mhurhangee/patent-ind-claim-en huggingface dataset:
An autonomous traveling work machine comprising: a traveling machine body ; a positioning receiver configured to receive a positioning signal from a navigation satellite; an autonomous traveling control device configured to perform autonomous traveling along a traveling path based on the positioning signal; an inclination detection unit configured to detect inclination of the traveling machine body and output inclination angle information; an inclination angle determination unit configured to determine an inclination angle based on the inclination angle information; and a rotation control mechanism configured to rotate the positioning receiver with one or more degrees of freedom, characterized in that the rotation control mechanism is configured to keep the positioning receiver substantially horizontal based on the inclination angle, the traveling path includes multiple straight line traveling paths set for autonomous traveling on a slope, and while the traveling machine body is traveling along any one line traveling path among the line traveling paths, the rotation control mechanism is adapted to position and maintain the positioning receiver at the inclination angle that was determined on the immediately previous traveling path. a traveling machine body ; a positioning receiver configured to receive a positioning signal from a navigation satellite; an autonomous traveling control device configured to perform autonomous traveling along a traveling path based on the positioning signal; an inclination detection unit configured to detect inclination of the traveling machine body and output inclination angle information; an inclination angle determination unit configured to determine an inclination angle based on the inclination angle information; and a rotation control mechanism configured to rotate the positioning receiver with one or more degrees of freedom, characterized in that the rotation control mechanism is configured to keep the positioning receiver substantially horizontal based on the inclination angle, the traveling path includes multiple straight line traveling paths set for autonomous traveling on a slope, and while the traveling machine body is traveling along any one line traveling path among the line traveling paths, the rotation control mechanism is adapted to position and maintain the positioning receiver at the inclination angle that was determined on the immediately previous traveling path.
An atomizer , comprising: a top cover assembly provided with a guiding passage and an air guiding hole therein, the top cover assembly comprising a protruding or recessed structure between the guiding passage and the air guiding hole ; and an atomizing core at least partially received in the top cover assembly , wherein the atomizing core is configured to discharge an aerosol formed by atomizing a liquid into the air guiding hole via the guiding passage ; wherein the top cover assembly has an inner wall surface defining a boundary of the guiding passage , the protruding or recessed structure is located on the inner wall surface . a top cover assembly provided with a guiding passage and an air guiding hole therein, the top cover assembly comprising a protruding or recessed structure between the guiding passage and the air guiding hole ; and an atomizing core at least partially received in the top cover assembly , wherein the atomizing core is configured to discharge an aerosol formed by atomizing a liquid into the air guiding hole via the guiding passage ; wherein the top cover assembly has an inner wall surface defining a boundary of the guiding passage , the protruding or recessed structure is located on the inner wall surface .
A hair drying system comprising a hair dryer and a spatially fixable mount , in which the hair dryer can manually be placed in an idle position and from which the hair dryer can be manually transferred to a spatially separate operating position to dry hair, wherein the hair dryer has a grip and a nozzle for blowing out hot and/or cold air, wherein the fixable mount is designed as a wall mount, wherein the hair drying system has a device for detecting the operating position in respect of a predefined area, using which device the hair dryer can be switched between a functional and non-functional state according to its position within or outside the predefined area, characterised in that the device for detecting the operating position has a device for detecting the spatial distance (d) between the mount and the hair dryer , wherein a sensor for detecting the distance between the hair dryer and the wall mount is arranged in the hair dryer , and the wall mount has a sensor , wherein the sensor of the wall mount together with the sensor of the hair dryer facilitates the detection of the spatial distance (d) between the wall mount and the hair dryer , wherein the mount has a battery charging station and the hair dryer has a rechargeable battery to supply its operating power. wherein the hair dryer has a grip and a nozzle for blowing out hot and/or cold air, wherein the fixable mount is designed as a wall mount, wherein the hair drying system has a device for detecting the operating position in respect of a predefined area, using which device the hair dryer can be switched between a functional and non-functional state according to its position within or outside the predefined area, characterised in that the device for detecting the operating position has a device for detecting the spatial distance (d) between the mount and the hair dryer , wherein a sensor for detecting the distance between the hair dryer and the wall mount is arranged in the hair dryer , and the wall mount has a sensor , wherein the sensor of the wall mount together with the sensor of the hair dryer facilitates the detection of the spatial distance (d) between the wall mount and the hair dryer , wherein the mount has a battery charging station and the hair dryer has a rechargeable battery to supply its operating power.
