mhurhangee/patent-ind-claim-en huggingface dataset:
A draper header for a combine , the draper header comprising: an attachment frame adapted for attachment to the combine ; a harvesting assembly including a plurality of sections and a plurality of belts operable to feed crop material into the combine , the draper header being operable in a first mode that allows the plurality of sections to float relative to the attachment frame for ground following during harvesting, and the draper header being operable in a second mode in which the attachment frame is raised to lift and support the harvesting assembly to be spaced above the ground; a hydraulic leveling system including at least one leveling actuator ; and a valve operable in response to the movement of the draper header into the second mode to direct pressurized hydraulic fluid into the at least one leveling actuator to automatically level the plurality of sections of the harvesting assembly when in the second mode, characterized in that the valve has an actuator positioned to be operated by the action of raising the header to the lifted state. an attachment frame adapted for attachment to the combine ; a harvesting assembly including a plurality of sections and a plurality of belts operable to feed crop material into the combine , the draper header being operable in a first mode that allows the plurality of sections to float relative to the attachment frame for ground following during harvesting, and the draper header being operable in a second mode in which the attachment frame is raised to lift and support the harvesting assembly to be spaced above the ground; a hydraulic leveling system including at least one leveling actuator ; and a valve operable in response to the movement of the draper header into the second mode to direct pressurized hydraulic fluid into the at least one leveling actuator to automatically level the plurality of sections of the harvesting assembly when in the second mode, characterized in that the valve has an actuator positioned to be operated by the action of raising the header to the lifted state.
An apparatus for pairing an anatomy representation with live images, comprising: - an interface unit ; and - a processing unit ; wherein the interface unit is configured to provide reference projected-anatomy image data of a device in a spatial relation to an anatomy, wherein the image data comprises at least a first and second image showing the device from different viewing angles; and to provide at least one live image containing the device; wherein the processing unit is configured to provide a representation of the anatomy with an anatomy frame of reference; to bring the anatomy representation into spatial coherence with the at least first and second image of the reference projected anatomy image data; to compute a three-dimensional geometric model of the device within the anatomy frame of reference from the projected anatomy image data; to 2D-3D-register the model and the at least one live image based on the device information contained in the live image, said device information including a device footprint; to bring the anatomy representation into spatial correspondence with the at least one live image based on the registering of the model and the at least one live image; and to combine the registered anatomy with the at least one live image. - an interface unit ; and - a processing unit ;
Fastening device for a diagonal strut of a scaffold on a first vertical post, wherein the fastening device comprises the following: a) a diagonal coupling for connecting the diagonal strut of the scaffold , wherein the diagonal coupling has a first sheet metal portion having a first slot for partly receiving the diagonal strut ; b) a projection which can be inserted at one end into a post recess of the first vertical post of the scaffold and which is connected directly to the diagonal coupling at the other end, wherein the fastening device can be interlockingly fastened to the post recess in the first vertical post by means of the projection ; c) a vertical coupling for at least partly surrounding the first vertical post , which vertical coupling is connected to the diagonal coupling , wherein the projection can be secured against being pulled out of the post recess by means of the vertical coupling . a) a diagonal coupling for connecting the diagonal strut of the scaffold , wherein the diagonal coupling has a first sheet metal portion having a first slot for partly receiving the diagonal strut ; b) a projection which can be inserted at one end into a post recess of the first vertical post of the scaffold and which is connected directly to the diagonal coupling at the other end, wherein the fastening device can be interlockingly fastened to the post recess in the first vertical post by means of the projection ; c) a vertical coupling for at least partly surrounding the first vertical post , which vertical coupling is connected to the diagonal coupling , wherein the projection can be secured against being pulled out of the post recess by means of the vertical coupling .
An antenna connection detection method, wherein the method is applied to a network side device, the network side device comprises a plurality of communications interfaces, one communications interface is connected to one antenna element, and the method comprises: receiving (S502), by the network side device by using the antenna elements connected to the plurality of communications interfaces, reference signals sent by N terminal devices, wherein N is an integer greater than 0; determining (S503), by the network side device, N channel correlation matrices based on the reference signals sent by the N terminal devices, wherein one channel correlation matrix is used to represent correlation between transmission channels between the network side device and one terminal device; and determining (S504), by the network side device based on the N channel correlation matrices and a preset channel correlation matrix, whether a connection sequence between the plurality of communications interfaces and the antenna elements is incorrect. receiving (S502), by the network side device by using the antenna elements connected to the plurality of communications interfaces, reference signals sent by N terminal devices, wherein N is an integer greater than 0; determining (S503), by the network side device, N channel correlation matrices based on the reference signals sent by the N terminal devices, wherein one channel correlation matrix is used to represent correlation between transmission channels between the network side device and one terminal device; and determining (S504), by the network side device based on the N channel correlation matrices and a preset channel correlation matrix, whether a connection sequence between the plurality of communications interfaces and the antenna elements is incorrect.
