mhurhangee/ep-ind-claims huggingface dataset:
Click connection for two shaped pieces (1, 2) to be connected to one another in a tight and force-locking manner, having two shaped pieces (1, 2, 15) which are identically shaped for the connection, in that they have a groove on the side with the surface to be connected, within which groove undercut surfaces or cams are formed as retaining surfaces on both flank sides (4, 5) of the groove undercut surfaces or cams are formed as retaining surfaces, wherein a retaining element acting on two opposite sides can be inserted into the groove, and wherein furthermore the retaining elements themselves are elastically flexible or form resilient wings at the rear on both sides, so that the two shaped pieces (1, 2), which are directed with the open sides of the grooves towards one another, can be clicked together to form a form-fitting connection by overlapping nesting of the two retaining elements with resilient bending or elastic yielding of the wings (12, 25), with hooking or striking of the retaining elements with their undercut surfaces or retaining surfaces against one another and against the retaining surfaces in the grooves of the respectively opposite shaped pieces, characterised in that a retaining element which can be inserted in the groove so as to be pivotable or laterally displaceable about an axis extending in the longitudinal direction of the groove is present in the groove, or a retaining element which can be elastically pivoted about such an axis in this groove is integrally formed on the groove bottom, wherein these retaining elements (8, 9) project outwards beyond the groove and in the region of their tip form undercut surfaces acting as retaining surfaces or barbs on both sides, and further in that the retaining elements (8, 9) are themselves elastically flexible or form resilient wings at the rear on both sides, so that the two shaped pieces (1, 2), which are directed with the open sides of the grooves towards one another, can be secured together by overlapping nesting of the two retaining elements (8, 9) with resilient connection, 9), with resilient bending or elastic yielding of the wings, to form a form-locking and tension-locking connection, with the retaining elements (8, 9) hooking or abutting with associated undercut surfaces against one another and in the grooves of the respectively opposite mouldings.
Method for producing a structure by the direct bonding of two elements comprising the production of the elements to be assembled and the assembly of said elements, wherein the production of the elements to be assembled comprises the following steps: - deposition on a semi-conductor substrate of at least one growth portion made from a material chosen from TiN x and TaN x, said growth portion being deposited by physical vapour deposition, at a temperature between 20°C and 100°C, - deposition of at least one first portion of copper (8, 108) on all or part of the growth portion, the conditions for depositing the growth portion by physical vapour deposition being such that the ratio between the intensities of the peaks and is greater than or equal to 0.5, whereby the peaks are measured by RX diffraction, and wherein the assembly of said elements comprises the following steps: - polishing the surfaces of the first portions of copper (8, 108) intended to come into contact so that they have a roughness of less than 1 nm RMS and hydrophilic properties, - bringing said surfaces into contact, - storing said structure at a low temperature at a temperature between 0°C and 100°C. - deposition on a semi-conductor substrate of at least one growth portion made from a material chosen from TiN x and TaN x, said growth portion being deposited by physical vapour deposition, at a temperature between 20°C and 100°C, - deposition of at least one first portion of copper (8, 108) on all or part of the growth portion, the conditions for depositing the growth portion by physical vapour deposition being such that the ratio between the intensities of the peaks and is greater than or equal to 0.5, whereby the peaks are measured by RX diffraction, and - polishing the surfaces of the first portions of copper (8, 108) intended to come into contact so that they have a roughness of less than 1 nm RMS and hydrophilic properties, - bringing said surfaces into contact, - storing said structure at a low temperature at a temperature between 0°C and 100°C.
A method, comprising: detecting, by a system comprising a processor, a change in power in a power grid system corresponding to an imbalance in the power grid system that changes a frequency associated with the power grid system; and in response to detecting the change in power: determining a system response value based on phasor measurement unit data associated with the power grid system and a change in power value representing the change in power; establishing a boundary region for a frequency response of the power grid system using the phasor measurement unit data, wherein the establishing the boundary region comprises filtering frequency data of the phasor measurement unit data to obtain filtered data and performing a Proper Orthogonal Decomposition on the filtered data to obtain trend information of the frequency response; using the system response value to obtain transfer function parameters of a transfer function, wherein the transfer function relates the change in power to a change in frequency based on the system response value and the transfer function parameters; and evaluating the frequency response of the power grid system with respect to the boundary region, and in response to the frequency response being determined not to be within the boundary region, varying at least one transfer function parameter of the transfer function parameters until the frequency response is within the boundary region. determining a system response value based on phasor measurement unit data associated with the power grid system and a change in power value representing the change in power; establishing a boundary region for a frequency response of the power grid system using the phasor measurement unit data, wherein the establishing the boundary region comprises filtering frequency data of the phasor measurement unit data to obtain filtered data and performing a Proper Orthogonal Decomposition on the filtered data to obtain trend information of the frequency response; using the system response value to obtain transfer function parameters of a transfer function, wherein the transfer function relates the change in power to a change in frequency based on the system response value and the transfer function parameters; and evaluating the frequency response of the power grid system with respect to the boundary region, and in response to the frequency response being determined not to be within the boundary region, varying at least one transfer function parameter of the transfer function parameters until the frequency response is within the boundary region.
