mhurhangee/ep-ind-claims huggingface dataset:
A remotely operated vehicle for picking up storage bins from an underlying storage system, comprising a vehicle lifting device for lifting the storage bin from the underlying storage system, a first vehicle rolling means comprising a first rolling set and a second rolling set arranged at opposite facing side walls of a vehicle body, allowing movement of the vehicle along a first direction on the underlying storage system during use, and a second vehicle rolling means comprising a first rolling set and a second rolling set arranged at opposite facing side walls of the vehicle body, allowing movement of the vehicle along a second direction on the underlying storage system during use, the second direction being perpendicular to the first direction, wherein each of said rolling sets comprises at least two wheels (101-104,111-114), wherein the vehicle further comprises motor control electronics configured to supply electric power to the first and second vehicle rolling means (10,11), characterized in that the vehicle further comprises a first driving means (5,19) situated at or at least partly within the first vehicle rolling means for providing rolling set specific driving force to the vehicle in the first direction, a second driving means (5,19) situated at or at least partly within the second vehicle rolling means for providing rolling set specific driving force to the vehicle in the second direction and motor control electronics are arranged within the volume between two of the wheels of each rolling set (101-104,111-114).
An endoscope for use in intubation, the endoscope comprising a housing, a display device having a display screen, and an operative member extending from the housing, the operative member being configured to be inserted into a patient's airway and to transmit images to the display screen, the housing comprising an actuator coupled to the operative member and a retainer coupled to the display screen, the housing having a handle portion comprising at least the actuator, and the actuator being single-handedly rotatable by a user relative to the retainer, such that the operative member is rotatable relative to the display screen, characterized in that the actuator and the retainer are rotatable relative to each other about a longitudinal axis of the operative member and/or a longitudinal axis of the handle portion.
Procedure for operating a field device, said field device being supplied with electrical energy by a wireless adapter, wherein the field device is switched on at a point in time (tO), wherein the field device requires a start voltage (V s) during a starting phase, wherein, during the starting phase, the field device requires a certain start current, wherein an energy supply parameter in the form of a start voltage is provided in the wireless adapter, wherein said parameter can be configured according to the needs of the individual field device type, wherein the energy supply parameters in the form of a start current and a start time are prespecified in the wireless adapter, wherein the energy supply parameter in the form of the start time specifies the time during which the field device requires the start voltage and this voltage is provided by the wireless adapter, wherein, when the start time elapses, the field device goes to a normal mode during which the field device requires an operating voltage (V B) which is lower or higher than the start voltage (V s), wherein an energy supply parameter in the form of an operating voltage is provided in the wireless adapter in order to provide the necessary operating voltage during the starting phase.
Cooling device comprising a thermally insulated body; a housing having two opposite lateral walls provided within the body; first holding protrusions configured on the lateral walls in a mutually opposite manner so as to accommodate a compartment settling into the housing, characterized in that it comprises at least one groove, - which is configured on a backing part in which the periphery of the planar section of the first holding protrusion is connected to the lateral wall at both ends, - which extends in a direction substantially perpendicular to the lateral wall, - and which is bounded by cross-ties, wherein the cross-ties extend from the lateral wall to a free edge of the planar section of the D-shaped holding protrusion, wherein the planar section is formed in an upper part of the holding protrusion and is the portion being in contact while carrying the compartment,. - which is configured on a backing part in which the periphery of the planar section of the first holding protrusion is connected to the lateral wall at both ends, - which extends in a direction substantially perpendicular to the lateral wall, - and which is bounded by cross-ties, wherein the cross-ties extend from the lateral wall to a free edge of the planar section of the D-shaped holding protrusion, wherein the planar section is formed in an upper part of the holding protrusion and is the portion being in contact while carrying the compartment,.
