mhurhangee/ep-ind-claims huggingface dataset:
A collapsible prosthetic heart valve, comprising: a stent including a foldable section, an annulus section, and an aortic section arranged in series, the stent having a collapsed condition and an expanded condition and being movable between an unfolded condition in which the foldable section is spaced from the annulus section in a longitudinal direction, and a folded condition in which the foldable section is at least partially positioned within the annulus section; and a valve assembly attached to the foldable section of the stent, the annulus section lengthening in the longitudinal direction by a first elongation percentage upon movement from the expanded condition to the collapsed condition, and the foldable section lengthening in the longitudinal direction by a second elongation percentage upon movement from the expanded condition to the collapsed condition, the first elongation percentage being greater than the second elongation percentage. a stent including a foldable section, an annulus section, and an aortic section arranged in series, the stent having a collapsed condition and an expanded condition and being movable between an unfolded condition in which the foldable section is spaced from the annulus section in a longitudinal direction, and a folded condition in which the foldable section is at least partially positioned within the annulus section; and a valve assembly attached to the foldable section of the stent, the annulus section lengthening in the longitudinal direction by a first elongation percentage upon movement from the expanded condition to the collapsed condition, and the foldable section lengthening in the longitudinal direction by a second elongation percentage upon movement from the expanded condition to the collapsed condition, the first elongation percentage being greater than the second elongation percentage.
Device for detecting the position of at least a first and a second hand (10, 12) of an electromechanical watch, said first and second hands (10, 12) moving above a dial, the detection device including a single light source emitting a light beam towards the first and second hands (10, 12), and a first and a second light detection system (4, 22), the light source and the first and second light detection systems (4, 22) being mounted on or underneath the dial, the light source and the first and second light detection systems (4, 22) being arranged so that, in a determined position of the first hand, the light beam emitted by the light source is reflected by the first hand towards the first detection system, and in a determined position of the second hand, the light beam emitted by the light source is reflected by the second hand towards the second detection system.
A method performed by a master node, MN, for dual connectivity in a wireless communication system, the method comprising: determining to offload at least one quality of service, QoS, flow of a protocol data unit, PDU, session from the MN to a secondary node, SN, for the dual connectivity, wherein the PDU session comprises a plurality of QoS flows; identifying the at least one QoS flow of the plurality of QoS flows of the PDU session; and transmitting, to a core network entity, a session modification message for offloading the at least one QoS flow of the PDU session, wherein the session modification message includes information of the identified at least one QoS flow, wherein the MN is configured with a first access stratum mapping layer, ASML, for mapping between a QoS flow and a data radio bearer, DRB, wherein the first ASML is responsible for DRB management and QoS flow to DRB mapping control in both the MN and the SN, and wherein the SN is configured with a second ASML for mapping between a QoS flow and a DRB, and wherein the first ASML and the second ASML are configured for the PDU session for the offloading of the at least one QoS flow of the PDU session between the MN and the SN. determining to offload at least one quality of service, QoS, flow of a protocol data unit, PDU, session from the MN to a secondary node, SN, for the dual connectivity, wherein the PDU session comprises a plurality of QoS flows; identifying the at least one QoS flow of the plurality of QoS flows of the PDU session; and transmitting, to a core network entity, a session modification message for offloading the at least one QoS flow of the PDU session, wherein the session modification message includes information of the identified at least one QoS flow, wherein the MN is configured with a first access stratum mapping layer, ASML, for mapping between a QoS flow and a data radio bearer, DRB, wherein the first ASML is responsible for DRB management and QoS flow to DRB mapping control in both the MN and the SN, and wherein the SN is configured with a second ASML for mapping between a QoS flow and a DRB, and wherein the first ASML and the second ASML are configured for the PDU session for the offloading of the at least one QoS flow of the PDU session between the MN and the SN.
Method for determining a chain of basic functions associated with a service, said basic functions being intended to be interconnected in order to supply said service to a client entity in an overlay network of a communication network, said method comprising the following steps implemented by a determination device (IF-OPAC, 100): - a step of reception, from an access node to said service, of a provisional chain of basic functions associated with the service requested by the client entity and of a context associated with the client entity, said context having been transmitted previously by the client entity to the service access node in a request for access to said service; - a step of determination of an action to be performed on the provisional chain of basic functions associated with the service as a function of at least one rule relating to the context associated with the client entity; - a step of implementation of the determined action on the provisional chain to obtain a definitive chain of basic functions and of sending of said definitive chain to said service access node; - and a step of searching, performed by said service access node, in said overlay network, for the nodes offering requested basic functions and such that the links between the different nodes make it possible to observe the constraints associated with the chain of basic functions. - a step of reception, from an access node to said service, of a provisional chain of basic functions associated with the service requested by the client entity and of a context associated with the client entity, said context having been transmitted previously by the client entity to the service access node in a request for access to said service; - a step of determination of an action to be performed on the provisional chain of basic functions associated with the service as a function of at least one rule relating to the context associated with the client entity; - a step of implementation of the determined action on the provisional chain to obtain a definitive chain of basic functions and of sending of said definitive chain to said service access node; - and a step of searching, performed by said service access node, in said overlay network, for the nodes offering requested basic functions and such that the links between the different nodes make it possible to observe the constraints associated with the chain of basic functions.
