mhurhangee/patent-ind-claim-en huggingface dataset:
Light-emitting diode apparatus , which has the following features: a light-emitting diode element having a front side and a rear side , wherein the front side has an emission region for the purpose of emitting electromagnetic waves and a diode connection contact associated with the emission region and the rear side of the light-emitting diode element has a second diode connection contact ; and a printed circuit board having a through-opening and a board connection contact , wherein the front side of the light-emitting diode element is connected to the printed circuit board , and wherein the emission region is arranged opposite the through-opening and the diode connection contact is arranged opposite the board connection contact and is electrically conductively connected to the board connection contact , and having a covering unit having a recess for the purpose of receiving the light-emitting diode element , wherein the covering unit is connected to the printed circuit board and the light-emitting diode element is arranged in the recess and the covering unit has a covering unit contact and the covering unit contact is arranged opposite the second diode connection contact and is electrically conductively connected to the second diode connection contact , and in which the covering unit is composed of a further printed circuit board and a frame element that abuts the further printed circuit board , wherein the recess is formed by a passage opening in the frame element . a light-emitting diode element having a front side and a rear side , wherein the front side has an emission region for the purpose of emitting electromagnetic waves and a diode connection contact associated with the emission region and the rear side of the light-emitting diode element has a second diode connection contact ; and a printed circuit board having a through-opening and a board connection contact , wherein the front side of the light-emitting diode element is connected to the printed circuit board , and wherein the emission region is arranged opposite the through-opening and the diode connection contact is arranged opposite the board connection contact and is electrically conductively connected to the board connection contact , and having a covering unit having a recess for the purpose of receiving the light-emitting diode element , wherein the covering unit is connected to the printed circuit board and the light-emitting diode element is arranged in the recess and the covering unit has a covering unit contact and the covering unit contact is arranged opposite the second diode connection contact and is electrically conductively connected to the second diode connection contact , and in which the covering unit is composed of a further printed circuit board and a frame element that abuts the further printed circuit board , wherein the recess is formed by a passage opening in the frame element .
Method for the gear manufacturing machining of a workpiece by a diagonal-generating method, in which the workpiece is subjected to gear tooth machining by the rolling off of a tool, wherein the diagonal-generating method is a generative grinding method and the tool is a grinding worm, wherein an axial feed of the tool takes place during the machining with a diagonal ratio given by the ratio between the axial feed of the tool and the axial feed of the workpiece, characterized in that the tool has a conical basic shape.
An electric power tool that uses a motor provided with a yoke as a drive source, the electric power tool comprising an electric component that is mounted on a drive circuit of the motor , and a conductive elastic body that is inserted between an end portion of the electric component and the yoke such that the end portion of the electric component and the yoke are electrically connected by the conductive elastic body , characterised in that the conductive elastic body includes an elastic main body and a conductive cloth that covers the elastic main body , the elastic main body having a sponge that is formed in a band plate shape and the conductive cloth covering an entirety of an outer surface of the elastic main body .
An industrial vehicle comprising: a frame ; and a load wheel assembly comprising: a frame member extending forward from, and fixedly coupled to the frame ; and a side plate coupled to the frame member ; characterised in that the load wheel assembly further comprises: an axle extending between the frame member and the side plate ; a support arm positioned between and coupled to the frame member and the side plate ; a keeper coupled by a fastener to the frame member or the side plate , wherein the keeper is coupled to one end of the axle to prevent rotational and axial movement of the axle relative to the frame member and the side plate . a frame ; and a load wheel assembly comprising: a frame member extending forward from, and fixedly coupled to the frame ; and a side plate coupled to the frame member ; characterised in that the load wheel assembly further comprises: an axle extending between the frame member and the side plate ; a support arm positioned between and coupled to the frame member and the side plate ; a keeper coupled by a fastener to the frame member or the side plate , wherein the keeper is coupled to one end of the axle to prevent rotational and axial movement of the axle relative to the frame member and the side plate . a frame member extending forward from, and fixedly coupled to the frame ; and a side plate coupled to the frame member ; characterised in that the load wheel assembly further comprises: an axle extending between the frame member and the side plate ; a support arm positioned between and coupled to the frame member and the side plate ; a keeper coupled by a fastener to the frame member or the side plate , wherein the keeper is coupled to one end of the axle to prevent rotational and axial movement of the axle relative to the frame member and the side plate . an axle extending between the frame member and the side plate ; a support arm positioned between and coupled to the frame member and the side plate ; a keeper coupled by a fastener to the frame member or the side plate , wherein the keeper is coupled to one end of the axle to prevent rotational and axial movement of the axle relative to the frame member and the side plate .
