mhurhangee/ep-ind-claims huggingface dataset:
A method for analysing a biological sample with a plurality of analytes, comprising the following steps: determining information about the biological sample and its analytes, the analytes being marked by a plurality of markers, generating a probabilistic model (400, 600) of a distribution of the analytes within the biological sample based on the determined information, generating at least one optical readout of the biological sample, and determining the presence of at least one analyte in the readout based at least partially on the probabilistic model (400, 600) of the distribution of the analytes within the biological sample, wherein the probabilistic model (400, 600) comprises for each analyte the localisation-probability that the analyte is found in a particular location of the biological sample and/or the co-localisation-probability that the analyte is found in proximity with another one of the analytes, and characterized in that the localisation and/or co-localisation probabilities of the probabilistic model (400, 600) are used to distinguish between optical signals of the markers that mark the analytes in order to determine the presence of the at least one analyte in the optical readout. determining information about the biological sample and its analytes, the analytes being marked by a plurality of markers, generating a probabilistic model (400, 600) of a distribution of the analytes within the biological sample based on the determined information, generating at least one optical readout of the biological sample, and determining the presence of at least one analyte in the readout based at least partially on the probabilistic model (400, 600) of the distribution of the analytes within the biological sample, wherein the probabilistic model (400, 600) comprises for each analyte the localisation-probability that the analyte is found in a particular location of the biological sample and/or the co-localisation-probability that the analyte is found in proximity with another one of the analytes, and characterized in that the localisation and/or co-localisation probabilities of the probabilistic model (400, 600) are used to distinguish between optical signals of the markers that mark the analytes in order to determine the presence of the at least one analyte in the optical readout.
An apparatus for controlling a signal comprising: a first antenna for receiving a first signal using a first polarization, the first antenna used for receiving television broadcast signals; and a second antenna for receiving said first signal and for receiving and transmitting a second signal in a second polarization orthogonal to the first polarization, the second antenna used for receiving wireless signals from a wireless data communications network; characterized in that the apparatus comprises further a detector coupled to the first antenna and the second antenna, the detector determining a signal level for said first signal received at the first antenna and said first signal received at the second antenna; and a controller coupled to said detector, said first antenna and said second antenna, the controller reducing the transmitting level of the second signal by said second antenna in response to the determination of the signal level for said first signal received at the first antenna and the signal level for said first signal at the second antenna. a first antenna for receiving a first signal using a first polarization, the first antenna used for receiving television broadcast signals; and a second antenna for receiving said first signal and for receiving and transmitting a second signal in a second polarization orthogonal to the first polarization, the second antenna used for receiving wireless signals from a wireless data communications network; a detector coupled to the first antenna and the second antenna, the detector determining a signal level for said first signal received at the first antenna and said first signal received at the second antenna; and a controller coupled to said detector, said first antenna and said second antenna, the controller reducing the transmitting level of the second signal by said second antenna in response to the determination of the signal level for said first signal received at the first antenna and the signal level for said first signal at the second antenna.
Method for the automated electronic control of a brake system in a vehicle, in particular a utility vehicle, comprising at least the steps of: - reading a brake request signal for the automated electronic actuation of brakes in the vehicle, wherein requests (aSoll, vSoll) to be implemented by the brakes are transmitted via the brake request signal in order to bring about automatically requested vehicle target longitudinal dynamics (DSoll); - determining a brake pressure distribution (φ) indicating a ratio of a front-axle brake pressure (pVA) of a front axle and a rear-axle brake pressure (pVH) of a rear axle; - providing at least a first brake pressure signal (SB1, SB2) from a first electronic control unit to at least a first electropneumatic control device taking into account the brake request signal and the brake pressure distribution (φ) in order to modulate at least the front-axle brake pressure (pVA) and the rear-axle brake pressure (pVH); - receiving the brake pressure distribution (φ) at a second electronic control unit and storing the detected brake pressure distribution (φS); and in the event that the brake request signal cannot be or cannot be correctly processed or read: - receiving the brake request signal or a redundant brake request signal at the second electronic control unit, and - in response to the reception of the brake request signal or the redundant brake request signal at the second electronic control unit, modulating a redundant front-axle brake pressure (pRVA) and a redundant rear-axle brake pressure (pRVH) taking into account the stored brake pressure distribution (φS). - reading a brake request signal for the automated electronic actuation of brakes in the vehicle, wherein requests (aSoll, vSoll) to be implemented by the brakes are transmitted via the brake request signal in order to bring about automatically requested vehicle target longitudinal dynamics (DSoll); - determining a brake pressure distribution (φ) indicating a ratio of a front-axle brake pressure (pVA) of a front axle and a rear-axle brake pressure (pVH) of a rear axle; - providing at least a first brake pressure signal (SB1, SB2) from a first electronic control unit to at least a first electropneumatic control device taking into account the brake request signal and the brake pressure distribution (φ) in order to modulate at least the front-axle brake pressure (pVA) and the rear-axle brake pressure (pVH); - receiving the brake pressure distribution (φ) at a second electronic control unit and storing the detected brake pressure distribution (φS); and in the event that the brake request signal cannot be or cannot be correctly processed or read: - receiving the brake request signal or a redundant brake request signal at the second electronic control unit, and - in response to the reception of the brake request signal or the redundant brake request signal at the second electronic control unit, modulating a redundant front-axle brake pressure (pRVA) and a redundant rear-axle brake pressure (pRVH) taking into account the stored brake pressure distribution (φS).
