mhurhangee/ep-ind-claims huggingface dataset:
A left-and-right door opening mechanism, comprising a locking box assembly disposed on a refrigerator body and a hinge module disposed on a refrigerator door body, wherein the hinge module comprises a first hinge and a second hinge which are respectively located on two sides of the refrigerator door body; the locking box assembly comprises a locking box body (11, 12) and a locking plate located in the locking box body (11, 12); a first opening (111, 121) and a second opening (112, 122) are respectively formed in the left side and the right side of the locking box body (11, 12); a first groove and a second groove are respectively formed in the left side and the right side of the locking plate; a distance between the first groove and the second groove is smaller than that between the first opening (111, 121) and the second opening (112, 122); the locking plate moves left and right in the locking box body to align the first opening (111, 121) with the first groove or to align the second opening (112, 122) with the second groove; and the first hinge or the second hinge is disengaged from the first opening (111, 121) and the first groove or from the second opening (112, 122) and the second groove to realize door opening from the left side or the right side, characterized in that, the locking plate comprises a locking plate main body portion, as well as a first locking plate bent portion and a second locking plate bent portion which are respectively located on two sides of the locking plate main body portion; the first groove is located between the locking plate main body portion and the first locking plate bent portion; the second groove is located between the locking plate main body portion and the second locking plate bent portion; and at least one of the first locking plate bent portion and the second locking plate bent portion covers part of the first opening (111, 121) or the second opening (112, 122), so that at least one of the first hinge and the second hinge is clamped with and secured to the locking box body (11, 12).
Electrical machine with a machine housing enclosing a machine interior space and with a flanged bearing shield as well as with a transmission coupled to the machine housing, - wherein the flanged bearing shield has a shaft passage for a machine shaft and the machine interior space is located below the shaft passage, - wherein the machine shaft is vertically aligned, - wherein a leakage space is provided in the flanged bearing shield in the region of the shaft passage, said leakage space communicating with at least one outlet opening, wherein the outlet opening discharges any leakage occurring in the region of the interface between the machine housing and the gearbox, and - wherein the machine shaft carries a shaft-fixed ring disc arranged within the leakage space, which ring disc is provided and designed to force liquid running along the machine shaft from the shaft passage into the leakage space during rotary operation of the machine shaft, - wherein the outlet opening is arranged below the ring disc in the longitudinal direction of the machine shaft, - wherein the ring disc has an outer ring made of a non-resilient material, characterized in - that the ring disc has an elastic inner ring held by the outer ring, and - that the ring disc is designed and arranged on the machine shaft in such a way that the elastic inner ring, with its outer ring edge facing away from the machine shaft, bears against a housing contour within the leakage space in case of a stationary machine and lifts off from the housing contour during rotary operation of the machine shaft. - wherein the flanged bearing shield has a shaft passage for a machine shaft and the machine interior space is located below the shaft passage, - wherein the machine shaft is vertically aligned, - wherein a leakage space is provided in the flanged bearing shield in the region of the shaft passage, said leakage space communicating with at least one outlet opening, wherein the outlet opening discharges any leakage occurring in the region of the interface between the machine housing and the gearbox, and - wherein the machine shaft carries a shaft-fixed ring disc arranged within the leakage space, which ring disc is provided and designed to force liquid running along the machine shaft from the shaft passage into the leakage space during rotary operation of the machine shaft, - wherein the outlet opening is arranged below the ring disc in the longitudinal direction of the machine shaft, - wherein the ring disc has an outer ring made of a non-resilient material, characterized in - that the ring disc has an elastic inner ring held by the outer ring, and - that the ring disc is designed and arranged on the machine shaft in such a way that the elastic inner ring, with its outer ring edge facing away from the machine shaft, bears against a housing contour within the leakage space in case of a stationary machine and lifts off from the housing contour during rotary operation of the machine shaft.
