mhurhangee/patent-ind-claim-en huggingface dataset:
Method for preparing a material Na 3 V 2 (PO 4 ) 2 F 3 comprising at least the steps consisting of: a) reducing vanadium oxide, V 2 O 5 , under a reductive atmosphere in the absence of elementary carbon and in the presence of at least one phosphate anion precursor in order to form vanadium phosphate, VPO 4 , and b) exposing, under an inert atmosphere, a mixture of the material VPO 4 obtained in step a) with an effective quantity of sodium fluoride, NaF, and of at least one hydrocarbonated and oxygenated compound, a source of elementary carbon, to temperature conditions suitable for calcination of said mixture in order to form said compound Na 3 V 2 (PO 4 ) 2 F 3 . a) reducing vanadium oxide, V 2 O 5 , under a reductive atmosphere in the absence of elementary carbon and in the presence of at least one phosphate anion precursor in order to form vanadium phosphate, VPO 4 , and b) exposing, under an inert atmosphere, a mixture of the material VPO 4 obtained in step a) with an effective quantity of sodium fluoride, NaF, and of at least one hydrocarbonated and oxygenated compound, a source of elementary carbon, to temperature conditions suitable for calcination of said mixture in order to form said compound Na 3 V 2 (PO 4 ) 2 F 3 .
An AC input voltage interruption detection method, comprising: determining to which class, from among three or more classes having predefined upper-limit voltages (Vuref, 151) and lower-limit voltages (Vdref, 152) respectively, a detected voltage that corresponds to an AC input voltage (Vin, 100) belongs, over a period shorter than the period of the AC input voltage (Vin, 100), or constantly; and determining that the AC input voltage (Vin, 100) is interrupted when the class to which the detected voltage has been determined to belong does not change within a predefined time characterized in that the predefined upper-limit voltages (Vuref, 151) and lower limit voltages (Vdref, 152) which determine the class to which the detected voltage belongs or not are switched based on digital up/down counter values when the detected voltage rises above the predefined upper-limit voltage (Vuref, 151) of the class to which the detected voltage (Vin, 100) belongs, resulting in a count-up operation being performed, and when the detected voltage (Vin, 100) falls below the predefined lower-limit voltage (Vdref, 152) of the class to which the detected voltage (Vin, 100) belongs, resulting in a count-down operation being performed. determining to which class, from among three or more classes having predefined upper-limit voltages (Vuref, 151) and lower-limit voltages (Vdref, 152) respectively, a detected voltage that corresponds to an AC input voltage (Vin, 100) belongs, over a period shorter than the period of the AC input voltage (Vin, 100), or constantly; and determining that the AC input voltage (Vin, 100) is interrupted when the class to which the detected voltage has been determined to belong does not change within a predefined time characterized in that the predefined upper-limit voltages (Vuref, 151) and lower limit voltages (Vdref, 152) which determine the class to which the detected voltage belongs or not are switched based on digital up/down counter values when the detected voltage rises above the predefined upper-limit voltage (Vuref, 151) of the class to which the detected voltage (Vin, 100) belongs, resulting in a count-up operation being performed, and when the detected voltage (Vin, 100) falls below the predefined lower-limit voltage (Vdref, 152) of the class to which the detected voltage (Vin, 100) belongs, resulting in a count-down operation being performed.
A fiber optic connector, comprising: a housing comprising a rear end and a front end with a longitudinal passageway extending from the rear end to the front end , the housing comprising a front portion (FP) and a rear portion (RP), wherein the rear portion (RP) of the housing comprises a female key and at least one locking feature integrally formed in the rear portion (RP) of the housing , and the at least one locking feature is disposed about 180 degrees from the female key; and a ferrule comprising at least one fiber bore .
A switch cabinet with at least one brush strip for the conductor feed-through, the switch cabinet having a switch cabinet frame with a horizontal or vertical profile frame from which a profile web extends, characterized that the profile web is a circumferential sealing web of the profile frame and the brush strip is placed on a free end of the profile web with bristles extending from the profile web over the inner circumference of the profile frame .
