mhurhangee/ep-ind-claims huggingface dataset:
A method for setting frame rates of a camera, wherein the camera comprises a plurality of image sensors (116a:116K) arranged to capture images to be stitched into a panorama image of a scene (300, 400), and wherein each of the plurality of image sensors (116a:116K) has a respective optical axis (210a:210K), the method being performed by a controller, the method comprising: obtaining information of a respective angle ( α k;k =1... K) between the optical axis (210a:210K) of each of the plurality of image sensors (116a:116K) and a direction along which a straight path structure (310, 410a, 410b, 510a, 510b), to be monitored by the camera, extends through the scene (300, 400); dividing the plurality of image sensors (116a:116K) into at least two groups (820a:820d) as a function of the angles ( α k;k =1... K), wherein all the angles ( α k;k =1... K) of the image sensors (116a:116K) within each of the at least two groups (820a:820d) are part of its own continuous angle interval (810a:810e); and setting one frame rate per each of the at least two groups (820a:820d), wherein the frame rate is decreasing from the group with highest continuous angle interval (810b, 810e) towards the group (820a, 820c) with lowest continuous angle interval (810a, 810c). obtaining information of a respective angle ( α k;k =1... K) between the optical axis (210a:210K) of each of the plurality of image sensors (116a:116K) and a direction along which a straight path structure (310, 410a, 410b, 510a, 510b), to be monitored by the camera, extends through the scene (300, 400); dividing the plurality of image sensors (116a:116K) into at least two groups (820a:820d) as a function of the angles ( α k;k =1... K), wherein all the angles ( α k;k =1... K) of the image sensors (116a:116K) within each of the at least two groups (820a:820d) are part of its own continuous angle interval (810a:810e); and setting one frame rate per each of the at least two groups (820a:820d), wherein the frame rate is decreasing from the group with highest continuous angle interval (810b, 810e) towards the group (820a, 820c) with lowest continuous angle interval (810a, 810c).
A signal detection device for handling a blind scan of a frequency spectrum the signal detection device comprising a receiving circuit, configured for receiving a full-band spectrum; a tuner circuit, coupled to the receiving circuit, configured to scan the full-band spectrum with a step size from a left end of the full-band spectrum to a right end of the full-band spectrum, to generate a plurality of overlapped spectrums; and a processing circuit, coupled to the tuner circuit, configured to construct a combined full-band spectrum according to the plurality of overlapped spectrums, to detect a first plurality of signals in the combined full-band spectrum. a tuner circuit, coupled to the receiving circuit, configured to scan the full-band spectrum with a step size from a left end of the full-band spectrum to a right end of the full-band spectrum, to generate a plurality of overlapped spectrums; and a processing circuit, coupled to the tuner circuit, configured to construct a combined full-band spectrum according to the plurality of overlapped spectrums, to detect a first plurality of signals in the combined full-band spectrum.
Multilayer floor covering comprising: - a bottom layer containing, per 100 parts by weight of polyvinyl chloride (phr): 3 phr to 80 phr of polyvinyl butyrate; 100 phr of polyvinyl chloride; 2 phr to 60 phr of dibutyl sebacate; and 1 phr to 200 phr of at least one additive; and - a top layer comprising at least PVC and dibutyl sebacate. - a bottom layer containing, per 100 parts by weight of polyvinyl chloride (phr): 3 phr to 80 phr of polyvinyl butyrate; 100 phr of polyvinyl chloride; 2 phr to 60 phr of dibutyl sebacate; and 1 phr to 200 phr of at least one additive; and 3 phr to 80 phr of polyvinyl butyrate; 100 phr of polyvinyl chloride; 2 phr to 60 phr of dibutyl sebacate; and 1 phr to 200 phr of at least one additive; and - a top layer comprising at least PVC and dibutyl sebacate.
System for characterizing motion of at least one individual forming a target, comprising: • a radar emitting electromagnetic signals towards the target and receiving echoed signals, output as radar data as a function of time, • preprocessing means receiving radar data as input and outputting a spectrogram representing time variations of the Doppler spectrum of the radar data from which a single Doppler spectrum at a time instant of measurement is referred to as a measurement, • characterizing means configured for outputting a probability density estimation of the state of a target, the system being characterized in that said state is described by a state vector which comprises at least one target gait classification variable and a set of motion parameters, the characterizing means comprising estimation means estimating the probability density of said state vector for each received said measurement. • a radar emitting electromagnetic signals towards the target and receiving echoed signals, output as radar data as a function of time, • preprocessing means receiving radar data as input and outputting a spectrogram representing time variations of the Doppler spectrum of the radar data from which a single Doppler spectrum at a time instant of measurement is referred to as a measurement, • characterizing means configured for outputting a probability density estimation of the state of a target, the system being characterized in that said state is described by a state vector which comprises at least one target gait classification variable and a set of motion parameters, the characterizing means comprising estimation means estimating the probability density of said state vector for each received said measurement.
