mhurhangee/ep-ind-claims huggingface dataset:
A method carried out in a truck configured to be coupled to a trailer, wherein a trailer connection status is determined by a pneumatic line test performed on one test pneumatic line (41,42) arranged to pneumatically couple the trailer to the truck, the method comprising: a - determine a line test circumstantial criterion, such criterion allowing or not a pneumatic line test to be performed, b- perform the pneumatic line test, whenever the test circumstantial criterion allows it, c- update therefrom the trailer connection status, from a result of step b- and/or as time passes by, wherein the line test circumstantial criterion comprises at least a first condition representative of an air pressure prevailing in the pneumatic line (41,42) below a predefined test threshold, a second condition representative of a presence and/or activity of a driver of the truck in the truck's cabin. a - determine a line test circumstantial criterion, such criterion allowing or not a pneumatic line test to be performed, b- perform the pneumatic line test, whenever the test circumstantial criterion allows it, c- update therefrom the trailer connection status, from a result of step b- and/or as time passes by,
A process for preparation of white curcumin in which an autoclave is charged with 3/4th volume of an organic solvent and total curcuminoids are added to the organic solvent to form a reaction mixture and stirring the reaction mixture for uniformity at room temperature in presence of 10% palladium carbon as catalyst; subjecting the reaction mixture to hydrogenation; monitoring completion of the reaction using the Thin Layer Chromatography; filtering the reaction mixture through a cotton canvas filter cloth to remove the traces of palladium carbon and washing the filtrate with 50ml of ethyl acetate characterized in that the 95% total curcuminoids are used in the range between 40g to 60g and 10% palladium carbon in the range between 2g-3g and the pressure of the hydrogenation of reaction process is maintained at 13.8 kpa (2 lbps) with continuous stirring of the reaction mixture for 15 hours in the presence of hydrogen gas followed by; distilling the ethyl acetate to obtain a crude mass of white curcumin; stirring the crude mass with 2 liters of purified water to obtain a solid precipitate of white curcumin; and filtering the solid precipitate and drying the solid precipitate to obtain pale brown crystals of white curcumin. distilling the ethyl acetate to obtain a crude mass of white curcumin; stirring the crude mass with 2 liters of purified water to obtain a solid precipitate of white curcumin; and filtering the solid precipitate and drying the solid precipitate to obtain pale brown crystals of white curcumin.
An inverter terminal board, comprising: an electric conductor which has an inverter side connecting terminal connected to an output terminal of an inverter attached to a motor case, a motor side connecting terminal connected to a power receiving terminal of the motor, and a braided wire, wherein the inverter side connecting terminal is connected to one end of the braided wire, and the motor side connecting terminal is connected to the other end of the braided wire, wherein a flat plate-shaped long terminal is used as the motor side connecting terminal and the middle of the flat plate-shaped long terminal is covered with packing. an electric conductor which has an inverter side connecting terminal connected to an output terminal of an inverter attached to a motor case, a motor side connecting terminal connected to a power receiving terminal of the motor, and a braided wire, wherein the inverter side connecting terminal is connected to one end of the braided wire, and the motor side connecting terminal is connected to the other end of the braided wire, wherein a flat plate-shaped long terminal is used as the motor side connecting terminal and the middle of the flat plate-shaped long terminal is covered with packing.
A method of mapping a glint to a light source (107; 153), comprising: illuminating an object with patterns of a plurality of light sources (107; 153); capturing a plurality of images of the object at a camera (105; 134) while illuminating the object with corresponding ones of the patterns, wherein each of the light sources (107; 153) is off for at least one of the plurality of captured images and on for at least one of the plurality of captured images; analyzing glints (174, 176) in the plurality of captured images, including determining a minimum image for a first of the light sources (107; 153) that is a per-pixel minimum of all of the images for which the first light source (107; 153) is on, determining a maximum image for the first of the light sources (107; 153) that is a per-pixel maximum of all of the images for which the first light source (107; 153) is off, and computing a difference image for the first of the light sources (107; 153) that is a per-pixel unsigned saturated subtract operation of the maximum image for the first light source (107; 153) subtracted from the minimum image for the first light source (107; 153); and mapping a glint in the difference image for the first light source (107; 153) to the first light source (107; 153). illuminating an object with patterns of a plurality of light sources (107; 153); capturing a plurality of images of the object at a camera (105; 134) while illuminating the object with corresponding ones of the patterns, wherein each of the light sources (107; 153) is off for at least one of the plurality of captured images and on for at least one of the plurality of captured images; analyzing glints (174, 176) in the plurality of captured images, including determining a minimum image for a first of the light sources (107; 153) that is a per-pixel minimum of all of the images for which the first light source (107; 153) is on, determining a maximum image for the first of the light sources (107; 153) that is a per-pixel maximum of all of the images for which the first light source (107; 153) is off, and computing a difference image for the first of the light sources (107; 153) that is a per-pixel unsigned saturated subtract operation of the maximum image for the first light source (107; 153) subtracted from the minimum image for the first light source (107; 153); and mapping a glint in the difference image for the first light source (107; 153) to the first light source (107; 153).
