mhurhangee/ep-ind-claims huggingface dataset:
Chassis component with a rotary damper comprising a housing, a damper shaft rotatably accommodated thereat, a displacing device in the housing, and comprising at least one magnetic field source, wherein the displacing device comprises a damper volume with magnetorheological fluid as a working fluid by means of which it can operate to influence the damping of the rotary motion of the damper shaft relative to the housing, wherein the displacing device comprises at least two partition units (4, 5) which subdivide the damper volume into at least two variable chambers (61, 62), wherein at least one of the partition units (4, 5) comprises a partition wall connected with the housing, and wherein at least one of the partition units comprises a partition wall connected with the damper shaft, wherein a gap section is configured in the radial direction between the partition unit connected with the housing and the damper shaft, and wherein a gap section is configured in the radial direction between the partition unit connected with the damper shaft and the housing, and wherein at least one gap section is configured in the axial direction between the partition unit connected with the damper shaft and the housing, wherein the magnetic field source comprises at least one controllable electric coil for influencing the strength of the magnetic field and thus the strength of damping, and wherein at least a substantial part of the magnetic field of the magnetic field source passes through at least two of the indicated gap sections, and simultaneously influences at least the two gap sections in dependence on the strength of the magnetic field, characterized in that at least one of the gap sections is configured as a damping gap and at least one of the gap sections (25, 26), as a sealing gap, and wherein at least one damping gap shows a larger gap height than does a sealing gap.
A lighting assembly, comprising: a light guide comprising opposed major surfaces (22, 24) between which light propagates by total internal reflection, a light input edge, and a light output region on one of the major surfaces; and an optical adjuster, the optical adjuster having a first region and a second region, the first region having a light modifying characteristic, the light apportioned to the first region being modified by the light modifying characteristic thereof so that a characteristic of the light output from the lighting assembly is modified based on relative positioning of the optical adjuster and the light output region, characterized by the optical adjuster having a major surface juxtaposed with and conforming to the major surface of the light guide, and the optical adjuster and light output region being variably positionable relative to one another to selectively apportion light emitted from the light output region between the first region and the second region. a light guide comprising opposed major surfaces (22, 24) between which light propagates by total internal reflection, a light input edge, and a light output region on one of the major surfaces; and an optical adjuster, the optical adjuster having a first region and a second region, the first region having a light modifying characteristic, the light apportioned to the first region being modified by the light modifying characteristic thereof so that a characteristic of the light output from the lighting assembly is modified based on relative positioning of the optical adjuster and the light output region, characterized by
Quench tube for quenching polymer fibers in fiber extrusion, - wherein said quench tube comprises a cylindrical wall through which quenching air flows when the quench tube is in use; - wherein said cylindrical wall comprises metal fibers in a nonwoven fiber structure; and - wherein said metal fibers are bonded to each other at contacting points by means of metallurgical bonds thereby forming a three dimensionally bonded fiber structure. - wherein said quench tube comprises a cylindrical wall through which quenching air flows when the quench tube is in use; - wherein said cylindrical wall comprises metal fibers in a nonwoven fiber structure; and - wherein said metal fibers are bonded to each other at contacting points by means of metallurgical bonds thereby forming a three dimensionally bonded fiber structure.
Thermoregulated thermomechanical structure for a focal plane suitable for operating in a space environment, comprising at least one first interface for supporting at least one first dissipative electronic equipment (22a, 22b), said structure being characterized in that it is metallic and that it comprises at least one radiator (11a, 11b) for dissipating heat into the space environment and at least one first heat energy transport cavity via a phase change fluid that is in the liquid or gaseous state, said first cavity extending partially within said radiator and providing direct thermal transport between said first interface and said radiator, said structure further comprising at least one second heat energy storage cavity (111, 121, 131) encapsulating a phase change material that is in the solid or liquid state.
