mhurhangee/patent-ind-claim-en huggingface dataset:
A plate-like body with a resin frame attached thereto for a vehicle, comprising two main surfaces and an end part connecting the two main surfaces , and a resin frame integrally molded to a peripheral edge area of the plate-like body ; and the resin frame including a main part having a plurality of inner surfaces facing the two main surfaces and the end part , and a plurality of projections projecting from the main part in a direction opposite to the plate-like body toward a car-interior side in a state where the plate-like body is mounted to an opening of a vehicle; wherein when the plate-like body is mounted into an opening of a vehicle, an adhesive is disposed only between the peripheral edge area of the main surface on a car-exterior side and the inner surface of the resin frame which faces the peripheral edge area of the main surface on the car-exterior side, and the projections include projections obliquely projecting from the main part , characterized in that the projections include a projection formed in a substantially fan shape in cross-section and a projection formed in a substantially trapezoidal shape in cross-section. the resin frame including a main part having a plurality of inner surfaces facing the two main surfaces and the end part , and a plurality of projections projecting from the main part in a direction opposite to the plate-like body toward a car-interior side in a state where the plate-like body is mounted to an opening of a vehicle; wherein when the plate-like body is mounted into an opening of a vehicle, an adhesive is disposed only between the peripheral edge area of the main surface on a car-exterior side and the inner surface of the resin frame which faces the peripheral edge area of the main surface on the car-exterior side, and the projections include projections obliquely projecting from the main part , characterized in that the projections include a projection formed in a substantially fan shape in cross-section and a projection formed in a substantially trapezoidal shape in cross-section.
Access road blocking apparatus for braking a lorry in the case of its attempt to drive in an unauthorized manner into a protected zone, the access road blocking apparatus having a barrier element for obstructing an access road to the protected zone, the barrier element being connected to a load element , and the load element being arranged in front of the barrier element in an approach region , it being possible for the load element to be driven on by way of the lorry, characterized in that the load element is of at least partially elastic configuration, and in that the barrier element is configured as a concrete structure, the elastic configuration being such that, in the case of the impact, a part of the kinetic energy of the lorry is absorbed by the load element .
A wheel holding device comprising: a pair of holding members positioned to be spaced apart from each other in a first direction; and a moving part that moves at least one of the pair of holding members so as to change a distance between the pair of holding members in the first direction, wherein each of the holding members is formed with a support face that supports a flange of a wheel , and an engaging portion that is located on an end portion side that is on an opposite side from the other holding member, and is able to engage with the flange of the wheel supported by the support face , from a radially outer side of the wheel , characterized in that each of the holding members is further formed with a protruding portion that is located on one side closer to the other holding member, relative to the support face . a pair of holding members positioned to be spaced apart from each other in a first direction; and a moving part that moves at least one of the pair of holding members so as to change a distance between the pair of holding members in the first direction, wherein each of the holding members is formed with a support face that supports a flange of a wheel , and an engaging portion that is located on an end portion side that is on an opposite side from the other holding member, and is able to engage with the flange of the wheel supported by the support face , from a radially outer side of the wheel , characterized in that a support face that supports a flange of a wheel , and an engaging portion that is located on an end portion side that is on an opposite side from the other holding member, and is able to engage with the flange of the wheel supported by the support face , from a radially outer side of the wheel , characterized in that each of the holding members is further formed with a protruding portion that is located on one side closer to the other holding member, relative to the support face .
A process for producing cyclic acetal comprising i) preparing a liquid reaction mixture comprising a) a formaldehyde source, b) an aprotic compound selected from sulfur containing organic compounds having a boiling point of 140°C or higher at 1 bar, and c) a catalyst; and ii) converting the formaldehyde source into cyclic acetals. i) preparing a liquid reaction mixture comprising a) a formaldehyde source, b) an aprotic compound selected from sulfur containing organic compounds having a boiling point of 140°C or higher at 1 bar, and c) a catalyst; and a) a formaldehyde source, b) an aprotic compound selected from sulfur containing organic compounds having a boiling point of 140°C or higher at 1 bar, and c) a catalyst; and ii) converting the formaldehyde source into cyclic acetals.