Closing device such as a blind, roller shutter or the like, for a roof window, in particular for a skylight or the like, this closing device including a box into which a shading element, such as a blind or a windable or foldable apron of a shutter is capable of folding or winding up, wherein it includes at least one fastening bracket for fastening said box against a support formed by the leaf of a roof window, said bracket or brackets including, on the one hand, an end for fastening to said support and, on the other hand, means for connecting to said box, these connecting means being movable, at least in translation, with respect to said fastening end, while being integral with this fastening end.
An alloyed steel powder for powder metallurgy comprising: a chemical composition containing Mo: 1.0 mass% to 2.0 mass%, and Cu: 1.0 mass% to 8.0 mass%, with the balance being Fe and inevitable impurities including C: 0.02 mass% or less, O: 0.3 mass% or less, N: 0.004 mass% or less, S: 0.03 mass% or less, Mn: 0.5 mass% or less, and Cr: 0.2 mass% or less; and a microstructure in which an FCC phase is present at a volume fraction of 0.5% to 10.0% measured by X-ray diffraction as described in the description. a chemical composition containing Mo: 1.0 mass% to 2.0 mass%, and Cu: 1.0 mass% to 8.0 mass%, with the balance being Fe and inevitable impurities including C: 0.02 mass% or less, O: 0.3 mass% or less, N: 0.004 mass% or less, S: 0.03 mass% or less, Mn: 0.5 mass% or less, and Cr: 0.2 mass% or less; and a microstructure in which an FCC phase is present at a volume fraction of 0.5% to 10.0% measured by X-ray diffraction as described in the description.
A method of detecting reactive antibody in the serum of a subject including the steps of: • Contacting a sample of the serum with a suspension of cells modified to incorporate a water soluble peptide-lipid construct of the structure (L-S-) i F(-S-L) j to provide a mixture; • Incubating the mixture for a time and at a temperature sufficient to allow agglutination; and • Determining the degree of agglutination of the cells in the mixture; where: F is a peptide comprising an epitope for the reactive antibody; S is an oligomer of ethylene glycol covalently linking F to L; and L is a glycerophospholipid; and i and j are independently 0 or 1 and the sum of i and j is 1. • Contacting a sample of the serum with a suspension of cells modified to incorporate a water soluble peptide-lipid construct of the structure (L-S-) i F(-S-L) j to provide a mixture; • Incubating the mixture for a time and at a temperature sufficient to allow agglutination; and • Determining the degree of agglutination of the cells in the mixture; F is a peptide comprising an epitope for the reactive antibody; S is an oligomer of ethylene glycol covalently linking F to L; and L is a glycerophospholipid; and i and j are independently 0 or 1 and the sum of i and j is 1.
Hinge, in particular for a swing door, comprising: at least one joint axis element; a first hinge part and a second hinge part, which are connected to one another in a hinge-like manner via the at least one joint axis element, at least one latching arrangement comprising at least one latching means arranged on the second hinge part and comprising a latching body and at least one latching recess arranged at the joint axis element, wherein the latching means is configured in such a way that the latching body engages in the latching recess in a latching position; and a clamping means for releasably fixing the joint axis element to the first hinge part, wherein an angular position of the joint axis element and the latching recess with respect to the first hinge part is adjustable, wherein the clamping means comprises at least one pair of clamping jaws (42, 44; 46, 48) for clamping the joint axis element between these clamping jaws (42, 44; 46, 48), wherein each of the clamping jaws (42, 44; 46, 48) comprises a clamping surface adapted to the contour of the joint axis element, and the clamping means comprises two clamping means parts (30, 32), wherein each clamping means part (30, 32) comprises one clamping jaw (42, 44; 46, 48) per pair, wherein a plurality of pairs of clamping jaws (42, 44; 46, 48) are provided and each of the clamping means parts (30, 32) which are movable against each other comprises a base and a plurality of arms (38, 40) at which the respective clamping jaw (42, 44; 46, 48) for the corresponding pair of clamping jaws (42, 44; 46, 48) is disposed spaced from the base. at least one joint axis element; a first hinge part and a second hinge part, which are connected to one another in a hinge-like manner via the at least one joint axis element, at least one latching arrangement comprising at least one latching means arranged on the second hinge part and comprising a latching body and at least one latching recess arranged at the joint axis element, wherein the latching means is configured in such a way that the latching body engages in the latching recess in a latching position; and a clamping means for releasably fixing the joint axis element to the first hinge part, wherein an angular position of the joint axis element and the latching recess with respect to the first hinge part is adjustable, wherein the clamping means comprises at least one pair of clamping jaws (42, 44; 46, 48) for clamping the joint axis element between these clamping jaws (42, 44; 46, 48), wherein each of the clamping jaws (42, 44; 46, 48) comprises a clamping surface adapted to the contour of the joint axis element, and the clamping means comprises two clamping means parts (30, 32), wherein each clamping means part (30, 32) comprises one clamping jaw (42, 44; 46, 48) per pair, wherein a plurality of pairs of clamping jaws (42, 44; 46, 48) are provided and each of the clamping means parts (30, 32) which are movable against each other comprises a base and a plurality of arms (38, 40) at which the respective clamping jaw (42, 44; 46, 48) for the corresponding pair of clamping jaws (42, 44; 46, 48) is disposed spaced from the base.