Machine for manufacturing a plate designed to produce a wall or a floor, comprising: - a formwork designed to receive a material to be hardened, the formwork comprising a bottom extending in a first direction and in a second direction perpendicular to the first direction, and a side wall extending in a direction perpendicular to the bottom; - a frame mounted for translational movement along a translation axis relative to the formwork, the translation axis extending in a substantially horizontal direction intersecting the first direction; - a ruler arranged to partially cover the material to be hardened disposed in the formwork in a vertical direction and extending from one edge of the formwork to the other in the first direction, the ruler being mounted so as to be movable relative to the formwork along the axis of translation; - means for moving the ruler configured to move the ruler from one end to another end of the formwork along the translation axis and in a direction of movement; characterized in that the machine further comprises: - a vertical oscillation generator attached to the ruler and configured to apply at least one vertical reciprocating movement to the ruler and compress the overthickness of the material to be hardened protruding from the side wall, the vertical oscillation generator performing several vertical reciprocating movements during the movement of the ruler from one end to the other of the formwork along the axis of translation; and in that the ruler is mounted so as to be vertically movable relative to the frame and formwork. - a formwork designed to receive a material to be hardened, the formwork comprising a bottom extending in a first direction and in a second direction perpendicular to the first direction, and a side wall extending in a direction perpendicular to the bottom; - a frame mounted for translational movement along a translation axis relative to the formwork, the translation axis extending in a substantially horizontal direction intersecting the first direction; - a ruler arranged to partially cover the material to be hardened disposed in the formwork in a vertical direction and extending from one edge of the formwork to the other in the first direction, the ruler being mounted so as to be movable relative to the formwork along the axis of translation; - means for moving the ruler configured to move the ruler from one end to another end of the formwork along the translation axis and in a direction of movement; - a vertical oscillation generator attached to the ruler and configured to apply at least one vertical reciprocating movement to the ruler and compress the overthickness of the material to be hardened protruding from the side wall, the vertical oscillation generator performing several vertical reciprocating movements during the movement of the ruler from one end to the other of the formwork along the axis of translation;
A method of improving solubility of an alkaline protease in a liquid detergent, the method comprising, in an alkaline protease consisting of an amino acid sequence represented by SEQ ID No: 2 or an amino acid sequence having 80% or more identity therewith, substituting at least one amino acid residue selected from the group consisting of the amino acid residues at positions described in column (i) of Tables 1-1 and 1-2 of the amino acid sequence represented by SEQ ID No: 2 or the positions corresponding thereto, with an amino acid residue described in column (ii) of Tables 1-1 and 1-2. [Table 1-1] (i) Position (ii) Amino acid residue 405 leucine, tryptophan, phenylalanine, isoleucine, proline or valine 81 leucine, proline, tyrosine, tryptophan, phenylalanine, isoleucine or glutamine 40 isoleucine, phenylalanine, leucine, valine or tryptophan 191 leucine, valine, phenylalanine, isoleucine or tryptophan 59 valine, isoleucine, leucine, phenylalanine, methionine or tryptophan 11 glycine, asparagine or serine 16 isoleucine, leucine, valine or tryptophan 20 alanine 22 tryptophan 23 asparagine 37 threonine 41 isoleucine 52 glycine or serine 53 alanine, isoleucine or valine 56 valine 60 phenylalanine, isoleucine, leucine, valine or tryptophan 63 aspartic acid or leucine 80 alanine or histidine 82 glutamine 91 cysteine 100 phenylalanine, isoleucine, leucine or tryptophan 101 phenylalanine, isoleucine, leucine, valine, tryptophan or tyrosine 109 phenylalanine, isoleucine or leucine 113 leucine or tryptophan 120 phenylalanine, isoleucine, tryptophan or tyrosine 135 leucine 140 phenylalanine, leucine or tryptophan 151 phenylalanine 166 phenylalanine, isoleucine, leucine, valine or tryptophan 194 tyrosine 200 tryptophan 204 isoleucine, leucine, valine or methionine 212 leucine, valine or tryptophan [Table 1-2] (i) Position (ii) Amino acid residue 233 isoleucine, leucine or tryptophan 238 leucine 243 isoleucine, leucine or tyrosine 246 phenylalanine, leucine, valine, tryptophan or tyrosine 275 phenylalanine, leucine or tryptophan 277 phenylalanine, isoleucine, leucine or valine 297 phenylalanine, leucine or tryptophan 326 tryptophan 330 phenylalanine, methionine or tryptophan 332 glycine, threonine, or valine 334 leucine 342 glutamic acid, leucine, threonine or tryptophan 343 threonine 357 leucine 359 phenylalanine, isoleucine, leucine or glycine 361 isoleucine, valine or tryptophan 376 tryptophan 378 leucine or tryptophan 385 methionine, proline or tyrosine 386 alanine, isoleucine, leucine or methionine 387 phenylalanine, glycine, isoleucine, leucine, methionine, valine or tryptophan 390 phenylalanine, glycine, serine, threonine or tyrosine 393 glutamine 396 glycine 403 lysine or threonine 406 phenylalanine, valine or tryptophan 407 cysteine or glycine 408 isoleucine, asparagine, tryptophan or tyrosine 409 tryptophan or tyrosine 411 alanine, leucine, proline or valine 427 valine 433 leucine