A method for drilling a wellbore, comprising: providing a steering assembly having steerable bit shaft , a tool face of said bit shaft controllable by an electric motor disposed within said steering assembly ; determining a torque versus temperature characteristic of said electric motor over a range of operating temperatures under a pristine no load condition with fresh clean oil and new bearings; coupling a drill bit to said bit shaft ; coupling said steering assembly along a drill string ; rotating said drill string in a first direction to rotate a housing of said steering assembly and said drill bit to drill said wellbore to a first depth while at least occasionally operating said electric motor to control said tool face; determining a first torque value and a first temperature value of said electric motor under a no load condition at said first depth in the absence of any drilling fluid flow when there is no operational load; and comparing said first torque and temperature values to said torque versus temperature characteristic to determine a change in load of said electric motor . providing a steering assembly having steerable bit shaft , a tool face of said bit shaft controllable by an electric motor disposed within said steering assembly ; determining a torque versus temperature characteristic of said electric motor over a range of operating temperatures under a pristine no load condition with fresh clean oil and new bearings; coupling a drill bit to said bit shaft ; coupling said steering assembly along a drill string ; rotating said drill string in a first direction to rotate a housing of said steering assembly and said drill bit to drill said wellbore to a first depth while at least occasionally operating said electric motor to control said tool face; determining a first torque value and a first temperature value of said electric motor under a no load condition at said first depth in the absence of any drilling fluid flow when there is no operational load; and comparing said first torque and temperature values to said torque versus temperature characteristic to determine a change in load of said electric motor .
A guided tissue regeneration (GTR) device comprising: mutable collagenous tissue (MCT) and chitosan, wherein the chitosan is present in a mass percentage greater than zero, and less than or equal to 90, wherein the chitosan is electrostatically bonded to the MCT to form a matrix, and the matrix of chitosan and MCT is in the form of a MCT-chitosan composite material; and an applicator to deliver the MCT or the matrix to an area to be treated. mutable collagenous tissue (MCT) and chitosan, wherein the chitosan is present in a mass percentage greater than zero, and less than or equal to 90, wherein the chitosan is electrostatically bonded to the MCT to form a matrix, and the matrix of chitosan and MCT is in the form of a MCT-chitosan composite material; and an applicator to deliver the MCT or the matrix to an area to be treated.
A method of controlling a mobile device, the method comprising: executing an augmented reality function and displaying, as a preview screen, an image obtained by a camera of the mobile device; detecting a predetermined pointing gesture form from the image; identifying an object which is indicated by the detected predetermined pointing gesture form from the image; characterized by modifying the image by applying a texture to the identified object in the image; and displaying, as the preview image, the modified image. executing an augmented reality function and displaying, as a preview screen, an image obtained by a camera of the mobile device; detecting a predetermined pointing gesture form from the image; identifying an object which is indicated by the detected predetermined pointing gesture form from the image; characterized by modifying the image by applying a texture to the identified object in the image; and displaying, as the preview image, the modified image.
A non-transitory computer readable storage medium having stored thereon instructions which, when executed by a processor, cause the processor to: determine whether an aircraft wheel brake is capable of performing a future rejected take-off event, characterised by : determining from a rejected take-off energy parameter and a set of brake parameters whether a predicted mass of the brake is sufficient to perform the future rejected take-off event.
A method for processing a component (300a-d; 600; 700), comprising: removing a first coating from a substrate of the component (300a-d; 600; 700), the substrate including a first hole ; subsequent to removing the first coating from the substrate , applying a second coating to the substrate , wherein a portion of the second coating at least partially blocks the first hole ; and subsequent to applying the second coating to the substrate , removing the portion of the second coating to generate a second hole through the second coating ; characterised in that the removal of the portion of the second coating creates a bore in the second coating that provides a clearance from an edge of the first hole on a surface of the substrate that interfaces to the second coating such that the substrate is free of the second coating in a region of the substrate that is proximate the first hole and adjacent to the edge over a span coinciding with a width (W), wherein the first hole has a diameter (D), and wherein the bore has a width (W), wherein the width (W) of the bore is a value within a range of 50-100% of the diameter (D) of the first hole . removing a first coating from a substrate of the component (300a-d; 600; 700), the substrate including a first hole ; subsequent to removing the first coating from the substrate , applying a second coating to the substrate , wherein a portion of the second coating at least partially blocks the first hole ; and subsequent to applying the second coating to the substrate , removing the portion of the second coating to generate a second hole through the second coating ; characterised in that the removal of the portion of the second coating creates a bore in the second coating that provides a clearance from an edge of the first hole on a surface of the substrate that interfaces to the second coating such that the substrate is free of the second coating in a region of the substrate that is proximate the first hole and adjacent to the edge over a span coinciding with a width (W), wherein the first hole has a diameter (D), and wherein the bore has a width (W), wherein the width (W) of the bore is a value within a range of 50-100% of the diameter (D) of the first hole .
