mhurhangee/patent-ind-claim-en huggingface dataset:
Axle link for a vehicle axle, which is composed of a front link portion in the direction of travel and a rear link portion in the direction of travel, the link portions being provided with support surfaces formed integrally thereon for support against a rotary axle body of the vehicle axle and being connected to one another by tension elements , characterized in that the support surface of the front link portion is divided into individual shells having a shell contour curved in the axle circumferential direction, and a support surface-free circumferential portion is located between the shells , and in that the support surface of the rear link portion is also divided into individual shells having a shell contour curved in the axle circumferential direction, and a support surface-free circumferential portion is located between the shells .
A system comprising an automated analyzer that has a light source (31; 41), a cell configured to contain a reaction solution , and a detector (34; 45) that is adapted to detect light (32; 43) which in use radiates from the light source (31; 41) to the cell and is scattered by the reaction solution in the cell , characterized in that the system further comprises a standard solution for evaluating a scattered light measuring optical system of the automated analyzer, wherein the standard solution comprises an insoluble carrier at a concentration at which transmittance is in a range of 10% to 50% at an optical length of 5 mm in the cell , when the light source (31; 41) emits a radiation light having a wavelength of 700 nm and the standard solution is dispensed to the cell , wherein the insoluble carrier is a latex particle having a grain size of 250 nm to 350 nm, and the solvent in the standard solution is a glycerin aqueous solution containing 15% to 25% by weight of glycerin. characterized in that the system further comprises a standard solution for evaluating a scattered light measuring optical system of the automated analyzer, wherein the standard solution comprises an insoluble carrier at a concentration at which transmittance is in a range of 10% to 50% at an optical length of 5 mm in the cell , when the light source (31; 41) emits a radiation light having a wavelength of 700 nm and the standard solution is dispensed to the cell , wherein the insoluble carrier is a latex particle having a grain size of 250 nm to 350 nm, and the solvent in the standard solution is a glycerin aqueous solution containing 15% to 25% by weight of glycerin.
A second stage tire building drum, the drum comprising: a first and second hub , wherein each hub is mounted on a central shaft of the second stage tire building drum ; wherein each hub has a bead receiving mechanism mounted on each hub; characterized in that at least one of said hubs is configured for unconstrained axial movement on the central shaft . a first and second hub , wherein each hub is mounted on a central shaft of the second stage tire building drum ; wherein each hub has a bead receiving mechanism mounted on each hub; characterized in that at least one of said hubs is configured for unconstrained axial movement on the central shaft .
A sealant material for sealing joints between male and female mating parts comprising: an elongate flexible thread suitable for wrapping around at least one of the parts, and a joint sealing composition comprising an anaerobically curable composition in solid form, the flexible thread being coated with the anaerobically curable composition, wherein the anaerobically curable composition has a melting point in the range from 30°C to 100°C and comprises: an anaerobically curable component; and a curing component for curing the anaerobically curable component. an elongate flexible thread suitable for wrapping around at least one of the parts, and a joint sealing composition comprising an anaerobically curable composition in solid form, the flexible thread being coated with the anaerobically curable composition, wherein the anaerobically curable composition has a melting point in the range from 30°C to 100°C and comprises: an anaerobically curable component; and a curing component for curing the anaerobically curable component. an anaerobically curable component; and a curing component for curing the anaerobically curable component.
An airflow-direction adjustment device for a vehicle, comprising a housing including a blowout port , and a louver turnably supported on an inner side of the housing , wherein the louver can open and close the blowout port , and varies a flow amount or a flow direction of air flowing through the blowout port by a degree of opening and closing, said airflow-direction adjustment device comprising a plate attached to an inner side of the housing and provided with a shaft hole engaging and pivotally supporting a support shaft of the louver , and a control device elastically locking the louver in a fully closed position, characterized in that the plate is mounted relative to cavity portion on the housing side in a state wherein corresponding cylinder portions are fitted into respective attachment holes , provided on the cavity portion , and an engagement claw of an engagement piece portion protruded on a rear face of the plate is engaged with an attachment hole provided on the cavity portion and retained, wherein the plate is provided with a concaved portion wherein one portion of the rear face has a cavity shape; the shaft hole on one end side; a shaft hole on the other end side; said cylinder portions protruding on the rear face and passing through the shaft holes on the same shaft lines; a thin plate portion thinned by a cavity of the concaved portion ; a pair of slits passed through the thin plate portion in parallel; a plate portion positioned between the slits to be capable of oscillating and being displaced; a projection protruding at one portion of the plate portion .