A method for acquiring a user location, characterized by comprising: when it is required to acquire a current user location, a Location Service Client, LSC, transmitting (501-502, 606- 607a/607b, 706-707) a location service request carrying a user bearer identifier of user to a Bearer Mapping Function, BMF, through a Gateway Mobile Location Centre, GMLC, wherein the user bearer identifier is an IP address; and after receiving the location service request, the BMF searching (503, 608a, 608b 708) for a corresponding Interworking Packet Access Gateway, iPAG, according to the user bearer identifier, and after obtaining user location information from the iPAG, the BMF returning the user location information to the LSC through the GMLC or instructing the GMLC to obtain the user location information from the iPAG; wherein after receiving the location service request, the iPAG searches (609a, 610b, 709) whether there is the user location information stored locally, and if yes, the iPAG returns (610a, 611b, 710) the user location information to the BMF or GMLC, and if no, the iPAG acquires the current user location information from an Access Control Function, ACF, and returns (806 - 807) the current user location information to the BMF or GMLC. when it is required to acquire a current user location, a Location Service Client, LSC, transmitting (501-502, 606- 607a/607b, 706-707) a location service request carrying a user bearer identifier of user to a Bearer Mapping Function, BMF, through a Gateway Mobile Location Centre, GMLC, wherein the user bearer identifier is an IP address; and after receiving the location service request, the BMF searching (503, 608a, 608b 708) for a corresponding Interworking Packet Access Gateway, iPAG, according to the user bearer identifier, and after obtaining user location information from the iPAG, the BMF returning the user location information to the LSC through the GMLC or instructing the GMLC to obtain the user location information from the iPAG; wherein after receiving the location service request, the iPAG searches (609a, 610b, 709) whether there is the user location information stored locally, and if yes, the iPAG returns (610a, 611b, 710) the user location information to the BMF or GMLC, and if no, the iPAG acquires the current user location information from an Access Control Function, ACF, and returns (806 - 807) the current user location information to the BMF or GMLC.
A method of obtaining a monoclonal antibody which specifically binds to a predetermined tumor-associated antigen comprising: (a) subjecting a sample comprising memory B-cells from a patient who has undergone an active immunization with the tumor-associated antigen and who bears a tumor positive for the tumor-associated antigen and shows an at least partial clinical response or is symptom-free, to a specimen of tumor cells or tissue derived from a tumor patient or an animal model for a human tumor; (b) identifying in the sample the presence of an antibody which binds to said specimen but not to corresponding cells or tissues of a healthy subject; (c) purifying from the sample memory B-cells which produce an antibody which binds to said specimen but not to corresponding cells or tissue of the healthy subject; (d) obtaining the immunoglobulin gene repertoire encoding such antibodies from said memory B-cells; (i) obtaining mRNA from said memory B-cells; (ii) obtaining cDNA from the mRNA of step (i); and (iii) using a primer extension reaction to amplify from said cDNA the fragments corresponding to the heavy chains and the kappa light chains of said antibodies; (e) using said repertoire to express a monoclonal antibody; and (f) isolating the antibody which specifically binds to said specimen but not to cells or tissue of a healthy subject. (a) subjecting a sample comprising memory B-cells from a patient who has undergone an active immunization with the tumor-associated antigen and who bears a tumor positive for the tumor-associated antigen and shows an at least partial clinical response or is symptom-free, to a specimen of tumor cells or tissue derived from a tumor patient or an animal model for a human tumor; (b) identifying in the sample the presence of an antibody which binds to said specimen but not to corresponding cells or tissues of a healthy subject; (c) purifying from the sample memory B-cells which produce an antibody which binds to said specimen but not to corresponding cells or tissue of the healthy subject; (d) obtaining the immunoglobulin gene repertoire encoding such antibodies from said memory B-cells; (i) obtaining mRNA from said memory B-cells; (ii) obtaining cDNA from the mRNA of step (i); and (iii) using a primer extension reaction to amplify from said cDNA the fragments corresponding to the heavy chains and the kappa light chains of said antibodies; (i) obtaining mRNA from said memory B-cells; (ii) obtaining cDNA from the mRNA of step (i); and (iii) using a primer extension reaction to amplify from said cDNA the fragments corresponding to the heavy chains and the kappa light chains of said antibodies; (e) using said repertoire to express a monoclonal antibody; and (f) isolating the antibody which specifically binds to said specimen but not to cells or tissue of a healthy subject.