Cleaning fluid for removing adhesive and silicone residues as well as rust, essentially consisting of: - 10 to 22 parts by weight 1-(butoxymethoxy)butane, - 20 to 40 parts by weight ethyl-2-hydroxypropanoate, - 5 to 9 parts by weight butyl-2-hydroxypropanoate, - 5 to 15 parts by weight 1,3-dioxolane, - 5 to 12 parts by weight of a non-ionic surfactant component, and - optionally up to 25 parts by weight tetraoxaundecane, wherein the non-ionic surfactant component is selected from ethoxylated isotridecanol and α-(2-propylheptyl)-omega-hydroxy-poly(oxy-1,2-ethanediyl). - 10 to 22 parts by weight 1-(butoxymethoxy)butane, - 20 to 40 parts by weight ethyl-2-hydroxypropanoate, - 5 to 9 parts by weight butyl-2-hydroxypropanoate, - 5 to 15 parts by weight 1,3-dioxolane, - 5 to 12 parts by weight of a non-ionic surfactant component, and - optionally up to 25 parts by weight tetraoxaundecane,
An electric powertrain for a vehicle, the electric powertrain configured to provide electric propulsion to the vehicle characterized in that said electric powertrain comprises: - a first electric motor (EM1) linked to a first gear module (G1) through a motor shaft having a first extremity (E1) and a second extremity (E2), said first gear module (G1) including a primary shaft , having a first extremity (E11) and a second extremity (E22), on which are arranged a first primary gear and a second primary gear , - a second gear module (G2) including a secondary shaft on which are arranged a first secondary gear that is meshing with the second primary gear , - at least one countershaft on which are arranged a first quaternary gear and a second quaternary gear , the first quaternary gear meshing with a pinion fixedly secured at the second extremity (E2, E2') of the motor shaft , and the second quaternary gear meshing with the first primary gear such that the countershaft and the motor shaft are disposed in parallel, - a coupling member arranged at the first extremity (E11) of the primary shaft configured to reach a first position wherein the coupling member meshes with the pinion so that the motor shaft is drivingly engaged with the primary shaft , a second position wherein the coupling member meshes with the first primary gear so that the first primary gear drivingly engages the primary shaft and a neutral position in which it allows the first primary gear to rotate freely around the primary shaft . - a first electric motor (EM1) linked to a first gear module (G1) through a motor shaft having a first extremity (E1) and a second extremity (E2), said first gear module (G1) including a primary shaft , having a first extremity (E11) and a second extremity (E22), on which are arranged a first primary gear and a second primary gear , - a second gear module (G2) including a secondary shaft on which are arranged a first secondary gear that is meshing with the second primary gear , - at least one countershaft on which are arranged a first quaternary gear and a second quaternary gear , the first quaternary gear meshing with a pinion fixedly secured at the second extremity (E2, E2') of the motor shaft , and the second quaternary gear meshing with the first primary gear such that the countershaft and the motor shaft are disposed in parallel, - a coupling member arranged at the first extremity (E11) of the primary shaft configured to reach a first position wherein the coupling member meshes with the pinion so that the motor shaft is drivingly engaged with the primary shaft , a second position wherein the coupling member meshes with the first primary gear so that the first primary gear drivingly engages the primary shaft and a neutral position in which it allows the first primary gear to rotate freely around the primary shaft .
Method for assembling a turbomachine , by means of a device , the turbomachine comprising at least two modules assembled by insertion of a shaft of one of the modules into a housing of the other module, the device comprising: - support means of a first of the modules, - suspension and movement means of a second of the modules along a movement axis (Z), - a laser beam emitter intended to be fixed to said first module and configured to emit a laser beam that coincides with a longitudinal axis (X) of this first module, and - a target intended to be fixed to said suspension and movement means, such that it can be moved along said movement axis, and such that in at least two separate axial positions (P1, P2) on this axis, a task from said laser beam is located at the centre of said target, the method being characterised in that it comprises the steps of: a) positioning said first module on said support means , b) fixing said target to said suspension and movement means, c) determining a first axial position (P1) of said target, for which a task of said laser beam is located at the centre of said target, d) moving said target along said movement axis (Z), and e) determining a second axial position (P2) of said target, for which a task of said laser beam is located at the centre of said target, in order to validate the parallelism between said longitudinal axis (X) of said first module and said movement axis. - support means of a first of the modules, - suspension and movement means of a second of the modules along a movement axis (Z), - a laser beam emitter intended to be fixed to said first module and configured to emit a laser beam that coincides with a longitudinal axis (X) of this first module, and - a target intended to be fixed to said suspension and movement means, such that it can be moved along said movement axis, and such that in at least two separate axial positions (P1, P2) on this axis, a task from said laser beam is located at the centre of said target, the method being characterised in that it comprises the steps of: a) positioning said first module on said support means , b) fixing said target to said suspension and movement means, c) determining a first axial position (P1) of said target, for which a task of said laser beam is located at the centre of said target, d) moving said target along said movement axis (Z), and e) determining a second axial position (P2) of said target, for which a task of said laser beam is located at the centre of said target, in order to validate the parallelism between said longitudinal axis (X) of said first module and said movement axis. a) positioning said first module on said support means , b) fixing said target to said suspension and movement means, c) determining a first axial position (P1) of said target, for which a task of said laser beam is located at the centre of said target, d) moving said target along said movement axis (Z), and e) determining a second axial position (P2) of said target, for which a task of said laser beam is located at the centre of said target, in order to validate the parallelism between said longitudinal axis (X) of said first module and said movement axis.