A piezoelectric element, comprising: a first electrode provided above a base body; a first piezoelectric layer provided so as to be in contact with the base body and cover the first electrode; a second piezoelectric layer provided above the first piezoelectric layer; and a second electrode provided above the second piezoelectric layer, wherein the first piezoelectric layer includes a composite oxide that contains potassium and niobium and that has a perovskite-type structure containing potassium as a main component at an A-site, and the second piezoelectric layer includes a composite oxide that contains potassium, sodium, and niobium and that has a perovskite-type structure, characterized in that: the first piezoelectric layer has a higher potassium atomic concentration (atm%) than the second piezoelectric layer. a first electrode provided above a base body; a first piezoelectric layer provided so as to be in contact with the base body and cover the first electrode; a second piezoelectric layer provided above the first piezoelectric layer; and a second electrode provided above the second piezoelectric layer, wherein the first piezoelectric layer includes a composite oxide that contains potassium and niobium and that has a perovskite-type structure containing potassium as a main component at an A-site, and the second piezoelectric layer includes a composite oxide that contains potassium, sodium, and niobium and that has a perovskite-type structure, characterized in that: the first piezoelectric layer has a higher potassium atomic concentration (atm%) than the second piezoelectric layer.
An optical element (50, 110) comprising a plurality of transmission diffraction portions (70, 80, 90, 100, 120, 130, 140, 150), each of which includes a plurality of reflective portions (71, 71a, 81, 81a, 91, 91a, 101, 101a, 121, 131, 141, 151) arranged at equal intervals along a given axis, wherein each of the reflective portions reflects light included in visible light, and the light reflected by the reflective portions forms a reflection image, and a plurality of transmissive portions (72, 82, 92, 102, 122, 132, 142, 152), each sandwiched by two corresponding reflective portions that are adjacent to each other along the given axis, wherein the transmissive portions transmit the visible light, wherein at least part of each reflective portion forms the reflection image by rendering a reflection angle of the light reflected by the reflective portions different from an angle of light incident on the reflective portions, and each of the transmission diffraction portions forms a plurality of diffraction images having different colors with diffraction light that is produced by diffracting light transmitted through the transmissive portions in a predetermined direction, in each of the transmission diffraction portions, each reflective portion (71, 71a, 81, 81a, 91, 91a, 101, 101a, 121, 131, 141, 151) and a corresponding one of the transmissive portions (72, 82, 92, 102, 122, 132, 142, 152) that is adjacent to the reflective portion along the given axis form one transmission periodic portion (73, 83, 93, 103, 123, 133, 143, 153), characterised in that the transmission diffraction portions differ from one another in width of the transmission periodic portions along the given axis.
A line card chassis which is applicable to a multi-chassis cluster router, wherein, the line card chassis comprising line card units, switch fabric units and optical fiber interface units; the switch fabric unit comprises a switch fabric chip module and an onboard optical assembly module, wherein the onboard optical assembly module is used for mutual conversion between an optical signal and an electrical signal; an electrical signal interface of the onboard optical assembly module is connected to the switch fabric chip module which has a switching and route-selecting function, and the switch fabric chip module is connected to a line card unit through an electrical connector; and an optical signal interface of the onboard optical assembly module is connected to an optical fiber interface unit through an optical connector; and the optical fiber interface unit is to couple the optical signal to a cluster interface on a panel of the router through an optical fiber; and the cluster interface is to concatenate different chassis of the router; wherein the line card unit and the switch fabric unit are connected using an orthogonal electrical connection without a back board.
A pharmaceutical dosage form having a composition comprising nilotinib butanedisulphonate (2:1) or nilotinib butanedisulphonate (1:1) for use in treating resistant or intolerant Philadelphia chromosome positive chronic myelogenous leukaemia, comprising orally administering to a patient in need thereof daily doses of nilotinib in the range from 300 mg to 500 mg.