Method for granulating particle-containing material obtained from industrial processes, wherein said particle-containing material is mixed in the presence of water with a material containing or consisting of a moisture-absorbing water-insoluble organic polymer material which is capable of swelling.
A method of testing a valve (7, 8), for example a blowdown valve or a vacuum / pressure relief valve, in a valve housing on a storage tank, the valve (7, 8) having a first side and an opposite second side, wherein this method comprises the step of: - sealing at least the valve (7, 8) to be tested gas-tight on the first side with a test valve, forming a test space between the test valve and the valve (7, 8), - applying an increasing pressure difference between the test space and the second side, and - measuring and recording the pressure in the test space until the valve (7, 8) is opened, characterized in that the first side is oriented towards the environment outside of the housing. - sealing at least the valve (7, 8) to be tested gas-tight on the first side with a test valve, forming a test space between the test valve and the valve (7, 8), - applying an increasing pressure difference between the test space and the second side, and - measuring and recording the pressure in the test space until the valve (7, 8) is opened,
A method of isolating an undifferentiated human embryonic stem cell from a sample containing such cells, the method comprising contacting the sample with an antibody that binds to PODXL, allowing the antibody to bind to PODXL on the surface of a cell and separating the antibody-cell complex from the remainder of the sample, thereby isolating the cell or cells within the sample that express PODXL on their surface, wherein the antibody has the amino acid sequences: i) SASSSVNYMY (SEQ ID NO: 2) ii) DTSNLAS (SEQ ID NO: 3) iii) QQWSSYPYT (SEQ ID NO: 4) iv) NYWMN (SEQ ID NO: 5) v) EIRLKSNNYATHYAESVKG (SEQ ID NO: 6); and vi) ERA (SEQ ID NO: 7). i) SASSSVNYMY (SEQ ID NO: 2) ii) DTSNLAS (SEQ ID NO: 3) iii) QQWSSYPYT (SEQ ID NO: 4) iv) NYWMN (SEQ ID NO: 5) v) EIRLKSNNYATHYAESVKG (SEQ ID NO: 6); and vi) ERA (SEQ ID NO: 7).
Light-emitting semiconductor diode which comprises at least one light-emitting chip and a transparent electronics shield at least partly surrounding the latter, characterised in that - a multilayered film is applied at least directly to at least part of the electronics shield, - the multilayered film has a support layer, facing away from the electronics shield, whose refractive index is greater than the refractive index of the electronics shield, and - the multilayered film comprises a layer, facing the electronics shield, whose base material is the material of the electronics shield. - a multilayered film is applied at least directly to at least part of the electronics shield, - the multilayered film has a support layer, facing away from the electronics shield, whose refractive index is greater than the refractive index of the electronics shield, and - the multilayered film comprises a layer, facing the electronics shield, whose base material is the material of the electronics shield.
An elastic material (1A, 1B, 1C, ID, 1E) comprising an elastic film, non-woven fabric laminated on both surfaces of the elastic film, and crimped parts where the non-woven fabric and elastic film are crimped and indented, the crimped part is prepared with a plurality of first emboss formed on a first line and a plurality of second emboss formed on a second line beside the first line, the first line and the second line in a direction diagonally intersecting the MD direction of the elastic film, wherein the first emboss is a long lengthy shape in a direction orthogonal to the MD direction, the first line and second line are alternately arranged, at least a part of the intervals (da, db) of adjacent first emboss on the same line are smaller than the intervals of adjacent second emboss on the same line. an elastic film, non-woven fabric laminated on both surfaces of the elastic film, and crimped parts where the non-woven fabric and elastic film are crimped and indented, the crimped part is prepared with a plurality of first emboss formed on a first line and a plurality of second emboss formed on a second line beside the first line, the first line and the second line in a direction diagonally intersecting the MD direction of the elastic film, non-woven fabric laminated on both surfaces of the elastic film, and crimped parts where the non-woven fabric and elastic film are crimped and indented, the crimped part is prepared with a plurality of first emboss formed on a first line and a plurality of second emboss formed on a second line beside the first line, the first line and the second line in a direction diagonally intersecting the MD direction of the elastic film, wherein the first emboss is a long lengthy shape in a direction orthogonal to the MD direction, the first line and second line are alternately arranged, at least a part of the intervals (da, db) of adjacent first emboss on the same line are smaller than the intervals of adjacent second emboss on the same line. the first line and second line are alternately arranged, at least a part of the intervals (da, db) of adjacent first emboss on the same line are smaller than the intervals of adjacent second emboss on the same line.
