mhurhangee/ep-ind-claims huggingface dataset:
Method for acquiring master data of an object comprising the steps: - weighing the object on a scale, - determining a starting point in time for recording the master data by: - taking a depth value image of the object with a camera, - determining contiguous regions in the image that then form first temporary objects, - classifying the first temporary objects into a valid and an invalid class, wherein all first temporary objects that lie within the image without touching the image edge are sorted into the valid class and first temporary objects with edge contact are sorted into the invalid class, - analyzing the first temporary objects in the invalid class by evaluating the depth values and forming new subregions with depth values beyond a depth value threshold, - scanning the subregions for contiguous areas, where these contiguous areas form second temporary objects, - moving the second temporary objects to the valid class if they do not touch the image edge, - finding overlaps of the temporary objects in the valid class with the temporary objects remaining in the invalid class, where the overlap must exceed an overlap threshold, - in case of overlap, moving the temporary objects in question from the valid class to the invalid class, - defining the temporary objects in the valid class as the object to be measured, - if no object is in the valid class, output an error signal, otherwise - after the starting point in time determined in this way, starting the volume detection of the object, - recording the master data, - saving the recorded master data, - outputting of the master data. - weighing the object on a scale, - determining a starting point in time for recording the master data by: - taking a depth value image of the object with a camera, - determining contiguous regions in the image that then form first temporary objects, - classifying the first temporary objects into a valid and an invalid class, wherein all first temporary objects that lie within the image without touching the image edge are sorted into the valid class and first temporary objects with edge contact are sorted into the invalid class, - analyzing the first temporary objects in the invalid class by evaluating the depth values and forming new subregions with depth values beyond a depth value threshold, - scanning the subregions for contiguous areas, where these contiguous areas form second temporary objects, - moving the second temporary objects to the valid class if they do not touch the image edge, - finding overlaps of the temporary objects in the valid class with the temporary objects remaining in the invalid class, where the overlap must exceed an overlap threshold, - in case of overlap, moving the temporary objects in question from the valid class to the invalid class, - defining the temporary objects in the valid class as the object to be measured, - if no object is in the valid class, output an error signal, otherwise - after the starting point in time determined in this way, starting the volume detection of the object, - recording the master data, - saving the recorded master data, - outputting of the master data.
A method for predicting the usefulness of a protein expressed by cancer cells for anticancer immunotherapy of a patient, wherein said protein comprises an MHC class I binding peptide comprising a cancer- associated neo-epitope comprising a cancer specific somatic mutation, the method comprising ascertaining an existing antibody response to the protein, wherein the antibody response is ascertained using a computer-based analytical process, wherein an existing antibody response of the patient to the protein indicates that the protein is useful for immunotherapy of the cancer patient. wherein said protein comprises an MHC class I binding peptide comprising a cancer- associated neo-epitope comprising a cancer specific somatic mutation, ascertaining an existing antibody response to the protein, wherein the antibody response is ascertained using a computer-based analytical process, wherein an existing antibody response of the patient to the protein indicates that the protein is useful for immunotherapy of the cancer patient.
A biopsy tissue sample transport device comprising: a. a tissue storage assembly having a plurality of sample containers, each sample container comprising a holding structure configured to releasably position a tissue sample, wherein the holding structure consists of longitudinal sidewalls and two end walls defining a longitudinal chamber and comprises a sample access opening formed in the sidewall or one of the end walls configured to allow sample insertion or removal therethrough, wherein a flexible joining member connects the sample containers along a portion or the whole of one of the two end walls and the sample containers are only connected by the flexible joining member; b. a housing configured to receive the tissue storage assembly, the housing comprising an assembly insertion opening through which the tissue storage assembly is inserted into the housing; c. a sealing member configured to engage and substantially seal the sample access opening of one of the holding structures of one of the plurality of sample containers of the tissue storage assembly; and d. a lid configured to engage and substantially seal the assembly insertion opening of the housing. a. a tissue storage assembly having a plurality of sample containers, each sample container comprising a holding structure configured to releasably position a tissue sample, wherein the holding structure consists of longitudinal sidewalls and two end walls defining a longitudinal chamber and comprises a sample access opening formed in the sidewall or one of the end walls configured to allow sample insertion or removal therethrough, wherein a flexible joining member connects the sample containers along a portion or the whole of one of the two end walls and the sample containers are only connected by the flexible joining member; b. a housing configured to receive the tissue storage assembly, the housing comprising an assembly insertion opening through which the tissue storage assembly is inserted into the housing; c. a sealing member configured to engage and substantially seal the sample access opening of one of the holding structures of one of the plurality of sample containers of the tissue storage assembly; and d. a lid configured to engage and substantially seal the assembly insertion opening of the housing.
