mhurhangee/ep-ind-claims huggingface dataset:
Headlight lighting light module for a motor vehicle, comprising: - at least one light source; - a first reflecting surface with a first focus and a second focus and capable of reflecting the rays of the light source or sources situated at the first focus to the second focus; - a second reflecting surface, called folder, with a cutting edge situated at the second focus; - a lens capable of deflecting the rays originating from the first reflecting surface and from the folder in order to form a light beam along an optical axis of the module; - a heat sink capable of dissipating the heat produced by said source or sources and supporting the folder; characterized in that the heat sink comprises at least one protrusion (6 6) directed upwards and in contact with the folder, the contact of the protrusion or protrusions with the folder making it possible to ensure a vertical positioning of said folder. - at least one light source; - a first reflecting surface with a first focus and a second focus and capable of reflecting the rays of the light source or sources situated at the first focus to the second focus; - a second reflecting surface, called folder, with a cutting edge situated at the second focus; - a lens capable of deflecting the rays originating from the first reflecting surface and from the folder in order to form a light beam along an optical axis of the module; - a heat sink capable of dissipating the heat produced by said source or sources and supporting the folder;
1.1 Guide rail for a motorised chain saw, having an elongated base body made of steel, 1.2 the base body comprising flat rail sides (11, 12) and at its opposite circumferential edges (13, 14) a guide groove for the engagement of driving members of a saw chain, 1.3 and further having an elongated window formed between the circumferential edges (13, 14) in the base body, 1.4 which window is filled with an insert of a fibrous composite material made of resin and fibres, 1.5 the fibres being oriented in the direction of the longitudinal axis of the base body, 1.6 and the insert being composed of a plurality of resin-bonded fibre layers, characterised in that 1.7 a middle layer is formed from at least one fibre layer, the fibres of which lie at an angle of approximately 30° to 60° to the longitudinal axis of the base body, 1.8 and in that at least two fibre layers with fibres oriented in the direction of the longitudinal axis of the base body are placed on both sides of the middle layer, 1.9 and in that the fibre layers with fibres oriented in the direction of the longitudinal axis of the base body are covered by a fibrous fabric towards the outside. 1.1 Guide rail for a motorised chain saw, having an elongated base body made of steel, 1.2 the base body comprising flat rail sides (11, 12) and at its opposite circumferential edges (13, 14) a guide groove for the engagement of driving members of a saw chain, 1.3 and further having an elongated window formed between the circumferential edges (13, 14) in the base body, 1.4 which window is filled with an insert of a fibrous composite material made of resin and fibres, 1.5 the fibres being oriented in the direction of the longitudinal axis of the base body, 1.6 and the insert being composed of a plurality of resin-bonded fibre layers, characterised in that 1.7 a middle layer is formed from at least one fibre layer, the fibres of which lie at an angle of approximately 30° to 60° to the longitudinal axis of the base body, 1.8 and in that at least two fibre layers with fibres oriented in the direction of the longitudinal axis of the base body are placed on both sides of the middle layer, 1.9 and in that the fibre layers with fibres oriented in the direction of the longitudinal axis of the base body are covered by a fibrous fabric towards the outside.
Method of preparing organic wastes, such as biomass or wastewater, for further processing, especially for gasification, wherein - in a first process stage the organic wastes are introduced into an aerobic fermenter and admixed with an inoculant and - in a third process stage the CO 2 formed in the aerobic fermenter is supplied to a gas reformer in which there is a conversion to methane gas, wherein - connected between the aerobic fermenter and the gas reformer there is also an anaerobic fermenter, and process water is transferred from the aerobic fermenter to the anaerobic fermenter, is admixed with an inoculum and is degraded in a second process stage to give service water, wherein the CO 2 formed in the anaerobic fermenter is likewise supplied to the gas reformer in which there is a conversion to methane gas. - in a first process stage the organic wastes are introduced into an aerobic fermenter and admixed with an inoculant and - in a third process stage the CO 2 formed in the aerobic fermenter is supplied to a gas reformer in which there is a conversion to methane gas, wherein - connected between the aerobic fermenter and the gas reformer there is also an anaerobic fermenter, and process water is transferred from the aerobic fermenter to the anaerobic fermenter, is admixed with an inoculum and is degraded in a second process stage to give service water, wherein the CO 2 formed in the anaerobic fermenter is likewise supplied to the gas reformer in which there is a conversion to methane gas.
