mhurhangee/patent-ind-claim-en huggingface dataset:
A recombinant meganuclease that recognizes and cleaves a recognition sequence consisting of SEQ ID NO: 1, wherein said recombinant meganuclease comprises a first subunit and a second subunit, wherein said first subunit recognizes a first recognition half-site of said recognition sequence and comprises: (a) an amino acid sequence having at least 80% sequence identity to residues 198-344 of SEQ ID NO: 7; and (b) a first hypervariable (HVR1) region consisting of residues 215-270 of SEQ ID NO: 7; and wherein said second subunit recognizes a second recognition half-site of said recognition sequence and comprises: (i) an amino acid sequence having at least 80% sequence identity to residues 7-153 of SEQ ID NO: 7; and (ii) a second hypervariable (HVR2) region consisting of residues 24-79 of SEQ ID NO: 7. (a) an amino acid sequence having at least 80% sequence identity to residues 198-344 of SEQ ID NO: 7; and (b) a first hypervariable (HVR1) region consisting of residues 215-270 of SEQ ID NO: 7; (i) an amino acid sequence having at least 80% sequence identity to residues 7-153 of SEQ ID NO: 7; and (ii) a second hypervariable (HVR2) region consisting of residues 24-79 of SEQ ID NO: 7.
A lamp including a heatsink , a lighting element disposed within a seat and a support structure configured to support said heatsink , said heatsink and said support structure being mutually constrained by means of solvable magnetic means, said heatsink being realized with a method comprising the steps of: - obtaining at least one tubular element extending along a main axis and defining a section having a convex shape corresponding to a ring defining a minimum thickness of 5 mm, an internal partition and an external partition , - cutting said tubular element along said main axis in such a way as to make at least one shell defining a section having a convex shape corresponding to a portion of said ring , - drilling one of said partitions in such a way as to define said seat configured to house the lighting element in such a way as to realize said heatsink . - obtaining at least one tubular element extending along a main axis and defining a section having a convex shape corresponding to a ring defining a minimum thickness of 5 mm, an internal partition and an external partition , - cutting said tubular element along said main axis in such a way as to make at least one shell defining a section having a convex shape corresponding to a portion of said ring , - drilling one of said partitions in such a way as to define said seat configured to house the lighting element in such a way as to realize said heatsink .
A mold module for use in an electric power steering apparatus , formed by molding with a molding resin a plurality of lead frames forming wiring leads and a plurality of electronic components mounted on the respective lead frames , each lead frame including a lead frame die pad, a lead frame power line lead, a lead frame terminal and a power terminal, wherein the plurality of electronic components are mounted directly on the lead frame die pads with solder, wherein at least part of the plurality of lead frames are exposed at the rear side of the molding resin , wherein the lead frame die pad is exposed at the rear side of the molding resin , wherein the plurality of electronic components include a power semiconductor chip and a relay semiconductor chip , wherein the power terminal connects the large current lines of the power semiconductor chip or the relay semiconductor chip directly, the lead frame die pad on which the power or relay semiconductor chips are mounted having an increased thickness compared to the lead frame die pad of electronic components exhibiting lower thermal loss. wherein the plurality of electronic components are mounted directly on the lead frame die pads with solder, wherein at least part of the plurality of lead frames are exposed at the rear side of the molding resin , wherein the lead frame die pad is exposed at the rear side of the molding resin , wherein the plurality of electronic components include a power semiconductor chip and a relay semiconductor chip , wherein the power terminal connects the large current lines of the power semiconductor chip or the relay semiconductor chip directly, the lead frame die pad on which the power or relay semiconductor chips are mounted having an increased thickness compared to the lead frame die pad of electronic components exhibiting lower thermal loss. wherein the plurality of electronic components include a power semiconductor chip and a relay semiconductor chip , wherein the power terminal connects the large current lines of the power semiconductor chip or the relay semiconductor chip directly, the lead frame die pad on which the power or relay semiconductor chips are mounted having an increased thickness compared to the lead frame die pad of electronic components exhibiting lower thermal loss.
