mhurhangee/ep-ind-claims huggingface dataset:
A composition for forming a fiber, comprising a polymer compound containing a unit structure represented by the formula, wherein the content ratio of the unit structure represented by the formula to the total unit structure of the polymer compound is not less than 20 mol%, a crosslinking agent, an acid compound, and a solvent: wherein R 1 is a hydrogen atom or a methyl group, Q 1 is an ester bond or an amide bond, R 2 is an alkyl group having 1 - 10 carbon atoms or an aromatic hydrocarbon group having 6 - 10 carbon atoms, wherein at least one hydrogen atom is substituted by a hydroxy group. a polymer compound containing a unit structure represented by the formula, wherein the content ratio of the unit structure represented by the formula to the total unit structure of the polymer compound is not less than 20 mol%, a crosslinking agent, an acid compound, and a solvent: wherein R 1 is a hydrogen atom or a methyl group, Q 1 is an ester bond or an amide bond, R 2 is an alkyl group having 1 - 10 carbon atoms or an aromatic hydrocarbon group having 6 - 10 carbon atoms, wherein at least one hydrogen atom is substituted by a hydroxy group. R 1 is a hydrogen atom or a methyl group, Q 1 is an ester bond or an amide bond, R 2 is an alkyl group having 1 - 10 carbon atoms or an aromatic hydrocarbon group having 6 - 10 carbon atoms, wherein at least one hydrogen atom is substituted by a hydroxy group.
A bone graft composition, comprising: (a) from 1 to 90 percent by weight keratose; (b) from 1 to 90 percent by weight kerateine; (c) optionally, from 1 to 90 percent by weight particulate filler; (d) optionally, from 0.001 to 5 percent by weight antibiotic; and (e) water or saline to balance, wherein said keratose and kerateine are provided in said composition in a ratio of from 1:10 to 10:1 keratose:kerateine. (a) from 1 to 90 percent by weight keratose; (b) from 1 to 90 percent by weight kerateine; (c) optionally, from 1 to 90 percent by weight particulate filler; (d) optionally, from 0.001 to 5 percent by weight antibiotic; and (e) water or saline to balance,
Drip stop device for a liquid container, suited to be arranged at the level of the outlet opening of said container in such a way as to allow said liquid to be poured while at the same time avoiding the formation of drips when said container is put back in the vertical position, said drip stop device comprising a first plate-like element made of an elastic and flexible material, which during use as a drip stop device is introduced, in the rolled-up configuration, in said outlet opening in such a way as to define a tubular duct, characterized in that it comprises a second plate-like element made of an elastic and flexible material that develops in a substantially longitudinal direction and is smaller than said first plate-like element, said second plate-like element being arranged so that it is superimposed on a surface of said first plate-like element with a first end fixed to a perimeter portion of said first plate-like element, so that when said first plate-like element is rolled up substantially along the longitudinal axis (x) of said second plate-like element the longitudinal sides (32, 33) of said second plate-like element come into contact with said surface of said first plate-like element during the folding stage, thus forcing said second plate-like element to be arranged crosswise along said tubular duct so as to define one or more forced routes for said liquid flowing out of said container.
A catheter delivery system package comprising: a rigid tray; an extension tube coupled to the rigid tray; an end cap (108, 108A) sealing an end (140, 142) of the extension tube; and a lid coupled to the rigid tray. a rigid tray; an extension tube coupled to the rigid tray; an end cap (108, 108A) sealing an end (140, 142) of the extension tube; and a lid coupled to the rigid tray.