An isolated antibody having specificity for the extracellular domain of human receptor tyrosine kinase-like orphan receptor 1, comprising three CDRs of a light chain and three CDRs of a heavy chain, and wherein the six CDRs are selected from the group consisting of: (a) SEQ ID NOs: 31-33 and SEQ ID NOs: 40-42; (b) SEQ ID NOs: 34-36 and SEQ ID NOs: 43-45; and (c) SEQ ID NOs: 37-39 and SEQ ID NOs: 46-48. (a) SEQ ID NOs: 31-33 and SEQ ID NOs: 40-42; (b) SEQ ID NOs: 34-36 and SEQ ID NOs: 43-45; and (c) SEQ ID NOs: 37-39 and SEQ ID NOs: 46-48.
A surgical instrument comprising: a shaft extending axially between a proximal end and a distal end and defining a central lumen, the central lumen configured for applying suction to tissue; and an ultrasonic tip coupled to the distal end of the shaft and including a head portion extending axially along an axial axis to a distal end, wherein the ultrasonic tip has a cutting edge with a positive rake angle relative to the axial axis, said cutting edge configured to cut tissue, wherein the head portion includes a plurality of teeth and a plurality of slots separating the teeth, wherein the slots are at an offset angle to the axial axis. a shaft extending axially between a proximal end and a distal end and defining a central lumen, the central lumen configured for applying suction to tissue; and an ultrasonic tip coupled to the distal end of the shaft and including a head portion extending axially along an axial axis to a distal end, wherein the ultrasonic tip has a cutting edge with a positive rake angle relative to the axial axis, said cutting edge configured to cut tissue, wherein the head portion includes a plurality of teeth and a plurality of slots separating the teeth, wherein the slots are at an offset angle to the axial axis.
A coated detergent particle having perpendicular dimensions x, y and z, wherein x is from 1 to 2 mm, y is from 2 to 8mm, and z is from 2 to 8 mm, wherein the particle comprises: (i) from 40 to 90 wt % surfactant selected from: anionic surfactant; and, non-ionic surfactant; (ii) from 1 to 40 wt % water soluble inorganic salts; and, (iii) from 0.0001 to 0.1 wt % dye, wherein the dye is covalently bound to from 1 to 4 sulphonate groups, wherein the inorganic salts and the dye are present on the detergent particle as a coating and the surfactant is present as a core. (i) from 40 to 90 wt % surfactant selected from: anionic surfactant; and, non-ionic surfactant; (ii) from 1 to 40 wt % water soluble inorganic salts; and, (iii) from 0.0001 to 0.1 wt % dye, wherein the dye is covalently bound to from 1 to 4 sulphonate groups,
Method for controlling preparative liquid chromatography, comprising the following steps, at least a part of said steps being implemented by a computer comprising a processor and a display screen coupled to said processor: (a) selecting, by means of an interface, an analytical liquid chromatography method from among thin layer chromatography and high performance liquid chromatography (HPLC), (b) inputting analytical liquid chromatography data obtained by the method selected at step (a) for a product to be purified, (c) accessing a table of separating tools available to the user to implement said preparative liquid chromatography, said tools being columns, cartridges, or other chromatography means comprising a stationary phase, (d) from said analytical liquid chromatography data and table of available separating tools, selecting an optimal separating tool from said table and computing preparative liquid chromatography operating conditions for said selected separating tool. (a) selecting, by means of an interface, an analytical liquid chromatography method from among thin layer chromatography and high performance liquid chromatography (HPLC), (b) inputting analytical liquid chromatography data obtained by the method selected at step (a) for a product to be purified, (c) accessing a table of separating tools available to the user to implement said preparative liquid chromatography, said tools being columns, cartridges, or other chromatography means comprising a stationary phase, (d) from said analytical liquid chromatography data and table of available separating tools, selecting an optimal separating tool from said table and computing preparative liquid chromatography operating conditions for said selected separating tool.
