mhurhangee/patent-ind-claim-en huggingface dataset:
An elevator car comprising: an elevator car frame; a moveable maintenance assembly , the moveable maintenance assembly comprising: a fixed portion fixedly attached to the elevator car , the fixed portion forming a portion of a frame of the elevator car ; a moveable portion arranged within the fixed portion ; and at least one component removably mounted to the moveable portion ; wherein the at least one component is removable from the moveable portion when the moveable portion is in the second position; wherein the moveable maintenance assembly is mounted to the elevator car , and the moveable maintenance assembly supports components of the elevator car that are configured to engage and/or interact with a guide rail of an elevator system; characterized in that the movable portion is slidingly moveable relative to the fixed portion from a first position to a second position. an elevator car frame; a moveable maintenance assembly , the moveable maintenance assembly comprising: a fixed portion fixedly attached to the elevator car , the fixed portion forming a portion of a frame of the elevator car ; a moveable portion arranged within the fixed portion ; and at least one component removably mounted to the moveable portion ; wherein the at least one component is removable from the moveable portion when the moveable portion is in the second position; wherein the moveable maintenance assembly is mounted to the elevator car , and the moveable maintenance assembly supports components of the elevator car that are configured to engage and/or interact with a guide rail of an elevator system; characterized in that the movable portion is slidingly moveable relative to the fixed portion from a first position to a second position.
A detecting sensor for detecting a position indicated by an indicator, the detecting sensor comprising: a transparent substrate ; a first ground layer disposed on a surface of said transparent substrate ; an insulating layer disposed on the first ground layer , a plurality of first sensor conductors arranged in a first direction on said surface of the substrate ; a plurality of first wiring conductors electrically connected to said first sensor conductors , respectively; a plurality of second sensor conductors arranged in a second direction intersecting said first direction on said surface of the substrate; a plurality of second wiring conductors electrically connected to said second sensor conductors on said surface of the substrate, respectively; wherein the first wiring conductors are disposed on the insulating layer so that the insulating layer is provided between the first wiring conductors and the first ground layer ; wherein the first ground layer is set to a predetermined potential, and the first ground layer is made of the same material as that used to form said first sensor conductors and said second sensor conductors . a transparent substrate ; a first ground layer disposed on a surface of said transparent substrate ; an insulating layer disposed on the first ground layer , a plurality of first sensor conductors arranged in a first direction on said surface of the substrate ; a plurality of first wiring conductors electrically connected to said first sensor conductors , respectively; a plurality of second sensor conductors arranged in a second direction intersecting said first direction on said surface of the substrate; a plurality of second wiring conductors electrically connected to said second sensor conductors on said surface of the substrate, respectively; wherein the first wiring conductors are disposed on the insulating layer so that the insulating layer is provided between the first wiring conductors and the first ground layer ; wherein the first ground layer is set to a predetermined potential, and the first ground layer is made of the same material as that used to form said first sensor conductors and said second sensor conductors .
A heteroleptic compound having the formula [L A ] 3-n Ir[L B ] n ; wherein L A is and wherein L B is Formula I; wherein each R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 independently represents mono, to a maximum possible number of substitutions, or no substitution; wherein X is selected from the group consisting of BR, NR, PR, O, S, Se, C=O, S=O, SO 2 , CRR', SiRR', and GeRR'; wherein X 1 to X 6 are each independently carbon or nitrogen; wherein each R, R', R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 is independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein any adjacent substitutions on the same ring are optionally joined or fused into a ring; and wherein n is 1 or 2. wherein L A is and wherein L B is Formula I; wherein each R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 independently represents mono, to a maximum possible number of substitutions, or no substitution; wherein X is selected from the group consisting of BR, NR, PR, O, S, Se, C=O, S=O, SO 2 , CRR', SiRR', and GeRR'; wherein X 1 to X 6 are each independently carbon or nitrogen; wherein each R, R', R 1 , R 2 , R 3 , R 4 , R 5 , and R 6 is independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphino, and combinations thereof; wherein any adjacent substitutions on the same ring are optionally joined or fused into a ring; and wherein n is 1 or 2.
A leaning vehicle comprising: a front wheel brake operator and a rear wheel brake operator that are operated by a rider; and an AEB (Autonomous Emergency Braking) control device which is mounted on a leaning vehicle body frame leaning rightward in a vehicle left-right direction when turning right and leaning leftward in the vehicle left-right direction when turning left and is configured to automatically control a front wheel braking force and a rear wheel braking force without requiring an operation of at least one of the front wheel brake operator or the rear wheel brake operator, based on a margin acquired based on the relationship between an obstacle and the leaning vehicle , characterised in that the AEB control device is configured to control the front wheel braking force and the rear wheel braking force that are automatically generated, so that a state transition of the front wheel braking force and the rear wheel braking force is: a state transition 1 with which, within a range excluding a range in which the rear wheel braking force is small as compared to an ideal braking force distribution when one rider rides, a state where the front wheel braking force and the rear wheel braking force are both zero transitions to a state of changing along positions where the front wheel braking force and the rear wheel braking force are both not zero.