A display device, comprising: a lower substrate disposed with a line electrode at an upper portion thereof; a plurality of semiconductor light emitting devices electrically connected to the line electrode to generate light, wherein the semiconductor light emitting devices comprise: a first conductive semiconductor layer , an active layer located on the first conductive semiconductor layer and a second conductive semiconductor layer located on the active layer ; a wavelength converter disposed on the semiconductor light emitting device and bonded to an upper surface of the second conductive semiconductor layer to convert a wavelength of light generated from the semiconductor light emitting device ; and a conductive adhesive layer comprising conductors configured to electrically connect the lower substrate to the semiconductor light emitting device and a body configured to surround the conductors, a first conductive electrode disposed on a lower surface of the first conductive semiconductor layer and electrically connected to the first conductive semiconductor layer ; and a reflective layer disposed on the lower surface of the first conductive semiconductor layer , wherein the semiconductor light emitting device has a composition formula of In x Al y Ga 1-x-y N (0≤x≤1, 0≤y≤1, 0≤x+y≤1), wherein the reflective layer is disposed in a region excluding a region in which the first conductive electrode is located at a lower surface of the first conductive semiconductor layer . a lower substrate disposed with a line electrode at an upper portion thereof; a plurality of semiconductor light emitting devices electrically connected to the line electrode to generate light, wherein the semiconductor light emitting devices comprise: a first conductive semiconductor layer , an active layer located on the first conductive semiconductor layer and a second conductive semiconductor layer located on the active layer ; a wavelength converter disposed on the semiconductor light emitting device and bonded to an upper surface of the second conductive semiconductor layer to convert a wavelength of light generated from the semiconductor light emitting device ; and a conductive adhesive layer comprising conductors configured to electrically connect the lower substrate to the semiconductor light emitting device and a body configured to surround the conductors, a first conductive electrode disposed on a lower surface of the first conductive semiconductor layer and electrically connected to the first conductive semiconductor layer ; and a reflective layer disposed on the lower surface of the first conductive semiconductor layer , wherein the semiconductor light emitting device has a composition formula of In x Al y Ga 1-x-y N (0≤x≤1, 0≤y≤1, 0≤x+y≤1), wherein the reflective layer is disposed in a region excluding a region in which the first conductive electrode is located at a lower surface of the first conductive semiconductor layer .
Method for fastening a split inner ring to a shaft , wherein the method comprises rolling in a rolling ring , specifically in such a way that the rolling ring indirectly limits a movement of the inner ring in an axially outer direction , characterized in that the shaft has a step , wherein the rolling ring is deformed in such a way that a gap is formed between the rolling ring and the inner ring and that, in a first section, which bears against the shaft, the rolling ring bears against the step, and wherein, in a second section, the rolling ring extends rectilinearly beyond the step in a radially outer direction, wherein the method comprises introducing a compensation element into the gap . wherein the method comprises rolling in a rolling ring , specifically in such a way that the rolling ring indirectly limits a movement of the inner ring in an axially outer direction , characterized in that the shaft has a step , wherein the rolling ring is deformed in such a way that a gap is formed between the rolling ring and the inner ring and that, in a first section, which bears against the shaft, the rolling ring bears against the step, and wherein, in a second section, the rolling ring extends rectilinearly beyond the step in a radially outer direction, wherein the method comprises introducing a compensation element into the gap .
A liquid discharge head comprising: a nozzle plate having: a nozzle hole from which a liquid is discharged; and a first positioning hole penetrating through the nozzle plate in a thickness direction of the nozzle plate ; a housing bonded to the nozzle plate to form a single bonded body, the housing having a second positioning hole extending in a thickness direction of the housing ; a channel between the nozzle plate and the housing , the liquid flowing through the channel to the nozzle hole flows; and a positioning member fitting into the first positioning hole and the second positioning hole to position the nozzle plate relative to the housing , characterized in that a length of the positioning member in the thickness direction of the nozzle plate is: smaller than a sum of a length of the first positioning hole and a length of the second positioning hole in the thickness direction of the nozzle plate ; and larger than the length of the second positioning hole in the thickness direction of the nozzle plate . a nozzle plate having: a nozzle hole from which a liquid is discharged; and a first positioning hole penetrating through the nozzle plate in a thickness direction of the nozzle plate ; a nozzle hole from which a liquid is discharged; and a first positioning hole penetrating through the nozzle plate in a thickness direction of the nozzle plate ; a housing bonded to the nozzle plate to form a single bonded body, the housing having a second positioning hole extending in a thickness direction of the housing ; a channel between the nozzle plate and the housing , the liquid flowing through the channel to the nozzle hole flows; and a positioning member fitting into the first positioning hole and the second positioning hole to position the nozzle plate relative to the housing , characterized in that a length of the positioning member in the thickness direction of the nozzle plate is: smaller than a sum of a length of the first positioning hole and a length of the second positioning hole in the thickness direction of the nozzle plate ; and larger than the length of the second positioning hole in the thickness direction of the nozzle plate . smaller than a sum of a length of the first positioning hole and a length of the second positioning hole in the thickness direction of the nozzle plate ; and larger than the length of the second positioning hole in the thickness direction of the nozzle plate .