A lifting heddle (3, 5) of a leno weave apparatus comprising a clamping apparatus for providing a clamping connection as a releasable connection of a harness cord to the lifting heddle (3, 5), wherein the clamping apparatus has a clamping wedge and a a wedge receiver device arranged at an end of the lifting heddle (3, 5), characterized in that the wedge receiver device displaceably receives the clamping wedge in a longitudinal direction of the lifting heddle (5, 7), with the harness cord being clampingly grippable between the wedge receiver device and the clamping wedge, with means being provided for fixing the clamping wedge in the clamping receiver device.
A method for generating underwater navigational information by a system, comprising a user interface device and a sensor unit, the method comprising: receiving input data from a user through the user interface device, obtaining data from the sensor unit comprising at least a magnetometer and an accelerometer, calculating an estimation of a propulsion power produced by the user carrying the system at predetermined points of time at least partly based on inertial data obtained at least with the accelerometer, calculating a hydrodynamic coefficient for the user at least partly based on the input data by the user, calculating a velocity of the user at least partly on a basis of the estimated propulsion power and the determined hydrodynamic coefficient at the predetermined points of time, calculating heading information of the user at the predetermined points of time from data obtained with the magnetometer, and generating navigational information at least by combining the calculated velocity information with the calculated heading information at corresponding points of time. receiving input data from a user through the user interface device, obtaining data from the sensor unit comprising at least a magnetometer and an accelerometer, calculating an estimation of a propulsion power produced by the user carrying the system at predetermined points of time at least partly based on inertial data obtained at least with the accelerometer, calculating a hydrodynamic coefficient for the user at least partly based on the input data by the user, calculating a velocity of the user at least partly on a basis of the estimated propulsion power and the determined hydrodynamic coefficient at the predetermined points of time, calculating heading information of the user at the predetermined points of time from data obtained with the magnetometer, and generating navigational information at least by combining the calculated velocity information with the calculated heading information at corresponding points of time.
A method of configuring a data processing apparatus for determining the real size of an object in an image of a scene displayed on a display screen, wherein the data processing apparatus: responds to user input by displaying in the image of the scene displayed on a display screen a virtual object representative of a real size object to establish a first datum position; varies the size of the virtual object in the image responsive to user input; stores data representative of the horizontal and vertical size of the virtual object relative to the displayed image at the first datum position; displays said virtual object at a second datum position in said image responsive to user input; varies the size of the virtual object on the display screen at the second datum position responsive to user input; and stores data representative of the vertical and horizontal size of the virtual object at the second datum position relative to the displayed image; wherein the data processing apparatus automatically establishes said first datum position by displaying said virtual object such that the foot of the virtual object is at the foot of said displayed image, wherein the lowest vertical coordinate of an object provides the location of the foot of that object; and wherein the data processing apparatus automatically establishes said second datum position by displaying said virtual object such that the foot of the virtual object is on the horizon of the scene in the displayed image, wherein the horizon of the scene in the displayed image corresponds to the furthest visible point in the scene. responds to user input by displaying in the image of the scene displayed on a display screen a virtual object representative of a real size object to establish a first datum position; varies the size of the virtual object in the image responsive to user input; stores data representative of the horizontal and vertical size of the virtual object relative to the displayed image at the first datum position; displays said virtual object at a second datum position in said image responsive to user input; varies the size of the virtual object on the display screen at the second datum position responsive to user input; and stores data representative of the vertical and horizontal size of the virtual object at the second datum position relative to the displayed image; wherein the data processing apparatus automatically establishes said first datum position by displaying said virtual object such that the foot of the virtual object is at the foot of said displayed image, wherein the lowest vertical coordinate of an object provides the location of the foot of that object; and wherein the data processing apparatus automatically establishes said second datum position by displaying said virtual object such that the foot of the virtual object is on the horizon of the scene in the displayed image, wherein the horizon of the scene in the displayed image corresponds to the furthest visible point in the scene.
A composition for an anti-glare film, comprising: a binder resin; and a core-shell particle having an average surface roughness ([Rz]) in the range of 30 nm to 300 nm. a binder resin; and a core-shell particle having an average surface roughness ([Rz]) in the range of 30 nm to 300 nm.
