mhurhangee/patent-ind-claim-en huggingface dataset:
Floor position detection device of a lift installation having a sensor unit and an evaluation unit for generating a floor signal which has two states, wherein - the floor signal can assume the two states "in the range of the floor" or "outside the range of the floor", - the sensor unit has a first Hall effect sensor for generating a first floor position characteristic value and a second Hall effect sensor for generating a second floor position characteristic value and - the evaluation unit is intended for generating the floor signal based on a comparison of the first floor position characteristic value and the second floor position characteristic value , wherein the first Hall effect sensor and the second Hall effect sensor are arranged in such a manner that, when approaching a floor, the approach can be derived from the first floor position characteristic value before the second floor position characteristic value , characterized in that the evaluation unit is intended for - verifying whether the first floor position characteristic value and/or second floor position characteristic value is greater than a first threshold value , - generating the floor signal on the basis of the result of the mentioned verification and - assigning to the floor signal the state "in the range of the floor" when the second floor position characteristic value is greater than or equal to the first floor position characteristic value and the first floor position characteristic value and/or second floor position characteristic value is greater than the first threshold value . - the floor signal can assume the two states "in the range of the floor" or "outside the range of the floor", - the sensor unit has a first Hall effect sensor for generating a first floor position characteristic value and a second Hall effect sensor for generating a second floor position characteristic value and - the evaluation unit is intended for generating the floor signal based on a comparison of the first floor position characteristic value and the second floor position characteristic value , - verifying whether the first floor position characteristic value and/or second floor position characteristic value is greater than a first threshold value , - generating the floor signal on the basis of the result of the mentioned verification and - assigning to the floor signal the state "in the range of the floor" when the second floor position characteristic value is greater than or equal to the first floor position characteristic value and the first floor position characteristic value and/or second floor position characteristic value is greater than the first threshold value .
A method of cooling electrical componentry comprising immersing the electrical componentry in a bath comprising a dielectric oleaginous heat transfer fluid having a kinematic viscosity measured at 100°C of 0.7 to 7.0 cSt as measured according to ASTM D445_100, and a flash point of at least 50 °C as measured according to ASTM D56, and operating the electrical componentry.
A method for propagating plants , wherein the plants to be propagated are firstly automatically grasped by a first gripper and separated, the individual plants , hanging on the first gripper , are systematically cut into a plurality of clones , and the individual clones are automatically transported away by a second gripper for further processing, wherein cutting lines on the plant hanging on the first gripper are determined by a second image recognition unit , along which cutting lines the plant is automatically cut by a blade, a laser beam , a waterjet, or a plasma jet into clones of the plant .
A method for making a tubular device sized for introduction into a body lumen, comprising: creating an endless band that includes a coating; cutting or otherwise separating the endless band into a plurality of narrower endless bands comprising a coated surface; folding a narrower endless band from the plurality of narrower endless bands such that the narrower endless band defines first and second ends and the coated surface is disposed inwardly; flattening and positioning the first and second ends of the narrower endless band such that the first and second ends are received over opposite ends of an elongate mandrel such that the coated surface is disposed inwardly towards the mandrel , the narrower endless band having a width being half or slightly less than half the circumference of the mandrel such that the narrower endless band wraps at least partially around the mandrel and such that longitudinal edges of the narrower endless band extend between the opposite ends of the mandrel without the longitudinal edges overlapping; and attaching a tubular structure around the narrower endless band while wrapped around the mandrel . creating an endless band that includes a coating; cutting or otherwise separating the endless band into a plurality of narrower endless bands comprising a coated surface; folding a narrower endless band from the plurality of narrower endless bands such that the narrower endless band defines first and second ends and the coated surface is disposed inwardly; flattening and positioning the first and second ends of the narrower endless band such that the first and second ends are received over opposite ends of an elongate mandrel such that the coated surface is disposed inwardly towards the mandrel , the narrower endless band having a width being half or slightly less than half the circumference of the mandrel such that the narrower endless band wraps at least partially around the mandrel and such that longitudinal edges of the narrower endless band extend between the opposite ends of the mandrel without the longitudinal edges overlapping; and attaching a tubular structure around the narrower endless band while wrapped around the mandrel .
An upper for an article of footwear , the upper comprising: a knitted component with a first zone , a second zone , and a third zone ; and the knitted component including a tab element extending from the first zone, wherein the tab element and the first zone include at least one common yarn, wherein the at least one common yarn includes a floating yarn having a tenacity of at least 5 g/D, wherein the tab element includes a first end connected to the first zone and a second end connected to the third zone, wherein the third zone includes an elasticity greater than an elasticity of the second zone, and wherein the second zone is located between the first zone and the third zone. a knitted component with a first zone , a second zone , and a third zone ; and the knitted component including a tab element extending from the first zone, wherein the tab element and the first zone include at least one common yarn, wherein the at least one common yarn includes a floating yarn having a tenacity of at least 5 g/D, wherein the tab element includes a first end connected to the first zone and a second end connected to the third zone, wherein the third zone includes an elasticity greater than an elasticity of the second zone, and wherein the second zone is located between the first zone and the third zone.