A flexible reclosable package integrally formed from a single piece of material, the package containing disposable and compressed consumer products, the package having a hexahedral shape with a top panel , a bottom panel , a front panel , a back panel , a left side panel and a right side panel , the right side panel comprising a first right side panel portion adjacent to the front panel and a second right side panel portion adjacent to the back panel , the first and second right side panel portions being joined to each other along first side panel seam , the left side panel comprising a first left side panel portion adjacent to the front panel and a second left side panel portion adjacent to the back panel , the first and second left side panel portions being joined to each other along a second side panel seam , wherein the package has a longitudinal dimension (L) extending from the first side panel seam to the second side panel seam, wherein a third seam extends along the longitudinal dimension (L) of the package ; wherein a hooded portion defines the top panel , a portion of the front panel , a portion of the first right side panel portion and a portion of the first left side panel portion , wherein a pleated portion is provided adjacent to the hooded portion and extends along the longitudinal dimension (L) of the package from the first side panel seam to the second side panel seam through the first right side panel portion , the front panel , and the first left side panel portion , wherein a first line of weakness is provided in the pleated portion wherein the flexible reclosable package can be converted from a closed European Patent Application No. 16 196 155.2; The Procter & Gamble Company; 2019-04-29 configuration to an open configuration upon opening the package along the line of weakness, and characterized in that the first line of weakness is not visible from the exterior of the package when the package is in the closed configuration, and further characterized in that a slit or a second line of weakness is provided in the pleated portion adjacent to each of the first and second side panel seam and extends along the first and second side panel seam, respectively.
A network device comprising: a transmitter and a receiver to establish a secure connection with one or more network nodes (A1-A3, C1-C3) as part of an Autonomic Control Plane, ACP, network ; a transport shim comprising an initiator and a processor coupled to the transmitter and receiver , the processor to: receive a request from an application to initiate a connection with a destination network node (A1-A3, C1-C3); receive packets from the application for transmission toward the destination network node (A1-A3, C1-C3); examine the packets from the application by the initiator to determine if the packets have already been encrypted; if the packets have been encrypted by the application, communicating the packets as encrypted; otherwise, end-to-end encrypting the unencrypted packets by the transport shim without notifying the application ; and causing the transmitter to transmit the encrypted packets towards the destination network node (A1-A3, C1-C3) across the ACP network . a transmitter and a receiver to establish a secure connection with one or more network nodes (A1-A3, C1-C3) as part of an Autonomic Control Plane, ACP, network ; a transport shim comprising an initiator and a processor coupled to the transmitter and receiver , the processor to: receive a request from an application to initiate a connection with a destination network node (A1-A3, C1-C3); receive packets from the application for transmission toward the destination network node (A1-A3, C1-C3); examine the packets from the application by the initiator to determine if the packets have already been encrypted; if the packets have been encrypted by the application, communicating the packets as encrypted; otherwise, end-to-end encrypting the unencrypted packets by the transport shim without notifying the application ; and causing the transmitter to transmit the encrypted packets towards the destination network node (A1-A3, C1-C3) across the ACP network . receive a request from an application to initiate a connection with a destination network node (A1-A3, C1-C3); receive packets from the application for transmission toward the destination network node (A1-A3, C1-C3); examine the packets from the application by the initiator to determine if the packets have already been encrypted; if the packets have been encrypted by the application, communicating the packets as encrypted; otherwise, end-to-end encrypting the unencrypted packets by the transport shim without notifying the application ; and causing the transmitter to transmit the encrypted packets towards the destination network node (A1-A3, C1-C3) across the ACP network .
