mhurhangee/ep-ind-claims huggingface dataset:
Medical packaging insert for a medical packaging system for accommodating at least one medical object, wherein the packaging insert comprises a container trough, which defines a receiving space, and is formed from a planar layer material defining a layer material plane by thermal reshaping, wherein formed on the container trough are two tabs (22, 24) pointing away from one another, which in a basic position project transversely, in particular perpendicularly, from wall faces (26, 28) of the container trough facing toward one another, characterized in that the packaging insert is configured to be evertable and is transferable by eversion from the basic position into a packaging position in which the wall faces (26, 28) facing toward one another in the basic position face away from one another and the two tabs (22, 24) point toward one another and at least partially, in particular completely, close the receiving space.
A system for providing access to a spine of a patient, the system comprising: a cannula comprising a distal end 192 and a proximal end, the distal end being securable to a connecting element implantable in a first vertebra of the spine, wherein the proximal end of the cannula is adapted to extend out of the body of the patient through an incision in the skin when the distal end is secured to the connecting element implanted in the first vertebra of the spine, the system comprising a first blade and a second blade the system being characterized in that the second blade is discrete from the first blade, wherein the first and second blades are positionable substantially parallel to each other and spaced apart from each other to provide the cannula, and wherein the distal end of each of the blades (194, 196) has a docking element discrete from and securable to the connecting element, such that the first and second blades (194, 196) are independently securable to and independently removable from the connecting element. a cannula comprising a distal end 192 and a proximal end, the distal end being securable to a connecting element implantable in a first vertebra of the spine, wherein the proximal end of the cannula is adapted to extend out of the body of the patient through an incision in the skin when the distal end is secured to the connecting element implanted in the first vertebra of the spine, the system comprising a first blade and a second blade a first blade and a second blade
A method for preparing a catalyst for a fuel cell comprising: forming a polymer layer having an amine group and a hydrogen ion exchange group represented by the following Chemical Formula 12 on a carbon carrier; preparing a reaction composition by adding the polymer layer-formed carbon carrier, a first metal precursor, a second metal precursor and a capping agent having a carboxyl group to a solvent, and, using the reaction composition, preparing a carrier-nanoparticle complex having metal nanoparticles formed on the polymer layer of the carbon carrier; and acid treating the complex: [Chemical Formula 12] -SO 3 - X wherein, in Chemical Formula 12, X is a monovalent cation group. forming a polymer layer having an amine group and a hydrogen ion exchange group represented by the following Chemical Formula 12 on a carbon carrier; preparing a reaction composition by adding the polymer layer-formed carbon carrier, a first metal precursor, a second metal precursor and a capping agent having a carboxyl group to a solvent, and, using the reaction composition, preparing a carrier-nanoparticle complex having metal nanoparticles formed on the polymer layer of the carbon carrier; and acid treating the complex: [Chemical Formula 12] -SO 3 - X wherein, in Chemical Formula 12, X is a monovalent cation group.
A microphone apparatus (1600; 1700; 1800) comprising a microphone (105;503;703;910;1601;1701;1904;2004;2104) and a vibration sensor (107; 920; 930; 1602; 1702; 1905; 2005; 2105), wherein the microphone is configured to receive a first signal including a voice signal and a first vibration signal; the vibration sensor is configured to receive a second vibration signal; and the microphone and the vibration sensor are configured such that the first vibration signal can be offset with the second vibration signal, characterised in that a cavity volume of the vibration sensor is proportional to a cavity volume of the microphone, and a ratio of the cavity volume of the vibration sensor to the cavity volume of the microphone is in a range of 3:1 to 6.5:1; wherein the cavity volume of the microphone is a sum of a front cavity volume and a back cavity volume of the microphone, and the cavity volume of the vibration sensor is a sum of a front cavity (925;935) volume and a back cavity (927;937) volume of the vibration sensor. the microphone is configured to receive a first signal including a voice signal and a first vibration signal; the vibration sensor is configured to receive a second vibration signal; and the microphone and the vibration sensor are configured such that the first vibration signal can be offset with the second vibration signal, characterised in that a cavity volume of the vibration sensor is proportional to a cavity volume of the microphone, and a ratio of the cavity volume of the vibration sensor to the cavity volume of the microphone is in a range of 3:1 to 6.5:1; wherein the cavity volume of the microphone is a sum of a front cavity volume and a back cavity volume of the microphone, and the cavity volume of the vibration sensor is a sum of a front cavity (925;935) volume and a back cavity (927;937) volume of the vibration sensor.
