mhurhangee/patent-ind-claim-en huggingface dataset:
Coil coating method for producing a layer arrangement having a metal substrate and a protective lacquer layer , comprising the following steps: • providing a metal substrate ; • applying a protective lacquer by means of coil coating, which lacquer comprises a polymerisable acrylate binder and a first thermal initiator, by means of which a free-radical polymerization reaction of the binder directly on the metal substrate or on a primer provided on the metal substrate can be initiated by supplying heat, and a second thermal initiator which is different from the first initiator, wherein the first initiator has a half-life of less than or equal to 2 s at a temperature in a range of between 140 and 180°C and the second initiator has a half-life of less than or equal to 2 s at a temperature in a range of between 200 and 250°C; • supplying heat and thereby initiating a decomposition reaction of the first thermal initiator, which reaction initiates the polymerisation of the binder, at a temperature between 140 and 180°C and initiating a decomposition reaction of the second thermal initiator, which reaction accelerates and/or completes the polymerisation of the binder, at a temperature between 200 and 250°C. • providing a metal substrate ; • applying a protective lacquer by means of coil coating, which lacquer comprises a polymerisable acrylate binder and a first thermal initiator, by means of which a free-radical polymerization reaction of the binder directly on the metal substrate or on a primer provided on the metal substrate can be initiated by supplying heat, and a second thermal initiator which is different from the first initiator, wherein the first initiator has a half-life of less than or equal to 2 s at a temperature in a range of between 140 and 180°C and the second initiator has a half-life of less than or equal to 2 s at a temperature in a range of between 200 and 250°C; • supplying heat and thereby initiating a decomposition reaction of the first thermal initiator, which reaction initiates the polymerisation of the binder, at a temperature between 140 and 180°C and initiating a decomposition reaction of the second thermal initiator, which reaction accelerates and/or completes the polymerisation of the binder, at a temperature between 200 and 250°C.
Expanded polypropylene beads comprising a polymer composition, wherein the polymer composition comprises a) ≥ 10 wt% and ≤ 60 wt% of a high melt strength polypropylene, b) ≥ 10 wt% and ≤ 35 wt% of a polyethylene c) ≥ 10 wt% and ≤ 60 wt% of a first polypropylene, wherein the first polypropylene is chosen from the group of propylene homopolymers, propylene copolymers and/or mixtures thereof d) ≥ 0 wt% and ≤ 60 wt% of a second polypropylene wherein the sum of the high melt strength polypropylene, the first polypropylene and the second polypropylene is ≥ 60wt% based on the sum of the weight of the high melt strength polypropylene, the polyethylene, the first polypropylene and the second polypropylene and wherein the polyethylene has a density ≥ 940 kg/m 3 and ≤ 970 kg/m 3 as determined according to ISO 845 . a) ≥ 10 wt% and ≤ 60 wt% of a high melt strength polypropylene, b) ≥ 10 wt% and ≤ 35 wt% of a polyethylene c) ≥ 10 wt% and ≤ 60 wt% of a first polypropylene, wherein the first polypropylene is chosen from the group of propylene homopolymers, propylene copolymers and/or mixtures thereof d) ≥ 0 wt% and ≤ 60 wt% of a second polypropylene wherein the sum of the high melt strength polypropylene, the first polypropylene and the second polypropylene is ≥ 60wt% based on the sum of the weight of the high melt strength polypropylene, the polyethylene, the first polypropylene and the second polypropylene and wherein the polyethylene has a density ≥ 940 kg/m 3 and ≤ 970 kg/m 3 as determined according to ISO 845 .
A fluid set, comprising: a pretreat composition comprising a salt of an alkali metal with bromide or iodide; and a conductive fusing agent composition comprising a transition metal for fusing thermoplastic powder when exposed to electromagnetic radiation. a pretreat composition comprising a salt of an alkali metal with bromide or iodide; and a conductive fusing agent composition comprising a transition metal for fusing thermoplastic powder when exposed to electromagnetic radiation.
