mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor disposition structure in a seat, comprising: a cushion pad ; and a board-like member which is disposed under the cushion pad, wherein a concave is formed in an upper surface of the board-like member, a sensor is disposed in the concave while being fixed to an attachment bracket , the attachment bracket is attached in the concave by being engaged with a first engaging unit formed in the concave and by a bracket-side engaging unit engaging with an under surface of the board-like member, and the first engaging unit is a nail unit protruding from the upper surface of the concave. a cushion pad ; and a board-like member which is disposed under the cushion pad, wherein a concave is formed in an upper surface of the board-like member, a sensor is disposed in the concave while being fixed to an attachment bracket , the attachment bracket is attached in the concave by being engaged with a first engaging unit formed in the concave and by a bracket-side engaging unit engaging with an under surface of the board-like member, and the first engaging unit is a nail unit protruding from the upper surface of the concave. a concave is formed in an upper surface of the board-like member, a sensor is disposed in the concave while being fixed to an attachment bracket , the attachment bracket is attached in the concave by being engaged with a first engaging unit formed in the concave and by a bracket-side engaging unit engaging with an under surface of the board-like member, and the first engaging unit is a nail unit protruding from the upper surface of the concave.
A crosslinked adhesive copolymer composition, the copolymer comprising: a) 30 to 60 parts of a (meth)acrylic ester monomer, wherein the (meth)acrylic ester monomer is a monomeric (meth)acrylic ester of a non-tertiary alcohol, which alcohol contains from 2 to 14 carbon atoms, b) 30 to 70 parts of methyl (meth)acrylate monomers, c) 2 to 15 parts of vinyl ester monomers, and d) 0.1 to 5 parts of one of i) acid functional monomers, ii) a (meth)acrylamide monomers or iii) a hydroxyalkyl (meth)acrylate monomers, where the sum of a) to d) is 100 parts by weight. a) 30 to 60 parts of a (meth)acrylic ester monomer, wherein the (meth)acrylic ester monomer is a monomeric (meth)acrylic ester of a non-tertiary alcohol, which alcohol contains from 2 to 14 carbon atoms, b) 30 to 70 parts of methyl (meth)acrylate monomers, c) 2 to 15 parts of vinyl ester monomers, and d) 0.1 to 5 parts of one of i) acid functional monomers, ii) a (meth)acrylamide monomers or iii) a hydroxyalkyl (meth)acrylate monomers, where the sum of a) to d) is 100 parts by weight.
A medical peristaltic pump comprising a pump housing in which a tube mounting case is formed/inserted in which a pump head is rotatably supported, and comprising a tube unit consisting of a flexible tube and a beam-type tube fixture for holding the tube at two positions longitudinally spaced apart from the tube, the tube unit being insertable or inserted into the tube mounting case so that by displacing the tube fixture or the pump head , the tube enters into tensioning engagement with the pump head while at least partially enclosing the same, as well as comprising a tensioning device arranged at the pump housing or at the tube mounting case in the form of a lever mechanism for tensioning displacement of the tube fixture or of the pump head by at least one lever element , characterized in that a clamping or locking means is provided on the lever element which upon reaching a tube tensioning position engages in a counter-clamping or locking means arranged on the tube fixture for locking the tube fixture and the tensioning device .