Valve apparatus for a pressure-actuated system, in particular the brake system of a motor vehicle, with a pressure medium input to which a pressure source can be connected, and with a relay valve which controls the pressure medium input and can be actuated via a control input of the valve apparatus, wherein the pressure in the control input acts in a control chamber on a relay piston arranged to be linearly moveable, which relay piston is the actuating means for a valve member of the relay valve, which is formed as a valve ring and is held on a valve seat by a valve spring in the closed position, with at least one pressure medium output to which a consumer can be connected, with for each pressure medium output a pressure-actuated outlet valve which controls a fluidic connection of the pressure medium output to a main purge leading to atmosphere of the valve apparatus, and for each pressure medium output a pressure-actuated inlet valve arranged between the relay valve and the pressure medium output, wherein at least one outlet valve and/or at least one inlet valve is formed as a diaphragm valve and has as a closing member a valve diaphragm (24, 29) which lies on a valve seat (26, 30) and opens against the pressure in a purge chamber of the outlet valve or against the pressure in a purge chamber of the inlet valve, wherein each diaphragm valve is assigned an electrically actuatable valve (33, 41) which controls a fluidic connection of the purge chamber (27, 31) to a purge line, characterized in that the purge line (37, 47) of at least one diaphragm valve is fluidically connected to the control input of the relay valve.
An engineered DNA polymerase, comprising a variant of the sequence of SEQ ID NO:3, said variant being at least 80% identical to SEQ ID NO:3 and comprising an amino acid substitution mutation at one or more of positions K250, Q281, D355, Q425, and D532, wherein the engineered DNA polymerase has reduced affinity for primed template nucleic acids in the absence of cognate nucleotides.
An apparatus comprising: a memory controller configured to select a phase change target memory cell in a cross-point memory array for a memory access operation, the memory controller comprising: word line, WL, switch circuitry configured to select a global WL, GWL, and a local WL, LWL, associated with the target memory cell; and bit line, BL, switch circuitry configured to select a global BL, GBL, and a local BL, LBL, associated with the target memory cell; characterized by sense circuitry comprising a first sense circuitry capacitance and a second sense circuitry capacitance, the sense circuitry configured to precharge the selected GWL, the LWL and the first sense circuitry capacitance to a WL bias voltage WLVDM, produce a reference voltage, V REF, utilizing charge on a capacitance associated with the selected GWL and charge on the first sense circuitry capacitance and determine a state of the target memory cell based, at least in part, on V REF and a detected memory cell voltage V LWL. word line, WL, switch circuitry configured to select a global WL, GWL, and a local WL, LWL, associated with the target memory cell; and bit line, BL, switch circuitry configured to select a global BL, GBL, and a local BL, LBL, associated with the target memory cell; characterized by sense circuitry comprising a first sense circuitry capacitance and a second sense circuitry capacitance, the sense circuitry configured to precharge the selected GWL, the LWL and the first sense circuitry capacitance to a WL bias voltage WLVDM, produce a reference voltage, V REF, utilizing charge on a capacitance associated with the selected GWL and charge on the first sense circuitry capacitance and determine a state of the target memory cell based, at least in part, on V REF and a detected memory cell voltage V LWL.
Juice extraction device, arranged to extract juice from food to be prepared by exposing it to a pressurised steam environment, comprising: - an extraction chamber arranged to receive food to be prepared and to expose it to a pressurised steam environment, - means for heating the extraction chamber, - means for generating steam in the extraction chamber, - means for pressurising the extraction chamber, characterised in that the device comprises means for measuring a preparation time of the extraction chamber that are associated with means for decompressing the extraction chamber, arranged so as to: - perform, after a predetermined first preparation time during which the food to be prepared is heated and exposed to the pressurised steam environment, a decompression of the extraction chamber for a second preparation time, - then re-compress the extraction chamber and continue to heat and to expose the food to be prepared to the pressurised steam environment for a third preparation time. - an extraction chamber arranged to receive food to be prepared and to expose it to a pressurised steam environment, - means for heating the extraction chamber, - means for generating steam in the extraction chamber, - means for pressurising the extraction chamber, - perform, after a predetermined first preparation time during which the food to be prepared is heated and exposed to the pressurised steam environment, a decompression of the extraction chamber for a second preparation time, - then re-compress the extraction chamber and continue to heat and to expose the food to be prepared to the pressurised steam environment for a third preparation time.