A method for preparing a poly(phenylene ether), the method comprising: oxidatively polymerizing a poly(phenylene ether) starting material having an initial intrinsic viscosity in the presence of an organic solvent and a copper-amine catalyst to form a reaction mixture comprising a poly(phenylene ether) having a final intrinsic viscosity that is at least 50% greater than the initial intrinsic viscosity, wherein the initial intrinsic viscosity and the final intrinsic viscosity are determined using an Ubbelohde viscometer at 25°C in chloroform; terminating the oxidative polymerization to form a post-termination reaction mixture; combining an aqueous solution comprising a chelant comprising an alkali metal salt of an aminopolycarboxylic acid with the post-termination reaction mixture to form a chelation mixture comprising an aqueous phase comprising chelated copper ion, and an organic phase comprising dissolved poly(phenylene ether); separating the aqueous phase and the organic phase; and isolating the poly(phenylene ether) from the organic phase. oxidatively polymerizing a poly(phenylene ether) starting material having an initial intrinsic viscosity in the presence of an organic solvent and a copper-amine catalyst to form a reaction mixture comprising a poly(phenylene ether) having a final intrinsic viscosity that is at least 50% greater than the initial intrinsic viscosity, wherein the initial intrinsic viscosity and the final intrinsic viscosity are determined using an Ubbelohde viscometer at 25°C in chloroform; terminating the oxidative polymerization to form a post-termination reaction mixture; combining an aqueous solution comprising a chelant comprising an alkali metal salt of an aminopolycarboxylic acid with the post-termination reaction mixture to form a chelation mixture comprising an aqueous phase comprising chelated copper ion, and an organic phase comprising dissolved poly(phenylene ether); an aqueous phase comprising chelated copper ion, and an organic phase comprising dissolved poly(phenylene ether); separating the aqueous phase and the organic phase; and isolating the poly(phenylene ether) from the organic phase.
Process to obtain a carboxylic acid of formula (II) from a tertiary alcohol of formula (I), in which R1, R2 and R3 independently represent an optionally substituted alkyl or optionally substituted aryl group, by reaction of said alcohol (I) with a combination of formic acid with a strong acid, wherein: a. said strong acid is CF 3 SO 3 H, present in an amount of at least 15 molar equivalents per equivalent of compound (I); b. the reaction is conducted in a microflow reactor at a temperature of at least 50°C, and with a residence time within the reactor of at least 50 seconds. a. said strong acid is CF 3 SO 3 H, present in an amount of at least 15 molar equivalents per equivalent of compound (I); b. the reaction is conducted in a microflow reactor at a temperature of at least 50°C, and with a residence time within the reactor of at least 50 seconds.
An operating system (OS) of an electric operated rock drilling rig comprising: at least one electric system (ES) connected to at least one electric supply source (SS) and comprising at least one electric motor (EM) controlled by means of at least one electric control device ; at least one hydraulic system (HS) comprising at least one hydraulic pump (HP) driven by means of the at least one electric motor (EM), and at least one hydraulic control device ; and at least one hydraulic tramming actuator and the following hydraulic drilling actuators : at least one hydraulic percussion device , at least one hydraulic rotating device and at least one hydraulic feed device ; characterized in that the hydraulic system (HS) comprises at least one closed loop hydraulic circuit provided with by-pass flow channels for allowing cooling and filtering of the hydraulic fluid circulating in said closed loop hydraulic circuit , and at least one open loop hydraulic circuit ; the at least one tramming actuator is operated by means of a first closed loop hydraulic circuit ; one of the mentioned hydraulic drilling actuators is operated by means of a first open loop hydraulic circuit ; and the first closed loop hydraulic circuit and the first open loop hydraulic circuit have a common hydraulic pump (HP, HP') and electric motor (EM, EM'), whereby the first closed loop and the first open loop hydraulic circuits (24, 24a; 25) are operated in turns under control of the at least one hydraulic control device . at least one electric system (ES) connected to at least one electric supply source (SS) and comprising at least one electric motor (EM) controlled by means of at least one electric control device ; at least one hydraulic system (HS) comprising at least one hydraulic pump (HP) driven by means of the at least one electric motor (EM), and at least one hydraulic control device ; and at least one hydraulic tramming actuator and the following hydraulic drilling actuators : at least one hydraulic percussion device , at least one hydraulic rotating device and at least one hydraulic feed device ; characterized in that the hydraulic system (HS) comprises at least one closed loop hydraulic circuit provided with by-pass flow channels for allowing cooling and filtering of the hydraulic fluid circulating in said closed loop hydraulic circuit , and at least one open loop hydraulic circuit ; the at least one tramming actuator is operated by means of a first closed loop hydraulic circuit ; one of the mentioned hydraulic drilling actuators is operated by means of a first open loop hydraulic circuit ; and the first closed loop hydraulic circuit and the first open loop hydraulic circuit have a common hydraulic pump (HP, HP') and electric motor (EM, EM'), whereby the first closed loop and the first open loop hydraulic circuits (24, 24a; 25) are operated in turns under control of the at least one hydraulic control device .