A method for forming an oxidation protection system on a carbon-carbon composite structure, comprising: applying a ceramic layer slurry to the carbon-carbon composite structure, wherein the ceramic layer slurry comprises aluminum and silicon in a solvent or carrier fluid; heating the carbon-carbon composite structure to form a ceramic layer on the carbon-carbon composite structure, wherein the ceramic layer comprises aluminum nitride; applying a sealing slurry to the carbon-carbon composite structure, wherein the sealing slurry comprises a sealing pre-slurry composition and a sealing carrier fluid, wherein the sealing pre-slurry composition comprises a sealing phosphate glass composition; and heating the carbon-carbon composite structure to form a sealing layer on the carbon-carbon composite structure. applying a ceramic layer slurry to the carbon-carbon composite structure, wherein the ceramic layer slurry comprises aluminum and silicon in a solvent or carrier fluid; heating the carbon-carbon composite structure to form a ceramic layer on the carbon-carbon composite structure, wherein the ceramic layer comprises aluminum nitride; applying a sealing slurry to the carbon-carbon composite structure, wherein the sealing slurry comprises a sealing pre-slurry composition and a sealing carrier fluid, wherein the sealing pre-slurry composition comprises a sealing phosphate glass composition; and heating the carbon-carbon composite structure to form a sealing layer on the carbon-carbon composite structure.
A liquid transdermal preparation comprising an effective amount of meloxicam or a pharmacologically acceptable salt thereof in a pharmaceutically acceptable carrier system comprising at least one solvent, menthol and at least one dermal penetration enhancer selected from propylene glycol dicaprylate/dicaprate, and/or xylene, and/or D-limonene and/or isopropyl myrstiate and or mixtures thereof for use in the treatment of a systemic inflammatory condition in a bovine animal.
A casing (21a, 21b, 21r, 22a, 22r) for an automotive motor drive unit and comprising a breather structure, the casing comprising: a motor portion comprising an internal space of a motor chamber defined by the casing (21a,21b,21r,22a,22r) for accomodating a motor, a speed reduction portion and a wheel hub bearing portion; a breather passage provided in the casing (21a, 21b, 21r, 22a, 22r) that forms an outer shape of the automotive motor drive unit; an entrance port provided at an inlet side of the breather passage, the entrance port connecting with the internal space of the motor chamber; an exit port provided at an outlet side of the breather passage, the exit port connecting with a space outside the casing (21a, 21b, 21r, 22a, 22r) and characterized in that an obstacle standing to form an inner wall of the breather passage, the obstacle archiving a zigzag structure of the breather passage and preventing lubrication oil in the internal space of the motor chamber from proceeding straight ahead via the entrance port toward the exit port.
A method of determining deformation in a structure around which at least one sensing optical fiber is helically wound, the method comprising the steps of: (a) performing a distributed measurement at a point along the at least one sensing optical fiber, to obtain a frequency gain spectrum at that point, wherein the step of performing a distributed measurement comprises, adjusting a pulse width of a pulse pump signal so as to achieve a predefined spatial resolution for the detection of deformation, and providing the pulse pump signal with adjusted pulse width in the sensing optical fiber to generate scattering which is used to obtain said frequency gain spectrum, wherein said predefined spatial resolution for the detection of deformation is a value which is within the range between '(pitch of the helical wound sensing optical fiber) - (50% of the pitch of the helical wound sensing optical fiber)' and '(pitch of the helical wound sensing optical fiber) + (50% of the pitch of the helical wound sensing optical fiber)'; (b) identifying at least two curves which, when added together, best fit the frequency gain spectrum; (c) identifying the frequency at which peaks of the at least two curves occur; (d) determining deformation in the structure by determining deformation in the at least one sensing optical fiber, at said point at which the distributed measurement was performed, using a frequency at which a peak of an identified curve occurs, wherein the amount of deformation in the sensing optical fiber corresponds to the amount of deformation in the structure. (a) performing a distributed measurement at a point along the at least one sensing optical fiber, to obtain a frequency gain spectrum at that point, wherein the step of performing a distributed measurement comprises, adjusting a pulse width of a pulse pump signal so as to achieve a predefined spatial resolution for the detection of deformation, and providing the pulse pump signal with adjusted pulse width in the sensing optical fiber to generate scattering which is used to obtain said frequency gain spectrum, wherein said predefined spatial resolution for the detection of deformation is a value which is within the range between '(pitch of the helical wound sensing optical fiber) - (50% of the pitch of the helical wound sensing optical fiber)' and '(pitch of the helical wound sensing optical fiber) + (50% of the pitch of the helical wound sensing optical fiber)'; (b) identifying at least two curves which, when added together, best fit the frequency gain spectrum; (c) identifying the frequency at which peaks of the at least two curves occur; (d) determining deformation in the structure by determining deformation in the at least one sensing optical fiber, at said point at which the distributed measurement was performed, using a frequency at which a peak of an identified curve occurs, wherein the amount of deformation in the sensing optical fiber corresponds to the amount of deformation in the structure.
