mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-based method for generating digital signatures, wherein the private key is stored on a system that is located in a non-public network and the request for generating a digital signature is made from a non-private network, characterized in that the digital signature is generated fully automated, by transmitting the data to be digitally signed into the non-public network and transmitting the computed digital signature back into the non-private network without requiring direct communication between the non-public and public networks, wherein the non-public and public networks remain separated by a DMZ.
Process for the production of metallic components by means of generative manufacture, where a metal powder layer is produced in an evacuated irradiation chamber and is selectively melted or sintered via exposure to an energy beam to give a workpiece contour, and after manufacture of the workpiece contour has been concluded the irradiation chamber is flooded with a cooling gas, where the molten or sintered portion of the metal powder solidifies to give a solid workpiece contour, where a hydrogen-containing gas or gas mixture is used as cooling gas, characterized in that the cooling gas comprises a proportion of 0.5% by volume to 30% by volume of hydrogen, the remainder being helium and/or argon and/or nitrogen, or comprises a proportion of 97% by volume to 99.5% by volume of hydrogen and 0.5% by volume to 3% by volume of helium, the remainder being argon and/or nitrogen.
Device for the detection of at least one analyte in a liquid sample , especially for the detection of at least one metabolite in a body fluid, the device comprising at least one test element , the test element comprising at least one test field having a test field surface for the application of the sample , the test field having at least one detection reagent configured to carry out a detectable reaction in the presence of the analyte, the detection reagent being configured such that at least one detection substance is formed inside the test field in the detectable reaction, the device being configured to determine the detection substance in the sample inside the test field , the detection substance also being present outside the test field within the sample as a result of diffusion, the device further comprising at least one calibration device , the calibration device being configured to determine the detection substance in the sample outside the test field , the device being further configured to carry out the detection of the analyte with consideration of the determination of the detection substance in the sample within the test field and of the determination of the detection substance in the sample outside the test field , the calibration device comprising a data processor for this purpose, wherein stored correction factors taking into account the diffusion of the detection substance into the sample outside the test field are used.
A CD19xCD3 bispecific single chain antibody for use in a method for treating pediatric B-precursor ALL in a subject, wherein said subject is a subject having an amount of at least 20% blast cells per 200 counted bone marrow cells in a bone marrow sample from said subject.
Display and/or operating element comprising a layer stack having - a TFT layer , - a liquid crystal cell arranged on the TFT layer , and - a colour filter glass which is arranged in the form of a delimitation of the liquid crystal cell on its side facing away from the TFT layer and has a colour filter, wherein the colour filter glass is arranged on an outer surface of the display and/or operating element , characterized in that the colour filter glass laterally projects beyond the TFT layer and the liquid crystal cell at least regionally, and the colour filter glass is configured in the projecting region to conceal the layer stack. - a TFT layer , - a liquid crystal cell arranged on the TFT layer , and - a colour filter glass which is arranged in the form of a delimitation of the liquid crystal cell on its side facing away from the TFT layer and has a colour filter, wherein the colour filter glass is arranged on an outer surface of the display and/or operating element ,
Packaging for a medicinal product in the form of a reel for a plaster strip roll with one or two side discs and/or of a cover/protective ring of a plaster strip roll, which optionally has a tear-off edge, characterized in that the packaging comprises an antimicrobially effective substance and, on the outer surface of the packaging, there is contact between the antimicrobially effective substance and the environment.
A door system with a door drive having at least one connecting element for connection to a leaf element and/or at least one leaf element to which the door drive is operatively connected in a driving manner, wherein the at least one leaf element of the door system can be moved with the door drive , wherein the door drive has a motor unit with a housing , in which a stator is accommodated in a stationary manner and wherein a rotor is arranged in the housing so as to be rotatably movable and has an output shaft , wherein the output shaft can be brought into operative connection with the leaf element in a driving manner, wherein the motor unit has the basic shape of a cuboid , which is formed at least by means of two housing halves connected to one another, and wherein the stator and the rotor are accommodated on the inside between the housing halves , characterised in that the housing halves are configured in a shell-like manner and rest directly against one another such that a circumferential, approximately rectangular edge of the respective housing half is joined together, and wherein the cuboid has a longitudinal edge , a lateral edge and a vertical edge , wherein the longitudinal edge is larger than the lateral edge and/or wherein the lateral edge is larger than the vertical edge .
