mhurhangee/patent-ind-claim-en huggingface dataset:
An extendable sun visor for a vehicle , comprising: - a base plate for providing a base area of shadowing, - a first movable plate which is connected to the base plate and which is movable in relation to the base plate for providing a first additional area of shadowing, - at least one second movable plate which is connected to the base plate and which is movable in relation to both the base plate and the first movable plate for providing at least one second additional area of shadowing, the at least one second additional area of shadowing being different from said first additional area of shadowing, and - an actuating structure for actuating a movement of the at least one second movable plate when the first moveable plate is moved, wherein the actuating structure comprises a first actuation surface of the first movable plate and a second actuation surface of the second movable plate , wherein the first actuation surface is configured to push the second actuation surface when the first movable plate is moved for providing said first additional area of shadowing, and characterized in that the motion of the first movable plate, via the engagement between the first and second actuation surfaces, transfers a motive force to the second movable plate. - a base plate for providing a base area of shadowing, - a first movable plate which is connected to the base plate and which is movable in relation to the base plate for providing a first additional area of shadowing, - at least one second movable plate which is connected to the base plate and which is movable in relation to both the base plate and the first movable plate for providing at least one second additional area of shadowing, the at least one second additional area of shadowing being different from said first additional area of shadowing, and - an actuating structure for actuating a movement of the at least one second movable plate when the first moveable plate is moved, wherein the actuating structure comprises a first actuation surface of the first movable plate and a second actuation surface of the second movable plate , wherein the first actuation surface is configured to push the second actuation surface when the first movable plate is moved for providing said first additional area of shadowing, and characterized in that the motion of the first movable plate, via the engagement between the first and second actuation surfaces, transfers a motive force to the second movable plate.
Method for disassembling and comminuting a material by means of the electrohydraulic effect, in which in a container filled with a liquid by means of a pulse current source within an underwater spark gap between a first electrode , in particular earth electrode, and at least one second electrode , in particular a high-voltage electrode, a surge discharge with a pulse or discharge energy between 1 J and 20 J is generated substantially in the liquid, the material to be comminuted lying in the container in the underwater spark gap, characterized in that the second electrodes each have insulation , the area of a non-insulated electrode tip of one of the second electrodes , which is immersed in the liquid, being set between 50 mm 2 and 500 mm 2 .
An actuator assembly , comprising: a housing , an input shaft , an output shaft , a limited angle electromagnetic actuator coupled to the input shaft for rotating the input shaft to generate an input torque profile over an input stroke, a rotatable input element adapted to couple to said input shaft to rotate therewith, said rotatable input element having a first cam profile, a rotatable output element adapted to couple to said output shaft to rotate therewith, said rotatable output element having a second cam profile, at least one coupling element (40/42) for rotationally coupling said rotatable input element to said rotatable output element to transfer a rotary motion of the input shaft to the output shaft to generate an output torque profile over an output stroke, said at least one coupling element comprising an inferior portion (40a/42a) engaged with said first cam profile and a superior portion (40b/42b) engaged with said second cam profile so as to transfer rotary motion of the rotatable input element to the rotatable output element , and a pin to which said at least one coupling element is slidably coupled, said pin being fixedly attached to said housing, wherein said first and second cam profiles are configured such that said output profile is different than said input torque profile, and wherein said at least one coupling element (40/42) is configured to remain rotationally fixed relative to an axis of rotation of the input and the output shafts. a housing , an input shaft , an output shaft , a limited angle electromagnetic actuator coupled to the input shaft for rotating the input shaft to generate an input torque profile over an input stroke, a rotatable input element adapted to couple to said input shaft to rotate therewith, said rotatable input element having a first cam profile, a rotatable output element adapted to couple to said output shaft to rotate therewith, said rotatable output element having a second cam profile, at least one coupling element (40/42) for rotationally coupling said rotatable input element to said rotatable output element to transfer a rotary motion of the input shaft to the output shaft to generate an output torque profile over an output stroke, said at least one coupling element comprising an inferior portion (40a/42a) engaged with said first cam profile and a superior portion (40b/42b) engaged with said second cam profile so as to transfer rotary motion of the rotatable input element to the rotatable output element , and a pin to which said at least one coupling element is slidably coupled, said pin being fixedly attached to said housing, wherein said first and second cam profiles are configured such that said output profile is different than said input torque profile, and wherein said at least one coupling element (40/42) is configured to remain rotationally fixed relative to an axis of rotation of the input and the output shafts.