Mobile home having a battery and an axle , characterized in that the battery is configured to supply electric current to a travel drive of a towing vehicle and/or an optional travel drive of the mobile home during travel with a trailer in road traffic and is displaceably supported in the longitudinal direction of the mobile home and can be displaced by an adjustment apparatus .
Method for waking up a device (STB) connected to a first network (RL) comprising an access apparatus (GW) via which the device is able to access a second network, the device comprising a plurality of network interfaces and respective addresses (@MAC1,@MAC2), for communication with the access apparatus, characterized in that it comprises a step of prior storage in a memory accessible by the access apparatus of a plurality of correspondences, termed correspondence table, between the addresses, and in that it comprises, when the access apparatus receives a wakeup command in respect of the device, the command including an address (@MAC1) , - a step of cross-referencing in the table so as to determine the address (@MAC1,@MAC2) linked with the address received (@MAC1); - a step of transmission from the access apparatus destined for the device of several wakeup commands, the commands including the addresses (@MAC1,@MAC2) resulting from the cross-referencing step. - a step of cross-referencing in the table so as to determine the address (@MAC1,@MAC2) linked with the address received (@MAC1); - a step of transmission from the access apparatus destined for the device of several wakeup commands, the commands including the addresses (@MAC1,@MAC2) resulting from the cross-referencing step.
Waste disposal system for the disposal of consumables through a waste chute into a waste container, the waste disposal system comprising a waste chute having a first opening and a second opening , wherein the first opening is situated outside the waste container and wherein the second opening opens toward the waste container, wherein the first opening and the second opening are arranged at a first distance from one another, wherein the waste chute comprises a plurality of self-resetting lamellae for the partial or complete closure of the openings , wherein the lamellae form at least one first lamella annulus and one second lamella annulus (8`), wherein the first lamella annulus and the second lamella annulus are arranged at a second distance above one another, wherein at least the first lamella annulus closes the first opening and wherein at least the second lamella annulus (8`) closes the second opening , wherein the second distance between the first lamella annulus and the second lamella annulus (8`) is at least three quarters of the first distance , characterized in that the waste chute has a first inner diameter in the region of the lamella annuli and wherein the waste chute has a second inner diameter in the region between the first lamella annulus and the second lamella annulus (8`), wherein the second inner diameter is smaller than the first inner diameter .
A blood pressure measurement device , comprising: a first transducer configured to emit multiple soundwaves having multiple frequencies, the soundwaves configured to cause a blood vessel of a subject to vibrate; a second transducer configured to capture multiple ultrasound images of the blood vessel; and a processing device configured to: determine, based on the multiple captured ultrasound images, a resonant frequency of the blood vessel; and calculate, based on a wall thickness of the blood vessel, a radius or diameter of the blood vessel, and the determined resonant frequency, a blood pressure of the blood vessel or the subject, wherein determining the resonant frequency of the blood vessel comprises: determining, from the multiple ultrasound images, based on a vibrational response of the blood vessel to the soundwaves, a frequency of the multiple frequencies that maximizes a vibration of the blood vessel: and selecting the frequency as the resonant frequency. a first transducer configured to emit multiple soundwaves having multiple frequencies, the soundwaves configured to cause a blood vessel of a subject to vibrate; a second transducer configured to capture multiple ultrasound images of the blood vessel; and a processing device configured to: determine, based on the multiple captured ultrasound images, a resonant frequency of the blood vessel; and calculate, based on a wall thickness of the blood vessel, a radius or diameter of the blood vessel, and the determined resonant frequency, a blood pressure of the blood vessel or the subject, wherein determining the resonant frequency of the blood vessel comprises: determining, from the multiple ultrasound images, based on a vibrational response of the blood vessel to the soundwaves, a frequency of the multiple frequencies that maximizes a vibration of the blood vessel: and selecting the frequency as the resonant frequency. determine, based on the multiple captured ultrasound images, a resonant frequency of the blood vessel; and calculate, based on a wall thickness of the blood vessel, a radius or diameter of the blood vessel, and the determined resonant frequency, a blood pressure of the blood vessel or the subject, wherein determining the resonant frequency of the blood vessel comprises: determining, from the multiple ultrasound images, based on a vibrational response of the blood vessel to the soundwaves, a frequency of the multiple frequencies that maximizes a vibration of the blood vessel: and selecting the frequency as the resonant frequency. determining, from the multiple ultrasound images, based on a vibrational response of the blood vessel to the soundwaves, a frequency of the multiple frequencies that maximizes a vibration of the blood vessel: and selecting the frequency as the resonant frequency.