A laundry treatment machine comprising: a washing tub ; a washing tub motor to rotate the washing tub; a drain pump ; a drain motor to operate the drain pump; a converter to output a direct current (DC) voltage; an inverter to convert the DC voltage from the converter into an alternating current (AC) voltage based on a switching operation and to output the converted AC voltage to the drain motor; an output current detector (E) to detect an output current flowing in the drain motor; and a controller configured to control the drain motor to rotate at a second speed lower than a first speed and characterised in that the controller is configured to then increase the speed of the drain motor after a predetermined time, when the output current flowing in the drain motor decreases in a state where a speed of the drain motor is the first speed while a water level in the washing tub is kept constant, wherein the controller is configured to control to supply the same power to the drain motor, when the drain motor is driven at the first speed and when the drain motor is driven at the second speed. a washing tub ; a washing tub motor to rotate the washing tub; a drain pump ; a drain motor to operate the drain pump; a converter to output a direct current (DC) voltage; an inverter to convert the DC voltage from the converter into an alternating current (AC) voltage based on a switching operation and to output the converted AC voltage to the drain motor; an output current detector (E) to detect an output current flowing in the drain motor; and a controller configured to control the drain motor to rotate at a second speed lower than a first speed and characterised in that the controller is configured to then increase the speed of the drain motor after a predetermined time, when the output current flowing in the drain motor decreases in a state where a speed of the drain motor is the first speed while a water level in the washing tub is kept constant, wherein the controller is configured to control to supply the same power to the drain motor, when the drain motor is driven at the first speed and when the drain motor is driven at the second speed.
A semiconductor layer structure comprising: a Si substrate having a top surface with a Miller index of ; a first semiconductor layer arranged on said substrate, the first semiconductor layer comprising a plurality of vertical nanowire structures arranged perpendicularly to said top surface of said substrate, the vertical nanowire structures having a vertical length in a range of 50-500 nm, the first semiconductor layer comprising AIN; a second semiconductor layer arranged on said first semiconductor layer laterally and vertically enclosing said nanowire structures, the second semiconductor layer comprising Al x Ga 1-x N, wherein 0≤x≤0.95, the second semiconductor layer comprising at least two dislocations, each of the two dislocations propagating laterally from a respective nanowire structure in a M-direction of a wurtzite crystal structure, the two dislocations being coalesced with each other; a third semiconductor layer arranged on said second semiconductor layer, the third semiconductor layer comprising Al y Ga 1-y N, wherein 0≤y≤0.95, the third semiconductor layer being a high-electron-mobility transistor barrier layer; and a fourth semiconductor layer arranged on said third semiconductor layer, the fourth semiconductor layer comprising GaN. a Si substrate having a top surface with a Miller index of ; a first semiconductor layer arranged on said substrate, the first semiconductor layer comprising a plurality of vertical nanowire structures arranged perpendicularly to said top surface of said substrate, the vertical nanowire structures having a vertical length in a range of 50-500 nm, the first semiconductor layer comprising AIN; a second semiconductor layer arranged on said first semiconductor layer laterally and vertically enclosing said nanowire structures, the second semiconductor layer comprising Al x Ga 1-x N, wherein 0≤x≤0.95, the second semiconductor layer comprising at least two dislocations, each of the two dislocations propagating laterally from a respective nanowire structure in a M-direction of a wurtzite crystal structure, the two dislocations being coalesced with each other; a third semiconductor layer arranged on said second semiconductor layer, the third semiconductor layer comprising Al y Ga 1-y N, wherein 0≤y≤0.95, the third semiconductor layer being a high-electron-mobility transistor barrier layer; and a fourth semiconductor layer arranged on said third semiconductor layer, the fourth semiconductor layer comprising GaN.