A wet gel comprising: a crosslinked silicone resin in which a silicone resin composition is solidified; a first liquid capable of dissolving the silicone resin composition; and one of a solid capable of being dissolved in the first liquid, and a second liquid such that a degree of swelling, when the crosslinked silicone resin is immersed in the second liquid, is less than a degree of swelling when the crosslinked silicone resin is immersed in n-dodecane, wherein the second liquid is capable of being mixed with the first liquid, wherein the solid capable of being dissolved in the first liquid is tristearin or lotus leaf extract, and wherein the second liquid is n-tetradecane, n-hexadecane, triclorooctadecylsilane, polymethylphenylsiloxane or phenylmethylsiloxane-dimethylsiloxane copolymer and wherein the degree of swelling is calculated from the formula V/V 0, where V 0 was the volume of the crosslinked silicone resin, and V was the volume of the crosslinked silicone resin after it was immersed in the liquid for 74 hours. a crosslinked silicone resin in which a silicone resin composition is solidified; a first liquid capable of dissolving the silicone resin composition; and one of a solid capable of being dissolved in the first liquid, and a second liquid such that a degree of swelling, when the crosslinked silicone resin is immersed in the second liquid, is less than a degree of swelling when the crosslinked silicone resin is immersed in n-dodecane,
A negative electrode for a lithium ion secondary battery, the negative electrode comprising a negative electrode active material, a fine graphite material, a conductive aid, and a binder, wherein a mass ratio of the fine graphite material to the conductive aid is in a range from 1 to 10, and an average particle diameter (median diameter D 50) of the fine graphite material is smaller than an average particle diameter (median diameter D 50) of the negative electrode active material, and in a range of 1 to 15 μm, and characterized in that a ratio of a particle diameter at 90 cumulative% in a cumulative distribution (D 90) to the average particle diameter (D 50), D 90 /D 50, of the negative electrode active material is 1.5 or smaller, wherein a particle diameter D 90 refers to a particle diameter at an integrated value up to 90% in a particle size distribution (volume-based) obtained by using a laser diffraction/scattering method, and a median diameter D 50 refers to a particle diameter at an integrated value up to 50% in a particle size distribution (volume-based) obtained by using a laser diffraction/scattering method. wherein a mass ratio of the fine graphite material to the conductive aid is in a range from 1 to 10, and an average particle diameter (median diameter D 50) of the fine graphite material is smaller than an average particle diameter (median diameter D 50) of the negative electrode active material, and in a range of 1 to 15 μm, and characterized in that
A quality control apparatus configured to manage a surface mounting line in which a solder printing process, a mount process, and a reflow process are performed, solder being printed onto a printed circuit board with a solder printing apparatus in the solder printing process, an electronic component being disposed on the printed circuit board with a mounter in the mount process, the electronic component being soldered with a reflow furnace in the reflow process, the quality control apparatus comprising: a nonuniformity calculating unit configured to calculate nonuniformity being a degree of imbalance of a plurality of feature amounts being measured values of inspection items detected in a post-reflow inspection after said reflow process from a plurality of different portions on the printed circuit board, and to calculate said degree of imbalance based on a difference or a ratio between a maximum value and a minimum value of each of the plurality of feature amounts; a determination unit configured to determine whether the degree of imbalance is greater than or equal to a predetermined threshold; and a parameter changing unit configured to change a setting parameter of the solder printing apparatus or the mounter or to propose the change in setting parameter when said determination unit determines the degree of imbalance to be greater than or equal to the predetermined threshold. a nonuniformity calculating unit configured to calculate nonuniformity being a degree of imbalance of a plurality of feature amounts being measured values of inspection items detected in a post-reflow inspection after said reflow process from a plurality of different portions on the printed circuit board, and to calculate said degree of imbalance based on a difference or a ratio between a maximum value and a minimum value of each of the plurality of feature amounts; a determination unit configured to determine whether the degree of imbalance is greater than or equal to a predetermined threshold; and a parameter changing unit configured to change a setting parameter of the solder printing apparatus or the mounter or to propose the change in setting parameter when said determination unit determines the degree of imbalance to be greater than or equal to the predetermined threshold.