An electronic device comprising: a housing; a display, at least part of which is included in the housing; a sliding part including an opening exposed to an outside area and configured to slide relative to the housing; and a camera module disposed in the opening and configured to rotate relative to the sliding part , a rack gear disposed parallel to a rear surface of the display and arranged to move in response to a movement of the sliding part , wherein the camera module includes, on a side surface, a pinion gear corresponding to the rack gear , wherein the camera module is configured to: face a first direction, when the sliding part and the rack gear move between a first position and a second position; rotate in the opening of the sliding part to face a second direction different from the first direction by rotation of the pinion gear on the rack gear , when the sliding part slides from the second position to a third position after the rack gear is fixed by a cleek secured to the housing at the second position; and face the second direction, when the sliding part is located at the third position. a housing; a display, at least part of which is included in the housing; a sliding part including an opening exposed to an outside area and configured to slide relative to the housing; and a camera module disposed in the opening and configured to rotate relative to the sliding part , a rack gear disposed parallel to a rear surface of the display and arranged to move in response to a movement of the sliding part , wherein the camera module includes, on a side surface, a pinion gear corresponding to the rack gear , wherein the camera module is configured to: face a first direction, when the sliding part and the rack gear move between a first position and a second position; rotate in the opening of the sliding part to face a second direction different from the first direction by rotation of the pinion gear on the rack gear , when the sliding part slides from the second position to a third position after the rack gear is fixed by a cleek secured to the housing at the second position; and face the second direction, when the sliding part is located at the third position. face a first direction, when the sliding part and the rack gear move between a first position and a second position; rotate in the opening of the sliding part to face a second direction different from the first direction by rotation of the pinion gear on the rack gear , when the sliding part slides from the second position to a third position after the rack gear is fixed by a cleek secured to the housing at the second position; and face the second direction, when the sliding part is located at the third position.
Turning tool for machining of workpieces, in particular a boring or recessing tool for machining of holes with a diameter d of ≤ 15 mm, comprising a clamping section and a tool head which comprises a tool shank and a detachable cutting head with at least one cutting edge , wherein the cutting head is fastenable to the tool shank , preferably insertable, on a journal radially aligned and in one piece with the tool shank and / or by a radially aligned and detachable fastening means , and the cutting head is fixable in aligning manner in the longitudinal and transverse directions relative to the rotation axis using curved, angled or bent and shape-complementary contact surfaces of the tool shank and of the cutting head that are substantially transverse relative to the rotation axis of the tool and in the form of alignment surfaces between cutting head and tool shank , such that the cutting head is centered on the rotation axis in the radial axis, the contact surface at the axial end of the tool shank being defined and the journal and/or the fastening means being set back in the direction of the clamping section such that fastening of the cutting head to the journal and/or by the fastening means effects an axial pressing together of the contact surfaces .
Method for preparing copper(II) hydroxide phosphate having the following method steps: a) producing a reaction mixture from an aqueous solution or dispersion of a copper(II) compound and a preferably at least stoichiometric amount of phosphoric acid, wherein at least stoichiometric means that the quantity of copper(II) ions of the copper(II) compound in relation to the quantity of phosphoric acid in the reaction mixture is at most 2, b) converting the copper(II) compound with the phosphoric acid in the reaction mixture and c) separating copper(II) hydroxide phosphate off from the reaction mixture, wherein the conversion in step b) is effected in an unpressurized manner, characterized in that at least one chelating agent is added to the reaction mixture in method step a) and/or b). a) producing a reaction mixture from an aqueous solution or dispersion of a copper(II) compound and a preferably at least stoichiometric amount of phosphoric acid, wherein at least stoichiometric means that the quantity of copper(II) ions of the copper(II) compound in relation to the quantity of phosphoric acid in the reaction mixture is at most 2, b) converting the copper(II) compound with the phosphoric acid in the reaction mixture and c) separating copper(II) hydroxide phosphate off from the reaction mixture, wherein the conversion in step b) is effected in an unpressurized manner, characterized in that at least one chelating agent is added to the reaction mixture in method step a) and/or b).
A modular footwear apparatus comprising: an upper portion comprising a lace to adjust fit of the upper portion against a foot, the lace adjustable between a first position and a second position based at least in part on manipulation of an effective length of the lace; a lower portion comprising a mid-sole and an out-sole , the lower portion coupled to the upper portion at the mid-sole; and a lacing engine comprising a top-loading lace spool to engage a loop of the lace to enable manipulation of the effective length of the lace through rotation of the lace spool, the lacing engine received within a cavity in the lower portion, wherein the top-loading lace spool comprises a lace groove running across a diameter of the spool to receive the loop of the lace. an upper portion comprising a lace to adjust fit of the upper portion against a foot, the lace adjustable between a first position and a second position based at least in part on manipulation of an effective length of the lace; a lower portion comprising a mid-sole and an out-sole , the lower portion coupled to the upper portion at the mid-sole; and a lacing engine comprising a top-loading lace spool to engage a loop of the lace to enable manipulation of the effective length of the lace through rotation of the lace spool, the lacing engine received within a cavity in the lower portion, wherein the top-loading lace spool comprises a lace groove running across a diameter of the spool to receive the loop of the lace.