A removal device (20, 40, 50, 60, 70, 80, 110, 150, 160, 170), comprising: an elongated shaft part (21, 173); a main cutting body being an approximately cylindrical member having an outer diameter larger than that of the shaft part (21, 173); and a cutting part (25, 143) that is fixed to a distal portion of the shaft part (21, 173); wherein an end portion of the distal side of the main cutting body includes a distal surface and an outer peripheral portion that is positioned radially outward of the distal surface is subjected to curved surface processing and is smoothly connected to an outer peripheral surface of the main cutting body, wherein a proximal portion of the cutting part (25, 143) includes a ring-shaped cutting blade (26, 27, 72, 82), characterized in that a surface (24, 73, 142) on which the cutting blade (26, 27, 72, 82) is positioned is inclined relative to a center axis of the shaft part (21, 173) at an angle of less than 90 degrees, wherein a proximal portion of the main cutting body is obliquely cut. an elongated shaft part (21, 173); a main cutting body being an approximately cylindrical member having an outer diameter larger than that of the shaft part (21, 173); and a cutting part (25, 143) that is fixed to a distal portion of the shaft part (21, 173); wherein an end portion of the distal side of the main cutting body includes a distal surface and an outer peripheral portion that is positioned radially outward of the distal surface is subjected to curved surface processing and is smoothly connected to an outer peripheral surface of the main cutting body, wherein a proximal portion of the cutting part (25, 143) includes a ring-shaped cutting blade (26, 27, 72, 82), characterized in that a surface (24, 73, 142) on which the cutting blade (26, 27, 72, 82) is positioned is inclined relative to a center axis of the shaft part (21, 173) at an angle of less than 90 degrees, wherein a proximal portion of the main cutting body is obliquely cut.
An imaging system, comprising: a radiation source; a positioner configured to rotate the radiation source along an arc path at a rate R; an imager in operative position relative to the radiation source, wherein the radiation source and the imager are configured to obtain a plurality of images of a patient while the radiation source is at different positions along the arc path; and a processor configured to determine a digital tomosynthesis image using a subset (490a-490f) of the plurality of images; wherein: the processor is configured to receive a period T of a physiological motion of the patient and to determine a maximum rate of rotation by the radiation source, R MAX; wherein said arc path has an arc angle of from 2 degrees to 10 degrees; wherein T is between 3 and 15 seconds; wherein R MAX is equal to α / T, where α is an angular spacing between positions at which adjacent images of a subset (490a-490f) of the images that belong to a same bin are obtained, the images belonging to the same bin being images obtained at a predetermined phase range of physiological movement of the patient; and wherein R ≤ R MAX. a radiation source; a positioner configured to rotate the radiation source along an arc path at a rate R; an imager in operative position relative to the radiation source, wherein the radiation source and the imager are configured to obtain a plurality of images of a patient while the radiation source is at different positions along the arc path; and a processor configured to determine a digital tomosynthesis image using a subset (490a-490f) of the plurality of images; wherein: the processor is configured to receive a period T of a physiological motion of the patient and to determine a maximum rate of rotation by the radiation source, R MAX; wherein said arc path has an arc angle of from 2 degrees to 10 degrees; wherein T is between 3 and 15 seconds; wherein R MAX is equal to α / T, where α is an angular spacing between positions at which adjacent images of a subset (490a-490f) of the images that belong to a same bin are obtained, the images belonging to the same bin being images obtained at a predetermined phase range of physiological movement of the patient; and wherein R ≤ R MAX. the processor is configured to receive a period T of a physiological motion of the patient and to determine a maximum rate of rotation by the radiation source, R MAX; wherein said arc path has an arc angle of from 2 degrees to 10 degrees; wherein T is between 3 and 15 seconds; wherein R MAX is equal to α / T, where α is an angular spacing between positions at which adjacent images of a subset (490a-490f) of the images that belong to a same bin are obtained, the images belonging to the same bin being images obtained at a predetermined phase range of physiological movement of the patient; and wherein R ≤ R MAX.