Backing arrangement for supporting a welded seam extending on a curved path which is formed between two curved work pieces by friction stir welding with a welding tool separate from the backing arrangement , which backing arrangement comprises: a backing body which is intended to bear upon the work pieces opposite a welding tool separate from the backing arrangement, to assume at least a part of a compression force that is exerted by the welding tool against the work pieces to keep material of the work pieces plasticized during a welding operation in an area of the welded seam, and a machine base to hold the backing body , wherein the backing body is equipped with a shoulder having a bottom surface configured to bear on the work pieces, the backing arrangement comprises a driving mechanism that is situated to rotate and/or oscillate the shoulder so that the bottom surface of the shoulder can thereby be made to carry out a rotating and/or oscillating motion against the work pieces for creating frictional heat in them, and the backing body is fixed at an outer end of a carrier arm included in the machine base , the machine base comprising an elongated carrier element and a support arm , said backing arrangement being characterized in that the carrier arm and the support arm are supported by the carrier element and are pivotable relative to the carrier element between a retracted position, in which the carrier arm and the support arm extend in a longitudinal direction of the carrier element , and a deployed position, in which the carrier arm and the support arm extend perpendicular to the longitudinal direction of the carrier element . a backing body which is intended to bear upon the work pieces opposite a welding tool separate from the backing arrangement, to assume at least a part of a compression force that is exerted by the welding tool against the work pieces to keep material of the work pieces plasticized during a welding operation in an area of the welded seam, and a machine base to hold the backing body , wherein the backing body is equipped with a shoulder having a bottom surface configured to bear on the work pieces, the backing arrangement comprises a driving mechanism that is situated to rotate and/or oscillate the shoulder so that the bottom surface of the shoulder can thereby be made to carry out a rotating and/or oscillating motion against the work pieces for creating frictional heat in them, and the backing body is fixed at an outer end of a carrier arm included in the machine base , the machine base comprising an elongated carrier element and a support arm , said backing arrangement being characterized in that the carrier arm and the support arm are supported by the carrier element and are pivotable relative to the carrier element between a retracted position, in which the carrier arm and the support arm extend in a longitudinal direction of the carrier element , and a deployed position, in which the carrier arm and the support arm extend perpendicular to the longitudinal direction of the carrier element .
A control module for a hydraulic system, the module comprising: a tank configured to store hydraulic fluid and being substantially cylindrical; a plurality of valves fluidly connected to the tank and configured to control distribution of hydraulic fluid from the tank to one or more components of the system, wherein the plurality of valves are spaced around a circumference of the tank ; and one or more passages fluidly connecting the tank with at least one of the plurality of valves and/or a first of the plurality of valves with a second of the plurality of valves, characterised in that the one or more passages are one or more circumferential passages extending at least partly in a circumferential direction around the circumference of the tank . a tank configured to store hydraulic fluid and being substantially cylindrical; a plurality of valves fluidly connected to the tank and configured to control distribution of hydraulic fluid from the tank to one or more components of the system, wherein the plurality of valves are spaced around a circumference of the tank ; and one or more passages fluidly connecting the tank with at least one of the plurality of valves and/or a first of the plurality of valves with a second of the plurality of valves, characterised in that the one or more passages are one or more circumferential passages extending at least partly in a circumferential direction around the circumference of the tank .
A millimeter wave security inspection apparatus , comprising: a door device comprising a first door and a second door facing each other, each of the first door and the second door being made of a material allowing a millimeter wave to penetrate there through; a millimeter wave transceiver provided between the first door and the second door and comprising an millimeter wave transceiving antenna array configured to transmit a millimeter wave signal to an entrance side and an exit side of the door device, respectively, and to receive the millimeter wave signal reflected from the entrance side and the exit side of the door device, respectively; and characterized in that the apparatus comprises further a linear driver , the millimeter wave transceiver being connected to the linear driver to be movable in a space between the first door and the second door relative to the door device under driving of the linear driver, so as to scan a first side of an object to be inspected in a state where the object is positioned at the entrance side and to a second side of the object opposite to the first side in a state where the object is positioned at the exit side. a door device comprising a first door and a second door facing each other, each of the first door and the second door being made of a material allowing a millimeter wave to penetrate there through; a millimeter wave transceiver provided between the first door and the second door and comprising an millimeter wave transceiving antenna array configured to transmit a millimeter wave signal to an entrance side and an exit side of the door device, respectively, and to receive the millimeter wave signal reflected from the entrance side and the exit side of the door device, respectively; and characterized in that the apparatus comprises further a linear driver , the millimeter wave transceiver being connected to the linear driver to be movable in a space between the first door and the second door relative to the door device under driving of the linear driver, so as to scan a first side of an object to be inspected in a state where the object is positioned at the entrance side and to a second side of the object opposite to the first side in a state where the object is positioned at the exit side.