A method for forming chrome-free retanned leather comprising: (a) preparing a chrome-free tanned leather hide; (b) contacting the chrome-free tanned leather with a retanning mixture comprising from 2% to 15%, by solids weight, based on the wet weight of the chrome-free tanned leather hide, of an amphoteric polymer composition comprising amine functional units and acid functional units; and (c) applying a polymeric overcoat containing an acrylic copolymer with one or more metal transition elements, with a thickness of no greater than 100 microns, to the retanned leather. (a) preparing a chrome-free tanned leather hide; (b) contacting the chrome-free tanned leather with a retanning mixture comprising from 2% to 15%, by solids weight, based on the wet weight of the chrome-free tanned leather hide, of an amphoteric polymer composition comprising amine functional units and acid functional units; and (c) applying a polymeric overcoat containing an acrylic copolymer with one or more metal transition elements, with a thickness of no greater than 100 microns, to the retanned leather.
A blood pressure monitoring system, comprising: - a carrier having a first side, the carrier being configured for mounting at least partly against or around a body part with its first side facing the body part; - a plurality of independently controllable electroactive material actuators arranged at different lateral positions at the first side of the carrier, each one of the plurality of electroactive material actuators being independently actuatable to provide a displacement and/or force at least in a direction away from the carrier; - a pulse monitor for performing pulse monitoring and outputting a pulse monitor signal; and - a controller adapted to: - independently actuating the plurality of electroactive material actuators and performing pulse monitoring to identify one or more preferred electroactive material actuators which are best located for performing pulse monitoring; - while or directly after actuating the identified one or more of the plurality of electroactive material actuators, control the pulse monitor to perform pulse monitoring; - determine the pulse monitor signal obtained with the pulse monitoring; and - determine a blood pressure from the pulse monitor signal. - a carrier having a first side, the carrier being configured for mounting at least partly against or around a body part with its first side facing the body part; - a plurality of independently controllable electroactive material actuators arranged at different lateral positions at the first side of the carrier, each one of the plurality of electroactive material actuators being independently actuatable to provide a displacement and/or force at least in a direction away from the carrier; - a pulse monitor for performing pulse monitoring and outputting a pulse monitor signal; and - a controller adapted to: - independently actuating the plurality of electroactive material actuators and performing pulse monitoring to identify one or more preferred electroactive material actuators which are best located for performing pulse monitoring; - while or directly after actuating the identified one or more of the plurality of electroactive material actuators, control the pulse monitor to perform pulse monitoring; - determine the pulse monitor signal obtained with the pulse monitoring; and - determine a blood pressure from the pulse monitor signal. - independently actuating the plurality of electroactive material actuators and performing pulse monitoring to identify one or more preferred electroactive material actuators which are best located for performing pulse monitoring; - while or directly after actuating the identified one or more of the plurality of electroactive material actuators, control the pulse monitor to perform pulse monitoring; - determine the pulse monitor signal obtained with the pulse monitoring; and - determine a blood pressure from the pulse monitor signal.
A combination comprising a compound which is 2-((4-(benzo[ d ]thiazol-5-ylamino)-6-( tert -butylsulfonyl)quinazolin-7-yl)oxy)ethyl dihydrogen phosphate, of formula (I): or a pharmaceutically acceptable salt thereof, or a hydrate thereof together with one or more other therapeutic agents.
A fastener driver comprising: a first nosepiece ; a second nosepiece coupled to the first nosepiece with a fastener driving channel formed between the first nosepiece and the second nosepiece; a workpiece contact element movable with respect to the first nosepiece and the second nosepiece between an extended position and a retracted position; and a quick-release latch that is operable to secure the first nosepiece and the second nosepiece together, wherein the workpiece contact element is positioned between the quick-release latch and the first nosepiece, wherein the workpiece contact element is operable to move from the extended position to the retracted position when the workpiece contact element contacts a workpiece and a force directed toward the workpiece is applied to the fastener driver, characterized in that the first nosepiece includes a groove in which the workpiece contact element is received. a first nosepiece ; a second nosepiece coupled to the first nosepiece with a fastener driving channel formed between the first nosepiece and the second nosepiece; a workpiece contact element movable with respect to the first nosepiece and the second nosepiece between an extended position and a retracted position; and a quick-release latch that is operable to secure the first nosepiece and the second nosepiece together, wherein the workpiece contact element is positioned between the quick-release latch and the first nosepiece, wherein the workpiece contact element is operable to move from the extended position to the retracted position when the workpiece contact element contacts a workpiece and a force directed toward the workpiece is applied to the fastener driver, characterized in that the first nosepiece includes a groove in which the workpiece contact element is received.