A conveyance machine configured to convey a load, the conveyance machine comprising: a traveling unit; a vehicle body arranged above the traveling unit; a vessel provided on the vehicle body and configured to move in a width direction of the conveyance machine; characterized by the conveyance machine comprising: a range sensor configured to output physical geometric data of a space in a mine tunnel; wherein the range sensor includes at least one of a laser scanner and a 3-dimensional range sensor wherein the range sensor is configured to obtain 3-dimensional spatial data; and a processing unit configured to control the traveling unit so that the vessel can approach a loading machine operable to load a load on the vessel, and adjust a position of the vessel relative to the vehicle body in the width direction of the conveyance machine so as to position at least part of the vessel on an outer side of the vehicle body where the loading machine performs loading based on the output data of the range sensor. a traveling unit; a vehicle body arranged above the traveling unit; a vessel provided on the vehicle body and configured to move in a width direction of the conveyance machine; characterized by the conveyance machine comprising: a range sensor configured to output physical geometric data of a space in a mine tunnel; wherein the range sensor includes at least one of a laser scanner and a 3-dimensional range sensor wherein the range sensor is configured to obtain 3-dimensional spatial data; and a processing unit configured to control the traveling unit so that the vessel can approach a loading machine operable to load a load on the vessel, and adjust a position of the vessel relative to the vehicle body in the width direction of the conveyance machine so as to position at least part of the vessel on an outer side of the vehicle body where the loading machine performs loading based on the output data of the range sensor. a range sensor configured to output physical geometric data of a space in a mine tunnel; wherein the range sensor includes at least one of a laser scanner and a 3-dimensional range sensor wherein the range sensor is configured to obtain 3-dimensional spatial data; and a processing unit configured to control the traveling unit so that the vessel can approach a loading machine operable to load a load on the vessel, and adjust a position of the vessel relative to the vehicle body in the width direction of the conveyance machine so as to position at least part of the vessel on an outer side of the vehicle body where the loading machine performs loading based on the output data of the range sensor.
A pharmaceutical composition that is free of polar excipients, said composition comprising: (a) a propellant component consisting essentially of 1,1-difluoroethane (R-152a), (b) a surfactant component consisting entirely of at least one surfactant compound selected from the group consisting of polyvinylpyrrolidone and sorbitan monooleate; and (c) a drug component consisting of salbutamol sulphate. (a) a propellant component consisting essentially of 1,1-difluoroethane (R-152a), (b) a surfactant component consisting entirely of at least one surfactant compound selected from the group consisting of polyvinylpyrrolidone and sorbitan monooleate; and (c) a drug component consisting of salbutamol sulphate.
A method of producing an electrode for use in hydrogen generation, comprising the steps of applying onto a conductive base a mixture comprising at least one type of ruthenium compound selected from chlorides, sulfates and nitrates, and at least one type of compound selected from the group consisting of a lanthanum compound, a cerium compound and a yttrium compound selected from chlorides, sulfates and nitrates, in the presence of an organic acid selected from oxalic acid, formic acid, acetic acid and citric acid, and pyrolising the mixture at a temperature in the range of 300 to 650°C in an oxygen-containing atmosphere to form a coating layer on the conductive base, wherein the amount of at least one compound selected from the group consisting of a lanthanum compound, a cerium compound and a yttrium compound falls within a range from 1/20 to 1/2 mol in relation to one mol of metal component in said ruthenium compound, and the amount of the organic acid falls within a range from 1/20 to 2 mol in relation to one mol of the metal component in the ruthenium compound.
Fibre-laying device for producing a fibrous structure of a fibre-composite component, having - a tool for depositing fibrous webs (4a, 4b), - a depositing head which is configured for laying fibrous webs (4a, 4b) on the tool, and - a control unit which for actuating the fibre-laying device is configured such that the fibrous webs (4a, 4b) are deposited by the depositing head at predetermined laying positions on the tool, wherein - an edge-detection device which is configured for detecting an edge position of at least one fibrous-web edge of at least one fibrous web which has already been deposited on the tool, and - a correction device which is adapted for correcting a predetermined laying position of a fibrous web to be deposited, depending on the detected edge position of the fibrous-web edge of the at least one already deposited fibrous web, are provided, characterized in that the depositing head can be rotated about the axis Z so as to perform a corresponding correction of the depositing direction, based on the identified position of the fibrous-web edge, wherein the axis Z is defined so as to be perpendicular to the laying surface. - a tool for depositing fibrous webs (4a, 4b), - a depositing head which is configured for laying fibrous webs (4a, 4b) on the tool, and - a control unit which for actuating the fibre-laying device is configured such that the fibrous webs (4a, 4b) are deposited by the depositing head at predetermined laying positions on the tool, - an edge-detection device which is configured for detecting an edge position of at least one fibrous-web edge of at least one fibrous web which has already been deposited on the tool, and - a correction device which is adapted for correcting a predetermined laying position of a fibrous web to be deposited, depending on the detected edge position of the fibrous-web edge of the at least one already deposited fibrous web, are provided, characterized in that the depositing head can be rotated about the axis Z so as to perform a corresponding correction of the depositing direction, based on the identified position of the fibrous-web edge, wherein the axis Z is defined so as to be perpendicular to the laying surface.
