mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, at a user equipment while being served by a first system and during protocol data unit session establishment or modification procedure, a message including a default quality of service rule, the default quality of service rule including an access point name aggregate maximum bit rate value; characterized in that when there is an inter-system change from the first system to a second system, setting, at the user equipment, the access point name aggregate maximum bit rate value of a session management context for the second system to the received access point name aggregate maximum bit rate value received while being served by the first system. receiving, at a user equipment while being served by a first system and during protocol data unit session establishment or modification procedure, a message including a default quality of service rule, the default quality of service rule including an access point name aggregate maximum bit rate value; characterized in that when there is an inter-system change from the first system to a second system, setting, at the user equipment, the access point name aggregate maximum bit rate value of a session management context for the second system to the received access point name aggregate maximum bit rate value received while being served by the first system.
A method for genotyping alleles in at least one homologous genetic loci set, comprising: (i) providing a DNA-containing sample that includes said at least one homologous genetic loci set, wherein said homologous genetic loci set comprises: (a) the red cell antigen-encoding the RHD gene and the RHCE gene; or (b) two or more of the human leukocyte antigen system genes; or (c) two of more of the glycophorin-encoding genes selected from the GYPA gene, the GYPB gene, and the GYPE gene; (ii) performing PCR amplification of regions of said homologous genetic loci set using consensus sequence-specific primers, wherein said consensus sequence-specific primers bind to consensus sequences that are common to said homologous genetic loci set genes (a), (b) or (c); thereby generating a pool of amplification products; (iii) sequencing a plurality of said amplification products in order to determine the relative proportion of each nucleotide at each position in a sequencing read; (iv) performing a sequence alignment between the sequencing read results of (iii) and at least one reference sequence, with said reference sequence corresponding to one of the genes in said homologous genetic loci set; and (v) performing genotype calling of the allele or alleles in said sample based on the relative proportion of each nucleotide at each of a plurality of discriminant positions in said alignment. (i) providing a DNA-containing sample that includes said at least one homologous genetic loci set, wherein said homologous genetic loci set comprises: (a) the red cell antigen-encoding the RHD gene and the RHCE gene; or (b) two or more of the human leukocyte antigen system genes; or (c) two of more of the glycophorin-encoding genes selected from the GYPA gene, the GYPB gene, and the GYPE gene; (a) the red cell antigen-encoding the RHD gene and the RHCE gene; or (b) two or more of the human leukocyte antigen system genes; or (c) two of more of the glycophorin-encoding genes selected from the GYPA gene, the GYPB gene, and the GYPE gene; (ii) performing PCR amplification of regions of said homologous genetic loci set using consensus sequence-specific primers, wherein said consensus sequence-specific primers bind to consensus sequences that are common to said homologous genetic loci set genes (a), (b) or (c); thereby generating a pool of amplification products; (iii) sequencing a plurality of said amplification products in order to determine the relative proportion of each nucleotide at each position in a sequencing read; (iv) performing a sequence alignment between the sequencing read results of (iii) and at least one reference sequence, with said reference sequence corresponding to one of the genes in said homologous genetic loci set; and (v) performing genotype calling of the allele or alleles in said sample based on the relative proportion of each nucleotide at each of a plurality of discriminant positions in said alignment.
A composition of matter comprising carbon nanotubes dispersed within a polymer resin wherein said carbon nanotubes comprise carbon nanotubes non-covalently bound to a chimeric SP1 polypeptide, said chimeric SP1 polypeptide comprising: (a) an SP1 polypeptide characterized by: i) at least 85% amino acid homology to SEQ ID NO:4; ii) stable dimer-forming capability; iii) at least one conserved amino acid sequence in at least one region corresponding to amino acids 9-11, 44-46 and/or 65-73, of SEQ ID NO:4; and (b) a carbon nanotube or graphitic surfaces binding peptide fused at the N-terminus of said SP1 polypeptide. (a) an SP1 polypeptide characterized by: i) at least 85% amino acid homology to SEQ ID NO:4; ii) stable dimer-forming capability; iii) at least one conserved amino acid sequence in at least one region corresponding to amino acids 9-11, 44-46 and/or 65-73, of SEQ ID NO:4; and i) at least 85% amino acid homology to SEQ ID NO:4; ii) stable dimer-forming capability; iii) at least one conserved amino acid sequence in at least one region corresponding to amino acids 9-11, 44-46 and/or 65-73, of SEQ ID NO:4; and (b) a carbon nanotube or graphitic surfaces binding peptide fused at the N-terminus of said SP1 polypeptide.