A method of operating a sterilization chamber comprising a plurality of subsystems, from a computing device , comprising: receiving configuration data for the sterilization chamber at the computing device , the configuration data indicating a hardware configuration of the sterilization chamber, and comprising a template and template parameters for each subsystem of the plurality of subsystems, the template defining software for controlling a device or a sensor of a corresponding subsystem; reading phase information from a sterilization cycle specification; and invoking a subsystem of the sterilization chamber corresponding to the phase information using a standard interface of the subsystem; wherein the subsystem executes a phase using the phase information and the configuration data . receiving configuration data for the sterilization chamber at the computing device , the configuration data indicating a hardware configuration of the sterilization chamber, and comprising a template and template parameters for each subsystem of the plurality of subsystems, the template defining software for controlling a device or a sensor of a corresponding subsystem; reading phase information from a sterilization cycle specification; and invoking a subsystem of the sterilization chamber corresponding to the phase information using a standard interface of the subsystem;
A network defence method, comprising: receiving (S301), by a security checking device on a campus network, a first packet; checking (S302), by the security checking device, the first packet when security checking on the first packet is not completed and a security checking capability of the security checking device is sufficient to check the first packet; and forwarding (S303), by the security checking device to another security checking device for checking, the first packet when security checking on the first packet is not completed and a security checking capability of the security checking device is insufficient, characterized in that the security checking capability is a security checking type that can be checked by the security checking device and wherein the checking comprises: when first-type security checking is completed but second-type security checking is not completed on the first packet and the security checking capability of the security checking device is sufficient to perform the second-type security checking on the first packet, performing, by the security checking device, the second-type security checking on the first packet, wherein the first-type security checking and second-type security checking is configured to prevent malicious traffic from being transmitted on the campus network. receiving (S301), by a security checking device on a campus network, a first packet; checking (S302), by the security checking device, the first packet when security checking on the first packet is not completed and a security checking capability of the security checking device is sufficient to check the first packet; and forwarding (S303), by the security checking device to another security checking device for checking, the first packet when security checking on the first packet is not completed and a security checking capability of the security checking device is insufficient, characterized in that the security checking capability is a security checking type that can be checked by the security checking device and wherein the checking comprises: when first-type security checking is completed but second-type security checking is not completed on the first packet and the security checking capability of the security checking device is sufficient to perform the second-type security checking on the first packet, performing, by the security checking device, the second-type security checking on the first packet, wherein the first-type security checking and second-type security checking is configured to prevent malicious traffic from being transmitted on the campus network. when first-type security checking is completed but second-type security checking is not completed on the first packet and the security checking capability of the security checking device is sufficient to perform the second-type security checking on the first packet, performing, by the security checking device, the second-type security checking on the first packet, wherein the first-type security checking and second-type security checking is configured to prevent malicious traffic from being transmitted on the campus network.
A method for manufacturing a fluorine-doped glass preform for optical fibres, the method comprising: - exposing a soot preform to an atmosphere containing a fluorine-containing gas and substantially devoid of chlorine in a first elongated chamber (28; 44) of a first furnace (30; 40), the first elongated chamber (28; 44) having a single isothermal hot zone (33; 53) kept at a doping temperature of from 800°C to 1200°C to obtain a fluorine-doped soot preform; - dehydrating the fluorine-doped soot preform by exposing it to an atmosphere containing a chlorine-containing gas and substantially devoid of fluorine in a second elongated chamber of a second furnace , the second elongated chamber having an upper hot zone at a dehydration temperature of from 1000°C to 1350°C and a lower hot zone at a consolidation temperature of from 1500°C to 1650°C, wherein dehydration takes place in the upper hot zone of the second furnace, and - consolidating the fluorine-doped soot preform by moving it down into the lower hot zone of the second furnace so as to form a fluorine-doped glass preform. - exposing a soot preform to an atmosphere containing a fluorine-containing gas and substantially devoid of chlorine in a first elongated chamber (28; 44) of a first furnace (30; 40), the first elongated chamber (28; 44) having a single isothermal hot zone (33; 53) kept at a doping temperature of from 800°C to 1200°C to obtain a fluorine-doped soot preform; - dehydrating the fluorine-doped soot preform by exposing it to an atmosphere containing a chlorine-containing gas and substantially devoid of fluorine in a second elongated chamber of a second furnace , the second elongated chamber having an upper hot zone at a dehydration temperature of from 1000°C to 1350°C and a lower hot zone at a consolidation temperature of from 1500°C to 1650°C, wherein dehydration takes place in the upper hot zone of the second furnace, and - consolidating the fluorine-doped soot preform by moving it down into the lower hot zone of the second furnace so as to form a fluorine-doped glass preform.
A method for manufacturing a glass substrate with an antifouling layer , the manufacturing method comprising: providing a glass substrate having a pair of first and second principal surfaces facing to each other; adhering an adhesive made of a carbon-containing material on the second principal surface while the adhesive is exposed from the outer periphery of the glass substrate , and adhering a carrier substrate to the glass substrate at the second principal surface side through the adhesive ; forming a cohesive layer using a cohesive layer forming material containing silicon oxide on the first principal surface under the state where the carrier substrate is adhered to the glass substrate ; and forming the antifouling layer using an antifouling layer forming material on the first principal surface where the cohesive layer is formed under the state where the carrier substrate is adhered to the glass substrate , wherein the cohesive layer is formed by at least one method selected from the group consisting of a vacuum deposition method, an ion beam assisted deposition method, an ion plating method, a sputtering method, and a plasma CVD method. providing a glass substrate having a pair of first and second principal surfaces facing to each other; adhering an adhesive made of a carbon-containing material on the second principal surface while the adhesive is exposed from the outer periphery of the glass substrate , and adhering a carrier substrate to the glass substrate at the second principal surface side through the adhesive ; forming a cohesive layer using a cohesive layer forming material containing silicon oxide on the first principal surface under the state where the carrier substrate is adhered to the glass substrate ; and forming the antifouling layer using an antifouling layer forming material on the first principal surface where the cohesive layer is formed under the state where the carrier substrate is adhered to the glass substrate , wherein the cohesive layer is formed by at least one method selected from the group consisting of a vacuum deposition method, an ion beam assisted deposition method, an ion plating method, a sputtering method, and a plasma CVD method.
