mhurhangee/ep-ind-claims huggingface dataset:
A ventilation system comprising: a ventilator for supplying ventilation gas; a patient interface (23; 60), wherein the patient interface (23; 60) comprises: an open distal end for communication with a patient airway, an opposed open proximal end for communication with ambient air, and a tubular airflow channel between the open distal end and the open proximal end, wherein the open distal end has a distal opening axis coaxial with the tubular airflow channel and wherein the open proximal end has a proximal opening axis coaxial with the tubular airflow channel; a gas delivery circuit for delivering ventilation gas supplied by the ventilator, and connecting means (64; 81; 100) for attaching the gas delivery circuit to the patient interface (23; 60); wherein the connecting means (64; 81; 100) is configured so that when the gas delivery circuit is attached to the patient interface (23; 60) by the connecting means (64; 81; 100),ventilation gas, when supplied by the ventilator, is delivered into the patient interface (23; 60) through the open proximal end, and wherein the connecting means (64; 81) is open to the outside so that when the gas delivery circuit is attached to the patient interface (23; 60) by the connecting means (64;81;100), the gas delivery circuit does not occlude the patient interface (23; 60) and allows ambient air to flow from outside the patient interface (23; 60) to the patient airway and allows the ventilation gas, when supplied by the ventilator, to entrain air from ambient and from the patient airway. a ventilator for supplying ventilation gas; a patient interface (23; 60), wherein the patient interface (23; 60) comprises: an open distal end for communication with a patient airway, an opposed open proximal end for communication with ambient air, and a tubular airflow channel between the open distal end and the open proximal end, wherein the open distal end has a distal opening axis coaxial with the tubular airflow channel and wherein the open proximal end has a proximal opening axis coaxial with the tubular airflow channel; a gas delivery circuit for delivering ventilation gas supplied by the ventilator, and connecting means (64; 81; 100) for attaching the gas delivery circuit to the patient interface (23; 60); wherein the connecting means (64; 81; 100) is configured so that when the gas delivery circuit is attached to the patient interface (23; 60) by the connecting means (64; 81; 100),ventilation gas, when supplied by the ventilator, is delivered into the patient interface (23; 60) through the open proximal end, and wherein the connecting means (64; 81) is open to the outside so that when the gas delivery circuit is attached to the patient interface (23; 60) by the connecting means (64;81;100), the gas delivery circuit does not occlude the patient interface (23; 60) and allows ambient air to flow from outside the patient interface (23; 60) to the patient airway and allows the ventilation gas, when supplied by the ventilator, to entrain air from ambient and from the patient airway.
An isolated polypeptide having lipase activity selected from the group consisting of: (a) a polypeptide comprising an amino acid sequence having at least 90% identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide having an amino acid sequence which has at least 90% identity with amino acids 1 to 315 of SEQ ID NO: 2; (c) a polypeptide encoded by a polynucleotide comprising a nucleotide sequence having at least 90% identity to the mature polypeptide coding sequence of SEQ ID NO: 1; (d) a polypeptide derived from SEQ ID NO:2 by substitution, deletion or addition of 10, 9, 8, 7, 6, 5, 4, 3, 2, or 1 amino acid; and (e) a polypeptide which has at least 90% identity with the polypeptide encoded by the polynucleotide contained in the plasmid which is contained in E. coli DSM 17467 (a) a polypeptide comprising an amino acid sequence having at least 90% identity to the mature polypeptide of SEQ ID NO: 2; (b) a polypeptide having an amino acid sequence which has at least 90% identity with amino acids 1 to 315 of SEQ ID NO: 2; (c) a polypeptide encoded by a polynucleotide comprising a nucleotide sequence having at least 90% identity to the mature polypeptide coding sequence of SEQ ID NO: 1; (d) a polypeptide derived from SEQ ID NO:2 by substitution, deletion or addition of 10, 9, 8, 7, 6, 5, 4, 3, 2, or 1 amino acid; and (e) a polypeptide which has at least 90% identity with the polypeptide encoded by the polynucleotide contained in the plasmid which is contained in E. coli DSM 17467