An ionization method for a substance contained in a liquid, comprising steps of: supplying the liquid onto a substrate from a probe (1; 21; 31; 41); generating an electric field between an electrically conductive portion of the probe (1; 21; 31; 41) in contact with the liquid and an ion extraction electrode; and oscillating an end of the probe (1; 21; 31; 41) in a direction that intersects with the axial direction of the probe (1; 21; 31; 41) to separately cause (i) a state where the probe (1; 21; 31; 41) and the substrate are connected to each other with the intermediation of a liquid bridge made of the liquid containing the substance, and (ii) a state where the probe (1; 21; 31; 41) and the substrate are separated from each other. supplying the liquid onto a substrate from a probe (1; 21; 31; 41); generating an electric field between an electrically conductive portion of the probe (1; 21; 31; 41) in contact with the liquid and an ion extraction electrode; and oscillating an end of the probe (1; 21; 31; 41) in a direction that intersects with the axial direction of the probe (1; 21; 31; 41) to separately cause (i) a state where the probe (1; 21; 31; 41) and the substrate are connected to each other with the intermediation of a liquid bridge made of the liquid containing the substance, and (ii) a state where the probe (1; 21; 31; 41) and the substrate are separated from each other. (i) a state where the probe (1; 21; 31; 41) and the substrate are connected to each other with the intermediation of a liquid bridge made of the liquid containing the substance, and (ii) a state where the probe (1; 21; 31; 41) and the substrate are separated from each other.
An axial flux rotary generator comprising: two magnetic annuli (29, 30); an annular collar which extends between the magnetic annuli; a coil annulus mechanically braced at an outside periphery; the magnetic annuli (29, 30) and coil annulus having a common axis; the two magnetic annuli (29, 30) defining a plurality of magnetic fields around the common axis extending across a gap between the two magnetic annuli (29, 30) and the coil annulus having a sequence of coils around the common axis in the gap such that lines of magnetic flux from the magnetic fields cut the turns of the coils and thus induce electric current in the coils as the magnetic annuli are caused to rotate relative to the coil annulus; wherein means (41, 42, 43, 44) are provided at the central aperture of the coil annulus to resist axial flexure of the coil annulus, wherein at least a part of the means to resist axial flexure is accommodated within one or more circumferential grooves in the annular collar, characterised in that the means to resist axial flexure comprises a contact type bearing (41, 42, 43, 44), wherein the axial flux rotary generator further comprises channels, provided through the annular collar which extends between the magnetic annuli, reaching into the groove to enable lubricant to be provided to the means (41, 42, 43, 44) to resist axial flexure. two magnetic annuli (29, 30); an annular collar which extends between the magnetic annuli; a coil annulus mechanically braced at an outside periphery; the magnetic annuli (29, 30) and coil annulus having a common axis; the two magnetic annuli (29, 30) defining a plurality of magnetic fields around the common axis extending across a gap between the two magnetic annuli (29, 30) and the coil annulus having a sequence of coils around the common axis in the gap such that lines of magnetic flux from the magnetic fields cut the turns of the coils and thus induce electric current in the coils as the magnetic annuli are caused to rotate relative to the coil annulus; wherein means (41, 42, 43, 44) are provided at the central aperture of the coil annulus to resist axial flexure of the coil annulus, wherein at least a part of the means to resist axial flexure is accommodated within one or more circumferential grooves in the annular collar, characterised in that the means to resist axial flexure comprises a contact type bearing (41, 42, 43, 44), wherein the axial flux rotary generator further comprises channels, provided through the annular collar which extends between the magnetic annuli, reaching into the groove to enable lubricant to be provided to the means (41, 42, 43, 44) to resist axial flexure.
An adjustable mount for an optical device in a laser spectroscopy system, the adjustable mount comprising: a body configured to mount to a process area containing a fluid to be tested, the body having a spherical surface; a reflector mount having a feature configured to mount an optical device, the reflector mount having a spherical surface coupled to the spherical surface of the body to define a spherical interface between the body and the reflector mount; wherein the spherical interface between the body and the reflector mount is a curved interface that allows relative motion between the reflector mount and the body; two alignment devices configured to engage the reflector mount and the body to fix a position of the reflector mount relative to the body such that each of the alignment devices determines a position of the reflector mount relative to the body in a respective different axis; an optical device removably mounted to the reflector mount independent of the alignment devices, the optical device sealed to the reflector mount by a seal and disposed to contact the fluid to be tested; and wherein the body interfaces with the reflector mount at the spherical interface, and the spherical interface includes a seal. a body configured to mount to a process area containing a fluid to be tested, the body having a spherical surface; a reflector mount having a feature configured to mount an optical device, the reflector mount having a spherical surface coupled to the spherical surface of the body to define a spherical interface between the body and the reflector mount; wherein the spherical interface between the body and the reflector mount is a curved interface that allows relative motion between the reflector mount and the body; two alignment devices configured to engage the reflector mount and the body to fix a position of the reflector mount relative to the body such that each of the alignment devices determines a position of the reflector mount relative to the body in a respective different axis; an optical device removably mounted to the reflector mount independent of the alignment devices, the optical device sealed to the reflector mount by a seal and disposed to contact the fluid to be tested; and wherein the body interfaces with the reflector mount at the spherical interface, and the spherical interface includes a seal.