Method for controlling at least one drill parameter when drilling rock with a drilling machine, in which method, during drilling, an impulse-generating device by means of an impact means induces shock waves in a tool working against the rock, wherein a pressure level for a shock-wave-generating pressure is controlled during the drilling, said drilling machine including a damping chamber that can be pressurized, and the control of the contact of the drilling machine against the rock is affected at least partially by the pressure prevailing in said damping chamber, characterized by the step in which, when the pressure in said damping chamber exceeds a first level and is below a second level, the percussion pressure is controlled as a function of the pressure in said damping chamber, the method further including, during said control, increasing the percussion pressure when the pressure in said damping chamber increases, and decreasing the percussion pressure when the pressure in said damping chamber decreases.
A secondary battery cell supply apparatus for a process of folding a secondary battery cell, the secondary battery cell supply apparatus comprising: a first device configured to grip a secondary battery cell for a cell folding process received in a tray and raise the secondary battery cell vertically upward; a second device configured to grip the secondary battery cell gripped by the first device and transfer the secondary battery cell in a transverse direction when the first device releases the secondary battery cell; and a third device configured to grip the secondary battery cell gripped by the second device, rotate the secondary battery cell, and move the secondary battery cell upward and downward so that a pair of wide surfaces of the secondary battery cell is directed in a vertical direction when the second device releases the secondary battery cell. a first device configured to grip a secondary battery cell for a cell folding process received in a tray and raise the secondary battery cell vertically upward; a second device configured to grip the secondary battery cell gripped by the first device and transfer the secondary battery cell in a transverse direction when the first device releases the secondary battery cell; and a third device configured to grip the secondary battery cell gripped by the second device, rotate the secondary battery cell, and move the secondary battery cell upward and downward so that a pair of wide surfaces of the secondary battery cell is directed in a vertical direction when the second device releases the secondary battery cell.
A method for detecting and quantifying by mass spectrometry imaging a target molecule in a biological tissue sample, comprising the following steps: a) depositing the biological tissue sample to be analyzed on a support; b) analyzing the biological tissue sample by mass spectrometry, so as to obtain the mass spectrum of the target molecule in said biological tissue sample; c) weighting a signal associated with the mass spectrum of the target molecule in said biological tissue sample by a extinction coefficient specific to the target molecule and to the biological tissue sample; and d) using the weighted signal of the target molecule to determine the quantity of target molecule in the biological tissue sample by referring to a calibration curve for the target molecule, wherein the TEC corresponds to: TEC = Signal obtained by mass spectrometry imaging of the target molecule on a reference medium corresponding to a sample support alone _ Signal obtained by mass spectrometry imaging of the target molecule on a control tissue sample _ or TEC = _ Signal obtained by mass spectrometry imaging of the target molecule on a control tissue sample _ Signal obtained by mass spectrometry imaging of the target molecule on a reference medium corresponding to a sample support alone _ and wherein TEC is calculated using the same concentration of the target molecule in the reference medium corresponding to the sample support alone and in the control tissue sample: a) depositing the biological tissue sample to be analyzed on a support; b) analyzing the biological tissue sample by mass spectrometry, so as to obtain the mass spectrum of the target molecule in said biological tissue sample; c) weighting a signal associated with the mass spectrum of the target molecule in said biological tissue sample by a extinction coefficient specific to the target molecule and to the biological tissue sample; and d) using the weighted signal of the target molecule to determine the quantity of target molecule in the biological tissue sample by referring to a calibration curve for the target molecule,
A container comprising: a paperboard shell layer about a longitudinal axis and extending from a shell bottom edge to a shell top edge, wherein said shell layer comprises: a body portion extending from said shell bottom edge to a lower line of limitation; a predetermined removable portion extending from said lower line of limitation to an upper line of limitation; and a cap portion extending from said upper line of limitation to said shell top edge; and a paperboard core layer extending at least partially about said longitudinal axis and interior to said shell layer, wherein said core layer is joined to said body portion and extends from below said lower line of limitation to above said upper line of limitation; characterised in that said body portion comprises a lobe immediately below said lower line of limitation and has a peripheral exterior length orthogonally about said longitudinal axis immediately below said lobe; wherein said lobe has an lobe exterior length orthogonal to or about said longitudinal axis and said lobe exterior length is more than 5% of said peripheral exterior length; wherein said lobe has a lobe exterior height parallel to said longitudinal axis and said lobe has a lobe exterior length to lobe exterior height ratio greater than 1; and wherein said lobe is configured to function as a wedge to provide for mechanical engagement of the cap portion to the body portion when the container is reclosed. a body portion extending from said shell bottom edge to a lower line of limitation; a predetermined removable portion extending from said lower line of limitation to an upper line of limitation; and a cap portion extending from said upper line of limitation to said shell top edge; and a paperboard core layer extending at least partially about said longitudinal axis and interior to said shell layer, wherein said core layer is joined to said body portion and extends from below said lower line of limitation to above said upper line of limitation; characterised in that said body portion comprises a lobe immediately below said lower line of limitation and has a peripheral exterior length orthogonally about said longitudinal axis immediately below said lobe; wherein said lobe has an lobe exterior length orthogonal to or about said longitudinal axis and said lobe exterior length is more than 5% of said peripheral exterior length; wherein said lobe has a lobe exterior height parallel to said longitudinal axis and said lobe has a lobe exterior length to lobe exterior height ratio greater than 1; and wherein said lobe is configured to function as a wedge to provide for mechanical engagement of the cap portion to the body portion when the container is reclosed.
