mhurhangee/patent-ind-claim-en huggingface dataset:
A projection device comprising: at least one projection module having an optical axis (OA), wherein the projection module is adapted to emit an image beam (L2), and the image beam (L2) is transmitted to a projection target to form a projection image; at least one adjusting structure comprising a base and an adjusting component , wherein the adjusting component is rotatably connected to the base along a first axis (A1), and the at least one projection module is rotatably connected to the adjusting component along the optical axis (OA), wherein the adjusting component and the projection module are adapted to rotate along the first axis (A1) such that the projection image moves vertically, and the projection module is adapted to rotate with respect to the adjusting component along the optical axis (OA) when the adjusting component does not move such that the projection image rotates; and at least one reflecting component disposed on the optical axis (OA) and comprising a reflecting surface , wherein the reflecting surface is adapted to reflect the image beam (L2), and the image beam (L2) is reflected by the reflecting surface to the projection target to form the projection image, wherein the at least one reflecting component is rotatably connected to the base along a second axis (A2), and the reflecting component is adapted to rotate along the second axis (A2) such that the projection image moves horizontally. at least one projection module having an optical axis (OA), wherein the projection module is adapted to emit an image beam (L2), and the image beam (L2) is transmitted to a projection target to form a projection image; at least one adjusting structure comprising a base and an adjusting component , wherein the adjusting component is rotatably connected to the base along a first axis (A1), and the at least one projection module is rotatably connected to the adjusting component along the optical axis (OA), wherein the adjusting component and the projection module are adapted to rotate along the first axis (A1) such that the projection image moves vertically, and the projection module is adapted to rotate with respect to the adjusting component along the optical axis (OA) when the adjusting component does not move such that the projection image rotates; and at least one reflecting component disposed on the optical axis (OA) and comprising a reflecting surface , wherein the reflecting surface is adapted to reflect the image beam (L2), and the image beam (L2) is reflected by the reflecting surface to the projection target to form the projection image, wherein the at least one reflecting component is rotatably connected to the base along a second axis (A2), and the reflecting component is adapted to rotate along the second axis (A2) such that the projection image moves horizontally.
A method for preparing a fluoropolymer aqueous dispersion, comprising: step (A) of preparing a fluoropolymer aqueous dispersion comprising a fluoropolymer having at least one selected from the group consisting of -SO 2 Y and -COOR (wherein Y is a halogen, and R is a C1 to C4 alkyl) by emulsion polymerization; step (B) of heating the fluoropolymer aqueous dispersion to 50°C or higher; and step (C) of contacting the fluoropolymer aqueous dispersion with an ion exchange resin for cation exchange after step (B), thereby providing a purified fluoropolymer aqueous dispersion, the fluoropolymer aqueous dispersion being adjusted to pH 7 or lower from the end of the polymerization in step (A) to the end of step (C). step (A) of preparing a fluoropolymer aqueous dispersion comprising a fluoropolymer having at least one selected from the group consisting of -SO 2 Y and -COOR (wherein Y is a halogen, and R is a C1 to C4 alkyl) by emulsion polymerization; step (B) of heating the fluoropolymer aqueous dispersion to 50°C or higher; and step (C) of contacting the fluoropolymer aqueous dispersion with an ion exchange resin for cation exchange after step (B), thereby providing a purified fluoropolymer aqueous dispersion, the fluoropolymer aqueous dispersion being adjusted to pH 7 or lower from the end of the polymerization in step (A) to the end of step (C).
A comb polymer having repeating units of at least one of the structures of formulae (I) to (IV) wherein R 1 represents a polyoxyalkylene group and A represents an organic group, and wherein the comb polymer has end groups of the general formula (V) wherein R 2 and R 3 independent of each other are selected from a) organic groups having 1 to 24 carbon atoms and b) R 1 . wherein R 1 represents a polyoxyalkylene group and A represents an organic group, and wherein the comb polymer has end groups of the general formula (V) wherein R 2 and R 3 independent of each other are selected from a) organic groups having 1 to 24 carbon atoms and b) R 1 .