An apparatus comprising: an elongate member (314, 601) including a first end (317, 602) configured to transition back and forth between an expanded position and a compressed position, wherein the first end (317, 602) of the elongate member is configured to move through a hole in a first structure (303, 604) into a space (309, 606) located between the first structure and a second structure (311, 605), wherein the elongate member is a tube having at least one cutaway portion proximate to the first end, wherein the first end of the tube is in the expanded position when at rest; a flange (320, 603) connected to the first end of the elongate member, the flange (320, 603) sized in the compressed position so as to pass through the hole and sized in the expanded position so the flange (320, 603) is prevented from passing through the hole, wherein the flange has an upper surface and a lower surface, and a thickness, the flange being configured such that the upper surface of the flange contacts an inner surface of the first structure when the first end is in the expanded position; a compressor configured to move linearly along an outer surface of the tube such that moving the compressor proximate to the first end of the tube and over the cutaway portion transitions the first end of the tube into the compressed position; and a measurement system (327, 563) configured to measure movement of the end of the elongate member to identify a length of the space between the first structure and the second structure. an elongate member (314, 601) including a first end (317, 602) configured to transition back and forth between an expanded position and a compressed position, wherein the first end (317, 602) of the elongate member is configured to move through a hole in a first structure (303, 604) into a space (309, 606) located between the first structure and a second structure (311, 605), wherein the elongate member is a tube having at least one cutaway portion proximate to the first end, wherein the first end of the tube is in the expanded position when at rest; a flange (320, 603) connected to the first end of the elongate member, the flange (320, 603) sized in the compressed position so as to pass through the hole and sized in the expanded position so the flange (320, 603) is prevented from passing through the hole, wherein the flange has an upper surface and a lower surface, and a thickness, the flange being configured such that the upper surface of the flange contacts an inner surface of the first structure when the first end is in the expanded position; a compressor configured to move linearly along an outer surface of the tube such that moving the compressor proximate to the first end of the tube and over the cutaway portion transitions the first end of the tube into the compressed position; and a measurement system (327, 563) configured to measure movement of the end of the elongate member to identify a length of the space between the first structure and the second structure.
Method for reconfiguring an operational frequency and associated bandwidth used by a femto-cell base station for providing coverage to a User Equipment, the femto-cell base station being configured to provide coverage to the User Equipment by connecting to a core telecommunications network via a gateway device, the femto-cell base station having a fixed network interface for establishing a fixed network connection to said core telecommunications network, and a wireless network interface for establishing a cellular wireless network connection to said core telecommunications Network via a cellular telecommunications network, said cellular wireless network connection being assigned a main frequency and associated bandwidth; the method being characterised by the steps of: - detecting that the fixed network connection is not available; - disabling the coverage of the femto-cell base station for a User Equipment; - the wireless network interface establishing a cellular connection to the cellular telecommunications network; - checking a list of frequencies and associated bandwidths available to the wireless network interface; - determining if any of the frequencies in said list matches the operational frequency supported by the User Equipment to which the femto-cell base station is providing coverage; and, if at least one frequency matches the one supported by the User Equipment, selecting a second frequency which is a frequency supported by the User Equipment from the list of frequencies, said second frequency being established as the operational frequency of the femto-cell base station. - detecting that the fixed network connection is not available; - disabling the coverage of the femto-cell base station for a User Equipment; - the wireless network interface establishing a cellular connection to the cellular telecommunications network; - checking a list of frequencies and associated bandwidths available to the wireless network interface; - determining if any of the frequencies in said list matches the operational frequency supported by the User Equipment to which the femto-cell base station is providing coverage; and, if at least one frequency matches the one supported by the User Equipment, selecting a second frequency which is a frequency supported by the User Equipment from the list of frequencies, said second frequency being established as the operational frequency of the femto-cell base station.