A method for the manufacture of a functionalised carbon nanomembrane comprising the steps of a) Providing a surface and low-molecular weight aromatic precursor molecules comprising either amine groups or at least one of nitrile and nitro groups; b) Applying a layer of the precursor molecules on the surface; c) Crosslinking the layer of the precursor molecules in lateral direction by exposure to radiation for forming the CNM wherein nitrile or nitro groups, if present, are reduced to amine groups; and d) Reacting the amine groups with a linker comprising at least one azide group resulting in an azide-terminated CNM a) Providing a surface and low-molecular weight aromatic precursor molecules comprising either amine groups or at least one of nitrile and nitro groups; b) Applying a layer of the precursor molecules on the surface; c) Crosslinking the layer of the precursor molecules in lateral direction by exposure to radiation for forming the CNM wherein nitrile or nitro groups, if present, are reduced to amine groups; and d) Reacting the amine groups with a linker comprising at least one azide group resulting in an azide-terminated CNM
A copper brazing method for internal coating a plate heat exchanger, wherein the material forming the coating is an aqueous silver nitrate solution and said solution is passed into at least one plate heat exchanger and is circulated by it to diffuse into the copper and subsequently passed out of the heat exchanger, characterised in that the silver nitrate solution flows during circulation through the at least one plate heat exchanger in an alternating flow direction.
A therapeutic comprising an inhibitor of either, or both, nWASP gene expression or nWASP protein activity; or an inhibitor of a protein that is at least 90% homologous to nWASP and that modulates actin assembly, for use in the treatment of mammalian chronic wounds.
An illuminated emblem for a vehicle comprising: - a front element with the shape of a logotype, where the front element is opaque, and the inner face of the front element is of a color that reflects light; - a rear casing for fixing the emblem to a portion of the vehicle body, where the rear casing is opaque, and where the inner surface of the rear casing is of a color that reflects light; - a light diffusion filter arranged between the front element and the rear casing, where the inner space defined by the front element, the rear casing and the diffusion filter defines a cavity, where the contour of the diffusion filter reproduces the same perimetral shape as the perimetral edge of the front element, wherein the diffusion filter is translucent and configured to allow light to be extracted from the cavity; and - at least one illumination circuit arranged inside the cavity, where the at least one illumination circuit comprises a plurality of light sources; where the inner face of the front element and the inner surface of the rear casing generate an internal reflection chamber for the light beams emitted by the plurality of light sources, and where the light escapes from the cavity through the diffusion filter only in the lateral direction, generating an indirect illumination of the perimeter of the emblem on the vehicle body; characterized in that the cavity does not include a light guide in combination to the internal reflection chamber generated by the inner face of the front element and the inner surface of the rear casing, and the cavity functions as an internal reflection chamber for the light beams emitted by the plurality of light sources and the light beams are made to internally bounce around constantly since they are reflected as they strike the reflective inner walls of the rear casing and the front element, thereby filling the entire cavity with light. - a front element with the shape of a logotype, where the front element is opaque, and the inner face of the front element is of a color that reflects light; - a rear casing for fixing the emblem to a portion of the vehicle body, where the rear casing is opaque, and where the inner surface of the rear casing is of a color that reflects light; - a light diffusion filter arranged between the front element and the rear casing, where the inner space defined by the front element, the rear casing and the diffusion filter defines a cavity, where the contour of the diffusion filter reproduces the same perimetral shape as the perimetral edge of the front element, wherein the diffusion filter is translucent and configured to allow light to be extracted from the cavity; and - at least one illumination circuit arranged inside the cavity, where the at least one illumination circuit comprises a plurality of light sources; where the inner face of the front element and the inner surface of the rear casing generate an internal reflection chamber for the light beams emitted by the plurality of light sources, and where the light escapes from the cavity through the diffusion filter only in the lateral direction, generating an indirect illumination of the perimeter of the emblem on the vehicle body;
Fibreboard produced by pressing lignocellulose-containing fibres contacted with binder in a method which comprises the following steps: a) providing a fibre mat containing bonded, lignocellulose-containing fibres, b) treating at least one of the two surfaces of the fibre mat from step a) with a polymeric monoguanidine compound, c) pressing the surface-treated fibre mat obtained from step b) into a fibreboard, wherein - at least one polymeric monoguanidine compound is concentrated in the area of at least one of the two surfaces of the fibreboard; - a concentration gradient of polymeric monoguanidine compound exists between at least one surface of the fibreboard and its centre and the fibreboard has an area in its core, in which the concentration of the polymeric monoguanidine compound is lower than in the area of the surface of the fibreboard. a) providing a fibre mat containing bonded, lignocellulose-containing fibres, b) treating at least one of the two surfaces of the fibre mat from step a) with a polymeric monoguanidine compound, c) pressing the surface-treated fibre mat obtained from step b) into a fibreboard, - at least one polymeric monoguanidine compound is concentrated in the area of at least one of the two surfaces of the fibreboard; - a concentration gradient of polymeric monoguanidine compound exists between at least one surface of the fibreboard and its centre and the fibreboard has an area in its core, in which the concentration of the polymeric monoguanidine compound is lower than in the area of the surface of the fibreboard.