A centralized lubrication system comprising a reservoir for fluid comprising a housing at least partly constituting a reservoir chamber for fluid which housing is made of metal or similar rigid material and which housing comprises an inlet for fluid and an outlet for fluid, and comprising a pump which is connected to the housing which pump is configured to force fluid out of the reservoir chamber through the outlet during operation, characterized in that the reservoir chamber of the housing comprises a wall part constituted of an elastic membrane which elastic membrane is configured so that the area of the elastic membrane can and will increase when pressure inside the reservoir chamber is increased as fluid is added to the reservoir chamber and the elasticity of the elastic membrane provides an increased pressure inside the reservoir chamber.
Apparatus (100, 150) for providing a potable liquid, comprising: a pressure container configured to accommodate a liquid container which is deformable under pressure in an interior space; characterized by a pressure reducer (120, 160) configured to provide a liquid which is applied to a first terminal (122, 162) of the pressure reducer (120, 160) with a first pressure to a second terminal (124, 164) of the pressure reducer (120, 160) with a second pressure, wherein the first pressure is higher than the second pressure, wherein the pressure reducer (120, 160) is arranged so that the first terminal (122, 162) of the pressure reducer (120, 160) is connectable to a liquid container deformable under pressure in the interior space of the pressure container and wherein the second terminal (124, 164) of the pressure reducer (120, 160) is accessible from the exterior of the pressure container; and a valve for filling at least part of a part of the interior space of the pressure container which remains after receiving a liquid container deformable under pressure with a gas with overpressure, so that a liquid is applied to the pressure reducer (120, 160) with the first pressure in a liquid container deformable under pressure. a pressure container configured to accommodate a liquid container which is deformable under pressure in an interior space; characterized by a pressure reducer (120, 160) configured to provide a liquid which is applied to a first terminal (122, 162) of the pressure reducer (120, 160) with a first pressure to a second terminal (124, 164) of the pressure reducer (120, 160) with a second pressure, wherein the first pressure is higher than the second pressure, wherein the pressure reducer (120, 160) is arranged so that the first terminal (122, 162) of the pressure reducer (120, 160) is connectable to a liquid container deformable under pressure in the interior space of the pressure container and wherein the second terminal (124, 164) of the pressure reducer (120, 160) is accessible from the exterior of the pressure container; and a valve for filling at least part of a part of the interior space of the pressure container which remains after receiving a liquid container deformable under pressure with a gas with overpressure, so that a liquid is applied to the pressure reducer (120, 160) with the first pressure in a liquid container deformable under pressure.
Labeling machine for vessels, comprising a carousel for conveying the vessels and at least one labeling assembly which can be detachably positioned at a periphery of the carousel via an underframe, wherein a linear displacement unit is arranged between the labeling assembly and the underframe, comprising a protection device which comprises a frame and a protection switch (73, 76, 68), wherein the frame is mounted in the area of an assembly holder, wherein the labeling assembly is displaceable with the help of the linear displacement unit relative to the underframe, which is positioned at the carousel, from an operative position into an inoperative position to such an extent that the protection device with a slide door which is mounted on the labeling machine can be moved in between a conveying region of the carousel and the labeling assembly, characterized in that the slide door is an upwardly movable slide door, and that a protection disk is mounted on the labeling assembly and is configured such that in the operative position of the labeling assembly it is flush with the frame of the protection device.