Method for controlling a fuel/air ratio in a heating system , which method comprises the following steps: • generating a temporary, new fluid supply change in a fluid supply characteristic variable with respect to time depending on a last signal maximum , • ascertaining a new signal maximum of a change in at least one combustion characteristic variable with respect to time which is correlated with the new fluid supply change with respect to time, • increasing a fault variable if the new signal maximum undershoots a signal lower limit , • executing a response to a fault, in particular calibrating and/or shutting down the heating system , depending on the fault variable . • generating a temporary, new fluid supply change in a fluid supply characteristic variable with respect to time depending on a last signal maximum , • ascertaining a new signal maximum of a change in at least one combustion characteristic variable with respect to time which is correlated with the new fluid supply change with respect to time, • increasing a fault variable if the new signal maximum undershoots a signal lower limit , • executing a response to a fault, in particular calibrating and/or shutting down the heating system , depending on the fault variable .
Method for obtaining a porous acoustic layer of an acoustic panel, characterized in that it comprises a first step of deposition (Ep) of a woven ply having warp and weft threads oriented in two perpendicular directions and evenly spaced with a pitch less than 0.3 mm and a second step of deposition on the woven ply of a plurality of fibre rovings distributed in at least two series oriented in two secant directions so as to delimit between the fibre rovings openings with dimensions that vary, the fibre rovings having a width, an orientation and/or a spacing that are determined as a function of an open surface ratio desired for each zone of the porous acoustic layer in order to modulate the open surface ratio zone by zone, the fibre rovings and the woven ply being made of materials configured to allow the fibre rovings to adhere directly to the woven ply , the woven ply being made of thermoplastic resin and the fibre rovings being made of carbon and pre-impregnated with a thermoplastic resin.
Receiving device for an optical detection apparatus for a vehicle , operating in accordance with a time-of-flight method, for receiving optical reception signals , in particular of a transmitting device of the detection apparatus , that are reflected at an object , having at least one optical sensor comprising at least one detection surface with at least one row with a plurality of optical detection regions extending along a first extension direction of the at least one detection surface , wherein at least two of the detection regions can be evaluated separately from one another for the spatial resolution of a reception signal , wherein the respective extents of at least two detection regions are different at least when viewed along the first extension direction , wherein the detection surface is divided into at least two sections , in which signals from objects can be captured from different distances from the receiving device , wherein the extent of corresponding detection regions in the sections for capturing objects at greater distances is larger than the extent of corresponding detection regions in sections for capturing closer objects , and wherein an extent of at least one central detection region , which with respect to the first extension direction is located close to the centre of the at least one detection surface , is larger than an extent of at least one edge detection region , which is located closer to an edge of the detection surface than the at least one central detection region .
Method for winding a strip of rubber onto a form of revolution , in which: - a strip of predetermined length is formed, - a first mark, known as the front edge mark (F 1 ), is placed on a first end of the strip , and a second mark, known as the rear edge mark (F 2 ), is placed on a second end of the strip , - the strip is driven longitudinally towards the form , - the first end of the strip is arranged on the form , - the form is driven so as to wind the strip onto the form , characterized in that - in a first step, the driving of the strip and the form is synchronized such that the speed of displacement of the rear edge mark (F 2 ) and the front edge mark (F 1 ) are substantially identical so as not to modify the length of the strip , - in a second step, the driving of the strip and the form is pilot-controlled depending on the angular position of the form at the end of the first step and on the position of the rear edge mark (F 2 ) such that the speed of displacement of the rear edge mark (F 2 ) and the front edge mark (F 1 ) vary relative to each other so as to compensate the variations in the length of the strip . - a strip of predetermined length is formed, - a first mark, known as the front edge mark (F 1 ), is placed on a first end of the strip , and a second mark, known as the rear edge mark (F 2 ), is placed on a second end of the strip , - the strip is driven longitudinally towards the form , - the first end of the strip is arranged on the form , - the form is driven so as to wind the strip onto the form , - in a first step, the driving of the strip and the form is synchronized such that the speed of displacement of the rear edge mark (F 2 ) and the front edge mark (F 1 ) are substantially identical so as not to modify the length of the strip , - in a second step, the driving of the strip and the form is pilot-controlled depending on the angular position of the form at the end of the first step and on the position of the rear edge mark (F 2 ) such that the speed of displacement of the rear edge mark (F 2 ) and the front edge mark (F 1 ) vary relative to each other so as to compensate the variations in the length of the strip .