A medical graft product, comprising: a collagenous extracellular matrix material prepared from a source tissue for the extracellular matrix, wherein said extracellular matrix material comprises submucosa, said extracellular matrix material treated with a mono-carboxylic acid having from four to twelve carbon atoms to increase resistance of the extracellular matrix material to degradation caused by one or more enzymes. a collagenous extracellular matrix material prepared from a source tissue for the extracellular matrix, wherein said extracellular matrix material comprises submucosa, said extracellular matrix material treated with a mono-carboxylic acid having from four to twelve carbon atoms to increase resistance of the extracellular matrix material to degradation caused by one or more enzymes.
A method, comprising: detecting at a stationary router that a backhaul link providing connection between the stationary router and a destination has become disconnected; in response to detecting the disconnected backhaul link, locating a first traveling mobile device traveling in a direction of the destination and sending a message to the first traveling mobile device, to cause the message to be stored and transported to a remote stationary router by the travelling mobile device from where the message can be sent toward the destination via the remote stationary router; receiving an acknowledgement from the remote stationary router via a second traveling mobile device traveling in a direction substantially opposite to the direction of travel of the first traveling mobile device; and in response to receiving the acknowledgment from the remote stationary router via the second traveling mobile device, ceasing to send copies of the message to other traveling mobile devices. detecting at a stationary router that a backhaul link providing connection between the stationary router and a destination has become disconnected; in response to detecting the disconnected backhaul link, locating a first traveling mobile device traveling in a direction of the destination and sending a message to the first traveling mobile device, to cause the message to be stored and transported to a remote stationary router by the travelling mobile device from where the message can be sent toward the destination via the remote stationary router; receiving an acknowledgement from the remote stationary router via a second traveling mobile device traveling in a direction substantially opposite to the direction of travel of the first traveling mobile device; and in response to receiving the acknowledgment from the remote stationary router via the second traveling mobile device, ceasing to send copies of the message to other traveling mobile devices.
A posterior vertebral plating system, comprising: a plate for positioning along the posterior side of at least two vertebrae adjacent at least one lateral mass of each of the vertebra, and having an upper surface, a lower surface, and a plurality of holes extending through the plate from the upper surface to the lower surface and arranged in at least two longitudinal rows of holes so that a first plurality of holes can be positioned over the lateral mass of a first vertebra to define a plurality of fixation points to the first vertebra and a second plurality of holes can be positioned over the lateral mass of a second vertebra to define a plurality of fixation points to the second vertebra, and a plurality of attachment members for insertion through the holes of the plate and into the lateral mass of a corresponding vertebra to fix the plate to the vertebra, in which each of the holes has an axis, and the surfaces which define each of the holes each have a plurality of columns of threads which are spaced apart to define a plurality of non-threaded recesses within the holes between the columns of threads, characterised in that at least one of the columns of threads of one of a pair of laterally adjacent holes intersects a line which extends between the axes of the holes of the said pair of laterally adjacent holes. a plate for positioning along the posterior side of at least two vertebrae adjacent at least one lateral mass of each of the vertebra, and having an upper surface, a lower surface, and a plurality of holes extending through the plate from the upper surface to the lower surface and arranged in at least two longitudinal rows of holes so that a first plurality of holes can be positioned over the lateral mass of a first vertebra to define a plurality of fixation points to the first vertebra and a second plurality of holes can be positioned over the lateral mass of a second vertebra to define a plurality of fixation points to the second vertebra, and a plurality of attachment members for insertion through the holes of the plate and into the lateral mass of a corresponding vertebra to fix the plate to the vertebra, in which each of the holes has an axis, and the surfaces which define each of the holes each have a plurality of columns of threads which are spaced apart to define a plurality of non-threaded recesses within the holes between the columns of threads, characterised in that at least one of the columns of threads of one of a pair of laterally adjacent holes intersects a line which extends between the axes of the holes of the said pair of laterally adjacent holes.