A crosslinking composition comprising: a compound comprising at least two functional groups that are each independently represented by Chemical Structure: X is an oxygen, sulfur, or nitrogen; R 1 is an alkyl group, an aryl or heteroaryl group, or an alkylaryl group; R 2, R 3, and R 4 are each independently an alkyl group, an aryl or heteroaryl group, an alkylaryl group, or a hydrogen; and R 5 is an alkyl group, an aryl or heteroaryl group, an alkylaryl group, or a hydrogen; z is 0 when X is oxygen or sulfur and z is 1 when X is nitrogen; when a double bond is formed between a carbon atom bonded to R 3 and an adjacent nitrogen, m is 0, and when a single bond is formed between the carbon atom bonded to R 3 and the adjacent nitrogen, m is 1; and wherein: (i) the compound further comprises one or more additional functional groups that are reactive with the functional groups represented by Chemical Structure such that the compound is self-crosslinkable; and/or (ii) the composition further comprises a film-forming resin comprising functional groups that are reactive with the functional groups represented by Chemical Structure of the compound, wherein the term "alkyl group" refers to a linear, branched, and/or cyclic monovalent, saturated hydrocarbon radical which can optionally comprise an interrupting heteroatom, functional group, or a combination thereof. X is an oxygen, sulfur, or nitrogen; R 1 is an alkyl group, an aryl or heteroaryl group, or an alkylaryl group; R 2, R 3, and R 4 are each independently an alkyl group, an aryl or heteroaryl group, an alkylaryl group, or a hydrogen; and R 5 is an alkyl group, an aryl or heteroaryl group, an alkylaryl group, or a hydrogen; z is 0 when X is oxygen or sulfur and z is 1 when X is nitrogen; when a double bond is formed between a carbon atom bonded to R 3 and an adjacent nitrogen, m is 0, and when a single bond is formed between the carbon atom bonded to R 3 and the adjacent nitrogen, m is 1; and wherein: (i) the compound further comprises one or more additional functional groups that are reactive with the functional groups represented by Chemical Structure such that the compound is self-crosslinkable; and/or (ii) the composition further comprises a film-forming resin comprising functional groups that are reactive with the functional groups represented by Chemical Structure of the compound, wherein the term "alkyl group" refers to a linear, branched, and/or cyclic monovalent, saturated hydrocarbon radical which can optionally comprise an interrupting heteroatom, functional group, or a combination thereof.
A sliding bearing characterized by comprising: a bearing body; and an elastic ring fitted on said bearing body, said bearing body having one slit extending from one axial end face towards another axial end face, another slit extending from the other axial end face towards the one axial end face, an inner surface having a sliding surface, and an outer surface on which at least one groove receiving said elastic ring and one and another projections (35, 36) are respectively formed with the at least one groove disposed therebetween in an axial direction, the sliding bearing being configured to be interposed between a tube and a shaft such that said bearing body is disposed in a hollow portion defined by an inner peripheral surface of the tube with an outer peripheral surface of said elastic ring brought into contact with the inner peripheral surface of the tube with an interference, and such that said bearing body is fitted on an outer peripheral surface of the shaft relatively slidingly movably in such a manner as to tighten the shaft by the sliding surface with resiliency of said elastic ring, wherein when the sliding bearing is interposed between the tube and the shaft, the one and the other projections (35, 36) are adapted to be brought into contact with the inner peripheral surface of the tube such that there is a cylindrical clearance in a radial direction between the outer surface and the inner peripheral surface. a bearing body; and an elastic ring fitted on said bearing body, said bearing body having one slit extending from one axial end face towards another axial end face, another slit extending from the other axial end face towards the one axial end face, an inner surface having a sliding surface, and an outer surface on which at least one groove receiving said elastic ring and one and another projections (35, 36) are respectively formed with the at least one groove disposed therebetween in an axial direction, the sliding bearing being configured to be interposed between a tube and a shaft such that said bearing body is disposed in a hollow portion defined by an inner peripheral surface of the tube with an outer peripheral surface of said elastic ring brought into contact with the inner peripheral surface of the tube with an interference, and such that said bearing body is fitted on an outer peripheral surface of the shaft relatively slidingly movably in such a manner as to tighten the shaft by the sliding surface with resiliency of said elastic ring, wherein when the sliding bearing is interposed between the tube and the shaft, the one and the other projections (35, 36) are adapted to be brought into contact with the inner peripheral surface of the tube such that there is a cylindrical clearance in a radial direction between the outer surface and the inner peripheral surface.