A tangible, non-transitory computer recordable and readable medium storing computer program instructions that, when executed by a processor, cause the processor to control one or more devices to: apply diagnostic vestibular stimulation to a subject to measure a slow phase velocity of nystagmus on the subject's right side and a slow phase velocity of nystagmus on the subject's left side ; and apply therapeutic vestibular stimulation to the subject in order to treat the mood disorder in the subject, wherein the therapeutic vestibular stimulation is configured to stimulate the left side of the subject's vestibular system and the right side of the subject's vestibular system, and wherein the therapeutic vestibular stimulation is determined by the processor based on a ratio of the measured slow phase velocity of nystagmus on the subject's right side to the measured slow phase velocity of nystagmus on the subject's left side, and wherein the therapeutic vestibular stimulation comprises: applying rotary stimulation to the subject's left side until the subject's angular velocity is equal to or greater than a predetermined angular velocity , then bringing the subject to rest ; applying caloric stimulation to the subject's right ear; applying optokinetic stimulation to the subjects right side; and applying optokinetic stimulation to the subject's left side. apply diagnostic vestibular stimulation to a subject to measure a slow phase velocity of nystagmus on the subject's right side and a slow phase velocity of nystagmus on the subject's left side ; and apply therapeutic vestibular stimulation to the subject in order to treat the mood disorder in the subject, wherein the therapeutic vestibular stimulation is configured to stimulate the left side of the subject's vestibular system and the right side of the subject's vestibular system, and wherein the therapeutic vestibular stimulation is determined by the processor based on a ratio of the measured slow phase velocity of nystagmus on the subject's right side to the measured slow phase velocity of nystagmus on the subject's left side, and wherein the therapeutic vestibular stimulation comprises: applying rotary stimulation to the subject's left side until the subject's angular velocity is equal to or greater than a predetermined angular velocity , then bringing the subject to rest ; applying caloric stimulation to the subject's right ear; applying optokinetic stimulation to the subjects right side; and applying optokinetic stimulation to the subject's left side. applying rotary stimulation to the subject's left side until the subject's angular velocity is equal to or greater than a predetermined angular velocity , then bringing the subject to rest ; applying caloric stimulation to the subject's right ear; applying optokinetic stimulation to the subjects right side; and applying optokinetic stimulation to the subject's left side.
A use of a heteroleptic iridium compound having the formula Ir(L 1 ) n (L 2 ) 3-n as an emissive or non-emissive dopant in an organic emissive layer of an organic light-emitting device, wherein the organic emissive layer is disposed between the anode and the cathode: wherein the ligand L 1 is a first ligand having Formula I, wherein the ligand L 2 is a second ligand selected from the group consisting of wherein L 1 is different from L 2 ; wherein R 1 is a partially or fully deuterated group selected from the group consisting of alkyl and cycloalkyl; wherein R B represents mono, di substitutions or no substitution; wherein R 2 represents mono, di, tri substitutions or no substitution; wherein R 3 , R 4 , R 5 , R A and R C each represent mono, di, tri, tetra substitutions or no substitution; wherein R 2 and R 3 are each independently selected from the group consisting of hydrogen, deuterium, alkyl, cycloalkyl, and combinations thereof; wherein R 4 and R 5 are each 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 R A , R B , and R C are independently selected from the group consisting of hydrogen, deuterium, methyl, ethyl, propyl, 1-methylethyl, butyl, 1-methylpropyl, 2-methylpropyl, pentyl, 1-methylbutyl, 2-methylbutyl, 3-methylbutyl, 1,1-dimethylpropyl, 1,2-dimethylpropyl, 2,2-dimethylpropyl, cyclopentyl, cyclohexyl, and combinations thereof, and wherein n is 1 or 2. wherein the ligand L 1 is a first ligand having Formula I, wherein the ligand L 2 is a second ligand selected from the group consisting of wherein L 1 is different from L 2 ; wherein R 1 is a partially or fully deuterated group selected from the group consisting of alkyl and cycloalkyl; wherein R B represents mono, di substitutions or no substitution; wherein R 2 represents mono, di, tri substitutions or no substitution; wherein R 3 , R 4 , R 5 , R A and R C each represent mono, di, tri, tetra substitutions or no substitution; wherein R 2 and R 3 are each independently selected from the group consisting of hydrogen, deuterium, alkyl, cycloalkyl, and combinations thereof; wherein R 4 and R 5 are each 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 R A , R B , and R C are independently selected from the group consisting of hydrogen, deuterium, methyl, ethyl, propyl, 1-methylethyl, butyl, 1-methylpropyl, 2-methylpropyl, pentyl, 1-methylbutyl, 2-methylbutyl, 3-methylbutyl, 1,1-dimethylpropyl, 1,2-dimethylpropyl, 2,2-dimethylpropyl, cyclopentyl, cyclohexyl, and combinations thereof, and wherein n is 1 or 2.
Antenna module, in particular for a motor vehicle, having a patch antenna and having a support on which the patch antenna is arranged, wherein the patch antenna is in rectangular form with chamfers in two corners , wherein the support contains an FR4 material, and wherein the support has, in regions beside the patch antenna , four elongate recesses running parallel to the edges of the patch antenna and each running around corners of the patch antenna , wherein the patch antenna has further round through-recesses and/or plated-through holes through the patch antenna and through the support , in particular more than three or more than five or more than nine each in two mutually orthogonal directions.