A method for multi-species mapping of a zone comprising the steps of: - acquiring a set of spectral data associating a spectrum for each point of the zone, - applying to the spectral data a wavelet transformation in order to produce a set of coefficients which comprise detail coefficients characteristic of the noise and approximation coefficients characteristic of the signal, - setting to zero the detail coefficients whose spectral energy density value is less than a predetermined threshold, - applying an inverse wavelet transformation to the set of coefficients in order to obtain a new set of parsimonious spectral data, - applying an analysis of main components to the new set of parsimonious spectral data in order: i. to determine a projection base L in the spectral range, each component of the projection base corresponding to a spectral signature of a species, ii. to project the spectral data in the projection base L in order to obtain, for each component, a map of the zone indicating, for each point of the zone, the proportion of the species. - acquiring a set of spectral data associating a spectrum for each point of the zone, - applying to the spectral data a wavelet transformation in order to produce a set of coefficients which comprise detail coefficients characteristic of the noise and approximation coefficients characteristic of the signal, - setting to zero the detail coefficients whose spectral energy density value is less than a predetermined threshold, - applying an inverse wavelet transformation to the set of coefficients in order to obtain a new set of parsimonious spectral data, - applying an analysis of main components to the new set of parsimonious spectral data in order: i. to determine a projection base L in the spectral range, each component of the projection base corresponding to a spectral signature of a species, ii. to project the spectral data in the projection base L in order to obtain, for each component, a map of the zone indicating, for each point of the zone, the proportion of the species. i. to determine a projection base L in the spectral range, each component of the projection base corresponding to a spectral signature of a species, ii. to project the spectral data in the projection base L in order to obtain, for each component, a map of the zone indicating, for each point of the zone, the proportion of the species.
A method for infrastructure design, comprising: receiving, in a graphical user interface shown by an electronic device, user input specifying a boundary of a design region of a 3-D reality model of existing conditions at a site, wherein a 3-D reality model is a 3-D model produced from photographs of the site by an automated software process that provides an accurate visualization of reality; detecting, by a ground detection process executing on the electronic device or another electronic device, a plurality of ground points within the design region that represent ground; based at least on the user-specific boundary of the design region and the detected ground points, generating a two-and-a-half (2.5D) terrain mesh for the design region; clipping around the design region to show the 2.5D terrain mesh within the design region and a remaining part of the 3-D reality model external to the design region; placing one or more 3-D computer aided design objects that represent planned infrastructure upon the 2.5D terrain mesh within the design region; and displaying, in the GUI shown by the electronic device, a combined view including the 3-D CAD objects placed upon the 2.5D terrain mesh within the design region, surrounded by the remaining part of the 3-D reality model external to the design region that provides context. receiving, in a graphical user interface shown by an electronic device, user input specifying a boundary of a design region of a 3-D reality model of existing conditions at a site, wherein a 3-D reality model is a 3-D model produced from photographs of the site by an automated software process that provides an accurate visualization of reality; detecting, by a ground detection process executing on the electronic device or another electronic device, a plurality of ground points within the design region that represent ground; based at least on the user-specific boundary of the design region and the detected ground points, generating a two-and-a-half (2.5D) terrain mesh for the design region; clipping around the design region to show the 2.5D terrain mesh within the design region and a remaining part of the 3-D reality model external to the design region; placing one or more 3-D computer aided design objects that represent planned infrastructure upon the 2.5D terrain mesh within the design region; and displaying, in the GUI shown by the electronic device, a combined view including the 3-D CAD objects placed upon the 2.5D terrain mesh within the design region, surrounded by the remaining part of the 3-D reality model external to the design region that provides context.
A method to infer taintedness in code expressions encoded in a computer readable device comprising: configuring a computer system to, store a representation of a computer program that is to be evaluated in storage media; identify within the representation a pointer cast operation; in response to identifying a pointer cast operation, determine whether the identified pointer cast operation involves a cast from a pointer to a raw memory data type to a pointer to a structured data type; in response to a determination that a raw memory pointer is cast to a pointer to a structured data type, determine whether the structured data type casted to is associated with indicia of the structured data type having come from an external source outside the address space of the computer program; in response to a determination that the structured data type casted to is associated with the indicia, designate a value addressed by that pointer as tainted; and determine whether a value designated as tainted is indicated in the representation as consumed by an operation in the computer program. configuring a computer system to, store a representation of a computer program that is to be evaluated in storage media; identify within the representation a pointer cast operation; in response to identifying a pointer cast operation, determine whether the identified pointer cast operation involves a cast from a pointer to a raw memory data type to a pointer to a structured data type; in response to a determination that a raw memory pointer is cast to a pointer to a structured data type, determine whether the structured data type casted to is associated with indicia of the structured data type having come from an external source outside the address space of the computer program; in response to a determination that the structured data type casted to is associated with the indicia, designate a value addressed by that pointer as tainted; and determine whether a value designated as tainted is indicated in the representation as consumed by an operation in the computer program.