A system, comprising: a wearable harness of a medical device positionable on a torso of a subject; one or more straps coupled to the wearable harness for securing the wearable harness on the torso of the subject; a plurality of the engines coupled to the wearable harness , wherein the plurality of engines is configured to apply, during use, an oscillation force to at least one treatment area of the subject to mobilize at least some secretions in an airway within the subject substantially adjacent to the at least one treatment area; at least one force sensing element having at least one property that changes with load applied to the at least one force sensing element ; and a controller associated with the wearable harness , wherein the controller is wired and/or wirelessly coupled to the engines , wherein the controller is configured to: receive a measurement of the at least one property from the at least one force sensing element ; characterized in that the force sensing element is integrated with at least one strap of the one or more straps and wherein the controller is further configured to: determine a tension force applied to the at least one force sensing element by the at least one strap based on the measurement of the at least one property. a wearable harness of a medical device positionable on a torso of a subject; one or more straps coupled to the wearable harness for securing the wearable harness on the torso of the subject; a plurality of the engines coupled to the wearable harness , wherein the plurality of engines is configured to apply, during use, an oscillation force to at least one treatment area of the subject to mobilize at least some secretions in an airway within the subject substantially adjacent to the at least one treatment area; at least one force sensing element having at least one property that changes with load applied to the at least one force sensing element ; and a controller associated with the wearable harness , wherein the controller is wired and/or wirelessly coupled to the engines , wherein the controller is configured to: receive a measurement of the at least one property from the at least one force sensing element ; characterized in that the force sensing element is integrated with at least one strap of the one or more straps and wherein the controller is further configured to: determine a tension force applied to the at least one force sensing element by the at least one strap based on the measurement of the at least one property. receive a measurement of the at least one property from the at least one force sensing element ; characterized in that the force sensing element is integrated with at least one strap of the one or more straps and wherein the controller is further configured to: determine a tension force applied to the at least one force sensing element by the at least one strap based on the measurement of the at least one property.
A semiconductor device comprising: a substrate layer, a graphitic layer, at least one semiconductor structure grown on the graphitic layer, the structure comprising at least: a III-V semiconductor n-type doped region, a hexagonal Boron-Nitride (hBN) region, wherein the hBN region comprises a plurality of hBN layers, at least one of which is undoped, and at least one of which is p-type doped. a substrate layer, a graphitic layer, at least one semiconductor structure grown on the graphitic layer, the structure comprising at least: a III-V semiconductor n-type doped region, a hexagonal Boron-Nitride (hBN) region, wherein the hBN region comprises a plurality of hBN layers, at least one of which is undoped, and at least one of which is p-type doped. a III-V semiconductor n-type doped region, a hexagonal Boron-Nitride (hBN) region, wherein the hBN region comprises a plurality of hBN layers, at least one of which is undoped, and at least one of which is p-type doped.
A platform comprising a plate disposed between a first side part and a second side part , the plate comprising a first end portion and a second end portion , the first side part being disposed on the first end portion , the second side part being disposed on the second end portion , the two side parts being provided with two parallel posts connected to each other by at least one step , the two side parts being hinged to the plate between an unfolded position, in which the side parts rest on the ground, and a folded position in which the platform is in compact configuration, the first end portion comprising an assembly means provided with a hooking means capable of fitting onto the second side part of a second identical platform , the platform being characterised in that the assembly means is slidably movable longitudinally relative to the plate , so as to transition between a retracted position and an extended position, the assembly means being, in the retracted position, located between the first end portion and the second end portion , the assembly means being, in the extended position, protruding from the first end portion , the assembly means comprising a body and two wings extending on either side of the body , each of the wings being fitted with a hooking means , the assembly means comprising a fastening means allowing movement of the assembly means to be blocked relative to the plate , the fastening means comprising a screw , a nut with a knob engaged on the screw , the screw being integral with a housing provided with a thread, the housing being arranged between an upper face and a lower face of the plate.
A composition comprising a Psap peptide for use in treating a subject with cancer, wherein the subject has been identified as having a cancer that expresses CD36.
Fuel injector (10; 10a) having a switching valve for at least indirect control of the stroke movement of a nozzle needle , wherein the switching valve has a valve piece with a valve seat , wherein the valve piece is arranged in a holding body (12; 12a) and, by means of a clamping element , in particular by means of a valve clamping screw, is clamped axially in the direction of the holding body (12; 12a), and wherein the valve piece is arranged, in relation to the holding body (12; 12a), in a manner sealed off with respect to a high-pressure region and, for this purpose, has a first sealing surface which is formed on the valve piece and which extends radially around a longitudinal axis of the valve piece and which interacts with a second sealing surface (54; 54a), wherein the first sealing surface on the valve piece is arranged at an oblique angle (α) in relation to the longitudinal axis , wherein the oblique angle (α) is between 30° and 60°, characterized in that the first sealing surface is arranged on a portion of enlarged diameter of the valve piece on a face side which faces away from the clamping element , wherein the second sealing surface is formed monolithically and in an identical but opposed manner in relation to the first sealing surface on the holding body .