A method for making a transparent, monolithic optical flow cell (30, 30', 30", 90) of the type used to characterize formed bodies passing through it, said optical flow cell (30, 30', 30", 90) having formed therein a prismatic internal flow channel (Z, Z', 93) defined by at least three intersecting substantially planar surfaces , whereby said optical flow channel has a transverse cross- section that is substantially polygonal in shape, said method comprising the steps of: (a) providing a monolithic preform comprising a thick-wall glass tube of siliceous material having a central, axially-extending prismatic channel therethrough, said channel exhibiting a substantially uniform transverse cross-section of a desired polygonal shape; (b) heating said preform to a predetermined temperature above the softening temperature of said glass tube; (c) axially drawing said preform at a controlled rate, for a controlled time and at a constant angular orientation, to achieve a desired transverse cross-sectional area of said prismatic channel. (a) providing a monolithic preform comprising a thick-wall glass tube of siliceous material having a central, axially-extending prismatic channel therethrough, said channel exhibiting a substantially uniform transverse cross-section of a desired polygonal shape; (b) heating said preform to a predetermined temperature above the softening temperature of said glass tube; (c) axially drawing said preform at a controlled rate, for a controlled time and at a constant angular orientation, to achieve a desired transverse cross-sectional area of said prismatic channel.
A system for acquiring a biometric image, the system comprising: a pixel array of a biometric camera, the pixel array configured to acquire an image of an iris using light reflected from the iris and transmitted through a lens of the biometric camera; and the lens, located between the pixel array and the iris, configured to increase a pixels per iris (PPi) value of the image of the iris acquired by the pixel array, by applying optical positive distortion to the light transmitted through the lens when the light is directed through the lens; and a processor configured to provide a biometric image for biometric matching, by image-processing the acquired image of the iris having the increased PPi value, with an inverse function of the optical positive distortion, comprising: identifying, in the acquired image, pixel locations containing iris biometric data; and reversing effects of the optical positive distortion on the identified pixel locations containing iris biometric data while ignoring the effects of the optical positive distortion on pixel locations without iris biometric data. a pixel array of a biometric camera, the pixel array configured to acquire an image of an iris using light reflected from the iris and transmitted through a lens of the biometric camera; and the lens, located between the pixel array and the iris, configured to increase a pixels per iris (PPi) value of the image of the iris acquired by the pixel array, by applying optical positive distortion to the light transmitted through the lens when the light is directed through the lens; and a processor configured to provide a biometric image for biometric matching, by image-processing the acquired image of the iris having the increased PPi value, with an inverse function of the optical positive distortion, comprising: identifying, in the acquired image, pixel locations containing iris biometric data; and reversing effects of the optical positive distortion on the identified pixel locations containing iris biometric data while ignoring the effects of the optical positive distortion on pixel locations without iris biometric data. identifying, in the acquired image, pixel locations containing iris biometric data; and reversing effects of the optical positive distortion on the identified pixel locations containing iris biometric data while ignoring the effects of the optical positive distortion on pixel locations without iris biometric data.
A temperature measurement system comprising: a plurality of grounded thermocouples ; a multiplexer in communication with the plurality of grounded thermocouples ; an analog-to-digital converter in communication with the multiplexer ; a processor in communication with the analog-to-digital converter ; and a power supply configured to receive a voltage input and generate an isolated voltage and an isolated ground , wherein the multiplexer is configured to multiplex temperature measurement data received from the plurality of grounded thermocouples and transmit said temperature measurement data to the analog-to-digital converter ; wherein the analog-to-digital converter is configured to convert temperature measurement data received from the multiplexer to digital values and provide the digital values to the processor ; wherein the plurality of grounded thermocouples , the multiplexer , the analog-to-digital converter and the processor are grounded to the isolated ground ; wherein the multiplexer , the analog-to-digital converter and the processor are biased with the isolated voltage ; and wherein one of the plurality of grounded thermocouples is selectively biased with the isolated voltage when a temperature measurement is performed by said one of the plurality of grounded thermocouples . a plurality of grounded thermocouples ; a multiplexer in communication with the plurality of grounded thermocouples ; an analog-to-digital converter in communication with the multiplexer ; a processor in communication with the analog-to-digital converter ; and a power supply configured to receive a voltage input and generate an isolated voltage and an isolated ground , wherein the multiplexer is configured to multiplex temperature measurement data received from the plurality of grounded thermocouples and transmit said temperature measurement data to the analog-to-digital converter ; wherein the analog-to-digital converter is configured to convert temperature measurement data received from the multiplexer to digital values and provide the digital values to the processor ; wherein the plurality of grounded thermocouples , the multiplexer , the analog-to-digital converter and the processor are grounded to the isolated ground ; wherein the multiplexer , the analog-to-digital converter and the processor are biased with the isolated voltage ; and wherein one of the plurality of grounded thermocouples is selectively biased with the isolated voltage when a temperature measurement is performed by said one of the plurality of grounded thermocouples .