A host Head-Mounted Device, HMD, configured for hosting a co-located virtual, augmented, or mixed reality, xR, session including a network of HMDs in a first physical environment, comprising: a processor; a plurality of sensors, each sensor associated with a transmission mechanism for participating in the co-located xR session; and a memory coupled to the processor, the memory having program instructions stored thereon that, upon execution, cause the host HMD to: transmit a first beacon to a first HMD; receive a second beacon from the first HMD, wherein the second beacon includes a signal strength of the first beacon received by the first HMD; determine a second signal strength of the second beacon received from the first HMD; determine aggregated signal strength information for the first HMD based on the determined second signal strength and further based on the first signal strength reported in the second beacon by the first HMD; and authorize participation of the first HMD in the xR session when the aggregated signal strength information indicates the first HMD can participate in the xR session. a processor; a plurality of sensors, each sensor associated with a transmission mechanism for participating in the co-located xR session; and a memory coupled to the processor, the memory having program instructions stored thereon that, upon execution, cause the host HMD to: transmit a first beacon to a first HMD; receive a second beacon from the first HMD, wherein the second beacon includes a signal strength of the first beacon received by the first HMD; determine a second signal strength of the second beacon received from the first HMD; determine aggregated signal strength information for the first HMD based on the determined second signal strength and further based on the first signal strength reported in the second beacon by the first HMD; and authorize participation of the first HMD in the xR session when the aggregated signal strength information indicates the first HMD can participate in the xR session. transmit a first beacon to a first HMD; receive a second beacon from the first HMD, wherein the second beacon includes a signal strength of the first beacon received by the first HMD; determine a second signal strength of the second beacon received from the first HMD; determine aggregated signal strength information for the first HMD based on the determined second signal strength and further based on the first signal strength reported in the second beacon by the first HMD; and authorize participation of the first HMD in the xR session when the aggregated signal strength information indicates the first HMD can participate in the xR session.
An engineered immune cell comprising a nucleic acid molecule that encodes an immunomodulatory protein, wherein: the immune cell is a T cell; the immunomodulatory protein comprises at least one non-immunoglobulin affinity-modified immunoglobulin superfamily (IgSF) domain comprising one or more amino acid substitutions in a wild-type IgSF domain of an IgSF family member, wherein the at least one affinity-modified IgSF domain specifically binds at least one cell surface cognate binding partner of the wild-type IgSF domain; the at least one cell surface cognate binding partner is an inhibitory receptor expressed on a T-cell and the at least one affinity-modified IgSF domain has increased binding affinity to the inhibitory receptor compared to the binding affinity of the wild-type IgSF domain to the inhibitory receptor; the inhibitory receptor is PD-1 and the at least one affinity-modified IgSF domain is an affinity-modified IgSF of PD-L1 or is an affinity-modified IgSF of PD-L2; the engineered immune cell expresses and secretes the immunomodulatory protein; and wherein the at least one affinity-modified IgSF domain comprises at least 85% sequence identity with a wild-type IgSF domain as set forth in SEQ ID NO:3 or SEQ ID NO: 4. the immune cell is a T cell; the immunomodulatory protein comprises at least one non-immunoglobulin affinity-modified immunoglobulin superfamily (IgSF) domain comprising one or more amino acid substitutions in a wild-type IgSF domain of an IgSF family member, wherein the at least one affinity-modified IgSF domain specifically binds at least one cell surface cognate binding partner of the wild-type IgSF domain; the at least one cell surface cognate binding partner is an inhibitory receptor expressed on a T-cell and the at least one affinity-modified IgSF domain has increased binding affinity to the inhibitory receptor compared to the binding affinity of the wild-type IgSF domain to the inhibitory receptor; the inhibitory receptor is PD-1 and the at least one affinity-modified IgSF domain is an affinity-modified IgSF of PD-L1 or is an affinity-modified IgSF of PD-L2; the engineered immune cell expresses and secretes the immunomodulatory protein; and wherein the at least one affinity-modified IgSF domain comprises at least 85% sequence identity with a wild-type IgSF domain as set forth in SEQ ID NO:3 or SEQ ID NO: 4.