Method for operating a user interface, in which data of a list are captured, the list comprising list entries (20.1 to 20.N) and the list entries (20.1 to 20.N) each having associated entry features (20.1a to 20.Nn); a list representation containing graphical symbol objects (31.1 to 34.1) for at least one subset of the list entries (20.1 to 20.N) is generated and displayed; wherein the graphical symbol objects (31.1 to 34.1) each have an associated display area (31; 32; 33; 34); a user control action for a symbol object (31.1 to 34.1) of a list entry (20.1 to 20.N) is detected; wherein the user control action comprises an input movement with an input direction; and a detail representation for the controlled symbol object (31.1 to 34.1) is generated and displayed; wherein the input direction of the user control action is taken as a basis for displaying a displacement of the controlled symbol object (31.1 to 34.1) relative to the list representation; and the represented subset of associated entry features (20.1a to 20.Nn) is larger in the detail representation than in the list representation, wherein the symbol object (31.1 to 34.1) is reduced in the detail representation as compared with the list representation, characterized in that the reduction is performed in proportion to the distance covered by the symbol object (31.1 to 34.1) during the displacement, wherein the symbol objects (31.1 to 34.1) of the list representation are arranged in a row along a direction of extent and the user control action comprises a sliding gesture in a direction perpendicular to the direction of extent. a list representation containing graphical symbol objects (31.1 to 34.1) for at least one subset of the list entries (20.1 to 20.N) is generated and displayed; wherein the graphical symbol objects (31.1 to 34.1) each have an associated display area (31; 32; 33; 34); a user control action for a symbol object (31.1 to 34.1) of a list entry (20.1 to 20.N) is detected; wherein the user control action comprises an input movement with an input direction; and a detail representation for the controlled symbol object (31.1 to 34.1) is generated and displayed; wherein the input direction of the user control action is taken as a basis for displaying a displacement of the controlled symbol object (31.1 to 34.1) relative to the list representation; and the represented subset of associated entry features (20.1a to 20.Nn) is larger in the detail representation than in the list representation, wherein the symbol object (31.1 to 34.1) is reduced in the detail representation as compared with the list representation, characterized in that the reduction is performed in proportion to the distance covered by the symbol object (31.1 to 34.1) during the displacement, wherein the symbol objects (31.1 to 34.1) of the list representation are arranged in a row along a direction of extent and the user control action comprises a sliding gesture in a direction perpendicular to the direction of extent.
A closure system for a medicament container, the closure system comprising a primary closure adapted for releasably sealing the medicament container; a secondary closure member adapted for releasably sealing the medicament container and comprising ar integrated dosing element; and an adapter arranged to releasably secure the secondary closure member to the primary closure member when the primary closure member is in sealing engagement with the container, the adapter defining a chamber for receiving the dosing element, the chamber being located such as to be inaccessible when the secondary closure member is secured to the primary closure member with the adapter.
Valve, in particular a valve for a motor vehicle such as an exhaust-gas recirculation valve, comprising a toothed-sector wheel rotating counter to the action of a return spring acting in torsion, the rotation of the toothed-sector wheel controlling the opening and the closure of the valve, the toothed-sector wheel having, on one of its faces, at least one relief (50, 52) for guiding the return spring, preferably arranged radially inside the return spring, the valve being characterized in that an apex edge (56; 58) of the guide relief or relieves (50; 52) is helical.