Ventilation unit with a casing, a heat exchanger arranged in the casing, a supply air duct, an exhaust air duct, an extract air duct, an outside air duct, comprising a first fan, a second fan and a silencer attachment, wherein the silencer attachment comprises a first, second, third, fourth air guide unit (21, 22, 23, 24) with a first, second, third, fourth air duct (36, 37, 38, 39) and a first, second, third, fourth connection aperture (25, 26, 27, 28) for connecting to the supply air duct, the exhaust air duct, the extract air duct, the outside air duct of the ventilation unit, wherein at least two air guide units (21, 22, 23, 24) comprise a sound insulating material, characterised in that at least two side outlet apertures (30, 31, 32, 33) for routing the diverted air flow out of and/or into the air guide units (21, 22, 23, 24) are provided on at least one side surface of the silencer attachment. wherein the silencer attachment comprises a first, second, third, fourth air guide unit (21, 22, 23, 24) with a first, second, third, fourth air duct (36, 37, 38, 39) and a first, second, third, fourth connection aperture (25, 26, 27, 28) for connecting to the supply air duct, the exhaust air duct, the extract air duct, the outside air duct of the ventilation unit, wherein at least two air guide units (21, 22, 23, 24) comprise a sound insulating material, characterised in that at least two side outlet apertures (30, 31, 32, 33) for routing the diverted air flow out of and/or into the air guide units (21, 22, 23, 24) are provided on at least one side surface of the silencer attachment.
Expansion anchor, comprising an anchor bolt and an expansion sleeve which surrounds the anchor bolt, an expansion body for the expansion sleeve being provided on the anchor bolt, which expansion body is arranged at least partially in front of the expansion sleeve, and the expansion sleeve having, on the outside in a front region of the expansion sleeve, a first annular groove comprising a front flank and a rear flank, at least in at least one radial plane, the angle of inclination (β 61) of the rear flank of the first annular groove and the angle of inclination (α 27) of the expansion body in a counter-zone of the expansion body differing by less than 4°, characterized in that the expansion sleeve has, on the outside in front of the first annular groove, at least one second annular groove. at least in at least one radial plane, the angle of inclination (β 61) of the rear flank of the first annular groove and the angle of inclination (α 27) of the expansion body in a counter-zone of the expansion body differing by less than 4°, characterized in that the expansion sleeve has, on the outside in front of the first annular groove, at least one second annular groove.
A process to form a "functionalized ethylene-based polymer" from an ethylene-based polymer and at least one polar compound; wherein the at least one polar compound is an anhydride-containing and/or carboxylic acid-containing compound; said process comprising thermally treating a composition comprising the ethylene-based polymer, the at least one polar compound, and at least one peroxide, in at least one extruder comprising at least one barrel, to form a polymer melt; wherein the temperature of the polymer melt is from 160°C to 195°C; and wherein the at least one peroxide has a half life, at the maximum barrel temperature of the at least one extruder, of less than 1⁄4 of the minimum residence time of the polymer melt in the at least one extruder. wherein the at least one polar compound is an anhydride-containing and/or carboxylic acid-containing compound; said process comprising thermally treating a composition comprising the ethylene-based polymer, the at least one polar compound, and at least one peroxide, in at least one extruder comprising at least one barrel, to form a polymer melt; wherein the temperature of the polymer melt is from 160°C to 195°C; and wherein the at least one peroxide has a half life, at the maximum barrel temperature of the at least one extruder, of less than 1⁄4 of the minimum residence time of the polymer melt in the at least one extruder.