A method for identifying a cancer as likely to respond to an anti-Folate receptor 1 (FOLR1) immunoconjugate, the method comprising: (a) contacting a biological sample comprising cells from the cancer with a detection antibody or antigen binding fragment thereof that specifically binds FOLR1; (b) detecting binding of the detection antibody or antigen binding fragment thereof to the biological sample of step (a) using a detection method; (c) assigning a score to the binding of step (b), wherein the score is assigned based on comparison to one or more reference samples; and (d) comparing the score in step (c) to the score of one or more reference samples, wherein a score for the cancer FOLR1 level that is greater than the score for a normal or low FOLR1 expressing reference sample or a score for the cancer FOLR1 level that is equal to or greater than the score for a high FOLR1 expressing reference sample identifies the cancer as likely to respond to the anti-FOLR1 immunoconjugate, wherein the anti-FOLR1 immunoconjugate comprises an anti-FOLR1 antibody, a linker, and a cytotoxic agent, wherein the anti-FOLR1 antibody of the anti-FOLR1 immunoconjugate comprises: (i) a heavy chain variable domain comprising the amino acid sequence of SEQ ID NO: 3 (huMovl9 vHC) and a light chain variable domain comprising the amino acid sequence of SEQ ID NO: 4 (huMov19 vLCv1.00) or (ii) a heavy chain variable domain comprising the amino acid sequence of SEQ ID NO: 3 (huMov19 vHC) and a light chain variable domain comprising the amino acid sequence of SEQ ID NO: 5 (huMov19 vLCv1.60). (a) contacting a biological sample comprising cells from the cancer with a detection antibody or antigen binding fragment thereof that specifically binds FOLR1; (b) detecting binding of the detection antibody or antigen binding fragment thereof to the biological sample of step (a) using a detection method; (c) assigning a score to the binding of step (b), wherein the score is assigned based on comparison to one or more reference samples; and (d) comparing the score in step (c) to the score of one or more reference samples, wherein a score for the cancer FOLR1 level that is greater than the score for a normal or low FOLR1 expressing reference sample or a score for the cancer FOLR1 level that is equal to or greater than the score for a high FOLR1 expressing reference sample identifies the cancer as likely to respond to the anti-FOLR1 immunoconjugate, (i) a heavy chain variable domain comprising the amino acid sequence of SEQ ID NO: 3 (huMovl9 vHC) and a light chain variable domain comprising the amino acid sequence of SEQ ID NO: 4 (huMov19 vLCv1.00) or (ii) a heavy chain variable domain comprising the amino acid sequence of SEQ ID NO: 3 (huMov19 vHC) and a light chain variable domain comprising the amino acid sequence of SEQ ID NO: 5 (huMov19 vLCv1.60).
A mail detection device, comprising a broad-band terahertz generator , a collimator , a beam splitter , a fixed reflector , a movable reflector , a wave buncher , a matrix detector , an acquisition card and an information processing module ; wherein, the broad-band terahertz generator is configured to generate and send initial broad-band terahertz waves ; the collimator is configured to collimate the initial terahertz waves to form parallel terahertz waves; the beam splitter is configured to split the parallel terahertz waves into two beams, namely a first terahertz wave and a second terahertz wave; the fixed reflector , position fixed, is configured to reflect the first terahertz wave to form a first reflective terahertz wave; the movable reflector , capable of moving to different positions, is configured to reflect the second terahertz wave to form a second reflective terahertz wave; the wave buncher is configured to bunch the first reflective terahertz wave and the second reflective terahertz wave to the matrix detector , wherein when the movable reflector moves and the first reflective terahertz wave and the second reflective terahertz wave form interference terahertz waves, the interference terahertz waves are bunched to the matrix detector ; the matrix detector is configured to detect intensity signals of the terahertz waves, convert the intensity signals of the terahertz waves into electric signals, and send the electric signals to the acquisition card ; the acquisition card is configured to acquire the electric signals sent by the matrix detector and transmit the electric signals to the information processing module ; the information processing module is configured to generate a terahertz image of a mail to be detected according to the electric signals sent by the acquisition card when the movable reflector is motionless; and when finding suspicious articles according to the terahertz image of a mail to be detected, the information processing module controls the movable reflector to move, and generates spectral information of the suspicious articles according to an electric signal sequence sent by the acquisition card during the movement of the movable reflector ; wherein the mail detection device further comprises a conveyor for conveying mail to be detected, wherein the conveyor is positioned behind the collimator so that the parallel terahertz waves irradiate on the mail to be detected.
