mhurhangee/patent-ind-claim-en huggingface dataset:
A camera module, comprising a module housing , a first bracket , a camera , a second bracket and a rolling-element bracket , wherein the module housing has an inner housing chamber ; the first bracket is at least partly disposed in the inner housing chamber , the camera is at least partly disposed in the inner housing chamber , the first bracket is hinged to the module housing by a first hinge shaft , the first hinge shaft is fastened on the module housing , and the first bracket is able to rotate around the first hinge shaft ; the camera is fixedly connected to the second bracket , the rolling-element bracket is disposed with a rolling element , the second bracket is connected to the rolling element in a rolling mode, the camera is able to rotate with the second bracket around its lens axis, the rolling-element bracket is hinged to the first bracket by a second hinge shaft , the second hinge shaft and the rolling-element bracket are an integral structure, and the camera and the second bracket are able to rotate with the rolling-element bracket around the second hinge shaft ; the first bracket comprises a bracket body , the bracket body is provided with a first bypass hole , and a lens of the camera is disposed opposite to the first bypass hole ; and the axis of the first hinge shaft and the axis of the second hinge shaft intersect or are not coplanar, the lens axis and the axis of the first hinge shaft intersect or are not coplanar, and the lens axis and the axis of the second hinge shaft intersect or are not coplanar. the module housing has an inner housing chamber ; the first bracket is at least partly disposed in the inner housing chamber , the camera is at least partly disposed in the inner housing chamber , the first bracket is hinged to the module housing by a first hinge shaft , the first hinge shaft is fastened on the module housing , and the first bracket is able to rotate around the first hinge shaft ; the camera is fixedly connected to the second bracket , the rolling-element bracket is disposed with a rolling element , the second bracket is connected to the rolling element in a rolling mode, the camera is able to rotate with the second bracket around its lens axis, the rolling-element bracket is hinged to the first bracket by a second hinge shaft , the second hinge shaft and the rolling-element bracket are an integral structure, and the camera and the second bracket are able to rotate with the rolling-element bracket around the second hinge shaft ; the first bracket comprises a bracket body , the bracket body is provided with a first bypass hole , and a lens of the camera is disposed opposite to the first bypass hole ; and the axis of the first hinge shaft and the axis of the second hinge shaft intersect or are not coplanar, the lens axis and the axis of the first hinge shaft intersect or are not coplanar, and the lens axis and the axis of the second hinge shaft intersect or are not coplanar.
Tanning agent for hides, characterized in that it comprises a product obtainable by a reaction of diethanolamine with a mixture of dicarboxylic acids, wherein said mixture comprises dicarboxylic acids comprising 2 to 6 carbon atoms.
A data storage system comprising: an optical media having a gap dividing the media into segments having a plurality of tracks each exhibiting fields of modulated wobble indicative of a physical track address, wherein the optical media is a linear optical tape; an optical pick-up unit configured to detect the fields of modulated wobble; and at least one controller operatively arranged with the pick-up unit and configured to determine, in a calibration mode, settings to be used for positioning the pick-up unit over an estimated track location, characterised in that the at least one controller is configured to perform the following steps during the calibration mode: record the physical track address of one of the tracks on one side of the gap , wherein the pick-up unit has a position when detecting the fields of modulated wobble indicative of the physical track address of the one track , maintain the position of the pick-up unit as the gap moves by the pick-up unit , record the physical track address of a first detected one of the tracks on the other side of the gap , and assign a single logical track address to the recorded physical track addresses. an optical media having a gap dividing the media into segments having a plurality of tracks each exhibiting fields of modulated wobble indicative of a physical track address, wherein the optical media is a linear optical tape; an optical pick-up unit configured to detect the fields of modulated wobble; and at least one controller operatively arranged with the pick-up unit and configured to determine, in a calibration mode, settings to be used for positioning the pick-up unit over an estimated track location, characterised in that the at least one controller is configured to perform the following steps during the calibration mode: record the physical track address of one of the tracks on one side of the gap , wherein the pick-up unit has a position when detecting the fields of modulated wobble indicative of the physical track address of the one track , maintain the position of the pick-up unit as the gap moves by the pick-up unit , record the physical track address of a first detected one of the tracks on the other side of the gap , and assign a single logical track address to the recorded physical track addresses. record the physical track address of one of the tracks on one side of the gap , wherein the pick-up unit has a position when detecting the fields of modulated wobble indicative of the physical track address of the one track , maintain the position of the pick-up unit as the gap moves by the pick-up unit , record the physical track address of a first detected one of the tracks on the other side of the gap , and assign a single logical track address to the recorded physical track addresses.