A diagnostic kit for a bacterial species and/or fungal and/or yeast species comprising at least one oligonucleotide probe capable of binding to at least a portion of the LepA and/or Guf1 genes or its corresponding mRNA, wherein the at least one probe is selected from the group consisting of SEQ ID NO 30 for the detection of Group B streptococci; SEQ ID NO 21 for the detection of B. pertussis; SEQ ID NO 35 and/or 36 for the detection of Mycobacteria; SEQ ID No 26 or 27 for the detection of Staphylococcus aureus; sequences of between 10 and 100 nucleotides in length which preferentially hybridize to the nucleotide sequence SEQ ID NOs: SEQ ID NO 21, SEQ ID NO 30, SEQ ID NO 35, and SEQ ID NO 36 and which are able to discriminate the same organisms and sequences of between 10 and 100 nucleotides in length which are complementary thereto. SEQ ID NO 21 for the detection of B. pertussis; SEQ ID NO 35 and/or 36 for the detection of Mycobacteria; SEQ ID No 26 or 27 for the detection of Staphylococcus aureus;
A method of predicting disease outcome in a patient being treated for lung cancer, from a biological sample from the patient, the method comprising: contacting the sample with two or more probes, each probe targeting a different chromosome subregion, wherein the chromosome subregions include 1p13.3 and at least one chromosome subregion selected from the group consisting of: 19q12, 19q13.11-13.12, 17q25.1, 6q13, 12p13.3, 11q13.1, 19q13.33-13.43, 6p21.2, 11q12.2-13.1, 17q22, 17q21.32-21.33, 2q22.3-2q23.3, 6q22.31-23.3, 8p23.1, 2q24.2, 2q33.1-2q33.2, 6p21.31, 2q33.3, 9p13.2, 4q24, 5q11.2, 16q12.1, 5q11.2, 5q15, 5q12.1-13.1, 14q22.1-23.1, 14q23.2-24.1, 9p35.3, 4p13, 5q12.1, 3q13.3, 4p12, 14q21.1, 4p13, 2q34, 14q21.3, 14q12, 3q11.2, 14q22.3-23.1, 14q22.1, 4q21.21-4q22, 10q11.23-21.1, 5q11.2, and 5q13.1-13.2; incubating the two or more probes with the sample under conditions in which each probe binds selectively with a polynucleotide sequence on its target chromosome or chromosomal region to form a stable hybridization complex; and detecting hybridization of the two or more probes, wherein a hybridization pattern showing at least one gain or loss at a chromosomal region targeted by the probes is indicative of increased risk of poor disease outcome when compared to a baseline measure of disease outcome in patients having no gain or loss at the two or more chromosomal regions targeted by the two or more probes, wherein the biological sample comprises a tumor sample, wherein the cancer is early stage non-small cell lung cancer, and wherein the patient has been treated with surgical resection without any follow-up or neoadjuvant chemotherapy. contacting the sample with two or more probes, each probe targeting a different chromosome subregion, wherein the chromosome subregions include 1p13.3 and at least one chromosome subregion selected from the group consisting of: 19q12, 19q13.11-13.12, 17q25.1, 6q13, 12p13.3, 11q13.1, 19q13.33-13.43, 6p21.2, 11q12.2-13.1, 17q22, 17q21.32-21.33, 2q22.3-2q23.3, 6q22.31-23.3, 8p23.1, 2q24.2, 2q33.1-2q33.2, 6p21.31, 2q33.3, 9p13.2, 4q24, 5q11.2, 16q12.1, 5q11.2, 5q15, 5q12.1-13.1, 14q22.1-23.1, 14q23.2-24.1, 9p35.3, 4p13, 5q12.1, 3q13.3, 4p12, 14q21.1, 4p13, 2q34, 14q21.3, 14q12, 3q11.2, 14q22.3-23.1, 14q22.1, 4q21.21-4q22, 10q11.23-21.1, 5q11.2, and 5q13.1-13.2; incubating the two or more probes with the sample under conditions in which each probe binds selectively with a polynucleotide sequence on its target chromosome or chromosomal region to form a stable hybridization complex; and detecting hybridization of the two or more probes, wherein a hybridization pattern showing at least one gain or loss at a chromosomal region targeted by the probes is indicative of increased risk of poor disease outcome when compared to a baseline measure of disease outcome in patients having no gain or loss at the two or more chromosomal regions targeted by the two or more probes, wherein the biological sample comprises a tumor sample, wherein the cancer is early stage non-small cell lung cancer, and wherein the patient has been treated with surgical resection without any follow-up or neoadjuvant chemotherapy.