A method for producing methyl cellulose, comprising the steps of: mixing a cellulose pulp with a first alkali metal hydroxide solution with stirring to obtain alkali cellulose; reacting the alkali cellulose with a methylating agent to obtain a first reaction mixture; blending a second alkali metal hydroxide solution with the first reaction mixture with stirring, without further blending of the methylating agent, to obtain a second reaction mixture; and purifying the second reaction mixture to obtain methyl cellulose, wherein a ratio of a weight of a first alkali metal hydroxide in the first alkali metal hydroxide solution to a total weight of the first alkali metal hydroxide and a second alkali metal hydroxide in the second alkali metal hydroxide solution is 50 to 86%. mixing a cellulose pulp with a first alkali metal hydroxide solution with stirring to obtain alkali cellulose; reacting the alkali cellulose with a methylating agent to obtain a first reaction mixture; blending a second alkali metal hydroxide solution with the first reaction mixture with stirring, without further blending of the methylating agent, to obtain a second reaction mixture; and purifying the second reaction mixture to obtain methyl cellulose,
An unsaturated bond-containing bissilyl compound having the general formula : wherein R 1 to R 3 are each independently hydrogen or a substituted or unsubstituted, C 1 -C 20 monovalent hydrocarbon group, R 4 , R 5 and R 7 are each independently a substituted or unsubstituted, C 1 -C 20 monovalent hydrocarbon group, R 6 is a C 1 -C 20 divalent hydrocarbon group which may contain oxygen, silicon or sulfur, R 8 and R 9 are each independently a substituted or unsubstituted, C 1 -C 20 monovalent hydrocarbon group which may contain a heteroatom, R 8 and R 9 may bond together to form a C 2 -C 20 ring with the nitrogen atom to which they are attached, and n is an integer of 0, 1 or 2.
A printing control apparatus for generating raster image data according to a print job received from an external apparatus via a network and transmitting the raster image data to a printing apparatus , the printing apparatus having a first power saving state in which power is not supplied to a network interface for receiving network packets via the network and a processor and a second power saving state in which power is supplied to the network interface but is not supplied to the processor, the printing control apparatus comprising: acquisition means for acquiring a power state of the printing apparatus , characterized in that the printing control apparatus further comprises: control means for causing, if the power state of the printing apparatus acquired by the acquisition means is the first power saving state, the printing control apparatus to enter an OFF state, and for causing, if the power state of the printing apparatus acquired by the acquisition means is the second power saving state, the printing control apparatus to enter a power saving state in which the printing control apparatus is able to receive a print job from the external apparatus via the network by the network interface, wherein the printing control apparatus is configured to recover from the power saving state based on reception of the print job and then transmit a wake-up packet for recovering the printing apparatus from the second power saving state. acquisition means for acquiring a power state of the printing apparatus , characterized in that the printing control apparatus further comprises: control means for causing, if the power state of the printing apparatus acquired by the acquisition means is the first power saving state, the printing control apparatus to enter an OFF state, and for causing, if the power state of the printing apparatus acquired by the acquisition means is the second power saving state, the printing control apparatus to enter a power saving state in which the printing control apparatus is able to receive a print job from the external apparatus via the network by the network interface, wherein the printing control apparatus is configured to recover from the power saving state based on reception of the print job and then transmit a wake-up packet for recovering the printing apparatus from the second power saving state.
A fluid-absorbent core comprising at least two layers, an upper layer and a lower layer , each layer comprising from 0 to 10% by weight fibrous material and from 90 to 100% by weight water-absorbent polymer particles, based on the sum of water-absorbent polymer particles and fibrous material, wherein the water-absorbent polymer particles within the upper layer are a water absorbent mixture comprising at least 10% by weight of a first type of water-absorbent polymer particles, water-absorbent polymer particles G, with a vortex of less than 30 s, determined according to the method disclosed in the description and at least 50% by weight of a second type of water-absorbent polymer particles, water-absorbent polymer particles H, with a CRC of at least 25 g/g determined by the EDANA test method No. WSP 241.3 wherein water-absorbent polymer particles G are obtained by agglomerating fine water-absorbing polymer particles by using a solution or suspension comprising a) 0,04 to 1,2 % by weight water-soluble or water-dispersible polymeric binders or a mixture thereof, based on the water-absorbent polymer particles, b) 20 to 70% by weight of water based on the water-absorbent polymer particles, and c) 5 to 20% by weight of a water-miscible organic solvent based on the water-absorbent polymer particles and wherein fine water-absorbing polymer particles having an average particle diameter of not larger than 300 μm. wherein the water-absorbent polymer particles within the upper layer are a water absorbent mixture comprising at least 10% by weight of a first type of water-absorbent polymer particles, water-absorbent polymer particles G, with a vortex of less than 30 s, determined according to the method disclosed in the description and at least 50% by weight of a second type of water-absorbent polymer particles, water-absorbent polymer particles H, with a CRC of at least 25 g/g determined by the EDANA test method No. WSP 241.3 wherein water-absorbent polymer particles G are obtained by agglomerating fine water-absorbing polymer particles by using a solution or suspension comprising a) 0,04 to 1,2 % by weight water-soluble or water-dispersible polymeric binders or a mixture thereof, based on the water-absorbent polymer particles, b) 20 to 70% by weight of water based on the water-absorbent polymer particles, and c) 5 to 20% by weight of a water-miscible organic solvent based on the water-absorbent polymer particles a) 0,04 to 1,2 % by weight water-soluble or water-dispersible polymeric binders or a mixture thereof, based on the water-absorbent polymer particles, b) 20 to 70% by weight of water based on the water-absorbent polymer particles, and c) 5 to 20% by weight of a water-miscible organic solvent based on the water-absorbent polymer particles and wherein fine water-absorbing polymer particles having an average particle diameter of not larger than 300 μm.