An applicator for dispensing a therapeutic agent to an animal , comprising: a housing including first and second sections coupled together, the first and second sections defining a channel therebetween that includes at least one outlet , wherein the interface between the first and second sections defines a plane ; a hub integral with the first section and extending therefrom, the hub defining a conduit, wherein the hub has a first opening that is disposed at a proximal end of the hub and is configured to function as an insertion hole for receiving the dispensing end of a fluid delivery device, wherein a second opening is opposite the first opening , wherein the second opening is fluidly connected to the channel of the housing ; and a bent path connecting the conduit to the channel , wherein the bent path is seamless and is disposed within the first section and terminates into the second opening fluidly connected to the channel , wherein the second opening directs fluid in a direction orthogonal to the lengthwise direction of the channel , and wherein the bent path is offset from the plane ; wherein the conduit, the bent path and the channel are fluidly connected for conducting therapeutic agent from the conduit to the channel along the bent path, and wherein the first section and the second section are structurally shaped such that when the first section and the second section are coupled together, the therapeutic agent is discouraged from leaking out of the applicator . a housing including first and second sections coupled together, the first and second sections defining a channel therebetween that includes at least one outlet , wherein the interface between the first and second sections defines a plane ; a hub integral with the first section and extending therefrom, the hub defining a conduit, wherein the hub has a first opening that is disposed at a proximal end of the hub and is configured to function as an insertion hole for receiving the dispensing end of a fluid delivery device, wherein a second opening is opposite the first opening , wherein the second opening is fluidly connected to the channel of the housing ; and a bent path connecting the conduit to the channel , wherein the bent path is seamless and is disposed within the first section and terminates into the second opening fluidly connected to the channel , wherein the second opening directs fluid in a direction orthogonal to the lengthwise direction of the channel , and wherein the bent path is offset from the plane ; wherein the conduit, the bent path and the channel are fluidly connected for conducting therapeutic agent from the conduit to the channel along the bent path, and wherein the first section and the second section are structurally shaped such that when the first section and the second section are coupled together, the therapeutic agent is discouraged from leaking out of the applicator .
Method for coding a dimensionally stable packaging container or an associated part made of a plastic and/or paper-based material composition, wherein the packaging container being suitable for storing consumer goods, such as foodstuffs, detergents, etc., wherein during a shape-forming process for forming the three-dimensional packaging container or the associated part with a tool shape , at least one outer and/or inner side at at least one position undergoes a shape-shifting treatment acting on its first surface for producing at least one three-dimensional code (2a - d; 3a, 3b) in the form of a digital watermark (2a - d; 3a, 3b), characterized in that the three-dimensional code pattern (18a - 18k; 19a, 19b) by means of a device for a non-contact processing method, such as a laser device (4; 24), is worked into second surfaces of the tool shape or mold inserts which can be arranged therein in such a way that, in the case of a further shape shifting treatment, the surface depressions and/or elevations are contained in the second surface in the form of minute points or other minute cross-sectional areas, wherein surface depressions and/or elevations formed during further shape shifting treatments are formed complementary to surface depressions and/or elevations formed during the shape shifting treatment. wherein during a shape-forming process for forming the three-dimensional packaging container or the associated part with a tool shape , at least one outer and/or inner side at at least one position undergoes a shape-shifting treatment acting on its first surface for producing at least one three-dimensional code (2a - d; 3a, 3b) in the form of a digital watermark (2a - d; 3a, 3b), characterized in that the three-dimensional code pattern (18a - 18k; 19a, 19b) by means of a device for a non-contact processing method, such as a laser device (4; 24), is worked into second surfaces of the tool shape or mold inserts which can be arranged therein in such a way that, in the case of a further shape shifting treatment, the surface depressions and/or elevations are contained in the second surface in the form of minute points or other minute cross-sectional areas, wherein surface depressions and/or elevations formed during further shape shifting treatments are formed complementary to surface depressions and/or elevations formed during the shape shifting treatment.
A combine harvester with a cleaning device which separates components of a flow of harvested material into grain (K) and non-grain components (NKB) by segregation, wherein the cleaning device has a screen device which rotates about an axis of rotation and has a screen wall which is in the form of a screen at least in sections, which extends in a circumferential direction about the axis of rotation , wherein the segregation is carried out by superimposing a rotary motion and an oscillatory motion of the screen wall transversely to the axis of rotation , wherein the screen wall has a surface with through openings , characterized in that the respective opening has an opening cross section extending perpendicular to the surface of the screen wall which is bordered by at least one bulge of the surface which is orientated perpendicular to the axis of rotation and is disposed in the screen wall in the region of the respective opening , and in that the surface has a substantially undulating structure .