A magnetoresistive tunnel-junction, MTJ, memory element (100a-e), comprising: a magnetic reference layer, RL; a magnetic free layer, FL; a tunneling barrier layer extending between the magnetic RL and the magnetic FL; a diffusion-blocking layer, (140; 140a, 140b) on the magnetic FL, said DBL (140; 140a, 140b) comprising at least one material selected from a group consisting of bismuth, Bi, antimony, Sb, osmium, Os, rhenium, Re, tin, Sn, rhodium, Rh, indium, In, and cadmium, Cd; and an oxide layer (130; 130'; 130") on the DBL (140; 140a, 140b), wherein the DBL (140; 140a, 140b) extends between the oxide layer (130; 130'; 130") and the magnetic FL to form interfaces with the oxide layer (130; 130'; 130") and the magnetic FL, wherein the oxide layer (130") comprises a composite of: a first oxide layer comprising at least one oxide selected from a group consisting of scandium oxide, Sc-O, strontium oxide, Sr-O, and calcium oxide, Ca-O; and a second oxide layer comprising at least one oxide selected from a group consisting of tantalum oxide, Ta-O, and hafnium oxide, Hf-O, and wherein the first oxide layer extends between the second oxide layer and the DBL. a magnetic reference layer, RL; a magnetic free layer, FL; a tunneling barrier layer extending between the magnetic RL and the magnetic FL; a diffusion-blocking layer, (140; 140a, 140b) on the magnetic FL, said DBL (140; 140a, 140b) comprising at least one material selected from a group consisting of bismuth, Bi, antimony, Sb, osmium, Os, rhenium, Re, tin, Sn, rhodium, Rh, indium, In, and cadmium, Cd; and an oxide layer (130; 130'; 130") on the DBL (140; 140a, 140b), wherein the DBL (140; 140a, 140b) extends between the oxide layer (130; 130'; 130") and the magnetic FL to form interfaces with the oxide layer (130; 130'; 130") and the magnetic FL, wherein the oxide layer (130") comprises a composite of: a first oxide layer comprising at least one oxide selected from a group consisting of scandium oxide, Sc-O, strontium oxide, Sr-O, and calcium oxide, Ca-O; and a second oxide layer comprising at least one oxide selected from a group consisting of tantalum oxide, Ta-O, and hafnium oxide, Hf-O, and wherein the first oxide layer extends between the second oxide layer and the DBL. a first oxide layer comprising at least one oxide selected from a group consisting of scandium oxide, Sc-O, strontium oxide, Sr-O, and calcium oxide, Ca-O; and a second oxide layer comprising at least one oxide selected from a group consisting of tantalum oxide, Ta-O, and hafnium oxide, Hf-O, and wherein the first oxide layer extends between the second oxide layer and the DBL.
Method for joining or repairing a pipe system comprising at least two bonded pipes (1.1,1.2) having polyethylene outer casing, the method comprising the steps of - forming a joint region by fitting a sleeve coupling of weldable polyethylene on the outside surface of a pipe end (1.1) of a bonded pipe such that the sleeve coupling overlaps the pipe end and inserting an electrically conductive band between the outside surface of the pipe end and the inside surface of the sleeve coupling, wherein the electrically conductive band is configured of expanded metal mesh having metal strands (9.1) and mesh openings (9.2), and arranging the expanded metal mesh such that the metal strands (9.1) extend substantially diagonally across the width of the conductive band, - electrofusion welding of the joint region in order to form a weld joint by supplying power to the electrically conductive band, - application of a pressure force on the joint region during the electrofusion welding by a welding tool for pressurizing the joint region, and extrusion welding a longitudinal joint (7.4) formed on the sleeve coupling, and comprising a step of processing the expanded metal mesh to increase the heat conductive surface prior to inserting the electrically conductive band in the joint region, wherein the step of processing comprises sandblasting the expanded metal mesh thereby forming indentations (9.4) in the surface of the metal strands (9.1) of the expanded metal mesh. - forming a joint region by fitting a sleeve coupling of weldable polyethylene on the outside surface of a pipe end (1.1) of a bonded pipe such that the sleeve coupling overlaps the pipe end and inserting an electrically conductive band between the outside surface of the pipe end and the inside surface of the sleeve coupling, wherein the electrically conductive band is configured of expanded metal mesh having metal strands (9.1) and mesh openings (9.2), and arranging the expanded metal mesh such that the metal strands (9.1) extend substantially diagonally across the width of the conductive band, - electrofusion welding of the joint region in order to form a weld joint by supplying power to the electrically conductive band, - application of a pressure force on the joint region during the electrofusion welding by a welding tool for pressurizing the joint region, and extrusion welding a longitudinal joint (7.4) formed on the sleeve coupling, and comprising a step of processing the expanded metal mesh to increase the heat conductive surface prior to inserting the electrically conductive band in the joint region, wherein the step of processing comprises sandblasting the expanded metal mesh thereby forming indentations (9.4) in the surface of the metal strands (9.1) of the expanded metal mesh.