A method of making a composition comprising a functionalized pyranine monomer, the method comprising the steps of - providing a starting amount of pyranine in an aqueous solvent system, - adding an amount of base to the aqueous solvent system, - dosing to the aqueous solvent system an amount of a polymerizable functionalizing agent to form a reaction mixture, thereby initiating the reaction of the pyranine with the functionalizing agent to functionalize the pyranine molecule with a polymerizable functional group, said amount of the polymerizable functionalizing agent being less than said starting amount of pyranine on a molar basis, and - maintaining the dosing of the functionalizing agent to the reaction mixture during the reaction of the pyranine with the functionalizing agent until the amount of functionalizing agent dosed to the system exceeds the starting amount of pyranine on a molar basis, wherein (i) the base is added to the solvent system prior to the addition of the functionalizing agent, or (ii) the base and the functionalizing agent are simultaneously dosed to the aqueous solvent system, wherein the dosing of both the functionalizing agent and the base is maintained during the reaction of the pyranine with the functionalizing agent until the amount of functionalizing agent dosed to the system exceeds the starting amount of pyranine on a molar basis; and wherein said composition comprises less than 5 mol% unfunctionalized pyranine, based on the total amount of unfunctionalized pyranine and functionalized pyranine. - providing a starting amount of pyranine in an aqueous solvent system, - adding an amount of base to the aqueous solvent system, - dosing to the aqueous solvent system an amount of a polymerizable functionalizing agent to form a reaction mixture, thereby initiating the reaction of the pyranine with the functionalizing agent to functionalize the pyranine molecule with a polymerizable functional group, said amount of the polymerizable functionalizing agent being less than said starting amount of pyranine on a molar basis, and - maintaining the dosing of the functionalizing agent to the reaction mixture during the reaction of the pyranine with the functionalizing agent until the amount of functionalizing agent dosed to the system exceeds the starting amount of pyranine on a molar basis, (i) the base is added to the solvent system prior to the addition of the functionalizing agent, or (ii) the base and the functionalizing agent are simultaneously dosed to the aqueous solvent system, wherein the dosing of both the functionalizing agent and the base is maintained during the reaction of the pyranine with the functionalizing agent until the amount of functionalizing agent dosed to the system exceeds the starting amount of pyranine on a molar basis;
A thermal management loop system comprising: an accumulator; an evaporator in fluid receiving communication with the accumulator; a condenser in fluid receiving communication with the evaporator; and a membrane separator in fluid receiving communication with the condenser, the membrane separator configured to separate gas-phase fluid from liquid-phase fluid and to recirculate uncondensed gas to the condenser and to provide liquid to the accumulator, characterized by a flow sensor coupled to said membrane separator, wherein identifying a heat transfer load on the thermal management loop system is based on flow data received from the flow sensor. an accumulator; an evaporator in fluid receiving communication with the accumulator; a condenser in fluid receiving communication with the evaporator; and a membrane separator in fluid receiving communication with the condenser, the membrane separator configured to separate gas-phase fluid from liquid-phase fluid and to recirculate uncondensed gas to the condenser and to provide liquid to the accumulator, characterized by a flow sensor coupled to said membrane separator, wherein identifying a heat transfer load on the thermal management loop system is based on flow data received from the flow sensor.