A gas-detection image-processing device comprising: an image data input unit that is configured to receive input of image data representing a plurality of the infrared images yielded by an image of a target to be monitored being taken at a plurality of time points; a determination unit that is configured to generate chronological pixel data in which pieces of pixel data for the pixels located at a same position in the plurality of infrared images input from the image data input unit are lined-up in chronological order, and on the basis of the chronological pixel data for each of the plurality of pixels constituting the infrared image, to determine for each of the plurality of pixels: a with-gas background temperature indicating a background temperature when gas is present; and a without-gas background temperature indicating a background temperature when gas is not present; a calculation unit that is configured to calculate gas concentration lengths or correlation values correlated with the gas concentration lengths respectively corresponding to a plurality of pixels by using the with-gas background temperatures and the without-gas background temperatures that are determined by the determination unit; and an identification unit that, on the basis of the gas concentration lengths or the correlation values, is configured to identify, in a monitoring image that is generated by using the infrared image, a pixel showing the gas in the image and a pixel not showing the gas in the image. an image data input unit that is configured to receive input of image data representing a plurality of the infrared images yielded by an image of a target to be monitored being taken at a plurality of time points; a determination unit that is configured to generate chronological pixel data in which pieces of pixel data for the pixels located at a same position in the plurality of infrared images input from the image data input unit are lined-up in chronological order, and on the basis of the chronological pixel data for each of the plurality of pixels constituting the infrared image, to determine for each of the plurality of pixels: a with-gas background temperature indicating a background temperature when gas is present; and a without-gas background temperature indicating a background temperature when gas is not present; a calculation unit that is configured to calculate gas concentration lengths or correlation values correlated with the gas concentration lengths respectively corresponding to a plurality of pixels by using the with-gas background temperatures and the without-gas background temperatures that are determined by the determination unit; and an identification unit that, on the basis of the gas concentration lengths or the correlation values, is configured to identify, in a monitoring image that is generated by using the infrared image, a pixel showing the gas in the image and a pixel not showing the gas in the image.
A combination of compositions for use in a method of treating cancer in a subject in need thereof, the combination of compositions comprising: (i) an anti-MUC1-IgE; (ii) gemcitabine; (iii) Poly (I:C); (iv) anti-PD-L1; wherein the compositions (i)-(iv) are administered to the subject according the following schedule: (i) is administered at least 30 minutes to 4 hours before (ii); wherein the first administration of (iii) is after the first administration of (i) and (ii); and wherein the first administration of (iv) is after the first administration of (iii), and wherein (iii) is administered every 5 th day, and wherein (iv) is administered alternatingly every 2 nd and 3 rd day. (i) an anti-MUC1-IgE; (ii) gemcitabine; (iii) Poly (I:C); (iv) anti-PD-L1; (i) is administered at least 30 minutes to 4 hours before (ii); wherein the first administration of (iii) is after the first administration of (i) and (ii); and wherein the first administration of (iv) is after the first administration of (iii), and wherein (iii) is administered every 5 th day, and wherein (iv) is administered alternatingly every 2 nd and 3 rd day.
A preparation method of a thin film transistor, characterized by comprising: forming a gate electrode metal thin film on a base substrate , and allowing the gate electrode metal thin film to form a gate electrode metal layer comprising a gate electrode by a patterning process; forming a gate electrode insulating layer on the gate electrode metal layer; forming a metal oxide thin film on the gate electrode insulating layer , and allowing the metal oxide thin film to form a pattern of an active layer by a patterning process; preparing a metal nanoparticle layer on the active layer ; forming a source and drain electrode metal thin film on the base substrate on which the above processes are finished, and allowing the source and drain electrode metal thin film to form a source and drain electrode metal layer comprising a source electrode and a drain electrode by a patterning process, wherein the metal nanoparticle layer is used as an etching protection layer when the source and drain electrode metal thin film is etched, and the resultant source electrode and drain electrode cover a part of the metal nanoparticle layer ; removing or oxidizing the part of the metal nanoparticle layer which is not covered by the source electrode and the drain electrode in an oxygen-containing atmosphere; and forming a passivation layer on the source and drain electrode metal layer . forming a gate electrode metal thin film on a base substrate , and allowing the gate electrode metal thin film to form a gate electrode metal layer comprising a gate electrode by a patterning process; forming a gate electrode insulating layer on the gate electrode metal layer; forming a metal oxide thin film on the gate electrode insulating layer , and allowing the metal oxide thin film to form a pattern of an active layer by a patterning process; preparing a metal nanoparticle layer on the active layer ; forming a source and drain electrode metal thin film on the base substrate on which the above processes are finished, and allowing the source and drain electrode metal thin film to form a source and drain electrode metal layer comprising a source electrode and a drain electrode by a patterning process, wherein the metal nanoparticle layer is used as an etching protection layer when the source and drain electrode metal thin film is etched, and the resultant source electrode and drain electrode cover a part of the metal nanoparticle layer ; removing or oxidizing the part of the metal nanoparticle layer which is not covered by the source electrode and the drain electrode in an oxygen-containing atmosphere; and forming a passivation layer on the source and drain electrode metal layer .