Weighing/conveying apparatus, comprising - stand elements (12; 100; 102) from a plate material , - transverse struts which are connected to adjacent stand elements (12; 100; 102), and - a weighing/conveying device which is held on stand elements (12; 100; 102), wherein the stand elements (12; 100; 102) each have a foot region by way of which they are placed on a base, and a holding region on which the weighing/conveying device is held, characterized in that a base module with at least two stand elements and at least two transverse struts is provided, and an expansion module with at least one stand element and at least one transverse strut by way of which at least one transverse strut is connectible to the base module , in that the transverse struts are provided frontally with threaded regions (56a; 56b), and in that the stand elements have fastening openings for the engagement or passing through of threaded regions of the transverse struts , wherein transverse struts have a threaded region as a threaded pin with an external threading. - stand elements (12; 100; 102) from a plate material , - transverse struts which are connected to adjacent stand elements (12; 100; 102), and - a weighing/conveying device which is held on stand elements (12; 100; 102),
An optical amplifier having a front face forming a light input side, a rear face forming a light output side and an optical cavity, the cavity having a length defined between the front face and the rear face, the cavity comprising a ridge waveguide having an optical confinement factor and a width defined transverse to the length of the cavity, and the amplifier further comprises a confinement modification layer formed on the optical cavity, wherein for at least a part of the cavity: ∘ the ridge waveguide has in that part an increasing width in a direction along the length of the cavity, wherein the direction is from the front face to the rear face , and ∘ in that part, a thickness of the confinement modification layer decreases in the direction along the length of the cavity, so that the optical confinement factor of the ridge waveguide is influenced in that part of the cavity in such a way that the optical confinement factor of the ridge waveguide decreases in the direction along the length of the cavity. ∘ the ridge waveguide has in that part an increasing width in a direction along the length of the cavity, wherein the direction is from the front face to the rear face , and ∘ in that part, a thickness of the confinement modification layer decreases in the direction along the length of the cavity, so that the optical confinement factor of the ridge waveguide is influenced in that part of the cavity in such a way that the optical confinement factor of the ridge waveguide decreases in the direction along the length of the cavity.
A computer implemented method for intraoral 3D scanning comprising: a) obtaining (S510, S520, S530) a 3D tooth surface representation using an intraoral scanner wherein the 3D tooth surface representation comprises surface data and a spatially resolved angular distribution of color vectors, wherein the spatially resolved angular distribution of color vectors associates one or more point positions from the surface data to a corresponding angular distribution of color vectors, and wherein such angular distribution of color vectors describes a mapping that relates angular coordinates to a corresponding color vector; b) identifying (S540) one or more shade values, where each shade value is associated with an angular distribution of color vectors from the spatially resolved angular distribution of color vectors, by comparing the angular distribution of color vectors to a set of reference angular distributions of color vectors, wherein each reference angular distribution in the set is associated with a corresponding shade value; and c) displaying, storing, or transmitting (S560) the surface data with an indication of the one or more shade values. a) obtaining (S510, S520, S530) a 3D tooth surface representation using an intraoral scanner wherein the 3D tooth surface representation comprises surface data and a spatially resolved angular distribution of color vectors, wherein the spatially resolved angular distribution of color vectors associates one or more point positions from the surface data to a corresponding angular distribution of color vectors, and wherein such angular distribution of color vectors describes a mapping that relates angular coordinates to a corresponding color vector; b) identifying (S540) one or more shade values, where each shade value is associated with an angular distribution of color vectors from the spatially resolved angular distribution of color vectors, by comparing the angular distribution of color vectors to a set of reference angular distributions of color vectors, wherein each reference angular distribution in the set is associated with a corresponding shade value; and c) displaying, storing, or transmitting (S560) the surface data with an indication of the one or more shade values.
An airport runway arrangement for commercial aircraft, comprising: a runway comprising: a first runway section; and a second runway section extending substantially in prolongation of the first runway section, wherein the first runway section and the second runway section are each suitable for landings and/or take-offs; a first marked threshold (700-1) provided on the runway, the first marked threshold (700-1) designating only the first runway section as being for use during a first mode of operation; and a second marked threshold (702-1) provided on the runway, the second marked threshold (702-1) being spaced from the first marked threshold (700-1) and designating at least a part of the second runway section as being for use during a second mode of operation; wherein the first marked threshold (700-1) and the second marked threshold (702-1) have the same direction of operation; characterized in that either: the first marked threshold (700-1) and the second marked threshold (702-1) are landing thresholds; or the first marked threshold (700-1) and the second marked threshold (702-1) are take-off thresholds. a runway comprising: a first runway section; and a second runway section extending substantially in prolongation of the first runway section, wherein the first runway section and the second runway section are each suitable for landings and/or take-offs; a first runway section; and a second runway section extending substantially in prolongation of the first runway section, wherein the first runway section and the second runway section are each suitable for landings and/or take-offs; a first marked threshold (700-1) provided on the runway, the first marked threshold (700-1) designating only the first runway section as being for use during a first mode of operation; and a second marked threshold (702-1) provided on the runway, the second marked threshold (702-1) being spaced from the first marked threshold (700-1) and designating at least a part of the second runway section as being for use during a second mode of operation; wherein the first marked threshold (700-1) and the second marked threshold (702-1) have the same direction of operation; characterized in that either: the first marked threshold (700-1) and the second marked threshold (702-1) are landing thresholds; or the first marked threshold (700-1) and the second marked threshold (702-1) are take-off thresholds. the first marked threshold (700-1) and the second marked threshold (702-1) are landing thresholds; or the first marked threshold (700-1) and the second marked threshold (702-1) are take-off thresholds.