An anti-perspirant composition comprising: (i) a film forming polymer selected from modified cellulose having a solubility in water of less than 1 wt%; (ii) an organic solvent having a Hansen Solubility Parameter in the range of 17 to 28 MPa 0.5 ; and (iii) a particulate filler selected from MQ resin, silica, or clays, preferably MQ resin; wherein the modified cellulose is a C1 to C7 alkyl cellulose. (i) a film forming polymer selected from modified cellulose having a solubility in water of less than 1 wt%; (ii) an organic solvent having a Hansen Solubility Parameter in the range of 17 to 28 MPa 0.5 ; and (iii) a particulate filler selected from MQ resin, silica, or clays, preferably MQ resin;
A high power single mode, SM, Raman laser source comprising: an end pumped multi-clad Raman fiber having: an inner cladding , which is configured to receive multimode, MM, pump radiation propagating along a path at a wavelength λpump, and a MM core surrounded by the inner cladding and provided with a central core region , the pump radiation producing Raman scattering which induces a conversion of the pump radiation to a signal radiation at a Raman-shifted wavelength λram > than wavelength λpump, the central core region being dimensioned to confine substantially only a fundamental mode, FM, of the signal radiation and being distinguished from the remaining peripheral region of the MM core by being doped with impurities which enhance the Raman scattering; and spaced wavelength-selective reflectors defining therebetween a resonator for the FM at the wavelength λram which at least partially includes the central core region , the wavelength-selective reflectors being dimensioned to match the dimension of the central core region and so to match the FM of the signal radiation, wherein the Raman fiber outputs the signal radiation in the FM with an M 2 ≤ 1.1 in a power range between a few kilowatts, kW, and tens of kWs. an end pumped multi-clad Raman fiber having: an inner cladding , which is configured to receive multimode, MM, pump radiation propagating along a path at a wavelength λpump, and a MM core surrounded by the inner cladding and provided with a central core region , the pump radiation producing Raman scattering which induces a conversion of the pump radiation to a signal radiation at a Raman-shifted wavelength λram > than wavelength λpump, an inner cladding , which is configured to receive multimode, MM, pump radiation propagating along a path at a wavelength λpump, and a MM core surrounded by the inner cladding and provided with a central core region , the pump radiation producing Raman scattering which induces a conversion of the pump radiation to a signal radiation at a Raman-shifted wavelength λram > than wavelength λpump, the central core region being dimensioned to confine substantially only a fundamental mode, FM, of the signal radiation and being distinguished from the remaining peripheral region of the MM core by being doped with impurities which enhance the Raman scattering; and spaced wavelength-selective reflectors defining therebetween a resonator for the FM at the wavelength λram which at least partially includes the central core region , the wavelength-selective reflectors being dimensioned to match the dimension of the central core region and so to match the FM of the signal radiation, wherein the Raman fiber outputs the signal radiation in the FM with an M 2 ≤ 1.1 in a power range between a few kilowatts, kW, and tens of kWs.
Method assisting with driving in forwards gear a motor vehicle equipped with a front-wheels angle sensor, with a display screen and with a camera with a fisheye lens positioned at the front of the vehicle and pointing in a direction colinear with the longitudinal direction of the vehicle so as to capture images at the front of the vehicle, characterized in that it comprises the following steps: it determines the path of the front wheels of the vehicle as a function of the angle of the front wheels and of the characteristics of the vehicle which consist of the width of the vehicle, the distance between the front axle and the forwardmost point of the vehicle and the wheelbase between the front wheels, it determines a crop value by which to crop the image captured by the camera as a function of the paths of the front wheels, of the steering wheel angle, of the dimension of the sensor of the camera and of the dimension of the display screen, it determines the cropped image captured by the camera that is to be displayed on the display screen as a function of the path of the front wheels and of the crop value, and it displays the path of the front wheels of the vehicle as an overlay on the cropped image on the display screen. it determines the path of the front wheels of the vehicle as a function of the angle of the front wheels and of the characteristics of the vehicle which consist of the width of the vehicle, the distance between the front axle and the forwardmost point of the vehicle and the wheelbase between the front wheels, it determines a crop value by which to crop the image captured by the camera as a function of the paths of the front wheels, of the steering wheel angle, of the dimension of the sensor of the camera and of the dimension of the display screen, it determines the cropped image captured by the camera that is to be displayed on the display screen as a function of the path of the front wheels and of the crop value, and it displays the path of the front wheels of the vehicle as an overlay on the cropped image on the display screen.