A method for treating wastewater which is discharged from an Aldol process consisting of the steps of performing an evaporative concentration of wastewater comprising non-biodegradable organic compounds and salt components at a concentration of 10,000 ppm or more to separate a supernatant to an upper part and a concentrate to a lower part; using a part of the supernatant as a steam for fuel, and degrading a remaining part of the supernatant by microorganisms, wherein vacuum system is used for the evaporative concentration of the wastewater, wherein the wastewater has a pH greater than 6, wherein the method is without acid treatment or use of extractants.
A method of controlling a moving robot, the method comprising: an image acquisition step of acquiring an image of a front of the moving robot; a detection step of detecting an obstacle positioned in front of the moving robot and a front floor surface in front of the obstacle from the acquired image, wherein the front floor surface is beyond the obstacle; a calculation step of calculating a height of the obstacle and a depth of the front floor surface, wherein the depth of the front floor surface is a summed value of a height value of the obstacle and a step value between a present floor surface where the moving robot is currently positioned and the front floor surface, wherein a light of a certain pattern is irradiated by a pattern irradiation unit of the moving robot to surroundings of the moving robot and the pattern from the image acquired by the image acquisition unit is analyzed to calculate the height of the obstacle and the depth of a front floor surface; and a climbing avoidance step of climbing or avoiding the obstacle by the moving robot based on the height of the obstacle and the depth of the front floor surface. an image acquisition step of acquiring an image of a front of the moving robot; a detection step of detecting an obstacle positioned in front of the moving robot and a front floor surface in front of the obstacle from the acquired image, wherein the front floor surface is beyond the obstacle; a calculation step of calculating a height of the obstacle and a depth of the front floor surface, wherein the depth of the front floor surface is a summed value of a height value of the obstacle and a step value between a present floor surface where the moving robot is currently positioned and the front floor surface, wherein a light of a certain pattern is irradiated by a pattern irradiation unit of the moving robot to surroundings of the moving robot and the pattern from the image acquired by the image acquisition unit is analyzed to calculate the height of the obstacle and the depth of a front floor surface; and a climbing avoidance step of climbing or avoiding the obstacle by the moving robot based on the height of the obstacle and the depth of the front floor surface.
A method of producing a rope for net or rope climbing game groups having strength against unwinding and stripping, by using induction technique during production, characterized by comprising the operation steps of: forming a braided rope (2.1) by braiding the outer surfaces of more than one conductive wires (2.3) with a petrol-derivative material, forming a rope by winding said more than one braided ropes (2.1) over at least one core rope (2.2), heating the conductive wire (2.3) via current by inserting the rope into an induction machine , the petrol-derivative material wound around the conductive wire (2.3) that is exposed to heat melts down and thus fuses with the conductive wire (2.3) and an integral structure is formed.
An electric actuator , comprising: a driving motor being accommodated in a motor case ; a motion conversion mechanism configured to convert a rotary motion of the driving motor to a linear motion in an axial direction parallel with an output shaft of the driving motor ; and a transmission gear mechanism configured to transmit a driving force from the driving motor to the motion conversion mechanism , wherein the driving motor , a double-row bearing configured to support the motion conversion mechanism and a bearing configured, to support the transmission gear mechanism are mounted to a same actuator case , characterised in that the driving motor is mounted to the actuator case without intermediation of the motor case . a driving motor being accommodated in a motor case ; a motion conversion mechanism configured to convert a rotary motion of the driving motor to a linear motion in an axial direction parallel with an output shaft of the driving motor ; and a transmission gear mechanism configured to transmit a driving force from the driving motor to the motion conversion mechanism , wherein the driving motor , a double-row bearing configured to support the motion conversion mechanism and a bearing configured, to support the transmission gear mechanism are mounted to a same actuator case , characterised in that the driving motor is mounted to the actuator case without intermediation of the motor case .