An information processing system comprising: a state data acquisition device configured to acquire state data indicating an operation state of a plant; a first classification device configured to generate a determination line used to classify the state data; a mirror image data generation device configured to generate mirror image data obtained by mirroring the acquired state data using the generated determination line; and a second classification device configured to generate a determination model on the basis of the state data and the generated mirror image data. a state data acquisition device configured to acquire state data indicating an operation state of a plant; a first classification device configured to generate a determination line used to classify the state data; a mirror image data generation device configured to generate mirror image data obtained by mirroring the acquired state data using the generated determination line; and a second classification device configured to generate a determination model on the basis of the state data and the generated mirror image data.
Topically applicable composition containing (A) 0.001 to 10.0 wt.% dimethylglycine according to formula I and/or a salt thereof wherein the salt of dimethylglycine is an alkali, alkaline earth, or ammonium salt of dimethylglycine or the salt of an inorganic and/or organic acid with dimethylglycine, and (B) 0.001 to 3.0 wt.% caffeine, wherein the weight ratio of dimethylglycine and/or a salt thereof to caffeine is in the range from 10:1 to 1:1. (A) 0.001 to 10.0 wt.% dimethylglycine according to formula I and/or a salt thereof wherein the salt of dimethylglycine is an alkali, alkaline earth, or ammonium salt of dimethylglycine or the salt of an inorganic and/or organic acid with dimethylglycine, and (B) 0.001 to 3.0 wt.% caffeine, wherein the weight ratio of dimethylglycine and/or a salt thereof to caffeine is in the range from 10:1 to 1:1.
A magnesium alloy containing, in % by mass, 0.95 to 2.00 % of Zn, 0.05 % or more and less than 0.30 % of Zr, 0.05 to 0.20 % of Mn, and the balance consisting of Mg and unavoidable impurities, wherein a total content of the unavoidable impurities is 30 ppm or less, the magnesium alloy is composed of substantially single-phase solid solution or has a microstructure in which Zr-bearing precipitates having particle sizes of smaller than 500 nm each are dispersed in the matrix phase which is a single-phase solid solution of Mg-Zn-Mn ternary alloy, and the magnesium alloy has a particle size distribution with an average crystal particle size from 1.0 to 3.0 μm and a standard deviation of 0.7 or smaller. 0.95 to 2.00 % of Zn, 0.05 % or more and less than 0.30 % of Zr, 0.05 to 0.20 % of Mn, and the balance consisting of Mg and unavoidable impurities, wherein a total content of the unavoidable impurities is 30 ppm or less, the magnesium alloy is composed of substantially single-phase solid solution or has a microstructure in which Zr-bearing precipitates having particle sizes of smaller than 500 nm each are dispersed in the matrix phase which is a single-phase solid solution of Mg-Zn-Mn ternary alloy, and the magnesium alloy has a particle size distribution with an average crystal particle size from 1.0 to 3.0 μm and a standard deviation of 0.7 or smaller.
A gypsum panel, comprising: a core having a thickness of about 1.27 cm (1⁄2 inch) and a weight of from 6.84 kg/m 2 to 8.54 kg/m 2 (1400 lb/msf to 1750 lb/msf), the core comprising gypsum and fiberglass, the fiberglass being present in the core in an amount of from 0.0073 kg/m 2 to 0.015 kg/m 2 (1.5 lb/msf to 3 lb/msf) and the gypsum being present in the core in an amount of from 6.59 kg/m 2 to 8.15 kg/m 2 (1350 lb/msf to 1670 lb/msf); and wherein the core has an ASTM E-119 wood stud fire test rating of at least 30 minutes. a core having a thickness of about 1.27 cm (1⁄2 inch) and a weight of from 6.84 kg/m 2 to 8.54 kg/m 2 (1400 lb/msf to 1750 lb/msf), the core comprising gypsum and fiberglass, the fiberglass being present in the core in an amount of from 0.0073 kg/m 2 to 0.015 kg/m 2 (1.5 lb/msf to 3 lb/msf) and the gypsum being present in the core in an amount of from 6.59 kg/m 2 to 8.15 kg/m 2 (1350 lb/msf to 1670 lb/msf); and wherein the core has an ASTM E-119 wood stud fire test rating of at least 30 minutes.