A packaged sensor, comprising: a sterilizable packaging that contains a sensor (10, 200) and a sensor activating circuit (62, 300), wherein the sensor (10, 200) is connected to the sensor activating circuit (62, 300); a rupturable container for providing an electrolyte solution to the interior of the sterilizable packaging; and a switch that can be activated by a force applied to the exterior of the sterilizable packaging, or an electrical connection provided on a surface of the sterilizable packaging, but connected to the sensor activating circuit (62, 300) for manually activating the sensor activating circuit (62, 300) without compromising the sterilizable packaging, wherein the rupturable container for providing the electrolyte solution to the interior of the sterilizable packaging and the switch or the electrical connection for activating the sensor activating circuit (62, 300) without compromising the sterilizable packaging are operable to stabilize the sensor (10, 200) in the electrolyte solution while the sensor activating circuit (62, 300) is activated without compromising the sterilizable packaging. a sterilizable packaging that contains a sensor (10, 200) and a sensor activating circuit (62, 300), wherein the sensor (10, 200) is connected to the sensor activating circuit (62, 300); a rupturable container for providing an electrolyte solution to the interior of the sterilizable packaging; and a switch that can be activated by a force applied to the exterior of the sterilizable packaging, or an electrical connection provided on a surface of the sterilizable packaging, but connected to the sensor activating circuit (62, 300) for manually activating the sensor activating circuit (62, 300) without compromising the sterilizable packaging, wherein the rupturable container for providing the electrolyte solution to the interior of the sterilizable packaging and the switch or the electrical connection for activating the sensor activating circuit (62, 300) without compromising the sterilizable packaging are operable to stabilize the sensor (10, 200) in the electrolyte solution while the sensor activating circuit (62, 300) is activated without compromising the sterilizable packaging.
Cable having a circular cross section, comprising a core formed by at least one hybrid strand, the strand core of which hybrid strand is made of plastics fibres and around which at least partially metal wires are arranged, and comprising outer strands arranged around the core, characterised in that all the outer strands are formed having a core made of plastics fibres, around which core at least partially metal wires are arranged, the cable having substantially the same expansion properties over the cable cross section.
A method for enabling common charging of network connectivity and cloud resource utilization for a user equipment, UE, the method being performed in the UE, the method comprising: - sending (S52, S220, S320), to a packet core system, an attach request message; - receiving (S54, S222, S336, S434), from the packet core system, one or more service definitions of common network connectivity and cloud service classes, as a consequence to said sending of the attach request message, wherein the service definitions of each one of the common network connectivity and cloud service classes comprise a service-identifier, a quality of service, QoS, class identifier value and a reference to cloud services; - sending (S56, S226), to the packet core system, a request for a network connectivity and cloud resource service, wherein the requested service is class-based, and wherein the request comprises the QoS class identifier value of one of the common network connectivity and cloud service classes; and - receiving (S58, S236), from the packet core system, a response being an acceptance of the requested network connectivity and cloud resource service, enabling the packet core system to utilize common charging of network connectivity and cloud resource utilization. - sending (S52, S220, S320), to a packet core system, an attach request message; - receiving (S54, S222, S336, S434), from the packet core system, one or more service definitions of common network connectivity and cloud service classes, as a consequence to said sending of the attach request message, wherein the service definitions of each one of the common network connectivity and cloud service classes comprise a service-identifier, a quality of service, QoS, class identifier value and a reference to cloud services; - sending (S56, S226), to the packet core system, a request for a network connectivity and cloud resource service, wherein the requested service is class-based, and wherein the request comprises the QoS class identifier value of one of the common network connectivity and cloud service classes; and - receiving (S58, S236), from the packet core system, a response being an acceptance of the requested network connectivity and cloud resource service,
A method for providing one or more remote nodes with direct access to persistent random access memory - PRAM - of a storage server that provides persistent storage to the one or more remote nodes, wherein the storage server comprises a network adapter comprising a remote direct memory access enabled network interface controller - RNIC -, the method comprising: generating, for the RNIC of the storage server, registration information that associates an access key with a target region in the PRAM of the storage server; sending, by the network adapter of the storage server, the access key to a remote node of the one or more remote nodes; receiving, by the RNIC of the storage server from the remote node, a remote direct memory access - RDMA - message that includes the access key; identifying, by the network adapter of the storage server, using the registration information and based at least in part on the access key, a memory location within the target region of the PRAM where one or more data objects are or should be persistently stored on the storage server; performing, by the RNIC of the storage server, in response to the RDMA message from the remote node, a direct memory access of the one or more data objects within the target region of the PRAM. generating, for the RNIC of the storage server, registration information that associates an access key with a target region in the PRAM of the storage server; sending, by the network adapter of the storage server, the access key to a remote node of the one or more remote nodes; receiving, by the RNIC of the storage server from the remote node, a remote direct memory access - RDMA - message that includes the access key; identifying, by the network adapter of the storage server, using the registration information and based at least in part on the access key, a memory location within the target region of the PRAM where one or more data objects are or should be persistently stored on the storage server; performing, by the RNIC of the storage server, in response to the RDMA message from the remote node, a direct memory access of the one or more data objects within the target region of the PRAM.