Delay unit for a projectile comprising i) a first and a second pressure chamber (3a, 3b) arranged to receive combustion gases in a firearm via at least one inlet (1a, 1b) arranged to each of said first and second pressure chambers (3a, 3b) following firing of a projectile ii) at least one outlet for transferring the combustion gases (4a, 4b), arranged to each of said first and second pressure chambers (3a, 3b), to a piston chamber in which a displaceable piston is arranged dividing the piston chamber into a first compartment having a volume V 1 upstream the piston and a second compartment having a volume V 2 downstream the piston, wherein the outlets (4a, 4b) from the first and second pressure chambers (3a, 3b) are arranged to transfer said combustion gases to said compartments (5a, 5b) of said piston chamber to provide an overall pressure difference between the second compartment and the first compartment pressing the piston at an initial idle position downstream whereby the volume V 2 of the second compartment is reduced and whereby the piston being pressed downstream towards an end position actuates a function at a predetermined point in time following firing of the firearm. i) a first and a second pressure chamber (3a, 3b) arranged to receive combustion gases in a firearm via at least one inlet (1a, 1b) arranged to each of said first and second pressure chambers (3a, 3b) following firing of a projectile ii) at least one outlet for transferring the combustion gases (4a, 4b), arranged to each of said first and second pressure chambers (3a, 3b), to a piston chamber in which a displaceable piston is arranged dividing the piston chamber into a first compartment having a volume V 1 upstream the piston and a second compartment having a volume V 2 downstream the piston, wherein the outlets (4a, 4b) from the first and second pressure chambers (3a, 3b) are arranged to transfer said combustion gases to said compartments (5a, 5b) of said piston chamber to provide an overall pressure difference between the second compartment and the first compartment pressing the piston at an initial idle position downstream whereby the volume V 2 of the second compartment is reduced and whereby the piston being pressed downstream towards an end position actuates a function at a predetermined point in time following firing of the firearm.
A pluri- or multipotent stem cell engineered to express a multispecific antibody, and a human T cell co-stimulatory ligand, wherein the multispecific antibody comprises at least a target cell specific binding domain and at least an immune cell specific binding domain, wherein the T cell co-stimulatory ligand is selected from a group of CD28 ligand B7-1 and B7-2, Ox40 ligand OX40L, 4-1BB ligand 4-1BBL (CD137L), CD27 ligand CD70 (CD27L), CD40 ligand CD154, ICOS ligand ICOSL, LFA-1 ligand ICAM-1, -2, and -3, 2B4 ligand and SLAM ligand.
An air purge and pressurization system, comprising: an enclosed container located in an area (104, 402) classified as hazardous; a controller (114, 416) rated for operation within the hazardous area (104, 402); a pressure sensor (136, 424) located within the container and coupled to the controller (114, 416); at least one electrically powered component (106, 403) disposed within the container; characterized in that the system further comprises a variable-speed fan (122, 404) located outside the hazardous area (104, 402) and coupled to the controller (114, 416), the fan (122, 404) being configured to force air from outside the hazardous area (104, 402) into the container; and wherein the controller (114, 416) is configured to monitor an air pressure detected by the pressure sensor (136, 424) and variably control a speed of the fan (122, 404) to maintain the detected pressure above a minimum pressure and to selectively power the at least one electrically powered component (106, 403) if the detected pressure is above the minimum pressure. an enclosed container located in an area (104, 402) classified as hazardous; a controller (114, 416) rated for operation within the hazardous area (104, 402); a pressure sensor (136, 424) located within the container and coupled to the controller (114, 416); at least one electrically powered component (106, 403) disposed within the container; characterized in that the system further comprises a variable-speed fan (122, 404) located outside the hazardous area (104, 402) and coupled to the controller (114, 416), the fan (122, 404) being configured to force air from outside the hazardous area (104, 402) into the container; and wherein the controller (114, 416) is configured to monitor an air pressure detected by the pressure sensor (136, 424) and variably control a speed of the fan (122, 404) to maintain the detected pressure above a minimum pressure and to selectively power the at least one electrically powered component (106, 403) if the detected pressure is above the minimum pressure.