Household refrigeration appliance having a heat-insulated carcass which has an inner container with a coolable interior space provided for storing food, a refrigeration device provided for cooling the coolable interior space and an assisting device, as well as a door leaf mounted pivotable relative to the carcass provided for opening and closing the coolable interior space or a drawer which in the closed state is pushed into the coolable interior space in order to close it, and in the open state is at least partially withdrawn from the coolable interior space, wherein the assisting device has an air pressure sensor (31, 31a) which is configured to determine a change of the air pressure within the coolable interior space resulting due to a pushing and/or pulling on the closed door leaf or on the closed drawer, and the assisting device is configured to open the closed door leaf or the closed drawer automatically at least partially depending on the determined change in the air pressure, characterised in that the air pressure sensor (31, 31a) has a pressure chamber coupled to the coolable interior space, an electric component arranged within the pressure chamber and an evaluating device which is configured to evaluate at least one electrical variable of the electric component associated with the change in the air pressure, so that the assisting device opens the closed door leaf or the closed drawer at least partially, dependent upon the evaluated electrical variable, wherein the electric component has an areal component and an electrically conductive film spaced at a distance from the areal component, the assisting device has a housing within which substantially all the components (22, 23, 35) of the assisting device are arranged and in which the pressure chamber is provided, and the housing of the assisting device comprises an entry which is directly linked to the pressure chamber and is coupled with the coolable interior space, wherein the electric component is an inductive component, the areal component is configured as an areal electric coil and the at least one electrical variable is an inductance, a resistance and/or a reactance of the inductive component, or the electric component is a capacitor, the areal component is an areal first electrode and the electrically conductive film is a second electrode of the capacitor and the at least one electrical variable is a capacitance of the capacitor.
A laryngoscope blade for being mounted removably to an upper end of a laryngoscope handle including a hinge pin, the laryngoscope blade comprising a blade portion, a base portion and an optic light pipe, said blade portion including a proximal end and a distal end provided with an optic window, said base portion including two base halves (20, 30) mounted to each other and to said proximal end of said blade portion, with the proximal end of the blade portion captured between the base halves, one of said base halves being made of a material that is more flexible than the material of which said other of said base halves is made, said one base half providing a resilient cantilever latch pin and said other base half providing a rigid hook, and said light pipe including a proximal end mounted between said two base halves and a distal end extending through said optic window, a first inclined slot provided by the resilient cantilever latch pin having a first width, a second inclined slot provided by the rigid hook having a second width larger than the first width, wherein the first width is smaller than a diameter of the hinge pin and the second width is larger than the diameter of the hinge pin, which difference causes the rigid hook to loosely engage the hinge pin so as not to inhibit pivoting movement between the blade and the handle and yet permit the rigid hook to engage the hinge pin.
A genetically modified rodent comprising in its germline at an endogenous immunoglobulin light chain locus an immunoglobulin light chain locus that comprises a single rearranged human immunoglobulin light chain variable region gene sequence derived from a rearranged Yκ1-39/J K or Vκ3-20/J K sequence, wherein the single rearranged human immunoglobulin light chain variable region gene sequence is operably linked to an immunoglobulin light chain constant region gene sequence, and wherein (i) the single rearranged human immunoglobulin light chain variable region gene sequence comprises the Yκ1-39/J K gene sequence comprising a replacement of at least one non-histidine codon with a histidine codon designed to express a histidine (a) at a position selected from 105, 106, 108, 111, and a combination thereof; (b) at positions 105, 106, 108, and 111; or (c) at positions 106, 108, and 111; or (ii) the single rearranged human immunoglobulin light chain variable region gene sequence comprises the Vκ3-20/J K comprising a replacement of at least one non-histidine codon with a histidine codon designed to express a histidine (a) at a position selected from 105, 106, 107, 109, and a combination thereof; (b) at positions 105, 106, 107, and 109, or (c) at positions 105, 106, and 109; wherein the positions are according to IMGT numbering. (i) the single rearranged human immunoglobulin light chain variable region gene sequence comprises the Yκ1-39/J K gene sequence comprising a replacement of at least one non-histidine codon with a histidine codon designed to express a histidine (a) at a position selected from 105, 106, 108, 111, and a combination thereof; (b) at positions 105, 106, 108, and 111; or (c) at positions 106, 108, and 111; or (a) at a position selected from 105, 106, 108, 111, and a combination thereof; (b) at positions 105, 106, 108, and 111; or (c) at positions 106, 108, and 111; or (ii) the single rearranged human immunoglobulin light chain variable region gene sequence comprises the Vκ3-20/J K comprising a replacement of at least one non-histidine codon with a histidine codon designed to express a histidine (a) at a position selected from 105, 106, 107, 109, and a combination thereof; (b) at positions 105, 106, 107, and 109, or (c) at positions 105, 106, and 109; wherein the positions are according to IMGT numbering. (a) at a position selected from 105, 106, 107, 109, and a combination thereof; (b) at positions 105, 106, 107, and 109, or (c) at positions 105, 106, and 109;