A mobile terminal, characterized in that, the mobile terminal comprises: a housing, comprising a front side face, a rear side face, a left side face, a right side face opposite to the left side face, and a top face, wherein a receiving groove is defined on the top face of the housing along a left-right direction and is located between the front side face and the rear side face, the receiving groove extends to the left side face and the right side face and penetrate the left side face and the right side face; a mainboard, arranged in the housing, a screen, arranged on the front side face of the housing and connected to the mainboard; and; a mounting frame, wherein a side face of the mounting frame facing the screen is provided with a first camera connected to the mainboard, a side face of the mounting frame facing away from the screen is provided with a second camera exposed out of the housing, the mounting frame is configured to extend out of or retract into the receiving groove, such that the first camera is exposed out of or hidden into the housing. a housing, comprising a front side face, a rear side face, a left side face, a right side face opposite to the left side face, and a top face, wherein a receiving groove is defined on the top face of the housing along a left-right direction and is located between the front side face and the rear side face, the receiving groove extends to the left side face and the right side face and penetrate the left side face and the right side face; a mainboard, arranged in the housing, a screen, arranged on the front side face of the housing and connected to the mainboard; and; a mounting frame, wherein a side face of the mounting frame facing the screen is provided with a first camera connected to the mainboard, a side face of the mounting frame facing away from the screen is provided with a second camera exposed out of the housing, the mounting frame is configured to extend out of or retract into the receiving groove, such that the first camera is exposed out of or hidden into the housing.
A tie strap (100, 400, 600) with a hardened integrated rivet for a saw chain, comprising: a body having a rivet side; and an integrated rivet extending from the rivet side of the body and comprised of: a shoulder extending from the rivet side of the body and configured to engage a rivet hole of another link; and a hub extending from the shoulder and configured to engage a rivet hole of an opposing tie strap, wherein a diameter of the hub is less than a diameter of the shoulder, characterized in that: the shoulder has a high wear region (110a, 110b, 110c, 110d) and a low wear region (110e, 110f) disposed opposite from the high wear region (110a, 110b, 110c, 110d), wherein the low wear region (110e, 110f) has a first hardness that is less than a second hardness of the high wear region (110a, 110b, 110c, 110d), wherein the high wear region (110a, 110b, 110c, 110d) extends circumferentially around the shoulder and is between about 90 degrees counter clockwise to about 90 degrees clockwise measured from a center point on the shoulder facing inward toward a center part of the body. a body having a rivet side; and an integrated rivet extending from the rivet side of the body and comprised of: a shoulder extending from the rivet side of the body and configured to engage a rivet hole of another link; and a hub extending from the shoulder and configured to engage a rivet hole of an opposing tie strap, wherein a diameter of the hub is less than a diameter of the shoulder, characterized in that: the shoulder has a high wear region (110a, 110b, 110c, 110d) and a low wear region (110e, 110f) disposed opposite from the high wear region (110a, 110b, 110c, 110d), wherein the low wear region (110e, 110f) has a first hardness that is less than a second hardness of the high wear region (110a, 110b, 110c, 110d), wherein the high wear region (110a, 110b, 110c, 110d) extends circumferentially around the shoulder and is between about 90 degrees counter clockwise to about 90 degrees clockwise measured from a center point on the shoulder facing inward toward a center part of the body. a shoulder extending from the rivet side of the body and configured to engage a rivet hole of another link; and a hub extending from the shoulder and configured to engage a rivet hole of an opposing tie strap, wherein a diameter of the hub is less than a diameter of the shoulder, characterized in that: the shoulder has a high wear region (110a, 110b, 110c, 110d) and a low wear region (110e, 110f) disposed opposite from the high wear region (110a, 110b, 110c, 110d), wherein the low wear region (110e, 110f) has a first hardness that is less than a second hardness of the high wear region (110a, 110b, 110c, 110d), wherein the high wear region (110a, 110b, 110c, 110d) extends circumferentially around the shoulder and is between about 90 degrees counter clockwise to about 90 degrees clockwise measured from a center point on the shoulder facing inward toward a center part of the body.