An oven comprising a system for dispersing chemical agents, comprising: a first tube for injecting water so that said water is dissolved with the chemical agent ; a fan for distributing the mixture of water and chemical agent in a heat-generating area and a cooking area of the oven; and means for rinsing the mixture of water and chemical agent ; wherein said first tube for injecting water is actuated by a spraying solenoid valve which also produces steam when the water is injected; and in that said means for rinsing the mixture of water and chemical agent comprise a second tube for injecting water, the water injection of which is actuated by a rinsing solenoid valve , and the system comprises at least one vessel , forming a collector , in which said chemical agent can be placed, wherein said at least one vessel is placed substantially centred with respect to said fan , wherein the vessel comprises a hole , such that when the water is dissolved with the chemical agent upon injecting water, the mixture of water and the chemical agent overflows from the hole . a first tube for injecting water so that said water is dissolved with the chemical agent ; a fan for distributing the mixture of water and chemical agent in a heat-generating area and a cooking area of the oven; and means for rinsing the mixture of water and chemical agent ; wherein said first tube for injecting water is actuated by a spraying solenoid valve which also produces steam when the water is injected; and in that said means for rinsing the mixture of water and chemical agent comprise a second tube for injecting water, the water injection of which is actuated by a rinsing solenoid valve , and the system comprises at least one vessel , forming a collector , in which said chemical agent can be placed, wherein said at least one vessel is placed substantially centred with respect to said fan , wherein the vessel comprises a hole , such that when the water is dissolved with the chemical agent upon injecting water, the mixture of water and the chemical agent overflows from the hole .
An electronic component module assembly, comprising: a printed wiring board ; and a stiffener assembly affixed to a first side of the printed wiring board, the stiffener assembly including: an outer stiffener secured to the printed wiring board; an inner stiffener removably disposed in an opening of the outer stiffener, the inner stiffener having one or more inner stiffener pockets formed therein; and one or more electronic components installed in one or more inner stiffener pockets, and electrically connected to the printed wiring board; wherein: the inner stiffener includes a tapered inner stiffener end; and the outer stiffener includes a complementary tapered inner stiffener end, the tapered inner stiffener end and the tapered outer stiffener end defining a guide for location and installation of the inner stiffener to the outer stiffener. a printed wiring board ; and a stiffener assembly affixed to a first side of the printed wiring board, the stiffener assembly including: an outer stiffener secured to the printed wiring board; an inner stiffener removably disposed in an opening of the outer stiffener, the inner stiffener having one or more inner stiffener pockets formed therein; and one or more electronic components installed in one or more inner stiffener pockets, and electrically connected to the printed wiring board; an outer stiffener secured to the printed wiring board; an inner stiffener removably disposed in an opening of the outer stiffener, the inner stiffener having one or more inner stiffener pockets formed therein; and one or more electronic components installed in one or more inner stiffener pockets, and electrically connected to the printed wiring board; wherein: the inner stiffener includes a tapered inner stiffener end; and the outer stiffener includes a complementary tapered inner stiffener end, the tapered inner stiffener end and the tapered outer stiffener end defining a guide for location and installation of the inner stiffener to the outer stiffener. the inner stiffener includes a tapered inner stiffener end; and the outer stiffener includes a complementary tapered inner stiffener end, the tapered inner stiffener end and the tapered outer stiffener end defining a guide for location and installation of the inner stiffener to the outer stiffener.
A rotary pump, including a magnetic rotor arranged in a pump housing and having a magnetic rotor plane , which rotor is operatively connected to a drive for conveying a fluid , wherein an inlet opening is provided at the pump housing for the inlet of the fluid into the pump housing and a radial outlet passage is provided for conveying the fluid out of the pump housing and wherein the drive is a bearingless motor having a stator configured as a bearing stator and drive stator and having a magnetic stator plane , which stator bears a drive coil and a bearing coil lying in the stator plane and/or a drive bearing coil , wherein the rotor is magnetically contactlessly journalled within the stator and an axial height (H) of the rotor is smaller than or equal to half a diameter (D) of the rotor so that the rotor is passively magnetically stabilized by reluctance forces with respect to the magnetic stator plane both against an axial displacement and against a tiling from an equilibrium position, characterized in that the outlet passage is radially outwardly conducted away from the pump housing in the region of the stator such that a center axis (M) of the radial outlet passage coincides with the magnetic rotor plane or with the magnetic stator plane .