A light guide structure having a first main surface and an opposite second main surface , configured to guide light in the light guide structure via total internal reflections at the first and the second main surfaces, the light guide structure comprising an out-coupling arrangement configured to couple light propagating in the light guide structure out of it through the first and/or the second main surface, wherein the light guide structure comprises a plurality of alternating core layers (110, 210 1 , 210 2 ) and cladding layers (111 1 , 111 2 , 211 1 , 211 2 , 211 3 ), wherein each core layer is sandwiched between two cladding layers , the core layers comprising a core material and the cladding layers comprising cladding materials, respectively, the core material having its elasticity higher than the elasticities of the cladding materials, and its refractive index for a design wavelength substantially the same as the refractive indices of the cladding materials for the design wavelength. wherein the light guide structure comprises a plurality of alternating core layers (110, 210 1 , 210 2 ) and cladding layers (111 1 , 111 2 , 211 1 , 211 2 , 211 3 ), wherein each core layer is sandwiched between two cladding layers , the core layers comprising a core material and the cladding layers comprising cladding materials, respectively, the core material having its elasticity higher than the elasticities of the cladding materials, and its refractive index for a design wavelength substantially the same as the refractive indices of the cladding materials for the design wavelength.
A lead-acid battery comprising: a negative electrode material, wherein the negative electrode material has a density of 2.7 g/cm 3 or more and 3.8 g/cm 3 or less and contains an organic expander, and the organic expander has a sulfur element (S element) content of 4300 μmol/g or more. a negative electrode material, wherein the negative electrode material has a density of 2.7 g/cm 3 or more and 3.8 g/cm 3 or less and contains an organic expander, and the organic expander has a sulfur element (S element) content of 4300 μmol/g or more.
A method of producing a shape-changeable magnetic member composed of a plurality of segments, with the segments each having a desired orientation and magnitude of magnetization, the method comprising the steps of: - providing a member composed of at least a first mixture of material comprising a first elastic material and a magnetizable material; - wherein the member either has a first shape or is supplemented by a second mixture of material, to form the first shape, with the second mixture of material comprising at least a second elastic material, preferably the same as the first elastic material, and a filler material; - placing the member into at least one jig having a predefined shape; and - magnetizing the member in the jig with a magnetic field sufficient to bring about a permanent magnetization of the plurality of segments. - providing a member composed of at least a first mixture of material comprising a first elastic material and a magnetizable material; - wherein the member either has a first shape or is supplemented by a second mixture of material, to form the first shape, with the second mixture of material comprising at least a second elastic material, preferably the same as the first elastic material, and a filler material; - placing the member into at least one jig having a predefined shape; and - magnetizing the member in the jig with a magnetic field sufficient to bring about a permanent magnetization of the plurality of segments.
A non-volatile memory cell comprising: a substrate of a first conductivity type, having a first region of a second conductivity type, a second region of the second conductivity type spaced apart from the first region , forming a channel region therebetween; a select gate insulated from and disposed over a first portion of the channel region which is adjacent to the first region ; a floating gate insulated from and disposed over a second portion of the channel region which is adjacent the second region , wherein the floating gate is formed of polysilicon; metal material formed in contact with the floating gate ; a control gate insulated from and disposed over the floating gate ; an erase gate that includes first and second portions, wherein: the first portion is insulated from and disposed over the second region , and is insulated from and disposed laterally adjacent to the floating gate ; and the second portion is insulated from and laterally adjacent to the control gate , and partially extends over and vertically overlaps the floating gate ; wherein the metal material is disposed as a layer on a top surface of the floating gate , and wherein the layer of the metal material extends over only a portion of the top surface of the floating gate , wherein the layer of the metal material does not extend over any portion of the top surface over which the erase gate second portion extends. a substrate of a first conductivity type, having a first region of a second conductivity type, a second region of the second conductivity type spaced apart from the first region , forming a channel region therebetween; a select gate insulated from and disposed over a first portion of the channel region which is adjacent to the first region ; a floating gate insulated from and disposed over a second portion of the channel region which is adjacent the second region , wherein the floating gate is formed of polysilicon; metal material formed in contact with the floating gate ; a control gate insulated from and disposed over the floating gate ; an erase gate that includes first and second portions, wherein: the first portion is insulated from and disposed over the second region , and is insulated from and disposed laterally adjacent to the floating gate ; and the second portion is insulated from and laterally adjacent to the control gate , and partially extends over and vertically overlaps the floating gate ; the first portion is insulated from and disposed over the second region , and is insulated from and disposed laterally adjacent to the floating gate ; and the second portion is insulated from and laterally adjacent to the control gate , and partially extends over and vertically overlaps the floating gate ; wherein the metal material is disposed as a layer on a top surface of the floating gate , and
A ligand comprising - the three complementary-determining regions (CDRs) of the light chain variable region (VL): CDR1, CDR2 and CDR3 respectively set forth in SEQ ID No. 1, SEQ ID No. 2, SEQ ID No. 3, - the three CDRs of the heavy chain variable region (VH): CDR4, CDR5 and CDR6 respectively set forth in SEQ ID No. 4, SEQ ID No. 5 and SEQ ID No. 6, wherein said ligand binds to the anti-ligand consisting in the amino acid sequence defined by SEQ ID No. 20 or SEQ ID No. 32, and said ligand is selected from the group consisting of an antibody, a scFv fragment and a Fab fragment, wherein said ligand is for use in a method of treatment. - the three complementary-determining regions (CDRs) of the light chain variable region (VL): CDR1, CDR2 and CDR3 respectively set forth in SEQ ID No. 1, SEQ ID No. 2, SEQ ID No. 3, - the three CDRs of the heavy chain variable region (VH): CDR4, CDR5 and CDR6 respectively set forth in SEQ ID No. 4, SEQ ID No. 5 and SEQ ID No. 6, wherein said ligand binds to the anti-ligand consisting in the amino acid sequence defined by SEQ ID No. 20 or SEQ ID No. 32, and said ligand is selected from the group consisting of an antibody, a scFv fragment and a Fab fragment, wherein said ligand is for use in a method of treatment.