Lighting device comprising at least one device for current regulation, at least two arrangements (S1, S2, S3, S4) of in each case at least one single-coloured light source, preferably at least one light-emitting diode, wherein the light sources of both arrangements have approximately the same, preferably white, light colour, wherein at least respectively one light source of an arrangement of light sources is thermally operatively connected, in particular thermally coupled, to at least one light source of at least one further arrangement, wherein at least one arrangement (S1, S2, S3, S4) of light sources comprises at least one series connection of light-emitting diodes and the arrangements of light sources are fed by a common device for current regulation, wherein the arrangements are connected in parallel with one another, characterized in that the light sources of the lighting device are arranged in such a way that no two light sources of the same arrangement (S1, S2, S3, S4) are arranged adjacently, and wherein the light sources are arranged in a regular planar grid, in particular a cubic or hexagonal grid.
A use, for the manufacture of a hydroalcoholic composition comprising at least water and at least one alcohol, of a branched or cross-linked copolymer obtained from: (i) 20 mol% to 94.99 mol% of at least one monomer containing an acrylic group and bearing at least one weak acid function, (ii) 5 mol% to 79.99 mol% of at least one monomer bearing at least one strong acid function, (iii) 0.01 mol% to 4 mol% of a cross-linking/branching agent selected from ethylene glycol diacrylate, polyethylene glycol dimethacrylate, diacrylamide, cyanomethylacrylate, vinyloxyethylacrylate, vinyloxymethacrylate, triallylamine, trimethylolpropane triacrylate, formaldehyde, glyoxal, glycidyl ethers, epoxies and mixtures thereof, said copolymer being obtained by precipitation polymerization, in a solvent comprising at least one alcohol. (i) 20 mol% to 94.99 mol% of at least one monomer containing an acrylic group and bearing at least one weak acid function, (ii) 5 mol% to 79.99 mol% of at least one monomer bearing at least one strong acid function, (iii) 0.01 mol% to 4 mol% of a cross-linking/branching agent selected from ethylene glycol diacrylate, polyethylene glycol dimethacrylate, diacrylamide, cyanomethylacrylate, vinyloxyethylacrylate, vinyloxymethacrylate, triallylamine, trimethylolpropane triacrylate, formaldehyde, glyoxal, glycidyl ethers, epoxies and mixtures thereof,
A molecular assembly production method for producing molecular assemblies of an amphiphilic block polymer, comprising: applying a polymer solution in a layered shape on a planar base member, wherein the base member is a flexible film, the polymer solution containing an amphiphilic block polymer and a solvent, the amphiphilic block polymer having a hydrophilic block chain having 20 or more sarcosine units and a hydrophobic block chain having 10 or more lactic acid units; forming a polymer film on the base member by removing the solvent from the coated layer of the polymer solution; and obtaining molecular assemblies by immersing the base member in a water-based liquid. applying a polymer solution in a layered shape on a planar base member, wherein the base member is a flexible film, the polymer solution containing an amphiphilic block polymer and a solvent, the amphiphilic block polymer having a hydrophilic block chain having 20 or more sarcosine units and a hydrophobic block chain having 10 or more lactic acid units; forming a polymer film on the base member by removing the solvent from the coated layer of the polymer solution; and obtaining molecular assemblies by immersing the base member in a water-based liquid.