Crimping apparatus for crimping a multifilament bundle in a melt spinning process, having a conveyor nozzle, having a stuffer box, which for stuffing the filament bundle conveyed by the conveyor nozzle is assigned to the conveyor nozzle, and having a processing unit, which has a rotatable processing drum having a rotating drum wall for guiding and temperature control of a thread plug produced by the stuffer box, wherein the stuffer box is disposed axially parallel to the processing drum, characterized in that the thread plug can be infed in a straight run from a plug outlet of the stuffer box to the circumference of the drum wall.
Conductor connection contact element for clamping an electrical conductor to a power rail piece, formed by a sheet metal part with a first side wall and a second side wall situated opposite the first side wall, a base section extending from the first side wall to the oppositely situated second side wall, and a cover section situated opposite the base section and extending from the first side wall to the opposite second side wall, wherein the side walls (4, 5) border a conductor insertion channel with the base section and the cover section, and comprising a clamping spring arranged on the power rail piece, which has an abutment section on a first end region and a clamping section on the second end region, which is opposite the first end region, with a clamping edge (22, 36, 41) for clamping the electrical conductor, wherein said abutment section is arranged on the base section of the power rail piece, and wherein the clamping section with its freely movable end extends toward the cover section, and wherein transversely to the conductor insertion direction of the clamping section, as viewed in the direction of the first side wall, next to the clamping edge (22, 36, 41), an actuation section accessible to an actuation tool is provided, characterized in that a conductor guide region (14, 34) adjacent to the clamping section is formed on the first side wall, wherein the conductor guide region (14, 34) is a section of the first side wall oriented inclined in the direction of the opposite second side wall.
A method for evaluating the level of neutralization of the biological activity of lipopolysaccharides in a sample, wherein the LPS are quantified by mass spectrometry and with a LPS biological activity assay, and wherein the level of neutralization is determined by comparing the results obtained by mass spectrometry and with the results obtained with the LPS biological activity assay.
A groove alignment structure (212A, 212B, 212C), comprising: an etch stop material (220, 220B, 220C); a substrate (222, 222B, 222C) over the etch stop material (220, 220B, 220C); a set of grooves (224, 224B, 224C) along a first direction in a top surface of the substrate (222, 222B, 222C); adhesive material (226, 226B, 226C) in a bottom of the set of grooves (224, 224B, 224C); optical fibers (228, 228B, 228C) in the set of grooves (224, 224B, 224C) over the adhesive material (226, 226B, 226C) and a portion of the optical fibers (228, 228B, 228C) extending above the substrate (222, 222B, 222C); and a set of polymer guides (230, 230B, 230C) along the first direction on the top surface of the substrate (222, 222B, 222C) interleaved with the set of grooves (224, 224B, 224C), the set of polymer guides (230, 230B, 230C) for guiding the optical fibers (228, 228B, 228C) into the set of grooves (224, 224B, 224C). an etch stop material (220, 220B, 220C); a substrate (222, 222B, 222C) over the etch stop material (220, 220B, 220C); a set of grooves (224, 224B, 224C) along a first direction in a top surface of the substrate (222, 222B, 222C); adhesive material (226, 226B, 226C) in a bottom of the set of grooves (224, 224B, 224C); optical fibers (228, 228B, 228C) in the set of grooves (224, 224B, 224C) over the adhesive material (226, 226B, 226C) and a portion of the optical fibers (228, 228B, 228C) extending above the substrate (222, 222B, 222C); and a set of polymer guides (230, 230B, 230C) along the first direction on the top surface of the substrate (222, 222B, 222C) interleaved with the set of grooves (224, 224B, 224C), the set of polymer guides (230, 230B, 230C) for guiding the optical fibers (228, 228B, 228C) into the set of grooves (224, 224B, 224C).