A video coding method, comprising: for a reference image stored in a spherical projection format having a first view at a first location within the reference image, generating a padded reference image in which all image data of the first view is placed at the first location within the padded reference image and all image data of the first view is duplicated along its long edge and flipped over a short edge of the padded reference image and placed at a second location within the padded reference image adjacent to the first location and sharing the long edge with the first location such that the short edge of the reference image data at the first location is aligned with a short edge of the duplicated reference image data at the second location , for a pixel block of an input image to be coded, searching for a prediction match between the input image and content of the padded reference image, the search including the image data placed at the first location and the second location, when a match occurs, coding the pixel block differentially with respect to matching data from the padded reference image. for a reference image stored in a spherical projection format having a first view at a first location within the reference image, generating a padded reference image in which all image data of the first view is placed at the first location within the padded reference image and all image data of the first view is duplicated along its long edge and flipped over a short edge of the padded reference image and placed at a second location within the padded reference image adjacent to the first location and sharing the long edge with the first location such that the short edge of the reference image data at the first location is aligned with a short edge of the duplicated reference image data at the second location , for a pixel block of an input image to be coded, searching for a prediction match between the input image and content of the padded reference image, the search including the image data placed at the first location and the second location, when a match occurs, coding the pixel block differentially with respect to matching data from the padded reference image.
A two-stage process for the production of a solvent using an acid- and solvent-producing micro-organism, comprising the steps: (i) culturing the micro-organism under acidogenic conditions in a liquid medium in a first culture vessel, wherein the pH of the liquid medium in the first culture vessel is controlled by a pH auxostat, and wherein the flow rate of fresh media which is introduced into the first culture vessel is also controlled by a pH auxostat; (ii) transferring a portion of the liquid medium from the first culture vessel to a second culture vessel or series of linked culture vessels; and (iii) culturing the same micro-organism under solventogenic conditions in the second culture vessel(s) for a time which is sufficient for solvent to be produced, and isolating one or more solvents which are produced in the second culture vessel(s). (i) culturing the micro-organism under acidogenic conditions in a liquid medium in a first culture vessel, wherein the pH of the liquid medium in the first culture vessel is controlled by a pH auxostat, and wherein the flow rate of fresh media which is introduced into the first culture vessel is also controlled by a pH auxostat; (ii) transferring a portion of the liquid medium from the first culture vessel to a second culture vessel or series of linked culture vessels; and (iii) culturing the same micro-organism under solventogenic conditions in the second culture vessel(s) for a time which is sufficient for solvent to be produced,
A process comprising: A) contacting an aqueous feedstock comprising one or more C 5 and/or C 6 sugars with an acid catalyst in the presence of a water-immiscible organic solvent at a temperature in the range of from 90°C to 250°C to form a furan derivative and a residual aqueous feedstock; B) separating the residual aqueous feedstock from the water immiscible organic solvent; C) optionally, isolating the furan derivative from the water-immiscible organic solvent; and D) optionally, removing residual water or impurities from the water-immiscible organic solvent; wherein the water-immiscible organic solvent comprises a mixture of at least one alkyl phenol and at least one alkylated naphthalene. A) contacting an aqueous feedstock comprising one or more C 5 and/or C 6 sugars with an acid catalyst in the presence of a water-immiscible organic solvent at a temperature in the range of from 90°C to 250°C to form a furan derivative and a residual aqueous feedstock; B) separating the residual aqueous feedstock from the water immiscible organic solvent; C) optionally, isolating the furan derivative from the water-immiscible organic solvent; and D) optionally, removing residual water or impurities from the water-immiscible organic solvent; wherein the water-immiscible organic solvent comprises a mixture of at least one alkyl phenol and at least one alkylated naphthalene.