A system configured for conditioning a brush by an offline brush conditioning system, comprising: a conditioning surface; a brush holding device configured to hold the brush; and a conduit configured to receive a chemical from a source for delivery of the chemical to one or both of the brush and the conditioning surface, wherein: the brush is configured to clean a surface of a semiconductor wafer, and the conditioning surface and the brush are configured to contact each other for conditioning of the brush, characterised in that it further comprises a manifold configured to receive the chemical from the conduit to control the delivery of the chemical to the one or both of the brush and the conditioning surface. a conditioning surface; a brush holding device configured to hold the brush; and a conduit configured to receive a chemical from a source for delivery of the chemical to one or both of the brush and the conditioning surface, wherein: the brush is configured to clean a surface of a semiconductor wafer, and the conditioning surface and the brush are configured to contact each other for conditioning of the brush, the brush is configured to clean a surface of a semiconductor wafer, and the conditioning surface and the brush are configured to contact each other for conditioning of the brush,
Process for the manufacture of a tablet comprising a complex between: (i) a nucleic acid; and (ii) a lipid particle comprising a cationic lipid, the lipid particle being preferably a liposome or a micelle, preferably a liposome; said process comprising the following steps: a) drying, in particular by freeze-drying, an aqueous mixture comprising: - a complex between (i) a nucleic acid and (ii) a lipid particle comprising a cationic lipid, the lipid particle being preferably a liposome or a micelle, preferably a liposome; - one or more excipient(s) suitable for drying, in particular for freeze-drying; b) mixing one or more compression excipient(s) with the dry mixture obtained in step a); and c) compressing the mixture obtained in step b). (i) a nucleic acid; and (ii) a lipid particle comprising a cationic lipid, the lipid particle being preferably a liposome or a micelle, preferably a liposome; a) drying, in particular by freeze-drying, an aqueous mixture comprising: - a complex between (i) a nucleic acid and (ii) a lipid particle comprising a cationic lipid, the lipid particle being preferably a liposome or a micelle, preferably a liposome; - one or more excipient(s) suitable for drying, in particular for freeze-drying; - a complex between (i) a nucleic acid and (ii) a lipid particle comprising a cationic lipid, the lipid particle being preferably a liposome or a micelle, preferably a liposome; - one or more excipient(s) suitable for drying, in particular for freeze-drying; b) mixing one or more compression excipient(s) with the dry mixture obtained in step a); and c) compressing the mixture obtained in step b).
Method for producing a light source arrangement for a motor vehicle lighting device having at least one light-emitting diode for generating light and a resistor element for pre-setting optical and/or electrical properties of the light-emitting diode to a control unit (31; 107) for controlling and/or regulating the light source arrangement, characterised by the following steps: - providing a heat sink, - providing at least one top mount light emitting diode in the form of a submount comprising one or more LED chips for emitting light of a first wavelength and electrical connections on its upper side and a full area heat spreader element on its lower side, - fixing the at least one top mount light emitting diode with its heat spreading element directly on the heat sink, - providing a circuit carrier, - arranging the resistor element on the circuit carrier, - establishing an electrical connection between the circuit carrier and the at least one top mount light emitting diode, - detecting the properties of the light-emitting diode and - adjusting a resistance value of the resistor element as a function of the detected properties of the light-emitting diode. - providing a heat sink, - providing at least one top mount light emitting diode in the form of a submount comprising one or more LED chips for emitting light of a first wavelength and electrical connections on its upper side and a full area heat spreader element on its lower side, - fixing the at least one top mount light emitting diode with its heat spreading element directly on the heat sink, - providing a circuit carrier, - arranging the resistor element on the circuit carrier, - establishing an electrical connection between the circuit carrier and the at least one top mount light emitting diode, - detecting the properties of the light-emitting diode and - adjusting a resistance value of the resistor element as a function of the detected properties of the light-emitting diode.