A cartridge holder assembly comprising: - an enclosed cartridge defining a longitudinal axis and comprising a generally cylindrical main portion, a distal outlet portion having a neck portion with a circumferential shoulder portion, and a proximal portion having an opening surrounded by a circumferential rim, - a distal portion comprising a distal support structure engaging the cartridge neck portion and being adapted to support the cartridge against movement in the distal direction, and - a proximal portion comprising a proximal support structure engaging the cartridge circumferential rim and being adapted to support the cartridge against movement in the proximal direction, characterized in that - the proximal support structure is elastically deformed only, and - the distal support structure is plastically deformed. - an enclosed cartridge defining a longitudinal axis and comprising a generally cylindrical main portion, a distal outlet portion having a neck portion with a circumferential shoulder portion, and a proximal portion having an opening surrounded by a circumferential rim, - a distal portion comprising a distal support structure engaging the cartridge neck portion and being adapted to support the cartridge against movement in the distal direction, and - a proximal portion comprising a proximal support structure engaging the cartridge circumferential rim and being adapted to support the cartridge against movement in the proximal direction, - the proximal support structure is elastically deformed only, and - the distal support structure is plastically deformed.
A rotor blade of a wind turbine, having a rotor blade shell and a blade root for fixing the rotor blade on a hub of the wind turbine, wherein the rotor blade has a cavity, at least some portions of which can be accessed, characterized in that the rotor blade shell has a closable exit opening, wherein the cavity is subdivided into a plurality of partial spaces (8, 8', 8") which are connected through passable access openings.
A tire comprising, on a tire side portion, a display part having at least one of an emblem (51a-c, 53, 56a, 56b) and a decorative band (52, 54, 55), wherein the emblem and the decorative band each are formed by means of any one of printing, painting, and a sticker; and wherein the tire side portion has a projection formed in an area adjacent to the display part, the projection being formed as protruding from a surface of the display part while extending along the display part, characterised in that wherein the decorative band has a protrusion protrudingly formed on an outer surface of the tire side portion or a depression formed as being depressed in the outer surface; and wherein the protrusion or the depression has, on an outer surface thereof, a colored part that is different in color from surrounding rubber, characterised in that the protrusion or the depression has a surface shaped formed in an arc-shaped cross section; and wherein the surface thus raised or depressed has a curvature radius in a tire meridian section smaller than a curvature radius in the tire meridian section of the tire side portion.
High-pressure roller press for comminuting brittle material for grinding, having - a first grinding roller and a second grinding roller, - wherein at least one grinding roller is a floating roller which is mounted movably in a machine frame, and - wherein at least one grinding roller (22, 23) has an electric drive, wherein the electric drive (28, 28, 29, 29') of the at least one grinding roller (22, 23) is provided bilaterally at both sides of the roller ends, characterized in that the drives (28, 28'; 29, 29') of in each case one grinding roller (22, 23) are synchronized with one another with regard to power output, wherein the high-pressure roller press a device which is designed to measure the power output between a gearbox (25, 25', 25", 25'''), which is provided between the drive and the respective grinding roller (22, 23), and grinding roller, wherein the device for measuring the power output determines the power output on the basis of the decrease in torque, by way of a torque sensor, and on the basis of the rotational speed. - a first grinding roller and a second grinding roller, - wherein at least one grinding roller is a floating roller which is mounted movably in a machine frame, and - wherein at least one grinding roller (22, 23) has an electric drive, wherein
Use of a polymer resin-expandable graphite mixture to increase the thermal protective performance according to the TPP Test Method as described herein of textile and laminates, the polymer resin-expandable graphite mixture comprising: 2 wt% to 30 wt% of an expandable graphite and 30 wt% to 98 wt% of a polymer resin with a modulus between 10 3 and 10 6 dynes/cm 2 at 200°C and Tan Delta of between 0.1 and 10 at 200°C, wherein the polymer resin-expandable graphite mixture has a minimum thickness increase of at least 200% after exposure to 300°C for 90 seconds. 2 wt% to 30 wt% of an expandable graphite and 30 wt% to 98 wt% of a polymer resin with a modulus between 10 3 and 10 6 dynes/cm 2 at 200°C and Tan Delta of between 0.1 and 10 at 200°C, wherein the polymer resin-expandable graphite mixture has a minimum thickness increase of at least 200% after exposure to 300°C for 90 seconds.