A low zinc lubricating composition comprising: an oil of lubricating viscosity; a borated dispersant present to deliver at least 25 ppm boron to the lubricant composition, wherein the borated dispersant is selected from one or more of a borated succinimide dispersant, a borated Mannich dispersant, a borated polyolefin succinic acid ester, an amide or ester-amide, and mixtures thereof; and a metal-free organo-phosphorus anti-wear additive selected from an organo-phosphite compound, an organo-phosphonate compound, an amine-salted phosphate compound, or combinations thereof, wherein the lubricating composition is substantially free of a metal-containing sulfur coupled alkyl phenol compound, and wherein the lubricating composition contains zinc in an amount less than 600 ppm by weight of the composition, wherein the lubricating composition comprises a zinc dialkyldithiophosphate, wherein the zinc dialkyldithiophosphate is present in an amount of from 0.1 wt. % to 0.5 wt. % of the lubricating composition. an oil of lubricating viscosity; a borated dispersant present to deliver at least 25 ppm boron to the lubricant composition, wherein the borated dispersant is selected from one or more of a borated succinimide dispersant, a borated Mannich dispersant, a borated polyolefin succinic acid ester, an amide or ester-amide, and mixtures thereof; and a metal-free organo-phosphorus anti-wear additive selected from an organo-phosphite compound, an organo-phosphonate compound, an amine-salted phosphate compound, or combinations thereof, wherein the lubricating composition is substantially free of a metal-containing sulfur coupled alkyl phenol compound, and wherein the lubricating composition contains zinc in an amount less than 600 ppm by weight of the composition, wherein the lubricating composition comprises a zinc dialkyldithiophosphate, wherein the zinc dialkyldithiophosphate is present in an amount of from 0.1 wt. % to 0.5 wt. % of the lubricating composition.
An apparatus for aligning a substrate used to form photovoltaic cells comprising: two or more conveying units, each conveying unit comprising two supporting elements (130, 140, 150, 160, 170, 180, 190, 195, 199) configured to rotate about a first rotation axis to convey the substrate, wherein each supporting element (130, 140, 150, 160, 170, 180, 190, 195, 199) comprises one or more cone elements provided with a lateral surface (151; 161, 162; 171; 181; 191; 196) configured to support the substrate, wherein the two supporting elements (130, 140, 150, 160, 170, 180, 190, 195, 199) of each conveying unit are arranged at a distance (d1-d5) from each other along the first rotation axis, and characterized in that the distance (d1-d5) at which the two supporting elements (130, 140, 150, 160, 170, 180, 190, 195, 199) of one conveying unit are arranged from each other is greater than the distance (d1-d5) at which the two supporting elements (130, 140, 150, 160, 170, 180, 190, 195, 199) of one of the adjacent conveying units are arranged from each other. two or more conveying units, each conveying unit comprising two supporting elements (130, 140, 150, 160, 170, 180, 190, 195, 199) configured to rotate about a first rotation axis to convey the substrate, wherein each supporting element (130, 140, 150, 160, 170, 180, 190, 195, 199) comprises one or more cone elements provided with a lateral surface (151; 161, 162; 171; 181; 191; 196) configured to support the substrate, wherein the two supporting elements (130, 140, 150, 160, 170, 180, 190, 195, 199) of each conveying unit are arranged at a distance (d1-d5) from each other along the first rotation axis, and characterized in that the distance (d1-d5) at which the two supporting elements (130, 140, 150, 160, 170, 180, 190, 195, 199) of one conveying unit are arranged from each other is greater than the distance (d1-d5) at which the two supporting elements (130, 140, 150, 160, 170, 180, 190, 195, 199) of one of the adjacent conveying units are arranged from each other.
Method for assisting a driver, in which method a vehicle automatically carries out a parking driving manoeuvre and in which a parking brake is at least partially activated while the driving manoeuvre is being carried out such that a braking effect is permanently exerted on the wheels of at least one axle such that a drive of the vehicle for moving the vehicle operates counter to the braking effect of the brake installation, wherein at least one operating parameter which is associated with an increase of the braking effect exerted on at least one wheel that is not caused by an actuation is detected and evaluated during the driving manoeuvre, and wherein a braking effect on at least one wheel is reduced as a function of the result of the evaluation, wherein the operating parameter comprises the wheel rotating speeds of the wheels of an axle, and the braking effect on that wheel that has a lower wheel rotating speed than the other wheel is reduced at least partially when a difference of the wheel rotating speeds of the two wheels exceeds a threshold value.