A confocal measurement device , characterized by comprising: a light source that is adapted to output white light to a first optical fiber cable ; an optical coupler to which the first optical fiber cable , a second optical fiber cable , and a third optical fiber cable are connected; a sensor head that is connected to the second optical fiber cable , accommodates a diffraction lens causing a chromatic aberration in an optical-axis direction in incident white light, and applies light with a chromatic aberration caused therein to a measurement object ; and a spectroscope that is connected to the third optical fiber cable , is adapted to acquire reflected light which is reflected by the measurement object and collected by the sensor head via the second optical fiber cable , the optical coupler , and the third optical fiber cable , and measure a spectrum of the reflected light, wherein the optical coupler is a filter type coupler or a spatial optical system type coupler that is adapted to bring a first transmission waveform indicating a relationship between a wavelength and an amount of light when light is transmitted from the first optical fiber cable to the second optical fiber cable and a second transmission waveform indicating a relationship between a wavelength and an amount of light when light is transmitted from the second optical fiber cable to the third optical fiber cable close to each other. a light source that is adapted to output white light to a first optical fiber cable ; an optical coupler to which the first optical fiber cable , a second optical fiber cable , and a third optical fiber cable are connected; a sensor head that is connected to the second optical fiber cable , accommodates a diffraction lens causing a chromatic aberration in an optical-axis direction in incident white light, and applies light with a chromatic aberration caused therein to a measurement object ; and a spectroscope that is connected to the third optical fiber cable , is adapted to acquire reflected light which is reflected by the measurement object and collected by the sensor head via the second optical fiber cable , the optical coupler , and the third optical fiber cable , and measure a spectrum of the reflected light, wherein the optical coupler is a filter type coupler or a spatial optical system type coupler that is adapted to bring a first transmission waveform indicating a relationship between a wavelength and an amount of light when light is transmitted from the first optical fiber cable to the second optical fiber cable and a second transmission waveform indicating a relationship between a wavelength and an amount of light when light is transmitted from the second optical fiber cable to the third optical fiber cable close to each other.
A process of printing on a composite web, comprising the steps of: providing a nonwoven layer; providing a second layer comprising a nonwoven web, an apertured film, or a combination thereof, wherein the nonwoven layer is a secondary topsheet and the second layer is a topsheet and wherein the nonwoven layer has a basis weight of from about 8 gsm to about 55 gsm; combining the nonwoven layer with the second layer to define a composite web; and applying a volume of ink to the composite web, wherein a first portion of the volume of ink is associated with the nonwoven layer and a second portion of the volume of ink is associated with the second layer, and wherein applying the volume of ink to the composite web comprises blowing a portion of the volume of ink through the composite web, wherein the blow-through portion of the volume of ink is less than about 10% of the volume of ink. providing a nonwoven layer; providing a second layer comprising a nonwoven web, an apertured film, or a combination thereof, wherein the nonwoven layer is a secondary topsheet and the second layer is a topsheet and wherein the nonwoven layer has a basis weight of from about 8 gsm to about 55 gsm; combining the nonwoven layer with the second layer to define a composite web; and applying a volume of ink to the composite web, wherein a first portion of the volume of ink is associated with the nonwoven layer and a second portion of the volume of ink is associated with the second layer, and wherein applying the volume of ink to the composite web comprises blowing a portion of the volume of ink through the composite web, wherein the blow-through portion of the volume of ink is less than about 10% of the volume of ink.