Process for the preparation of methanol, comprising the steps of (a) providing a fresh methanol synthesis gas containing hydrogen, carbon monoxide and carbon dioxide; (b)) introducing and reacting the fresh methanol synthesis gas stream in a first methanol reaction unit in presence of a methanol catalyst and obtaining a first effluent stream containing methanol and unconverted synthesis gas; (c) providing a recycle gas stream containing the unconverted methanol synthesis gas contained in the first effluent stream and unconverted methanol synthesis gas from a second methanol reaction unit; (d) introducing and reacting the recycle gas stream in the second methanol reaction unit in presence of a methanol catalyst; (e) withdrawing a second effluent stream containing methanol and the unconverted methanol synthesis gas from the second methanol reaction unit; (f)) combining the first and a part of the second effluent stream; (g) cooling and separating the combined effluent into a methanol-containing liquid stream and the recycle stream; and (h) withdrawing the remaining part of the second effluent stream as a purge gas stream, wherein the remaining part of the second effluent stream is withdrawn as a purge gas stream prior to combining the first and second effluent stream. (a) providing a fresh methanol synthesis gas containing hydrogen, carbon monoxide and carbon dioxide; (b)) introducing and reacting the fresh methanol synthesis gas stream in a first methanol reaction unit in presence of a methanol catalyst and obtaining a first effluent stream containing methanol and unconverted synthesis gas; (c) providing a recycle gas stream containing the unconverted methanol synthesis gas contained in the first effluent stream and unconverted methanol synthesis gas from a second methanol reaction unit; (d) introducing and reacting the recycle gas stream in the second methanol reaction unit in presence of a methanol catalyst; (e) withdrawing a second effluent stream containing methanol and the unconverted methanol synthesis gas from the second methanol reaction unit; (f)) combining the first and a part of the second effluent stream; (g) cooling and separating the combined effluent into a methanol-containing liquid stream and the recycle stream; and (h) withdrawing the remaining part of the second effluent stream as a purge gas stream,
A method of manufacturing an active reconstructed wafer, the reconstructed wafer comprising a plurality of chiplets, the method characterized in that the method comprises: dicing a product wafer comprising chiplets to singulate the chiplets using plasma dicing on a glass carrier; selecting good dies for chiplets using laser release and a pick-up tool; bonding the selected good dies to a sacrificial wafer; filling gaps between chiplets thereby forming a first layer forming the active reconstructed wafer; thinning of the selected good dies; bonding the reconstructed wafer to a silicon wafer; removing the sacrificial wafer; connecting chiplets; stacking further dies in at least one further layer; and then forming interconnects for attachment. dicing a product wafer comprising chiplets to singulate the chiplets using plasma dicing on a glass carrier; selecting good dies for chiplets using laser release and a pick-up tool; bonding the selected good dies to a sacrificial wafer; filling gaps between chiplets thereby forming a first layer forming the active reconstructed wafer; thinning of the selected good dies; bonding the reconstructed wafer to a silicon wafer; removing the sacrificial wafer; connecting chiplets; stacking further dies in at least one further layer; and then forming interconnects for attachment.
A spatial light modulator comprising: a first reflective layer ; a second reflective layer comprising a plurality of grating structures (GS) spaced apart from each other; a resonance layer provided between the first reflective layer and the second reflective layer; and further characterized by a filling layer having a heat transfer coefficient of 100 mW/mK or less, and being in contact with an upper surface of the resonance layer and surrounding at least one grating structure of the plurality of grating structures; wherein each of the plurality of grating structures comprises a first doped semiconductor layer, an intrinsic conductor layer, and a second doped semiconductor layer; and wherein the plurality of grating structures comprise: grating structures of a first group to which a first electrical signal is applied; and grating structures of a second group to which a second electrical signal is applied, and wherein the filling layer surrounds at least one of the grating structures of the first group or the grating structures of the second group. a first reflective layer ; a second reflective layer comprising a plurality of grating structures (GS) spaced apart from each other; a resonance layer provided between the first reflective layer and the second reflective layer; and further characterized by a filling layer having a heat transfer coefficient of 100 mW/mK or less, and being in contact with an upper surface of the resonance layer and surrounding at least one grating structure of the plurality of grating structures; wherein each of the plurality of grating structures comprises a first doped semiconductor layer, an intrinsic conductor layer, and a second doped semiconductor layer; and wherein the plurality of grating structures comprise: grating structures of a first group to which a first electrical signal is applied; and grating structures of a second group to which a second electrical signal is applied, and wherein the filling layer surrounds at least one of the grating structures of the first group or the grating structures of the second group. grating structures of a first group to which a first electrical signal is applied; and grating structures of a second group to which a second electrical signal is applied, and wherein the filling layer surrounds at least one of the grating structures of the first group or the grating structures of the second group.
Front hybrid driving axle for an agricultural vehicle , said front hybrid driving axle comprising: a housing configured to be fixed to an internal combustion engine of said agricultural vehicle ; at least one electric machine (M', M") carried by said housing ; wherein said housing comprises a front portion and a rear portion (7") configured to be connected together along a longitudinal axis (A) of said vehicle , said front portion defining a closed space for housing at least one transmission each comprising a plurality of gears and shafts housed within said closed space , said at least one transmission configured for operatively connecting said at least one electric machine (M', M") and an engine shaft of said internal combustion engine ; said front hybrid driving axle is characterized in that said front portion is configured to carry said at least one electric machine (M', M") outside said closed space and said rear portion (7") is defining a space for housing said at least one electric machine (M', M") and connection points for fixing respective wheel hubs of said vehicle . a housing configured to be fixed to an internal combustion engine of said agricultural vehicle ; at least one electric machine (M', M") carried by said housing ; wherein said housing comprises a front portion and a rear portion (7") configured to be connected together along a longitudinal axis (A) of said vehicle , said front portion defining a closed space for housing at least one transmission each comprising a plurality of gears and shafts housed within said closed space , said at least one transmission configured for operatively connecting said at least one electric machine (M', M") and an engine shaft of said internal combustion engine ; said front hybrid driving axle is characterized in that said front portion is configured to carry said at least one electric machine (M', M") outside said closed space and said rear portion (7") is defining a space for housing said at least one electric machine (M', M") and connection points for fixing respective wheel hubs of said vehicle .