A connector for a coaxial cable , comprising: a coupler configured to engage another coaxial cable connector; a body disposed at least partially within the coupler; an outer conductor engager made of a conductive material disposed within the body and the coupler; and a biasing element on an interior of the body; during a coupling of the connector to the coaxial cable: a connector end of the outer conductor engager moves axially relative to the body; the outer conductor engager is compressed by the biasing element; and an interior of the outer conductor engager is inwardly compressed against an outer conductor of the coaxial cable, characterized in that the connector end of the outer conductor engager does not move axially relative to the coupler during a coupling of the connector to the coaxial cable . a coupler configured to engage another coaxial cable connector; a body disposed at least partially within the coupler; an outer conductor engager made of a conductive material disposed within the body and the coupler; and a biasing element on an interior of the body; during a coupling of the connector to the coaxial cable: a connector end of the outer conductor engager moves axially relative to the body; the outer conductor engager is compressed by the biasing element; and an interior of the outer conductor engager is inwardly compressed against an outer conductor of the coaxial cable, a connector end of the outer conductor engager moves axially relative to the body; the outer conductor engager is compressed by the biasing element; and an interior of the outer conductor engager is inwardly compressed against an outer conductor of the coaxial cable,
Electronics module for a transmission controller of a motor vehicle, having: a transmission control unit with an electronic circuit ; at least one printed circuit board element ; and at least one sensor dome , wherein the sensor dome has a dome body of elongate design which is arranged with a first end on the printed circuit board element and which protrudes from the printed circuit board element, wherein the sensor dome has an electronic sensor element on a second end opposite the first end , wherein the sensor element has at least two electrical lines which at least partially project out of the dome body and which are each electrically conductively connected to a conductor track , arranged between a covering layer and a base layer , of a flexible conductor foil , and wherein the conductor tracks of the conductor foil are each electrically conductively connected to the electronic circuit of the transmission control unit, characterized in that the electronics module has a fixing device by way of which a partial region of the conductor foil is fixed to a flank of the dome body , wherein the fixing device has at least one protrusion , and wherein the dome body has a cutout which is configured to cooperate with the protrusion of the fixing device and into which the protrusion of the fixing device at least partially engages, wherein the partial region of the conductor foil is received between a flank of the dome body and the fixing device , so that the fixing device is held on the dome body . a transmission control unit with an electronic circuit ; at least one printed circuit board element ; and at least one sensor dome , wherein the sensor dome has a dome body of elongate design which is arranged with a first end on the printed circuit board element and which protrudes from the printed circuit board element, wherein the sensor dome has an electronic sensor element on a second end opposite the first end , wherein the sensor element has at least two electrical lines which at least partially project out of the dome body and which are each electrically conductively connected to a conductor track , arranged between a covering layer and a base layer , of a flexible conductor foil , and wherein the conductor tracks of the conductor foil are each electrically conductively connected to the electronic circuit of the transmission control unit, characterized in that the electronics module has a fixing device by way of which a partial region of the conductor foil is fixed to a flank of the dome body , wherein the fixing device has at least one protrusion , and wherein the dome body has a cutout which is configured to cooperate with the protrusion of the fixing device and into which the protrusion of the fixing device at least partially engages, wherein the partial region of the conductor foil is received between a flank of the dome body and the fixing device , so that the fixing device is held on the dome body .
Centrifugal oil filter with integrated, rotatably mounted centrifuge rotor , having an admission pipe to the centrifuge rotor and defining at least one portion of the flow path of the oil to the centrifuge rotor , wherein the flow path to the centrifuge rotor features a throttle point with reduced cross section, wherein the cross section is extended at least upstream of the throttle point , characterized in that the throttle point is designed as Laval nozzle.
An agonist of Formyl peptide receptor 2 (FPR2) for use in a method of treating an ocular inflammatory disease, in a subject in need of such treatment, wherein the method comprises administering a pharmaceutical composition comprising a therapeutically effective amount of said agonist of FPR2, wherein said agonist of FPR2 is a compound selected from the group consisting of: or a pharmaceutically acceptable salt thereof.