A coated cutting tool comprising a substrate and a surface coating, wherein said coating comprises a Ti(C,N) layer comprising at least one columnar MTCVD Ti(C,N) layer with an average grain width of 0.05-0.2 μm, measured on a cross section with a surface normal perpendicular to a surface normal of the substrate, on a rake face of said coated cutting tool, along a straight line in a direction parallel to a surface of the substrate, at a centered position between a lowermost and an uppermost interface of said columnar MTCVD Ti(C,N) layer, characterized in that an atomic ratio of carbon to the sum of carbon and nitrogen (C/(C+N)) contained in said MTCVD Ti(C,N) layer is in average 0.50-0.65, wherein said MTCVD Ti(C,N) layer exhibits an X-ray diffraction pattern, as measured using CuKα radiation, wherein the texture coefficients TC(hkl) are defined as TC hkl = I hkl I 0 hkl 1 n ∑ n = 1 n I hkl I 0 hkl − 1 where I(hkl) = measured intensity (peak area) of the (hkl) reflection, I 0 (hkl)=standard intensity according to ICDD's PDF-card No. 42-1489, n=number of reflections used in the calculation, (hkl) reflections used are:,,,,,, and, and a sum of TC and TC is less than or equal to 5.5, and the reflection of the MTCVD Ti(C,N) layer has a value of the full width at half max (FWHM) of 0.4-0.5. where I(hkl) = measured intensity (peak area) of the (hkl) reflection, I 0 (hkl)=standard intensity according to ICDD's PDF-card No. 42-1489, n=number of reflections used in the calculation, (hkl) reflections used are:,,,,,, and, and a sum of TC and TC is less than or equal to 5.5, and the reflection of the MTCVD Ti(C,N) layer has a value of the full width at half max (FWHM) of 0.4-0.5.
A composition for delivery of a water active pharmaceutical ingredient(s) comprising: i) water miscible solvent(s); ii) amphiphlic co-solvent(s); iii) surfactant mixture which comprises a mixture of non-ionic hydrophilic and hydrophobic surfactants, wherein the water miscible solvent comprises ethanol and/or propyleneglycol and/or polyethyleneglycol and the amphiphilic co-solvent(s) comprises diethylenglycol monoethylether and/or 1,3-dimethylisosorbide and/or N-methyl-2-pyrrolidone and the mixture of non-ionic surfactants comprises a mixture of one or more polyoxyethylene glycolated natural or hydrogenated vegetable oil and one or more trans-esterification products of natural vegetable oil triacylglycerides and polyalkylene glycols. i) water miscible solvent(s); ii) amphiphlic co-solvent(s); iii) surfactant mixture which comprises a mixture of non-ionic hydrophilic and hydrophobic surfactants,
A method for targeted conversion of a modified biomolecule, comprising incubation of the modified biomolecule, bearing a modifying moiety of formula -CH -R, wherein R is hydrogen or C 1 -C 12 -alkyl, with a cofactor-free directing methyltransferase under conditions compatible with enzymatic activity of the methyltransferase, wherein said targeted conversion results from: i) covalent removal of said modifying moiety at the target site; or ii) derivatization of said modifying moiety at the target site by covalent coupling of non-cofactor nucleophilic compound(s) of general formula HQ-LX, wherein X represents a functional group or a reporter group attached via a linker L, and Q is selected from S, Se, O, N, C. i) covalent removal of said modifying moiety at the target site; or ii) derivatization of said modifying moiety at the target site by covalent coupling of non-cofactor nucleophilic compound(s) of general formula HQ-LX, wherein X represents a functional group or a reporter group attached via a linker L, and Q is selected from S, Se, O, N, C.
A method for processing a codebook subset restriction, comprising: grouping precoding matrixes in a codebook at each rank in a transmission mode with N antenna ports respectively, wherein N is a natural number, and in the transmission mode with N antenna ports, rank values can be any number between 1 and N, and wherein the codebook having a matrix structure; and identifying the state of each group as restricted or unrestricted by one bit after grouping, wherein restricted means that a group is unavailable, and unrestricted means that the group is available; wherein grouping the precoding matrixes in the codebooks at respective ranks respectively comprises any one of: grouping per row to take each row of precoding matrixes in the codebooks as a group; grouping per column to take each column of precoding matrixes in the codebooks as a group; grouping respectively per row and column to take each row of precoding matrixes and each column of precoding matrixes in the codebooks respectively as groups and to identify a precoding matrix as restricted if a row or column, to which the precoding matrix belongs, is restricted after grouping; and grouping per precoding matrix element to take precoding matrixes with identical precoding matrix elements in the codebooks as a group. grouping precoding matrixes in a codebook at each rank in a transmission mode with N antenna ports respectively, wherein N is a natural number, and in the transmission mode with N antenna ports, rank values can be any number between 1 and N, and wherein the codebook having a matrix structure; and identifying the state of each group as restricted or unrestricted by one bit after grouping, wherein restricted means that a group is unavailable, and unrestricted means that the group is available; wherein grouping the precoding matrixes in the codebooks at respective ranks respectively comprises any one of: grouping per row to take each row of precoding matrixes in the codebooks as a group; grouping per column to take each column of precoding matrixes in the codebooks as a group; grouping respectively per row and column to take each row of precoding matrixes and each column of precoding matrixes in the codebooks respectively as groups and to identify a precoding matrix as restricted if a row or column, to which the precoding matrix belongs, is restricted after grouping; and grouping per precoding matrix element to take precoding matrixes with identical precoding matrix elements in the codebooks as a group. grouping per row to take each row of precoding matrixes in the codebooks as a group; grouping per column to take each column of precoding matrixes in the codebooks as a group; grouping respectively per row and column to take each row of precoding matrixes and each column of precoding matrixes in the codebooks respectively as groups and to identify a precoding matrix as restricted if a row or column, to which the precoding matrix belongs, is restricted after grouping; and grouping per precoding matrix element to take precoding matrixes with identical precoding matrix elements in the codebooks as a group.