A method, comprising: receiving from a base station in subframe n within a downlink, DL, burst, a Downlink Control Information, DCI, format for scheduling uplink, UL, transmission in one or more subframes in a UL burst in an unlicensed spectrum, the DCI format indicating a first parameter with a first value; based on the first value, determining from a first timing offset and one or more second timing offsets, one or more timing offsets relative to subframe n, wherein the first timing offset is equal to a transmission delay k and the one or more second timing offsets are based on transmission delay k and a gap of length T located between the DL burst and the UL burst; and performing a corresponding UL transmission in the one or more subframes, according to the one or more timing offsets relative to subframe n. receiving from a base station in subframe n within a downlink, DL, burst, a Downlink Control Information, DCI, format for scheduling uplink, UL, transmission in one or more subframes in a UL burst in an unlicensed spectrum, the DCI format indicating a first parameter with a first value; based on the first value, determining from a first timing offset and one or more second timing offsets, one or more timing offsets relative to subframe n, wherein the first timing offset is equal to a transmission delay k and the one or more second timing offsets are based on transmission delay k and a gap of length T located between the DL burst and the UL burst; and performing a corresponding UL transmission in the one or more subframes, according to the one or more timing offsets relative to subframe n.
A particulate superabsorbent polymer composition comprising a particulate superabsorbent polymer and from 0.01wt% to 5wt % based on the particulate superabsorbent polymer composition weight of a neutralized aluminum salt applied to the surface of the particulate superabsorbent polymer, in the form of an aqueous neutralized aluminum salt solution having a pH value from 5.5 to 8; wherein the particulate superabsorbent polymer composition has a Centrifuge Retention Capacity of from 25grams to 40grams of 0.9 weight percent sodium chloride aqueous per gram of the particulate superabsorbent polymer composition, wherein the CRC is measured either before or after subjecting the superabsorbent polymer composition to a Processing Test, and an original Free Swell Gel Bed Permeability (FSGBP) of from 20x10 -8 cm 2 to 200 x10 -8 cm 2 prior to subjecting the particulate superabsorbent polymer composition to the Processing Test; and a compressibility of from 1.30 mm 2 /N to 4 mm 2 /N and having particles having a particle diameter of larger than 600μm in an amount of less than 15wt% of the particulate superabsorbent polymer composition and as specified by standard sieve classification and wherein said particulate superabsorbent polymer composition having particles having a particle diameters of smaller than 600μm and larger than 150μm in an amount of not less than 85wt% of the particulate superabsorbent polymer composition and as specified by standard sieve classification and the particles having a weight average particle diameter specified by standard sieve classification of from 300 to 400μm, wherein the surface of the particulate superabsorbent polymer is crosslinked by the addition of a surface crosslinking agent and heat-treatment, wherein the particulate superabsorbent polymer composition is, after the heat treatment step, treated with an aqueous solution, wherein the treated particulate superabsorbent polymer composition has a moisture content from 5 wt% to 11 wt% based on the particulate superabsorbent polymer composition.