A method for producing a glass article comprising a glass sheet and a photocatalyst film formed on a surface of the glass sheet with a film thickness T of the photocatalyst film in a range of 70 nm to 280 nm as an averaged value of thicknesses measured at twenty positions spaced from each other by 100 nm in a direction parallel to the surface of the glass sheet in an observation with a scanning electron microscope at a magnification of 50,000, the photocatalyst film containing silicon oxide particles, titanium oxide particles, and a binder material whose main component is silicon oxide, the silicon oxide particles being contained in an amount of 72 to 79 mass%, the titanium oxide particles being contained in an amount of 13 to 18 mass%, the binder material being contained in an amount of 8 to 14 mass%, with respect to a total amount of the silicon oxide particles, the titanium oxide particles, and the binder material in the photocatalyst film , the silicon oxide particles having an average particle diameter of 30 nm to 200 nm, the titanium oxide particles having an average particle diameter of 5 nm to 20 nm, and the average particle diameter of the silicon oxide particles being five times or more of the average particle diameter of the titanium oxide particles, wherein 80% or more of the titanium oxide particles are present between the surface of the glass sheet and a position spaced from the surface by 0.6T toward a surface of the photocatalyst film in a thickness direction of the photocatalyst film , the method comprising applying a coating liquid to the glass sheet to form a coating film on the glass sheet , and drying the glass sheet to which the coating liquid is applied, and sintering the coating film, wherein the coating liquid contains the silicon oxide particles, the titanium oxide particles, and a binder source as a source of the binder material, the binder source is silicon alkoxide, the coating liquid includes a high-boiling-point aqueous-organic solvent that is an organic solvent having a boiling point of 190°C or higher and being miscible with water, and a concentration of the high-boiling-point aqueous-organic solvent in the coating liquid is 5 to 15% in terms of mass. applying a coating liquid to the glass sheet to form a coating film on the glass sheet , and drying the glass sheet to which the coating liquid is applied, and sintering the coating film, wherein the coating liquid contains the silicon oxide particles, the titanium oxide particles, and a binder source as a source of the binder material, the binder source is silicon alkoxide, the coating liquid includes a high-boiling-point aqueous-organic solvent that is an organic solvent having a boiling point of 190°C or higher and being miscible with water, and a concentration of the high-boiling-point aqueous-organic solvent in the coating liquid is 5 to 15% in terms of mass.
A cylinder head for an internal combustion engine, the cylinder head comprising: a cylinder head main body in which a plurality of combustion chambers (10a to 10d) is arranged; and a pipe member that extends along a direction in which the combustion chambers (10a to lOd) are arranged, through which a refrigerant flows, the pipe member being embedded in the cylinder head main body , wherein: the pipe member is provided with a first curved portion (113a to 113d and 123a to 123d) that is curved; characterized in that the first curved portion (113a to 113d and 123a to 123d) is provided with a first throttle region (115a to 115d and 125a to 125d), a sectional area of the first throttle region being partially reduced with respect to an upstream side and a downstream side of the first throttle region. a cylinder head main body in which a plurality of combustion chambers (10a to 10d) is arranged; and a pipe member that extends along a direction in which the combustion chambers (10a to lOd) are arranged, through which a refrigerant flows, the pipe member being embedded in the cylinder head main body , wherein: the pipe member is provided with a first curved portion (113a to 113d and 123a to 123d) that is curved; characterized in that the first curved portion (113a to 113d and 123a to 123d) is provided with a first throttle region (115a to 115d and 125a to 125d), a sectional area of the first throttle region being partially reduced with respect to an upstream side and a downstream side of the first throttle region. the pipe member is provided with a first curved portion (113a to 113d and 123a to 123d) that is curved; characterized in that the first curved portion (113a to 113d and 123a to 123d) is provided with a first throttle region (115a to 115d and 125a to 125d), a sectional area of the first throttle region being partially reduced with respect to an upstream side and a downstream side of the first throttle region.
A device for machining material with a laser beam in a machining direction , comprising: a focusing optics for focusing said laser beam onto a workpiece , said focusing optics defining an optical axis ; and an adjusting arrangement comprising an adjusting device for said laser beam , which is configured to adjust a power density distribution of said laser beam perpendicular to said machining direction to be asymmetric, characterized in that the adjusting device comprises a Siemens star or an axicon, wherein, for adjusting the power density distribution of said laser beam , said adjusting device is displaceable with respect to said optical axis . a focusing optics for focusing said laser beam onto a workpiece , said focusing optics defining an optical axis ; and an adjusting arrangement comprising an adjusting device for said laser beam , which is configured to adjust a power density distribution of said laser beam perpendicular to said machining direction to be asymmetric, characterized in that the adjusting device comprises a Siemens star or an axicon, wherein, for adjusting the power density distribution of said laser beam , said adjusting device is displaceable with respect to said optical axis .