A laminate, characterized in that : a fine cellulose layer containing fine cellulose having a carboxyl group is stacked on one or both surfaces of a base material; a mixed layer of the fine cellulose in the base material, wherein the fine cellulose is mixed in the base material, is disposed between the base material and the fine cellulose layer; the base material is made of cellophane, paper, nylon, a derivative thereof, or a composite material of two or more thereof; and wherein the fine cellulose has a number average fiber width of not less than 1 nm to not larger than 50 nm and a number average fiber length of not less than 100 to not larger than 10000 times the number average fiber width when observed through atomic force microscopy. a fine cellulose layer containing fine cellulose having a carboxyl group is stacked on one or both surfaces of a base material; a mixed layer of the fine cellulose in the base material, wherein the fine cellulose is mixed in the base material, is disposed between the base material and the fine cellulose layer; the base material is made of cellophane, paper, nylon, a derivative thereof, or a composite material of two or more thereof; and wherein the fine cellulose has a number average fiber width of not less than 1 nm to not larger than 50 nm and a number average fiber length of not less than 100 to not larger than 10000 times the number average fiber width when observed through atomic force microscopy.
A device for wirelessly charging a battery , comprising: a power amplifier , a transmitter coil to generate a magnetic field for wirelessly charging a battery ; a low pass filter arrangement electrically coupled to an output of the power amplifier ; and a band stop filter electrically coupled to an output of the low pass filter arrangement comprising an output to electrically couple to the transmitter coil , characterized in that the low pass filter arrangement and the band stop filter are configured to transform a load impedance associated with the transmitter coil to reduce current variations at an input of the transmitter coil resulting from changes in the load impedance, and wherein to transform the load impedance associated with the transmitter coil, the low pass filter arrangement and the band stop filter are configured to align a maximum gradient path of a constant output power contour of the power amplifier with a real axis of an impedance smith chart. a power amplifier , a transmitter coil to generate a magnetic field for wirelessly charging a battery ; a low pass filter arrangement electrically coupled to an output of the power amplifier ; and a band stop filter electrically coupled to an output of the low pass filter arrangement comprising an output to electrically couple to the transmitter coil , characterized in that the low pass filter arrangement and the band stop filter are configured to transform a load impedance associated with the transmitter coil to reduce current variations at an input of the transmitter coil resulting from changes in the load impedance, and wherein to transform the load impedance associated with the transmitter coil, the low pass filter arrangement and the band stop filter are configured to align a maximum gradient path of a constant output power contour of the power amplifier with a real axis of an impedance smith chart.
A method of forming a MEMS device , comprising: depositing an organic based sacrificial layer over an electrode ; depositing a silicon rich layer comprising silicon oxide over the organic based sacrificial layer with a silicon containing gas and an oxygen containing gas, wherein the silicon rich layer has an amount of silicon greater than a stoichiometric silicon layer; depositing a dielectric layer comprising silicon oxide over the silicon rich layer , wherein a ratio of silicon containing gas to oxygen containing gas is higher when depositing the silicon rich layer as compared to depositing the dielectric layer ; forming a movable plate on the dielectric layer , wherein the movable plate comprises an electrically conductive material; and removing the organic based sacrificial layer . depositing an organic based sacrificial layer over an electrode ; depositing a silicon rich layer comprising silicon oxide over the organic based sacrificial layer with a silicon containing gas and an oxygen containing gas, wherein the silicon rich layer has an amount of silicon greater than a stoichiometric silicon layer; depositing a dielectric layer comprising silicon oxide over the silicon rich layer , wherein a ratio of silicon containing gas to oxygen containing gas is higher when depositing the silicon rich layer as compared to depositing the dielectric layer ; forming a movable plate on the dielectric layer , wherein the movable plate comprises an electrically conductive material; and removing the organic based sacrificial layer .