A supporting device comprising an outer wrapper that is impervious to gas passage and is adapted to define a housing volume; an inner wrapper permeable to gas passage, defining an operating volume and adapted to be housed within said housing volume; a plurality of distinct particles disposed inside said operating volume; separation means suitable to divide said operating volume into a plurality of sub-volumes, each of them containing said distinct particles; and at least one valve adapted to create, upon command, a connection for fluid passage between said housing volume and the external environment so as to vary the extension of at least said sub-volumes and define an expanded configuration in which said distinct particles can freely move inside said sub-volumes, and a compressed configuration in which said distinct particles become compacted defining a plurality of resistant elements; said supporting device being characterised in that said separation means consists of partitioning walls made of the same material as that of the operating volume.
A cage for a rolling bearing in dental technology with a characteristic speed value n x dm > 1,000,000 mm/min, exclusively consisting of polyamide imide with chemically coupled fluoro(co)polymer, wherein n is the revolutions per minute of the inner ring and dm is the mean diameter of the bearing, wherein the mean diameter of the bearing is calculated as the sum of the outer diameter and the bore diameter, which sum is divided by 2.
An optical device, comprising: a substrate; an intermediate layer deposited on the substrate; a semiconductor layer, deposited on the intermediate layer, that includes a thermally tunable optical waveguide; a top layer, deposited on the semiconductor layer, which includes vias from an upper surface of the top layer to a bottom surface of the top layer which is proximate to the semiconductor layer; and electrodes, deposited on the top layer and in the vias, which electrically couple to the semiconductor layer, wherein portions of the electrodes have a lower thermal conductivity than a remainder of the electrodes, thereby reducing the power consumption associated with thermal tuning of the optical waveguide by reducing thermal coupling from an external environment to the optical waveguide, the optical device being characterised in that the portions of the electrodes include indium-tin-oxide and are located in the vias. a substrate; an intermediate layer deposited on the substrate; a semiconductor layer, deposited on the intermediate layer, that includes a thermally tunable optical waveguide; a top layer, deposited on the semiconductor layer, which includes vias from an upper surface of the top layer to a bottom surface of the top layer which is proximate to the semiconductor layer; and electrodes, deposited on the top layer and in the vias, which electrically couple to the semiconductor layer, wherein portions of the electrodes have a lower thermal conductivity than a remainder of the electrodes, thereby reducing the power consumption associated with thermal tuning of the optical waveguide by reducing thermal coupling from an external environment to the optical waveguide, the optical device being characterised in that the portions of the electrodes include indium-tin-oxide and are located in the vias.
Latch with a locking mechanism comprising a catch and a pawl for ratcheting of the catch and a position securing device having a spring for a bolt or an anti-theft device, whereby • the spring is executed as a pincer spring (1, 7) with two spring legs which need to be moved simultaneously in order to be able to change the position of the bolt or the anti-theft device; • a bolt, for example a cylindrical pin is provided for on which the pincer spring (1, 7) has a dual action as a position securing device; characterized in that • a stop is provided for the spring leg; • the outward movement of the spring leg is limited by two walls which act as the stop and limit the movement of the spring leg which is caused by shifting of the bolt from a first resting position to a second resting position or vice versa. • the spring is executed as a pincer spring (1, 7) with two spring legs which need to be moved simultaneously in order to be able to change the position of the bolt or the anti-theft device; • a bolt, for example a cylindrical pin is provided for on which the pincer spring (1, 7) has a dual action as a position securing device; • a stop is provided for the spring leg; • the outward movement of the spring leg is limited by two walls which act as the stop and limit the movement of the spring leg which is caused by shifting of the bolt from a first resting position to a second resting position or vice versa.