A method of printing a film onto selected regions of a surface of a substrate , which method comprises the steps of: a) providing a continuously moving transfer member having an imaging surface , b) coating the imaging surface of the transfer member with individual particles formed of, or coated with, a thermoplastic polymer, c) removing substantially all particles that are not in direct contact with the imaging surface to leave a uniform monolayer particle coating on the imaging surface, d) exposing selected regions of the coated imaging surface to radiation of sufficient power to render the particles tacky within the selected regions, e) pressing the coated imaging surface and the substrate surface against one another, either during or after irradiation, to cause transfer to the surface of the substrate of only the regions of the particle coating that have been rendered tacky, the tacky regions forming a film, and f) repeating steps b) and c) to apply a fresh monolayer coating of particles to the selected regions from which the previously applied monolayer coating was transferred to the substrate surface in step e), to leave the imaging surface again uniformly coated with a monolayer of particles. a) providing a continuously moving transfer member having an imaging surface , b) coating the imaging surface of the transfer member with individual particles formed of, or coated with, a thermoplastic polymer, c) removing substantially all particles that are not in direct contact with the imaging surface to leave a uniform monolayer particle coating on the imaging surface, d) exposing selected regions of the coated imaging surface to radiation of sufficient power to render the particles tacky within the selected regions, e) pressing the coated imaging surface and the substrate surface against one another, either during or after irradiation, to cause transfer to the surface of the substrate of only the regions of the particle coating that have been rendered tacky, the tacky regions forming a film, and f) repeating steps b) and c) to apply a fresh monolayer coating of particles to the selected regions from which the previously applied monolayer coating was transferred to the substrate surface in step e), to leave the imaging surface again uniformly coated with a monolayer of particles.
A device comprising a compression moulded body portion comprising layers of composite material comprising reinforcement fibre and polyaryletherketone; wherein at least one layer of composite material has a first region and a second region, wherein the polyaryletherketone (PAEK) content in the first region is higher than the polyaryletherketone content of the second region; wherein the reinforcement fibres of the second region form continuous filaments that extend in substantially the same direction, and wherein these continuous filaments are interrupted in the first region to provide the first region with the higher PAEK content.
An optical shape sensing system, comprising: an optical fiber and at least one reference marker ; wherein each reference marker has at least one of an identifiable reference tracking position and an identifiable reference tracking orientation within a reference coordinate system ; wherein the optical fiber has a reconstruction launch point within the reference coordinate system serving as a basis for an execution of a shape reconstruction of the optical fiber within the reference coordinate system ; and wherein the reconstruction launch point of the optical fiber has a known spatial relationship with each reference marker to facilitate an identification of the reconstruction launch point within the reference coordinate system , a reference tracking system configured to identify the reference tracking position and/or the reference tracking orientation of each reference marker within the reference coordinate system and to identify the reconstruction launch point within the reference coordinate system from the known spatial relationship of the reconstruction launch point with each reference marker , and an optical interrogation console configured to execute shape reconstruction of the optical fiber within the reference coordinate system based on the identification of the reconstruction launch point within the reference coordinate system . an optical fiber and at least one reference marker ; wherein each reference marker has at least one of an identifiable reference tracking position and an identifiable reference tracking orientation within a reference coordinate system ; wherein the optical fiber has a reconstruction launch point within the reference coordinate system serving as a basis for an execution of a shape reconstruction of the optical fiber within the reference coordinate system ; and wherein the reconstruction launch point of the optical fiber has a known spatial relationship with each reference marker to facilitate an identification of the reconstruction launch point within the reference coordinate system , a reference tracking system configured to identify the reference tracking position and/or the reference tracking orientation of each reference marker within the reference coordinate system and to identify the reconstruction launch point within the reference coordinate system from the known spatial relationship of the reconstruction launch point with each reference marker , and an optical interrogation console configured to execute shape reconstruction of the optical fiber within the reference coordinate system based on the identification of the reconstruction launch point within the reference coordinate system .
Automatic release system on a supply- or tug-vessel, comprising a rotational towing hook supported on a vertical axle , for receipt of a towing hawser , and a releasing unit for releasing the towing hawser from the towing hook , characterized in that a registration unit is installed above the towing hook working area, said registration unit being a tiltable or liftable hoop plate, where the registration unit , under influence of vertical angular movement in the towing hawser's horizontal direction in relation to the towing hook , is arranged to trigger release of the releasing unit.