Load carrier system comprising a bike carrier mountable on a rear mount system of a vehicle, preferably a ball hitch or fix point attachment of the vehicle, and a load receptacle mountable on said bike carrier , wherein said load receptacle comprises a load receptacle fastening member adapted to cooperate with an available counterpart of said bike carrier , wherein said load receptacle fastening member includes one of an elongate member and a receiving member of a fastening structure , and wherein said receiving member is adapted to detachably receive said elongate member , said receiving member being preferably a strap receiver comprising a pump buckle , wherein said available counterpart is one of said receiving member and said elongate member of said fastening structure depending on the kind of load receptacle fastening member , characterized in that said load receptacle fastening member is mounted on said load receptacle and said elongate member is a toothed strap made of synthetic material.
Method for controlling a hybrid automotive vehicle (T}, equipped with an internal combustion engine , and an electric machine connected to an energy storage system , each of said internal combustion engine and said electric machine being adapted to deliver torque to a driveline of the vehicle (T), wherein said method comprises at least the following steps: a) during a mission of the vehicle (T), estimation of the temperature (T8) of the energy storage system at the beginning of the next mission of the vehicle (T) ; b) if the temperature (S12) estimated at step a) is below a threshold value (Ti), recharging the energy storage system on the basis of the temperature (S12) estimated at step a); characterized in that it comprises: in the course of the mission, maintaining the battery at a stage of charge which varies around a normal operating state of charge target (SOCTn) during a major portion of the operating period of the mission; - f) prior to step b), a further step of determination if the vehicle (T) approaches the end of its mission; - if the temperature (S12) estimated at step a) is below a threshold value (Ti), recharging, before the end of the current mission of the vehicle (T), the energy storage system on the basis of the temperature (S12) estimated at step a); and in that c) if the energy storage system has been recharged at step b), then, at the beginning of the next operating period of the vehicle (T), heavily discharging the energy storage system . a) during a mission of the vehicle (T), estimation of the temperature (T8) of the energy storage system at the beginning of the next mission of the vehicle (T) ; b) if the temperature (S12) estimated at step a) is below a threshold value (Ti), recharging the energy storage system on the basis of the temperature (S12) estimated at step a); characterized in that it comprises: in the course of the mission, maintaining the battery at a stage of charge which varies around a normal operating state of charge target (SOCTn) during a major portion of the operating period of the mission; - f) prior to step b), a further step of determination if the vehicle (T) approaches the end of its mission; - if the temperature (S12) estimated at step a) is below a threshold value (Ti), recharging, before the end of the current mission of the vehicle (T), the energy storage system on the basis of the temperature (S12) estimated at step a); and in that - f) prior to step b), a further step of determination if the vehicle (T) approaches the end of its mission; - if the temperature (S12) estimated at step a) is below a threshold value (Ti), recharging, before the end of the current mission of the vehicle (T), the energy storage system on the basis of the temperature (S12) estimated at step a); and c) if the energy storage system has been recharged at step b), then, at the beginning of the next operating period of the vehicle (T), heavily discharging the energy storage system .