A composition for printing electrodes on a substrate, comprising 70 to 90% by weight of electrically conductive particles having a mean particle size in the range from 3 nm to 100 μm, 0 to 7% by weight of glass frit, 0.1 to 5% by weight of at least one absorbent for laser radiation, 0 to 8% by weight of at least one matrix material, 0 to 8% by weight of at least one organometallic compound, 3 to 50% by weight of water as a solvent, 0 to 65% by weight of at least one retention aid and 0 to 5% by weight of at least one additive, based in each case on the total mass of the composition, wherein the retention aid is a retardant which slows the evaporation of the water, and the additives used are dispersants, thixotropic agents, plasticizers, wetting agents, defoamers, desiccants, crosslinkers, complexing agents and/or conductive polymer particles, and wherein the absorbents for laser radiation used are inorganic pigments, nanoparticles of silver, gold, platinum, palladium, tungsten, nickel, tin, iron, indium tin oxide, tungsten oxide, titanium carbide or titanium nitride, fine carbon types or fine lanthanum hexaboride.
A method of manufacturing a semiconductor device, comprising: providing a layer to be etched; forming a patterned first mask layer on the layer to be etched; forming a patterned second mask layer on the layer to be etched, the second mask layer and the first mask layer jointly defining openings to expose the layer to be etched; etching the layer to be etched using the first mask layer and the second mask layer as masks so as to form a pattern to be etched; wherein the first mask layer comprises a plurality of first strip masks disposed parallel to each other, and the second mask layer comprises a plurality of second strip masks disposed parallel to each other, wherein the plurality of first strip masks and the plurality of second strip masks are alternately disposed in parallel; wherein at least one side of the first strip mask comprises recesses that are arranged at equal intervals, and at least one side of the second strip mask comprises recesses that are arranged at equal intervals, wherein the recesses of the first strip mask and the second strip mask jointly define the openings, and the recesses of the second strip mask and the first strip mask jointly define the openings. providing a layer to be etched; forming a patterned first mask layer on the layer to be etched; forming a patterned second mask layer on the layer to be etched, the second mask layer and the first mask layer jointly defining openings to expose the layer to be etched; etching the layer to be etched using the first mask layer and the second mask layer as masks so as to form a pattern to be etched; wherein the first mask layer comprises a plurality of first strip masks disposed parallel to each other, and the second mask layer comprises a plurality of second strip masks disposed parallel to each other, wherein the plurality of first strip masks and the plurality of second strip masks are alternately disposed in parallel; wherein at least one side of the first strip mask comprises recesses that are arranged at equal intervals, and at least one side of the second strip mask comprises recesses that are arranged at equal intervals, wherein the recesses of the first strip mask and the second strip mask jointly define the openings, and the recesses of the second strip mask and the first strip mask jointly define the openings.