A magnet assembly of an electromechanical assembly (400; 500; 600) for an elevator system , the magnet assembly comprising: a magnet ; a first block assembly arranged on a first side of the magnet ; and a second block assembly arranged on a second side of the magnet opposite the first block assembly , wherein each of the first block assembly and the second block assembly each include a respective friction engagement surface for engagement with a guide rail ; characterized in that each of the first block assembly and the second block assembly are formed of layers of sheet metal (708; 800), and wherein a portion of the layers of sheet metal (708; 800) include blade teeth that form the friction engagement surface for engagement with a guide rail . a magnet ; a first block assembly arranged on a first side of the magnet ; and a second block assembly arranged on a second side of the magnet opposite the first block assembly , wherein each of the first block assembly and the second block assembly each include a respective friction engagement surface for engagement with a guide rail ; characterized in that each of the first block assembly and the second block assembly are formed of layers of sheet metal (708; 800), and wherein a portion of the layers of sheet metal (708; 800) include blade teeth that form the friction engagement surface for engagement with a guide rail .
A method for forming crisscrossed conductive lines of a thin-film solar module, the crisscrossed conductive lines being located on a surface of a front electrode layer of the thin-film solar module away from a substrate of the thin-film solar module, and comprising a G1 grid line group and a G2 grid line group perpendicular to each other, the method being performed by an inkjet printer comprising an inkjet print head moveable linearly with respect to the thin-film solar module, the inkjet print head comprising a plurality of nozzles arranged in a row, the plurality of nozzles comprising a first group of nozzles and a second group of nozzles, a distance between two adjacent nozzles in the first group of nozzles being the same as a distance between two adjacent G1 grid lines in the G1 grid line group, the second group of nozzles being distributed between adjacent nozzles of the first group of nozzles, wherein the method comprises: forming a plurality of grooves on the surface of the front electrode layer away from the substrate; and during a linear motion of the inkjet print head with respect to the thin-film solar module in a direction perpendicular to the grooves, continuously depositing, by the first group of nozzles, conductive ink on the surface of the front electrode layer away from the substrate in the direction perpendicular to the grooves to form the G1 grid line group, and depositing, by the first group of nozzles and the second group of nozzles, the conductive ink into the grooves to form the G2 grid line group when the inkjet print head moves over the grooves in the direction perpendicular to the grooves. forming a plurality of grooves on the surface of the front electrode layer away from the substrate; and during a linear motion of the inkjet print head with respect to the thin-film solar module in a direction perpendicular to the grooves, continuously depositing, by the first group of nozzles, conductive ink on the surface of the front electrode layer away from the substrate in the direction perpendicular to the grooves to form the G1 grid line group, and depositing, by the first group of nozzles and the second group of nozzles, the conductive ink into the grooves to form the G2 grid line group when the inkjet print head moves over the grooves in the direction perpendicular to the grooves.