A vehicle headlight control device that controls a light distribution of headlight , the vehicle headlight control device comprising: an obtaining section configured to obtain a position of a forward vehicle in front of a driver's vehicle, and a distance from the driver's vehicle to the forward vehicle; and a light distribution control section configured to change the light distribution of the headlight based on the position of the forward vehicle, and set an illumination region and a non-illumination region, the non-illumination region being provided in a vicinity of the forward vehicle so as to include the forward vehicle, the non-illumination region including a predetermined distance set from an end of a body of the forward vehicle, characterized in that the light distribution control section is configured to control a ratio (m1/W1, m2/W2) of a margin distance (m1, m2) which is a distance in a vehicle width direction, between: a boundary between the illumination region and the non-illumination region; and each of left and right lateral ends of the forward vehicle , relative to a vehicle width (W1,W2) of the forward vehicle such that the greater the distance from the driver's vehicle to the forward vehicle is, the less the ratio (m1/W1, m2/W2) is. an obtaining section configured to obtain a position of a forward vehicle in front of a driver's vehicle, and a distance from the driver's vehicle to the forward vehicle; and a light distribution control section configured to change the light distribution of the headlight based on the position of the forward vehicle, and set an illumination region and a non-illumination region, the non-illumination region being provided in a vicinity of the forward vehicle so as to include the forward vehicle, the non-illumination region including a predetermined distance set from an end of a body of the forward vehicle, characterized in that the light distribution control section is configured to control a ratio (m1/W1, m2/W2) of a margin distance (m1, m2) which is a distance in a vehicle width direction, between: a boundary between the illumination region and the non-illumination region; and each of left and right lateral ends of the forward vehicle , relative to a vehicle width (W1,W2) of the forward vehicle such that the greater the distance from the driver's vehicle to the forward vehicle is, the less the ratio (m1/W1, m2/W2) is.
Coating composition comprising, per 100% of the weight thereof: - from 10 wt% to 90 wt% of two film-forming polymer: hydroxypropylmethyl cellulose and sodium carboxymethyl cellulose, - from 10 wt% to 40 wt% of at least one coloring foodstuff, and - from 0 to 50 wt% of at least one auxiliary coating agent selected from white opacifiers, diluents, surfactants, plasticizers and antifoams. - from 10 wt% to 90 wt% of two film-forming polymer: hydroxypropylmethyl cellulose and sodium carboxymethyl cellulose, - from 10 wt% to 40 wt% of at least one coloring foodstuff, and - from 0 to 50 wt% of at least one auxiliary coating agent selected from white opacifiers, diluents, surfactants, plasticizers and antifoams.
A microelectronic instrument, in which said microelectronic instrument comprises a baseboard and a cover board ; a first electronic circuit (101-1) and a first contact electrode (101-2) are arranged on the baseboard , and the first electronic circuit (101-1) is provided to connect the first contact electrode (101-2) electrically; and the cover board is provided to cover on the baseboard , and there is arranged a space for the first electronic circuit (101-1) between the baseboard and the cover board , the electronic instrument is a USB junction itself, characterized in that a second contact electrode (101-3) is arranged on the baseboard , and the second contact electrode (101-3) connects the first electronic circuit (101-1) electrically; second contact electrode (101-3) is a touching key; the baseboard includes a first region and a second region, and the first region is in a USB interface and the second contact electrode (101-3) is in the second region when the electronic instrument is inserted into the USB interface; the first region includes the first electronic circuit (101-1) and the first contact electrode (101-2); the cover board covers only the first region of the baseboard ; the second contact electrode (101-3) is on the side surface of the baseboard , and is outside the USB interface.
Painting method for painting a component , namely a motor vehicle bodywork , with the following steps: a) application of a base coat layer onto the component , b) application of a pattern onto the component , wherein the pattern b1) is painted onto the component , b2) is applied onto the base coat layer without an intermediate clear coat layer , and b3) is applied by an applicator which does not emit a coating agent mist but emits a narrowly delimited jet of coating agent, and c) application of a clear coat layer onto the component , characterized in that d) the pattern is a partial area of the motor vehicle bodywork, namely a roof bar, wherein the roof bar shall be painted in a different colour than the rest of the motor vehicle bodywork. a) application of a base coat layer onto the component , b) application of a pattern onto the component , wherein the pattern b1) is painted onto the component , b2) is applied onto the base coat layer without an intermediate clear coat layer , and b3) is applied by an applicator which does not emit a coating agent mist but emits a narrowly delimited jet of coating agent, and b1) is painted onto the component , b2) is applied onto the base coat layer without an intermediate clear coat layer , and b3) is applied by an applicator which does not emit a coating agent mist but emits a narrowly delimited jet of coating agent, and c) application of a clear coat layer onto the component , d) the pattern is a partial area of the motor vehicle bodywork, namely a roof bar, wherein the roof bar shall be painted in a different colour than the rest of the motor vehicle bodywork.