Method for the manufacturing of a coated panel, in particular a wall, ceiling or flooring panel for applications in outdoor areas, comprising the following steps: a) Providing a carrier plate of mineral wool and/or glass wool, having a major front surface and a rear surface; b) Applying a primer onto the major front surface of the carrier plate; wherein c) the primer comprises isocyanates, respectively consists of isocyanates; d) Thereafter, applying a liquid first oligomer in an amount of 30 to 150 g/m 2 onto the front major surface of the carrier plate; e) Thereafter, applying a second liquid oligomer, which is different from the first oligomer, in an amount of 30 to 180 g/m 2 onto the wet surface of the first oligomer layer applied in step d); and f) Thereafter, curing of the applied oligomers. a) Providing a carrier plate of mineral wool and/or glass wool, having a major front surface and a rear surface; b) Applying a primer onto the major front surface of the carrier plate; wherein c) the primer comprises isocyanates, respectively consists of isocyanates; d) Thereafter, applying a liquid first oligomer in an amount of 30 to 150 g/m 2 onto the front major surface of the carrier plate; e) Thereafter, applying a second liquid oligomer, which is different from the first oligomer, in an amount of 30 to 180 g/m 2 onto the wet surface of the first oligomer layer applied in step d); and f) Thereafter, curing of the applied oligomers.
A control method of a mobile robot comprising: first illumination value measurement (S20) of, by the mobile robot, measuring a first illumination value in a travel area in which the mobile robot travels, and executing a first task for the travel area; recharging (S30-S40) of, by the mobile robot, stopping the first task and performing recharging when a charged amount of a battery is insufficient in a state in which the mobile robot incompletely executes the first task for the travel area; second illumination value measurement (S50) of, by the mobile robot, measuring a second illumination value in the travel area after the mobile robot completes recharging; and task execution determination (S60) of, by the mobile robot, comparing the second illumination value with a predetermined reference illumination value and the first illumination value, thereby subsequently executing the first task or determining no subsequent execution of the first task, wherein, in the task execution determination (S60), the mobile robot does not subsequently execute the first task when the second illumination value is smaller than the reference illumination value, and a difference between the second illumination value and the first illumination value is greater than a predetermined reference difference value. first illumination value measurement (S20) of, by the mobile robot, measuring a first illumination value in a travel area in which the mobile robot travels, and executing a first task for the travel area; recharging (S30-S40) of, by the mobile robot, stopping the first task and performing recharging when a charged amount of a battery is insufficient in a state in which the mobile robot incompletely executes the first task for the travel area; second illumination value measurement (S50) of, by the mobile robot, measuring a second illumination value in the travel area after the mobile robot completes recharging; and task execution determination (S60) of, by the mobile robot, comparing the second illumination value with a predetermined reference illumination value and the first illumination value, thereby subsequently executing the first task or determining no subsequent execution of the first task, wherein, in the task execution determination (S60), the mobile robot does not subsequently execute the first task when the second illumination value is smaller than the reference illumination value, and a difference between the second illumination value and the first illumination value is greater than a predetermined reference difference value.
Personal care unit including a motor casing (M) and a removable accessory for the personal care of the body (A), the accessory for the care of the body including: - at least one movable personal care tool intended to be moved by said motor casing (M), - at least one personal care head , - means for driving the personal care head and/or the personal care tool, the drive means including at least one electric motor , said at least one personal care head being suitable for performing a skin treatment by rubbing and/or massage using the at least one movable personal care tool , and - means for dispensing a cosmetic or medicinal product, including: o a cosmetic product container , o at least one product-dispensing nozzle located on or near a treatment area (S) of the personal care head , and ∘ a circuit for supplying the dispensing nozzle with product from the product container , ∘ upstream from the nozzle , at least one pump capable of being operated by the movement of the personal care tool and/or of the personal care head , ∘ said cosmetic product container being located upstream from each pump , this container being distinct from the pump, characterised in that each pump includes a flexible body which defines a pumping chamber and at least one pressing member operated by the movement of the personal care tool and/or the personal care head suitable for intermittently pressing the flexible body, and that the flexible body is elastically deformable. - at least one movable personal care tool intended to be moved by said motor casing (M), - at least one personal care head , - means for driving the personal care head and/or the personal care tool, the drive means including at least one electric motor , - means for dispensing a cosmetic or medicinal product, including: o a cosmetic product container , o at least one product-dispensing nozzle located on or near a treatment area (S) of the personal care head , and ∘ a circuit for supplying the dispensing nozzle with product from the product container , ∘ upstream from the nozzle , at least one pump capable of being operated by the movement of the personal care tool and/or of the personal care head , ∘ said cosmetic product container being located upstream from each pump , this container being distinct from the pump, o a cosmetic product container , o at least one product-dispensing nozzle located on or near a treatment area (S) of the personal care head , and ∘ a circuit for supplying the dispensing nozzle with product from the product container , ∘ upstream from the nozzle , at least one pump capable of being operated by the movement of the personal care tool and/or of the personal care head , ∘ said cosmetic product container being located upstream from each pump , this container being distinct from the pump,
A method implemented by an imaging device , comprising: recording an image of a subject to which a wearable computing device is secured; responsive to the recording, wirelessly receiving data from the wearable computing device , the data including an identifier of the wearable computing device and biometric data of the subject ; embedding the identifier and the biometric data as metadata in the recorded image ; estimating a position of the subject within the recorded image ; embedding an indication of the position as metadata in the recorded image , characterized in that estimating the position of the subject within the recorded image comprises: receiving a reference image of the subject's face from the wearable computing device ; and performing a facial recognition algorithm to determine the position of the subject within the recorded image based on the reference image. recording an image of a subject to which a wearable computing device is secured; responsive to the recording, wirelessly receiving data from the wearable computing device , the data including an identifier of the wearable computing device and biometric data of the subject ; embedding the identifier and the biometric data as metadata in the recorded image ; estimating a position of the subject within the recorded image ; embedding an indication of the position as metadata in the recorded image , characterized in that estimating the position of the subject within the recorded image comprises: receiving a reference image of the subject's face from the wearable computing device ; and performing a facial recognition algorithm to determine the position of the subject within the recorded image based on the reference image.