A device , comprising: a contact lens comprising: a substrate; a plurality of sensors disposed on or within the substrate; a control circuit disposed on the substrate and coupled with the sensors, the control circuit comprising: a processing component configured to: obtain respective state information associated with one or more of the plurality of sensors , wherein the respective state information indicates whether an associated sensor is covered by an eyelid , and wherein respective state information associated with respective sensors is uniquely identifiable by the processing component; characterised in that the processing component is further configured to: in response to a determination that a first sensor of the plurality of sensors is covered by the eyelid and a second sensor of the plurality of sensors is not covered by the eyelid, determine that the eyelid is partially closed. a substrate; a plurality of sensors disposed on or within the substrate; a control circuit disposed on the substrate and coupled with the sensors, the control circuit comprising: a processing component configured to: obtain respective state information associated with one or more of the plurality of sensors , wherein the respective state information indicates whether an associated sensor is covered by an eyelid , and wherein respective state information associated with respective sensors is uniquely identifiable by the processing component; characterised in that the processing component is further configured to: in response to a determination that a first sensor of the plurality of sensors is covered by the eyelid and a second sensor of the plurality of sensors is not covered by the eyelid, determine that the eyelid is partially closed. obtain respective state information associated with one or more of the plurality of sensors , wherein the respective state information indicates whether an associated sensor is covered by an eyelid , and wherein respective state information associated with respective sensors is uniquely identifiable by the processing component; characterised in that the processing component is further configured to: in response to a determination that a first sensor of the plurality of sensors is covered by the eyelid and a second sensor of the plurality of sensors is not covered by the eyelid, determine that the eyelid is partially closed.
A light source apparatus for use with a projector having an image modulator for receiving a plurality of light beams from a laser light source and for projecting the light beams towards a display , comprising: the laser light source with multiple wavelengths for at least one primary color arranged to output a laser light beam ; an integrator assembly comprising: at least two integrator elements ; and a first light diffusing element , positioned in between said two integrator elements, wherein the first light diffusing element is arranged to receive a laser light from the laser light source and forward a plurality of light beams in a range of angles, a second light diffusing element positioned in front of the first integrator element , wherein the integrator assembly being such that for each of the wavelengths: a substantially uniform brightness is achieved across the surface of an image modulator and at each point of the surface of the image modulator a substantially uniform filling of the available angular space is achieved. the laser light source with multiple wavelengths for at least one primary color arranged to output a laser light beam ; an integrator assembly comprising: at least two integrator elements ; and a first light diffusing element , positioned in between said two integrator elements, wherein the first light diffusing element is arranged to receive a laser light from the laser light source and forward a plurality of light beams in a range of angles, at least two integrator elements ; and a first light diffusing element , positioned in between said two integrator elements, wherein the first light diffusing element is arranged to receive a laser light from the laser light source and forward a plurality of light beams in a range of angles, a second light diffusing element positioned in front of the first integrator element , wherein the integrator assembly being such that for each of the wavelengths: a substantially uniform brightness is achieved across the surface of an image modulator and at each point of the surface of the image modulator a substantially uniform filling of the available angular space is achieved. a substantially uniform brightness is achieved across the surface of an image modulator and at each point of the surface of the image modulator a substantially uniform filling of the available angular space is achieved.
A method for use by a station, STA, in a wireless network, the method comprising: receiving, from an access point, AP, a null data packet multi-user, NDP MU, poll frame that includes an association identifier, AID, and a plurality of sub-channels for multi-user, MU, uplink transmission; and transmitting, to the AP, on a condition that the AID corresponds to an AID that is associated with the STA, an NDP response frame over a sub-channel of the plurality of sub-channels for the MU uplink transmission. receiving, from an access point, AP, a null data packet multi-user, NDP MU, poll frame that includes an association identifier, AID, and a plurality of sub-channels for multi-user, MU, uplink transmission; and transmitting, to the AP, on a condition that the AID corresponds to an AID that is associated with the STA, an NDP response frame over a sub-channel of the plurality of sub-channels for the MU uplink transmission.