Perforated lid for cooking food, said lid comprising: - a lid , provided with holes arranged in a circle around the center of the lid ; - a deflector element , having dimensions smaller than the lid , shaped in the same way of the central part of the lid placed at the upper side of the lid ; - a threaded pin that connects and makes integral with each other the lid , the deflector element and a knob ; wherein between the upper side of the lid and the underside of the deflector element is interposed a device apt to vary the distance between said lid and said deflector element , bringing said deflector element from a position adherent to said lid and such as to cover said holes , to a position spaced from said lid and from said holes ,which are consequently free, characterised in that said device apt to vary the distance between said lid and said deflector element is a device apt to vary its extension as a function of temperature of the cooking container and the lid placed above, said device varying its size extending with increasing temperature and retracting with decreasing of the same. - a lid , provided with holes arranged in a circle around the center of the lid ; - a deflector element , having dimensions smaller than the lid , shaped in the same way of the central part of the lid placed at the upper side of the lid ; - a threaded pin that connects and makes integral with each other the lid , the deflector element and a knob ; wherein between the upper side of the lid and the underside of the deflector element is interposed a device apt to vary the distance between said lid and said deflector element , bringing said deflector element from a position adherent to said lid and such as to cover said holes , to a position spaced from said lid and from said holes ,which are consequently free, characterised in that said device apt to vary the distance between said lid and said deflector element is a device apt to vary its extension as a function of temperature of the cooking container and the lid placed above, said device varying its size extending with increasing temperature and retracting with decreasing of the same.
A process comprising contacting a bulk or supported hydroprocessing catalyst, with pyrolysis oil and hydrogen at temperatures lower than 300°C, at a pressure in the range of 0.1 to 30 MPa, and at a hydrogen treat gas rate in the range of 100 Nl/kg feed to 5000 Nl/kg feed, in the presence of at least one added alcohol, wherein said hydroprocessing catalyst contains at least one Group VIII metal and at least one Group VIB metal and wherein said at least one added alcohol is selected from i) an alcohol containing from 4 to 9 carbon atoms, or ii) a mixture of at least one first and at least one second alcohol having the same or a different number of carbon atoms wherein said at least one first alcohol contains from 4 to 9 carbon atoms and said at least one second alcohol contains in the range of from 1 to 15 carbon atoms; wherein said at least one Group VIII metal is present in an amount ranging from 0.5 to 20 wt.%, calculated as the metal (mono)oxides, and said at least one Group VIB metal is present in an amount ranging from 2 to 50 wt.%, calculated as the metal (tri)oxides; wherein at least one Group VIII metal is selected from Fe, Co, Ni, and combinations thereof, and said at least one Group VIB metal is selected from Mo, W and combinations thereof, wherein said bulk catalyst contains greater than 50 wt% metals, based on the total metal weight of the catalyst; and wherein said supported catalyst comprises a support selected from silica, alumina, or silica-alumina, carbon, activated carbon, MgO, TiO 2 and ZrO 2 support. wherein said at least one Group VIII metal is present in an amount ranging from 0.5 to 20 wt.%, calculated as the metal (mono)oxides, and said at least one Group VIB metal is present in an amount ranging from 2 to 50 wt.%, calculated as the metal (tri)oxides; wherein at least one Group VIII metal is selected from Fe, Co, Ni, and combinations thereof, and said at least one Group VIB metal is selected from Mo, W and combinations thereof, wherein said bulk catalyst contains greater than 50 wt% metals, based on the total metal weight of the catalyst; and wherein said supported catalyst comprises a support selected from silica, alumina, or silica-alumina, carbon, activated carbon, MgO, TiO 2 and ZrO 2 support.