A power window switch system to operate windows of a vehicle, comprising: a plurality of window switches suitable for being arranged on a steering wheel , said plurality of window switches to be operated by a driver or an operator to control an operation of a set of selected windows, of the windows of the vehicle, between open and close positions, and wherein said plurality of window switches are depressible control switches or tap switches; a multifunction synchronization switch that is in communication with said plurality of window switches , has a plurality of step positions and is equipped with a stepwise movement mechanism, wherein each step position, of the plurality of step positions, actuates a set of switch functions for said set of selected windows, said set of switch functions being a controlled operation of two or all of said set of selected windows at a time, between a fully opened and a fully closed positions, said set of selected windows are operated based on an activation pattern, wherein said activation pattern is a number of depressing of said plurality of window switches , comprising: - 1 time for 3⁄4 window height; - 2 times for 1/2 window height; - 3 times for 1/4 window height; - 4 times for fully open window; and - 5 times for fully closed window; a window movement mechanism to move said set of selected windows; and a switch control system having a processor to communicate the operations provided by the multifunction synchronization switch to the window movement mechanism. a plurality of window switches suitable for being arranged on a steering wheel , said plurality of window switches to be operated by a driver or an operator to control an operation of a set of selected windows, of the windows of the vehicle, between open and close positions, and wherein said plurality of window switches are depressible control switches or tap switches; a multifunction synchronization switch that is in communication with said plurality of window switches , has a plurality of step positions and is equipped with a stepwise movement mechanism, wherein each step position, of the plurality of step positions, actuates a set of switch functions for said set of selected windows, said set of switch functions being a controlled operation of two or all of said set of selected windows at a time, between a fully opened and a fully closed positions, said set of selected windows are operated based on an activation pattern, wherein said activation pattern is a number of depressing of said plurality of window switches , comprising: - 1 time for 3⁄4 window height; - 2 times for 1/2 window height; - 3 times for 1/4 window height; - 4 times for fully open window; and - 5 times for fully closed window; - 1 time for 3⁄4 window height; - 2 times for 1/2 window height; - 3 times for 1/4 window height; - 4 times for fully open window; and - 5 times for fully closed window; a window movement mechanism to move said set of selected windows; and a switch control system having a processor to communicate the operations provided by the multifunction synchronization switch to the window movement mechanism.
An antenna structure, comprising: a first conductive element including: a first planar portion having a first end and a second end; and an extension portion that extends away from the first planar portion at a center of the first planar portion between the first end and the second end; and a second conductive element spaced apart from the first planar portion and electrically connected to the extension portion, wherein the extension portion has a first length, characterized in that the first length is adjustable by lengthening or shortening the extension portion such that the antenna structure is configured to operate in a first mode or a second mode, wherein the first mode is a mode having a first resonant frequency defining a first frequency bandwidth, and a second resonant frequency distinct from the first resonant frequency defining a second frequency bandwidth distinct from the first frequency bandwidth, and wherein the second mode is a mode with an expanded frequency bandwidth that includes the first frequency bandwidth of the first mode and the second frequency bandwidth of the first mode; a first conductive element including: a first planar portion having a first end and a second end; and an extension portion that extends away from the first planar portion a first planar portion having a first end and a second end; and an extension portion that extends away from the first planar portion at a center of the first planar portion between the first end and the second end; and a second conductive element spaced apart from the first planar portion and electrically connected to the extension portion, wherein the extension portion has a first length, characterized in that the first length is adjustable by lengthening or shortening the extension portion such that the antenna structure is configured to operate in a first mode or a second mode, wherein the first mode is a mode having a first resonant frequency defining a first frequency bandwidth, and a second resonant frequency distinct from the first resonant frequency defining a second frequency bandwidth distinct from the first frequency bandwidth, and wherein the second mode is a mode with an expanded frequency bandwidth that includes the first frequency bandwidth of the first mode and the second frequency bandwidth of the first mode;
A method for producing a fluorine-containing organic compound, the method comprising: reacting a raw material liquid containing a raw material organic compound having a hydrogen atom and two or more carbon atoms with fluorine gas in a reaction container to replace the hydrogen atom of the raw material organic compound with a fluorine atom to give a fluorine-containing organic compound, wherein tetrafluoromethane contained in a gas phase in the reaction container is continuously measured, and an amount of the fluorine gas supplied to the reaction container is controlled depending on a measured value of the tetrafluoromethane. reacting a raw material liquid containing a raw material organic compound having a hydrogen atom and two or more carbon atoms with fluorine gas in a reaction container to replace the hydrogen atom of the raw material organic compound with a fluorine atom to give a fluorine-containing organic compound, wherein tetrafluoromethane contained in a gas phase in the reaction container is continuously measured, and an amount of the fluorine gas supplied to the reaction container is controlled depending on a measured value of the tetrafluoromethane.