A pharmaceutical preparation comprising - 10 to 200 μg/ml of fragments of an antigenic structure which induces allergic reaction - 2 to 6% (w/v) mannitol - 0.5 to 2% (w/v) trehalose - water, wherein the amount of heat shock proteins is less than 1 ng/ml, wherein the fragments of an antigenic structure are hydrolyzed allergens prepared by enzymatic hydrolysis of the antigenic structure, and wherein at least 70% by weight of the fragments are between 1,000 and 10,000 Da. - 10 to 200 μg/ml of fragments of an antigenic structure which induces allergic reaction - 2 to 6% (w/v) mannitol - 0.5 to 2% (w/v) trehalose - water,
Angle grinder dust hood with a hood body for covering a circular grinding wheel and with a sealing element running along a circumference (U) of the hood body for sealing the hood body at least in sections with respect to a surface to be worked by means of the grinding wheel, and with a suction connection , through which material removed from the surface may be sucked out of the hood body , in which the sealing element is spring loaded through at least a spring element in the axial direction with reference to the axis of rotation (R) of the grinding wheel in the hood body , and in which the spring element has a base bar , through which the spring element is fastened to the hood body , characterised in that the spring element has at least a retaining clip , which is made to prevent the sealing element from falling out of the hood body axially, in which the retaining clip projects in an axial direction from the base bar and an axial stop is made at its other end for a holding rail of the sealing element .
A system for indirectly drying a coating, the system comprising: a material , the material comprising a continuous web defining a substrate , the substrate defining a first side and a second side, the second side opposite the first side, the material further comprising a coating to be dried, the coating at least partially covering the second side; at least one acoustic head , the at least one acoustic head including at least one ultrasonic transducer facing only the first side of the material ; and an air delivery enclosure , wherein the air delivery enclosure is also positioned facing the first side of the material , characterized in that each of the at least one acoustic head is arranged in such a way, that acoustic air is directed to the first side of the material and that acoustic energy is conducted through the substrate to enhance thermal and mass transfer at the interface between the coating and the surrounding gaseous medium. a material , the material comprising a continuous web defining a substrate , the substrate defining a first side and a second side, the second side opposite the first side, the material further comprising a coating to be dried, the coating at least partially covering the second side; at least one acoustic head , the at least one acoustic head including at least one ultrasonic transducer facing only the first side of the material ; and an air delivery enclosure , wherein the air delivery enclosure is also positioned facing the first side of the material , characterized in that each of the at least one acoustic head is arranged in such a way, that acoustic air is directed to the first side of the material and that acoustic energy is conducted through the substrate to enhance thermal and mass transfer at the interface between the coating and the surrounding gaseous medium.
A lock configured to be operated by a key , the key comprising a key shank , which at least in a part of its axial length includes a profile which is closed or semi-closed to define at least one cavity including a key coding, the lock comprises: a plug for receiving the key shank and being configured to be accommodated in a housing , the plug being rotatable with respect to the housing in the unlocked state of the lock, the plug including a keyway , which is defined by a predetermined geometry and has a transverse keyway profile including an arcuate portion , and at least one keyway shaping element (16a-16j, 16l-16o), which is formed separate from the plug and is fixed to the plug such that it is immovable relative to the plug when the key shank is inserted into the plug, a protruding portion (17a-17j, 17l-17n) of the at least one keyway shaping element protrudes into the keyway to redefine its geometry. a plug for receiving the key shank and being configured to be accommodated in a housing , the plug being rotatable with respect to the housing in the unlocked state of the lock, the plug including a keyway , which is defined by a predetermined geometry and has a transverse keyway profile including an arcuate portion , and at least one keyway shaping element (16a-16j, 16l-16o), which is formed separate from the plug and is fixed to the plug such that it is immovable relative to the plug when the key shank is inserted into the plug, a protruding portion (17a-17j, 17l-17n) of the at least one keyway shaping element protrudes into the keyway to redefine its geometry.