A method for producing pancreatic hormone producing cells from pluripotent stem cells, comprising the steps of: a. culturing pluripotent stem cells, b. differentiating the pluripotent stem cells into cells expressing markers characteristic of the definitive endoderm lineage, c. differentiating the cells expressing markers characteristic of the definitive endoderm lineage into cells expressing markers characteristic of the pancreatic endoderm lineage, and d. differentiating the cells expressing markers characteristic of the pancreatic endoderm lineage into cells expressing markers characteristic of the pancreatic endocrine lineage, wherein the expression of MAFA in cells expressing markers characteristic of the pancreatic endocrine lineage is increased by a method comprising the steps of culturing the cells expressing markers characteristic of the pancreatic endocrine lineage in medium comprising a sufficient amount of a cyclin-dependent kinase inhibitor to cause an increase in expression of MAFA. a. culturing pluripotent stem cells, b. differentiating the pluripotent stem cells into cells expressing markers characteristic of the definitive endoderm lineage, c. differentiating the cells expressing markers characteristic of the definitive endoderm lineage into cells expressing markers characteristic of the pancreatic endoderm lineage, and d. differentiating the cells expressing markers characteristic of the pancreatic endoderm lineage into cells expressing markers characteristic of the pancreatic endocrine lineage,
Method for manufacturing an electronic connecting element, which has at least one electroconductive contact part (4a-4d) and at least one electronic component (5, 6, 10) and/or an additional electroconductive contact part (4a-4d), wherein - soldering paste is applied to a carrier substrate on connecting points (3a-3e) of the connecting element, - the contact part (4a-4e) and the component (5, 6, 10) are placed on the carrier substrate such that they overlap on the connecting points (3a-3e) and can be soldered to one another, wherein they come to lie on the soldering paste, - the soldering paste is melted, wherein the contact part (4a-4d) is soldered to the component (5, 6, 10), - the carrier substrate is removed. - soldering paste is applied to a carrier substrate on connecting points (3a-3e) of the connecting element, - the contact part (4a-4e) and the component (5, 6, 10) are placed on the carrier substrate such that they overlap on the connecting points (3a-3e) and can be soldered to one another, wherein they come to lie on the soldering paste, - the soldering paste is melted, wherein the contact part (4a-4d) is soldered to the component (5, 6, 10), - the carrier substrate is removed.
A system for transferring electric energy to a vehicle travelling on a track in a direction of travel, in particular to a road automobile or to a track bound vehicle such as a light rail vehicle, wherein the system comprises an electric conductor arrangement for producing a magnetic field and for thereby transferring the energy to the vehicle, wherein the electric conductor arrangement comprises at least one current line (507, 508, 509), wherein each current line (507, 508, 509) is adapted to carry the electric current which produces the magnetic field or is adapted to carry one of parallel electric currents which produce the magnetic field and wherein: - the current line or lines (507, 508, 509) extend(s) at a first height level, - the system comprises an electrically conductive shield (20; 355; 520) for shielding the area below the conductor arrangement against the magnetic field, wherein the shield (20; 355; 520) extends under the track and extends below the first height level, characterized in that - a magnetic core extends along the track in the direction of travel at a second height level and extends above the shield (20; 355; 520) and - the magnetic core is placed below the current line or lines (507, 508, 509), so that the current line or lines (507, 508, 509) are not wound around the magnetic core. - the current line or lines (507, 508, 509) extend(s) at a first height level, - the system comprises an electrically conductive shield (20; 355; 520) for shielding the area below the conductor arrangement against the magnetic field, wherein the shield (20; 355; 520) extends under the track and extends below the first height level, - a magnetic core extends along the track in the direction of travel at a second height level and extends above the shield (20; 355; 520) and - the magnetic core is placed below the current line or lines (507, 508, 509), so that the current line or lines (507, 508, 509) are not wound around the magnetic core.