Method for optimizing the energy consumption of a hybrid vehicle comprising an internal combustion engine supplied with fuel and an electric engine supplied by a traction battery, characterized in that it implements the following steps: a) acquiring, by way of a navigation system, a route to be taken; b) dividing said route into successive sections (T i ); c) acquiring, for each section (T i ), attributes (FC, SC, SL, TS, RG, LL, NL, SMS) characterizing said section (T i ); d) for each of said sections (T i ), and taking into account its attributes (FC, SC, SL, TS, RG, LL, NL, SMS), selecting, from among a plurality of predetermined relationships (CE j ) linking fuel consumption values (CC) to electrical energy consumption values (ΔSOE), a relationship (CE j ) linking the fuel consumption (CC) of the hybrid motor vehicle over the section (T i ) to its electrical energy consumption (ΔSOE); e) determining an optimum point (P i ) for preserving the state of health (SOH) of the traction battery in each of the selected relationships (CE j ), such that all of the optimum points (P i ) minimize the ageing of the traction battery over the entire route and maximize the discharge of the traction battery at the end of said route; and f) formulating a setpoint for managing the fuel consumption and electric current consumption of the motor vehicle, along the entire route, as a function of the coordinates of said optimum points (P i ), the method being characterized in that , in step e), the determination of the optimum point (P i ) in each of the relationships (CE j ) selected for each section (T i ) depends on the fuel consumption over the entire section (T i ), weighted by a preservation relationship (r pre ) for preserving the state of health (SOH) of the traction battery, the value of the preservation relationship (r pre ) decreasing when the state of energy (SOE) of the traction battery is within an optimum usage range [SOE min' ; SOE max' ] . a) acquiring, by way of a navigation system, a route to be taken; b) dividing said route into successive sections (T i ); c) acquiring, for each section (T i ), attributes (FC, SC, SL, TS, RG, LL, NL, SMS) characterizing said section (T i ); d) for each of said sections (T i ), and taking into account its attributes (FC, SC, SL, TS, RG, LL, NL, SMS), selecting, from among a plurality of predetermined relationships (CE j ) linking fuel consumption values (CC) to electrical energy consumption values (ΔSOE), a relationship (CE j ) linking the fuel consumption (CC) of the hybrid motor vehicle over the section (T i ) to its electrical energy consumption (ΔSOE); e) determining an optimum point (P i ) for preserving the state of health (SOH) of the traction battery in each of the selected relationships (CE j ), such that all of the optimum points (P i ) minimize the ageing of the traction battery over the entire route and maximize the discharge of the traction battery at the end of said route; and f) formulating a setpoint for managing the fuel consumption and electric current consumption of the motor vehicle, along the entire route, as a function of the coordinates of said optimum points (P i ),
An organic light emitting display device comprising: a plurality of anode electrodes on a lower substrate defining an emissive area; a bank dividing the plurality of anode electrodes, the bank defining a non-emissive area; an organic light emitting layer on the plurality of anode electrodes; a second electrode on the organic light emitting layer; and a scattering layer (SCL) overlapping the bank, characterized in that a width of the scattering layer is wider than a width of the bank such that the scattering layer only partially overlaps the emissive area. a plurality of anode electrodes on a lower substrate defining an emissive area; a bank dividing the plurality of anode electrodes, the bank defining a non-emissive area; an organic light emitting layer on the plurality of anode electrodes; a second electrode on the organic light emitting layer; and a scattering layer (SCL) overlapping the bank, characterized in that a width of the scattering layer is wider than a width of the bank such that the scattering layer only partially overlaps the emissive area.
A method of forming a doped AlN wafer, the method comprising the steps of: providing a single-crystal wafer comprising AlN and a dopant species; and annealing the single-crystal wafer at a temperature greater than 1900 °C to electrically activate the dopant species and annealing the single-crystal wafer at an annealing pressure within the range of 0.1 mbar to 5 bars. providing a single-crystal wafer comprising AlN and a dopant species; and annealing the single-crystal wafer at a temperature greater than 1900 °C to electrically activate the dopant species and annealing the single-crystal wafer at an annealing pressure within the range of 0.1 mbar to 5 bars.