An optical waveguide termination comprising: a light-receiving inlet for receiving light to be terminated; a rib waveguide extending from the inlet, wherein the rib waveguide comprises a curved waveguide section; a doped, light-absorbing slab supporting the rib waveguide for absorbing light from the rib waveguide ; and a tip at an end of the rib waveguide ; characterised in that the slab is shaped and angled such that light that is ejected or leaked from the rib waveguide is internally reflected by angled faces of the doped slab to thereby function as a resonating absorber. a light-receiving inlet for receiving light to be terminated; a rib waveguide extending from the inlet, wherein the rib waveguide comprises a curved waveguide section; a doped, light-absorbing slab supporting the rib waveguide for absorbing light from the rib waveguide ; and a tip at an end of the rib waveguide ; characterised in that the slab is shaped and angled such that light that is ejected or leaked from the rib waveguide is internally reflected by angled faces of the doped slab to thereby function as a resonating absorber.
A roller mill for pulverizing material; said roller mill comprising: a grinding mechanism of at least one grinding roll and grinding ring that coact to pulverize material within a mill housing that defines a grinding chamber ; a classifier including a rotor having a plurality of blades disposed within a classifier housing defining a classifying chamber , where the rotor rotates to separate fine sized particles from oversized particles, whereby the finer sized particles pass through the blades and exit the classifier and the oversized particles are propelled outward against the classifier housing, the grinding chamber being in fluid communication with the classifying chamber ; and a baffle disposed along the inner periphery of the mill housing spaced at a distance from the mill housing to provide an inner passage and an outer annular passage , the outer annular passage receiving and directing the oversized particles downward to the grinding mechanism of the mill, wherein the inner passage directs particle-laden air upward through the grinding chamber to the classifier such that the baffle minimizes influence of the upward particle-laden airflow through the inner passage of the grinding chamber with the downward flow of the oversized particles, the baffle having an opening at the bottom of the outer annular passage for directing the oversized particles to the grinding mechanism , characterized in, that the baffle includes a feeder opening to permit material for pulverizing to pass through the baffle from a feeder . a grinding mechanism of at least one grinding roll and grinding ring that coact to pulverize material within a mill housing that defines a grinding chamber ; a classifier including a rotor having a plurality of blades disposed within a classifier housing defining a classifying chamber , where the rotor rotates to separate fine sized particles from oversized particles, whereby the finer sized particles pass through the blades and exit the classifier and the oversized particles are propelled outward against the classifier housing, the grinding chamber being in fluid communication with the classifying chamber ; and a baffle disposed along the inner periphery of the mill housing spaced at a distance from the mill housing to provide an inner passage and an outer annular passage , the outer annular passage receiving and directing the oversized particles downward to the grinding mechanism of the mill, wherein the inner passage directs particle-laden air upward through the grinding chamber to the classifier such that the baffle minimizes influence of the upward particle-laden airflow through the inner passage of the grinding chamber with the downward flow of the oversized particles, the baffle having an opening at the bottom of the outer annular passage for directing the oversized particles to the grinding mechanism , characterized in, that the baffle includes a feeder opening to permit material for pulverizing to pass through the baffle from a feeder .
A temperature-controlling microfluidic device , comprising: a driver chip ; a fluid chamber located over the driver chip ; a first microfluidic loop having a fluid driving end and a fluid outlet end connected to the fluid chamber , wherein the first microfluidic loop includes a portion thereof located outside a boundary of the driver chip ; a first fluid actuator on the driver chip associated with the fluid driving end of the first microfluidic loop to circulate fluid through the first microfluidic loop ; a second microfluidic loop (130") having a fluid driving end and a fluid outlet end connected to the fluid chamber , wherein the second microfluidic loop (130") includes a portion thereof located outside a boundary of the driver chip ; and a second fluid actuator on the driver chip associated with the fluid driving end of the second microfluidic loop to circulate fluid through the second microfluidic loop . a driver chip ; a fluid chamber located over the driver chip ; a first microfluidic loop having a fluid driving end and a fluid outlet end connected to the fluid chamber , wherein the first microfluidic loop includes a portion thereof located outside a boundary of the driver chip ; a first fluid actuator on the driver chip associated with the fluid driving end of the first microfluidic loop to circulate fluid through the first microfluidic loop ; a second microfluidic loop (130") having a fluid driving end and a fluid outlet end connected to the fluid chamber , wherein the second microfluidic loop (130") includes a portion thereof located outside a boundary of the driver chip ; and a second fluid actuator on the driver chip associated with the fluid driving end of the second microfluidic loop to circulate fluid through the second microfluidic loop .