Method for assessing an injection behaviour of at least one injection valve of an internal combustion engine, which method comprises switching the internal combustion engine into a special operating mode (S) defined by control parameters and, during a diagnostic period, operating the internal combustion engine in the special operating mode (S) with control parameters which are advantageous from diagnostic aspects, wherein at least one operating parameter of the internal combustion engine is determined at least during the diagnostic period, and in which method at least one additional injection is performed by means of the at least one injection valve , and at least one first valve delay time of the at least one injection valve is detected at the valve at least during the at least one additional injection and is evaluated on the basis of the at least one operating parameter , characterized in that the first valve delay time is a closing delay time, wherein, in a manner dependent on an electrical operating variable of an electromagnetic actuator of the injection valve , a variable which characterizes the acceleration of a movable component of the electromagnetic actuator is formed and an operating state of the injection valve is inferred on the basis of the variable which characterizes the acceleration, wherein the hydraulic closing time is ascertained.
Method for detecting leakage or fault currents in an electrical installation using a protective device providing at least differential protection, said electrical installation being powered by a current circulating in at least two conductors of an AC or DC supply, said protective device including at least one detection, processing and control module including, on the one hand, a clamp detector able to generate as output (S) an AC measurement signal and including a clamp through which said conductors pass and having a measurement winding and an AC voltage or current supply able to generate an AC excitation signal to saturate the clamp , where applicable said clamp detector including a resistance in series with said clamp , a processing and control unit connected to the output (S) of the clamp detector and able to process the AC measurement signal to detect a leakage or fault current in the supply and to send a control signal as a function of the result of the processing for a disconnector or breaker control means that said protective device further includes, characterized in that it consists in detecting asymmetry of the AC measurement signal between its positive alternation, or half-period, and its negative alternation, or half-period, generated by the presence of even harmonics (H2, H4, H6) in said AC measurement signal representative of a direct current (Idc) relating to a leakage or fault current in the supply: - either by determining, by frequency-domain analysis of the AC measurement signal, a measurement value representative of the occurrence of even harmonics (H2, H4, H6) in said AC measurement signal and then comparing said measurement value with a reference threshold (Hs) to send the control signal according to the result of the comparison, - or by measuring a first value (V1, t1) of a physical parameter of the AC measurement signal in its positive alternation, or half-period, and a second value (V2, t2) of said physical parameter in its negative alternation, or half-period, and then determining the difference between said first and second values (V1, t1, V2, t2) and comparing that difference with a reference threshold (Vs, ts) to send the control signal according to the result of the comparison. - either by determining, by frequency-domain analysis of the AC measurement signal, a measurement value representative of the occurrence of even harmonics (H2, H4, H6) in said AC measurement signal and then comparing said measurement value with a reference threshold (Hs) to send the control signal according to the result of the comparison, - or by measuring a first value (V1, t1) of a physical parameter of the AC measurement signal in its positive alternation, or half-period, and a second value (V2, t2) of said physical parameter in its negative alternation, or half-period, and then determining the difference between said first and second values (V1, t1, V2, t2) and comparing that difference with a reference threshold (Vs, ts) to send the control signal according to the result of the comparison.
An interface circuit included in a Powered Device, PD, configured to be coupled to a Power Sourcing Equipment, PSE, in a Power over Ethernet, PoE, system comprising: a comparator (U2) coupled to a first resistor (R1) through which current flows along a first current path (RTN - R1 - Vss) from the PSE when connected to a load within the PD, the comparator (U2) configured to measure a voltage drop across the first resistor (R1) to determine the load current and generate an output signal representative of the load current; a timing logic responsive to the output signal and configured to generate switch control signals and an enable signal; a switch (S2) responsive to one of switch control signals and configured to connect a second resistor (R2) in series with the first resistor (R1) to form a third current path (RTN - R2 - R1 - Vss) for generating a more accurate current pulse to meet Maintain Power Signature, MPS requirements; and an error amplifier (U3) coupled to the third current path and responsive to the enable signal forming a second current path (Vdd - R2 - R1 - Vss) for automatically generating a load pulse of sufficient magnitude that, along with load current drawn by the PD, signals the PSE that power to the PD should be maintained. a comparator (U2) coupled to a first resistor (R1) through which current flows along a first current path (RTN - R1 - Vss) from the PSE when connected to a load within the PD, the comparator (U2) configured to measure a voltage drop across the first resistor (R1) to determine the load current and generate an output signal representative of the load current; a timing logic responsive to the output signal and configured to generate switch control signals and an enable signal; a switch (S2) responsive to one of switch control signals and configured to connect a second resistor (R2) in series with the first resistor (R1) to form a third current path (RTN - R2 - R1 - Vss) for generating a more accurate current pulse to meet Maintain Power Signature, MPS requirements; and an error amplifier (U3) coupled to the third current path and responsive to the enable signal forming a second current path (Vdd - R2 - R1 - Vss) for automatically generating a load pulse of sufficient magnitude that, along with load current drawn by the PD, signals the PSE that power to the PD should be maintained.