A transport box, in particular a roof box (1, 1a), for a motor vehicle, having - a base shell (2, 2a) which is arranged fixed to the vehicle in a state assembled ready for operation, - a lid shell (3, 3a) which is mounted swivelably about at least one swivel axis on the base shell (2, 2a), between a closed position in which the lid shell (3, 3a) rests on the base shell (2, 2a), enclosing a transport volume, and an open position in which the lid shell (3, 3a) is lifted off the base shell (2, 2a) having been moved about the swivel axis, allowing access to the transport volume, - at least one hinge lock (4, 5, 5a) on each opposite longitudinal side, by means of which the lid shell (3, 3a) is lockable to or releasable from the base shell (2, 2a) in the closed position, or is mounted swivelably about the swivel axis depending on a control operation by a manually operable actuation device, wherein a safeguarding device with at least one safeguarding element is additionally provided at the end sides(s) in a front area and/or a rear area of the transport box, by means of which the lid shell (3, 3a) is locked relative to the base shell (2, 2a) at the front side and/or at the rear side in the closed position of the lid shell (3, 3a), characterized in that a single continuous movement transmission train is provided which is coupled to the at least one locking arrangement and to all hinge locks (4, 5). - a base shell (2, 2a) which is arranged fixed to the vehicle in a state assembled ready for operation, - a lid shell (3, 3a) which is mounted swivelably about at least one swivel axis on the base shell (2, 2a), between a closed position in which the lid shell (3, 3a) rests on the base shell (2, 2a), enclosing a transport volume, and an open position in which the lid shell (3, 3a) is lifted off the base shell (2, 2a) having been moved about the swivel axis, allowing access to the transport volume, - at least one hinge lock (4, 5, 5a) on each opposite longitudinal side, by means of which the lid shell (3, 3a) is lockable to or releasable from the base shell (2, 2a) in the closed position, or is mounted swivelably about the swivel axis depending on a control operation by a manually operable actuation device,
Method for producing a dental restoration by CAD casting, comprising the steps a) recording three-dimensional, digital data of the dentition or of a part of the dentition of a patient; b) creating a virtual dental restoration using the recorded three-dimensional, digital data, wherein the virtual dental restoration is expanded in relation to the dental restoration to be produced; c) preparing a model using the created virtual dental restoration, such that the model is expanded in relation to the dental restoration to be produced; d) embedding the model in an embedding compound; e) hardening the embedding compound and removing the model, so that a casting mold is obtained, and f) filling the casting mold, preferably by pouring, with a casting material and cooling the casting material such that the dental restoration is obtained, wherein (i) the virtual dental restoration and/or (ii) the model is or are expanded in relation to the dental restoration to be produced such that the solid shrinkage of the casting material which takes place when the casting material cools is partly or completely compensated for, and wherein an embedding compound is used, the overall expansion of which is less than the amount of the solid shrinkage of the casting material and wherein the virtual dental restoration and/or the model is expanded by 0.025 to 3 % overall in relation to the dental restoration to be produced and one or more areas of the virtual dental restoration and/or of the model are further expanded in relation to the dental restoration to be produced, wherein this further expansion in one or more selected areas of the virtual dental restoration or of the model is in the range from 0.025 to 1 % with respect to the relative change in length. a) recording three-dimensional, digital data of the dentition or of a part of the dentition of a patient; b) creating a virtual dental restoration using the recorded three-dimensional, digital data, wherein the virtual dental restoration is expanded in relation to the dental restoration to be produced; c) preparing a model using the created virtual dental restoration, such that the model is expanded in relation to the dental restoration to be produced; d) embedding the model in an embedding compound; e) hardening the embedding compound and removing the model, so that a casting mold is obtained, and f) filling the casting mold, preferably by pouring, with a casting material and cooling the casting material such that the dental restoration is obtained, (i) the virtual dental restoration and/or (ii) the model is or are expanded in relation to the dental restoration to be produced such that the solid shrinkage of the casting material which takes place when the casting material cools is partly or completely compensated for, and
Transdermal therapeutic system for the transdermal administration of asenapine comprising a self-adhesive layer structure containing a therapeutically effective amount of asenapine, said self-adhesive layer structure comprising: A) a backing layer; B) an asenapine-containing matrix layer consisting of a matrix layer composition comprising: 1. asenapine; 2. a polymer selected from acrylic polymers; 3. an additional polymer; and 4. α-tocopherol in an amount of from 0.01 to 2 weight-% of the matrix layer composition and ascorbyl palmitate in an amount of at least 0.01 weight-% of the matrix layer composition as stabilizers. A) a backing layer; B) an asenapine-containing matrix layer consisting of a matrix layer composition comprising: 1. asenapine; 2. a polymer selected from acrylic polymers; 3. an additional polymer; and 4. α-tocopherol in an amount of from 0.01 to 2 weight-% of the matrix layer composition and ascorbyl palmitate in an amount of at least 0.01 weight-% of the matrix layer composition as stabilizers. 1. asenapine; 2. a polymer selected from acrylic polymers; 3. an additional polymer; and 4. α-tocopherol in an amount of from 0.01 to 2 weight-% of the matrix layer composition and ascorbyl palmitate in an amount of at least 0.01 weight-% of the matrix layer composition as stabilizers.
A combustion engine equipped with an intake module functioning with a liquid fuel, the intake module including a wall having an outer surface and an inner surface delimiting at least partially an intake path in the intake module through which air can be brought to a cylinder in the combustion engine, characterized in that the outer surface of the wall includes a solid projection defining a drilling axis oriented from the outer face towards the intake path for mounting, after drilling, in the hole centred on the drilling axis, of a gaseous fuel injector.