A computer-implemented method for automatically selecting 3D points from a CAD model, for 3D locating an industrial object, comprising the following steps: - generating a geometric model from the CAD model, comprising a sampling of a set of 3D points extracted from straight edges of said CAD model, so as to generate 3D surface points, - designating reference viewpoints in advance from a priori knowledge of the current viewpoints of the camera, - acquiring, by means of a camera, a plurality of images taken from viewpoints of interest of said object, - associating each acquired image with a reference viewpoint to form partitions and identifying a reference image for each partition, - selecting for each partition of the n 3D surface points extracted from the straight edges of the 3D model and having the 3D orientation of the straight edge from which they were extracted, comprising the following steps: - refining the camera poses using the geometric model and identifying the associations of 3D surface points with 2D contour points that correspond to the refined poses, - calculating a score for each 3D surface point based on the number of times that this 3D surface point is a match contour point, - projecting and clustering 3D surface points in each reference image, - selecting the n 3D surface points having the best score for each of the partitions. - generating a geometric model from the CAD model, comprising a sampling of a set of 3D points extracted from straight edges of said CAD model, so as to generate 3D surface points, - designating reference viewpoints in advance from a priori knowledge of the current viewpoints of the camera, - acquiring, by means of a camera, a plurality of images taken from viewpoints of interest of said object, - associating each acquired image with a reference viewpoint to form partitions and identifying a reference image for each partition, - selecting for each partition of the n 3D surface points extracted from the straight edges of the 3D model and having the 3D orientation of the straight edge from which they were extracted, comprising the following steps: - refining the camera poses using the geometric model and identifying the associations of 3D surface points with 2D contour points that correspond to the refined poses, - calculating a score for each 3D surface point based on the number of times that this 3D surface point is a match contour point, - projecting and clustering 3D surface points in each reference image, - selecting the n 3D surface points having the best score for each of the partitions.
An image evaluation device (10; 10A, 10B), comprising: a reading unit that reads a sample image included in a sample printout recognized as a non-defective printout and that reads an inspection object image included in an inspection object printout obtained by printing an image corresponding to the sample image on a recording medium using a printing device based on image data representing the image; an extraction unit (20; 20A, 20B) that extracts a line defect including a linear pattern formed in a specific direction from the inspection object image represented by inspection object image data, based on a difference value between sample image data obtained by reading the sample image and the inspection object image data; and an evaluation unit (22; 22A, 22B) that evaluates a visibility of the line defect extracted by the extraction unit; wherein the evaluation unit (22; 22A, 22B) combines the line defect extracted by the extraction unit (20; 20A, 20B) with the sample image represented by the sample image data, and evaluates the visibility of the line defect based on a combined image obtained by the combination and on the sample image, using a mask effect-visual model. a reading unit that reads a sample image included in a sample printout recognized as a non-defective printout and that reads an inspection object image included in an inspection object printout obtained by printing an image corresponding to the sample image on a recording medium using a printing device based on image data representing the image; an extraction unit (20; 20A, 20B) that extracts a line defect including a linear pattern formed in a specific direction from the inspection object image represented by inspection object image data, based on a difference value between sample image data obtained by reading the sample image and the inspection object image data; and an evaluation unit (22; 22A, 22B) that evaluates a visibility of the line defect extracted by the extraction unit; wherein the evaluation unit (22; 22A, 22B) combines the line defect extracted by the extraction unit (20; 20A, 20B) with the sample image represented by the sample image data, and evaluates the visibility of the line defect based on a combined image obtained by the combination and on the sample image, using a mask effect-visual model.
Domestic electric oven structure, particularly for pizzas, characterized in that it comprises tubular electrical resistors , with an adjustably independent power supply and separate independent heat sensors directly arranged in the cooking chamber , at least one tubular resistor and sensor placed inside the cooking chamber near the roof and at least one tubular resistor and sensor at the bottom of the floor , above which there is suspended - through retaining means to the walls and/or to the bottom - a refractory sheet supported by means of respective lateral shelves mutually symmetric and/or coplanar and provided with slots provided on the lateral and/or bottom and/or front walls above the lower tubular electrical resistor at the floor , wherein the refractory sheet is detached from the walls of the cooking chamber by an open interspace of the lateral shelves and detached from the bottom by an interspace , wherein the tubular electrical resistor is housed in said interspace .
A needle assembly having a needle, wherein the assembly includes a cannula that has an elongated body having gas interstices formed in at least one portion in the body to make the cannula echogenic, wherein the needle has a sharp tip with an echogenic feature at or proximate to the tip , the tip of the needle and the body of the cannula both being visible under ultrasonic observation, wherein the cannula is mounted with the needle so that the needle assembly is adapted to be guided by the ultrasonic observation of said echogenic feature to be inserted into a desired location in a body and the placement of the cannula in the body is adapted to be confirmed after removal of the needle by said gas interstices .