A computer implemented method of analyzing a tumor sample genome for a mutation load, comprising: detecting variants in a plurality of nucleic acid sequence reads to produce a plurality of detected variants, wherein the nucleic acid sequence reads correspond to a plurality of targeted locations in the tumor sample genome, the plurality of targeted locations corresponding to target gene sequences of a targeted panel, wherein the detected variants include somatic variants and germ-line variants; annotating one or more detected variants of the plurality of detected variants with an annotation information from one or more population databases, wherein the population databases include information associated with variants in a population, wherein the annotation information includes a minor allele frequency associated with a given variant; filtering the plurality of detected variants, wherein the filtering applies a rule set to the detected variants to retain the somatic variants, the rule set including retaining the detected variants whose minor allele frequency is within a MAF range and wherein the MAF range is from 0 to 10 -6, wherein the filtering produces identified somatic variants; counting the identified somatic variants to give a number of somatic variants; determining a number of bases in covered regions of the targeted locations in the tumor sample genome; and calculating a number of somatic variants per megabase by dividing the number of identified somatic variants by the number of bases in the covered regions to produce the mutation load for the tumor sample genome. detecting variants in a plurality of nucleic acid sequence reads to produce a plurality of detected variants, wherein the nucleic acid sequence reads correspond to a plurality of targeted locations in the tumor sample genome, the plurality of targeted locations corresponding to target gene sequences of a targeted panel, wherein the detected variants include somatic variants and germ-line variants; annotating one or more detected variants of the plurality of detected variants with an annotation information from one or more population databases, wherein the population databases include information associated with variants in a population, wherein the annotation information includes a minor allele frequency associated with a given variant; filtering the plurality of detected variants, wherein the filtering applies a rule set to the detected variants to retain the somatic variants, the rule set including retaining the detected variants whose minor allele frequency is within a MAF range and wherein the MAF range is from 0 to 10 -6, wherein the filtering produces identified somatic variants; counting the identified somatic variants to give a number of somatic variants; determining a number of bases in covered regions of the targeted locations in the tumor sample genome; and calculating a number of somatic variants per megabase by dividing the number of identified somatic variants by the number of bases in the covered regions to produce the mutation load for the tumor sample genome.
An implantable cardiovascular pump system comprising, a housing configured to be implanted at a patient's heart; a pump assembly disposed within the housing having a vibrating membrane; an outflow cannula in fluid communication with the pump assembly, the outflow cannula having an inlet and an outlet; and an inflow cannula in fluid communication with the pump assembly, the inflow cannula having an inlet and an outlet, wherein the vibrating membrane is configured to transfer blood from the inlet of the inflow cannula through the housing and out the outlet of the outflow cannula, and wherein the outflow cannula is disposed coaxially within the inflow cannula, characterised in that the outflow cannula is configured to extend into the housing and is secured to the pump assembly.
A method comprising: receiving, at a wireless transmit and receive unit, WTRU, a master information block, MIB, from an eNodeB (160a, 160b, 160c), wherein the received MIB indicates a periodicity of a coverage-enhanced system information block, CE-SIB, and a modulation and coding scheme, MCS, level of the CE-SIB; and receiving, at the WTRU, the CE-SIB from the eNodeB in a frequency resource that is based at least in part on a physical cell ID, PCID, associated with the eNodeB, wherein the CE-SIB is received with the periodicity and the MCS level indicated in the received MIB. receiving, at a wireless transmit and receive unit, WTRU, a master information block, MIB, from an eNodeB (160a, 160b, 160c), wherein the received MIB indicates a periodicity of a coverage-enhanced system information block, CE-SIB, and a modulation and coding scheme, MCS, level of the CE-SIB; and receiving, at the WTRU, the CE-SIB from the eNodeB in a frequency resource that is based at least in part on a physical cell ID, PCID, associated with the eNodeB, wherein the CE-SIB is received with the periodicity and the MCS level indicated in the received MIB.