Process for the polymerization of a diene, preferably 1,3-butadiene or isoprene, which comprises the steps: a) reaction of the diene with hydrogen peroxide in a hydrophilic organic solvent in the presence of water to form a reaction mixture at temperatures of 50-150°C and pressures of from 0 to 50 bar, b) contacting of the reaction mixture with water, where the temperature of the water is from 20 to 80°C, preferably from 50 to 65°C, c) separation of unreacted gaseous diene from the reaction mixture which has been contacted with water in step b), followed by condensation, distillation and reuse of the unreacted gaseous diene, d) separation of the aqueous phase comprising the hydrophilic solvent from the reaction mixture, followed by reuse of the hydrophilic solvent in step a), and e) purification of the polymerization product by distillation, wherein at least part of the unreacted gaseous diene is separated from the reaction mixture before contacting with water in step b), followed by condensation, distillation and reuse of the unreacted gaseous diene. a) reaction of the diene with hydrogen peroxide in a hydrophilic organic solvent in the presence of water to form a reaction mixture at temperatures of 50-150°C and pressures of from 0 to 50 bar, b) contacting of the reaction mixture with water, where the temperature of the water is from 20 to 80°C, preferably from 50 to 65°C, c) separation of unreacted gaseous diene from the reaction mixture which has been contacted with water in step b), followed by condensation, distillation and reuse of the unreacted gaseous diene, d) separation of the aqueous phase comprising the hydrophilic solvent from the reaction mixture, followed by reuse of the hydrophilic solvent in step a), and e) purification of the polymerization product by distillation,
A method in a User Equipment, UE, of an Evolved Packet System, EPS, of establishing a security key, K_eNB, for protecting RRC/UP traffic exchanged with a serving eNodeB, characterized in that the method comprises the following steps: - Sending (31, 51) a NAS Service Request to a Mobility Management Entity, MME, the request indicating a NAS uplink sequence number, NAS_U_SEQ; - Storing the NAS_U_SEQ of the NAS Service Request sent to the MME; and - Deriving (35, 56) the K_eNB from at least the stored NAS_U_SEQ and from a stored Access Security Management Entity-key, K_ASME, shared with said MME. - Sending (31, 51) a NAS Service Request to a Mobility Management Entity, MME, the request indicating a NAS uplink sequence number, NAS_U_SEQ; - Storing the NAS_U_SEQ of the NAS Service Request sent to the MME; and - Deriving (35, 56) the K_eNB from at least the stored NAS_U_SEQ and from a stored Access Security Management Entity-key, K_ASME, shared with said MME.
Method for acquiring a radiographic image of a patient with an apparatus comprising at least an X-ray source and at least an X-ray detector, said X-ray source and detector being supported in an opposed position, the objet under investigation being positioned in an intermediate position between said X-ray source and detector and in the propagation bundle of the radiation emitted by said X-ray source, moreover said X-ray source and detector being movable along a pre-set trajectory thanks to at least two movements: - a rotational movement of said X-ray source and detector around a rotation axis, - a translational movement of said axis of rotation along at least a direction in the horizontal plane perpendicular to said rotation axis, or a rotational movement of said rotation axis around a second axis of rotation perpendicular to the horizontal plane, i.e. parallel to said common rotation axis; while thanks to the combination of said movements, the virtual rotation centre, i.e. the instant center of rotation, of said X-ray source and detector moves during each acquisition, the method comprising: - the acquisition of a pre-exam image (scout) - the successive acquisition of the real image, characterized in that for acquiring said pre-exam image, the rotation of said X-ray source and detector around the common axis of rotation occurs in opposite direction with respect to the rotation direction of said X-ray source and detector around the common rotation axis during the exposure for acquiring the real image. - a rotational movement of said X-ray source and detector around a rotation axis, - a translational movement of said axis of rotation along at least a direction in the horizontal plane perpendicular to said rotation axis, or a rotational movement of said rotation axis around a second axis of rotation perpendicular to the horizontal plane, i.e. parallel to said common rotation axis; - the acquisition of a pre-exam image (scout) - the successive acquisition of the real image,