A bipolar ion exchange sheet comprising: a cation exchange membrane including a cation adsorption sheet and a cation exchange coating layer formed on one surface of the cation adsorption sheet, wherein the cation exchange coating layer is formed of a polymer having a cation exchange group and has a thickness of 1 μm to 9 μm; an anion exchange membrane including an anion adsorption sheet and an anion exchange coating layer formed on one surface of the anion adsorption sheet, wherein the anion exchange coating layer is formed of a polymer having a anion exchange group and has a thickness of 1 μm to 9 μm, and a water decomposition catalyst layer between the cation exchange coating layer and the anion exchange coating layer; wherein an ion exchange membrane (100, 200) having the water decomposition catalyst layer formed thereon, and an ion exchange membrane lacking water decomposition catalyst layer formed thereon while having a different polarity from the ion exchange membrane having the water decomposition catalyst layer formed thereon are bonded to the water decomposition catalyst layer, which placed between them, as a boundary, and wherein the cation exchange coating layer and the anion exchange coating layer include metal hydroxide nanoparticles. a cation exchange membrane including a cation adsorption sheet and a cation exchange coating layer formed on one surface of the cation adsorption sheet, wherein the cation exchange coating layer is formed of a polymer having a cation exchange group and has a thickness of 1 μm to 9 μm; an anion exchange membrane including an anion adsorption sheet and an anion exchange coating layer formed on one surface of the anion adsorption sheet, wherein the anion exchange coating layer is formed of a polymer having a anion exchange group and has a thickness of 1 μm to 9 μm, and a water decomposition catalyst layer between the cation exchange coating layer and the anion exchange coating layer; wherein an ion exchange membrane (100, 200) having the water decomposition catalyst layer formed thereon, and an ion exchange membrane lacking water decomposition catalyst layer formed thereon while having a different polarity from the ion exchange membrane having the water decomposition catalyst layer formed thereon are bonded to the water decomposition catalyst layer, which placed between them, as a boundary, and wherein the cation exchange coating layer and the anion exchange coating layer include metal hydroxide nanoparticles.
A method to determine the identity of a nucleotide residue in an extension product, comprising: (a) combining in a sequencing reaction mixture a plurality of identical primed template DNA molecules, a DNA polymerase, at least 4 distinguishable, blocked deoxyribonucleotide triphosphate (dNTP) analogue species, at least 3 of which distinguishable, blocked dNTP analogue species are labeled such that each distinguishable, blocked dNTP analogue species in the sequencing reaction mixture can be distinguished from the other distinguishable, blocked dNTP analogue species, thereby incorporating a distinguishable, blocked dNTP analogue species into at least one of said plurality of identical primed template DNA molecules and forming a distinguishable, blocked extension product; (b) after step (a), adding to the sequencing reaction mixture at least 4 unlabeled, blocked dNTP analogue species, thereby forming an unlabeled, blocked extension product; (c) during step (b), determining the identity of the distinguishable, blocked dNTP analogue incorporated into the labeled, blocked extension product in step (a); and, (d) assigning the complement of the labeled, 3'-blocked dNTP analogue determined in step (c) as the identity of the nucleotide residue in the template DNA molecule. (a) combining in a sequencing reaction mixture a plurality of identical primed template DNA molecules, a DNA polymerase, at least 4 distinguishable, blocked deoxyribonucleotide triphosphate (dNTP) analogue species, at least 3 of which distinguishable, blocked dNTP analogue species are labeled such that each distinguishable, blocked dNTP analogue species in the sequencing reaction mixture can be distinguished from the other distinguishable, blocked dNTP analogue species, thereby incorporating a distinguishable, blocked dNTP analogue species into at least one of said plurality of identical primed template DNA molecules and forming a distinguishable, blocked extension product; (b) after step (a), adding to the sequencing reaction mixture at least 4 unlabeled, blocked dNTP analogue species, thereby forming an unlabeled, blocked extension product; (c) during step (b), determining the identity of the distinguishable, blocked dNTP analogue incorporated into the labeled, blocked extension product in step (a); and, (d) assigning the complement of the labeled, 3'-blocked dNTP analogue determined in step (c) as the identity of the nucleotide residue in the template DNA molecule.