A sensor assembly comprising: a first magnetic field sensor including a first substrate and a first elongated magnetic field sensor component extending a first length; and a second magnetic field sensor including a second substrate and a second elongated magnetic field sensor component extending a second length that is shorter than the first length, wherein the first magnetic field sensor has a greater sensitivity to a sensed magnetic field than the second magnetic field sensor , wherein the first elongated magnetic field sensor component is a first flux guide, and wherein the second elongated magnetic field sensor component is a second flux guide, wherein the first magnetic field sensor includes a first magneto-resistive sensing element positioned adjacent the first flux guide, and wherein the second magnetic field sensor includes a second magneto-resistive sensing element positioned adjacent the second flux guide. a first magnetic field sensor including a first substrate and a first elongated magnetic field sensor component extending a first length; and a second magnetic field sensor including a second substrate and a second elongated magnetic field sensor component extending a second length that is shorter than the first length, wherein the first magnetic field sensor has a greater sensitivity to a sensed magnetic field than the second magnetic field sensor , wherein the first elongated magnetic field sensor component is a first flux guide, and wherein the second elongated magnetic field sensor component is a second flux guide, wherein the first magnetic field sensor includes a first magneto-resistive sensing element positioned adjacent the first flux guide, and wherein the second magnetic field sensor includes a second magneto-resistive sensing element positioned adjacent the second flux guide.
Method for operating a headlight for a motor vehicle , with the steps: - controlling a multiplicity of illuminated spots of the headlight , wherein each illuminated spot of the multiplicity of illuminated spots illuminates a respectively predetermined solid angle region, - switching-on and switching-off individual illuminated spots of the multiplicity of illuminated spots of the headlight such that the headlight generates a predetermined light distribution having a light-dark boundary , and - altering a brightness gradient of the predetermined light distribution for altering a clarity of the light-dark boundary , characterised in that - the altering of the brightness gradient by dimming the brightness of illuminated spots of the multiplicity of illuminated spots is carried out without influencing a shape and/or a position of the predetermined light distribution , and - a value is set for the brightness gradient depending on a fatigue level of the driver, wherein - the brightness gradient is set to a further first value when the fatigue level of the driver and/or the journey time undershoots a further predetermined threshold value, and is set to a further second value when the fatigue level of the driver and/or the journey time exceeds the further predetermined threshold value, wherein the further first value is greater than the further second value . - controlling a multiplicity of illuminated spots of the headlight , wherein each illuminated spot of the multiplicity of illuminated spots illuminates a respectively predetermined solid angle region, - switching-on and switching-off individual illuminated spots of the multiplicity of illuminated spots of the headlight such that the headlight generates a predetermined light distribution having a light-dark boundary , and - altering a brightness gradient of the predetermined light distribution for altering a clarity of the light-dark boundary , characterised in that - the altering of the brightness gradient by dimming the brightness of illuminated spots of the multiplicity of illuminated spots is carried out without influencing a shape and/or a position of the predetermined light distribution , and - a value is set for the brightness gradient depending on a fatigue level of the driver, wherein - the brightness gradient is set to a further first value when the fatigue level of the driver and/or the journey time undershoots a further predetermined threshold value, and is set to a further second value when the fatigue level of the driver and/or the journey time exceeds the further predetermined threshold value, wherein the further first value is greater than the further second value .