C. - separating said digestate coming from said biodigester to provide a liquid fraction, optionally comprising solid residues, and a solid fraction; - simultaneously with and/or before and/or after said separating step, grinding said digestate and/or said solid fraction; - stripping ammonia of the liquid fraction obtained in said separating step by means of the exhaust gases coming from said cogenerator , to obtain a gas rich in ammonia and water vapour and a liquid fraction which is sterilised and depleted of ammonia designed to be used as liquid fertiliser; and - insufflating the solid fraction obtained in said separating step by means of the gas obtained in said stripping step to obtain a solid fraction enriched in ammonia and pasteurised, wherein said gas insufflated in said solid fraction is pre-mixed with air;
A device , comprising: a body having a proximal end, a distal end, and a wall having a width extending therebetween along a longitudinal axis (L) of the body , the body defining a cavity portion and an instrument lumen ; an inlet at the proximal end of the body , the inlet extending into and in fluid communication with the cavity portion, the inlet configured to accept a distal end of a delivery catheter ; the instrument lumen extending through the body parallel to the longitudinal axis (L) from an opening at the proximal end of the body to an opening at the distal end of the body , the instrument lumen configured to receive an instrument extending therethrough; one or more apertures along the wall of the body in fluid communication with the cavity portion, so that a fluid delivered from the catheter flows into the cavity portion through the inlet and out of the cavity portion through the one or more apertures, an expandable member about the fluid distribution device , characterized in that the device further comprises a coating extending from a distal end of the expandable member and partially toward a proximal end of the expandable member , the coating configured to substantially block fluids from advancing distally past the coating . a body having a proximal end, a distal end, and a wall having a width extending therebetween along a longitudinal axis (L) of the body , the body defining a cavity portion and an instrument lumen ; an inlet at the proximal end of the body , the inlet extending into and in fluid communication with the cavity portion, the inlet configured to accept a distal end of a delivery catheter ; the instrument lumen extending through the body parallel to the longitudinal axis (L) from an opening at the proximal end of the body to an opening at the distal end of the body , the instrument lumen configured to receive an instrument extending therethrough; one or more apertures along the wall of the body in fluid communication with the cavity portion, so that a fluid delivered from the catheter flows into the cavity portion through the inlet and out of the cavity portion through the one or more apertures, an expandable member about the fluid distribution device , characterized in that the device further comprises a coating extending from a distal end of the expandable member and partially toward a proximal end of the expandable member , the coating configured to substantially block fluids from advancing distally past the coating .
An apparatus comprising means for performing: receiving , at a user equipment, a first parameter indicating an offset as a number of slots, and a combined parameter, the combined parameter including at least two of: a second parameter indicating an offset as a number of symbols within one of the slots; a third parameter indicating an end of a transmission as a number of slots and a fourth parameter indicating a duration of the transmission as a number of symbols within one of the slots; determining , at the user equipment, transmission timing based on the first parameter and the combined parameter; and using the transmission timing to at least one of send an uplink transmission from the user equipment to a network entity or receive a downlink transmission at the user equipment from the network entity, wherein multiple numerologies exist within at least a single symbol, slot, or mini-slot. a second parameter indicating an offset as a number of symbols within one of the slots; a third parameter indicating an end of a transmission as a number of slots and a fourth parameter indicating a duration of the transmission as a number of symbols within one of the slots; determining , at the user equipment, transmission timing based on the first parameter and the combined parameter; and using the transmission timing to at least one of send an uplink transmission from the user equipment to a network entity or receive a downlink transmission at the user equipment from the network entity, wherein multiple numerologies exist within at least a single symbol, slot, or mini-slot.