A finFET device comprising: a semiconductor substrate; a vertical fin-shaped structure formed in the semiconductor substrate, the vertical fin-shaped structure including an upper semiconductor layer including a channel region in between drain and source regions, a well region having a first doping polarity, a doped region beneath the upper semiconductor layer, the doped region having a second doping polarity which is opposite to the first doping polarity, and a gate stack (506, 508) formed over the channel region of the upper semiconductor layer characterized in that the well region has a first layer directly above the doped region, and a second layer directly below the doped region at the base of the vertical fin-shaped structure, and by two p-n junctions being formed between the doped region and the well region, wherein the two p-n junctions at least partially cover a horizontal cross section of the vertical fin-shaped structure. a semiconductor substrate; a vertical fin-shaped structure formed in the semiconductor substrate, the vertical fin-shaped structure including an upper semiconductor layer including a channel region in between drain and source regions, a well region having a first doping polarity, a doped region beneath the upper semiconductor layer, the doped region having a second doping polarity which is opposite to the first doping polarity, and a gate stack (506, 508) formed over the channel region of the upper semiconductor layer an upper semiconductor layer including a channel region in between drain and source regions, a well region having a first doping polarity, a doped region beneath the upper semiconductor layer, the doped region having a second doping polarity which is opposite to the first doping polarity, and a gate stack (506, 508) formed over the channel region of the upper semiconductor layer characterized in that the well region has a first layer directly above the doped region, and a second layer directly below the doped region at the base of the vertical fin-shaped structure, and by two p-n junctions being formed between the doped region and the well region, wherein the two p-n junctions at least partially cover a horizontal cross section of the vertical fin-shaped structure.
An auto exposure method (4000; 2200) for an image sensor, wherein the image sensor is a spatially-multiplexed-exposure high-dynamic-range image sensor having at least two different exposure times, the method comprising: evaluating variance, for each of a plurality of histograms of the pixel values from a respective plurality of individual exposures of the image sensor at respective exposure time settings, of entropy contribution from individual bins of the histogram to total entropy of the histogram, to determine an optimal exposure time for the image sensor corresponding to at least a minimum value of the variance, wherein the minimum value of the variance is calculated by collectively minimizing the variance and a noise discrepancy between the pixel values from at least two different exposure times; synthesizing the histogram from a plurality of exposure-time-specific histograms associated with a respective plurality of pixel subsets of the spatially-multiplexed-exposure high-dynamic-range image sensor operating at a respective plurality of different exposure times; setting a first time exposure to an initial value; setting a second time exposure to a minimum value shorter than the first time exposure; estimating a target value of the first time exposure from an histogram generated by setting the first time exposure to the initial value and the second time exposure to the minimum value, for scaling at least part of the histogram; outputting the target value as the optimal exposure time if the target value is equal or exceeds the initial value. evaluating variance, for each of a plurality of histograms of the pixel values from a respective plurality of individual exposures of the image sensor at respective exposure time settings, of entropy contribution from individual bins of the histogram to total entropy of the histogram, to determine an optimal exposure time for the image sensor corresponding to at least a minimum value of the variance, wherein the minimum value of the variance is calculated by collectively minimizing the variance and a noise discrepancy between the pixel values from at least two different exposure times; synthesizing the histogram from a plurality of exposure-time-specific histograms associated with a respective plurality of pixel subsets of the spatially-multiplexed-exposure high-dynamic-range image sensor operating at a respective plurality of different exposure times; setting a first time exposure to an initial value; setting a second time exposure to a minimum value shorter than the first time exposure; estimating a target value of the first time exposure from an histogram generated by setting the first time exposure to the initial value and the second time exposure to the minimum value, for scaling at least part of the histogram; outputting the target value as the optimal exposure time if the target value is equal or exceeds the initial value.
A system for performing remote maintenance an electronic network serving a plurality of clients, the system comprising a central server operable to broadcast a list of updated software modules available for delivery to the plurality of client systems, a first client system including a plurality of processors, each one of the plurality of processors having a respective set of processing instructions stored on a respective associated computer readable memory; and a receiver associated with the first client system, the receiver operable to receive the list broadcast by the central server; a first virtual machine hosted by the first client system operable to determine whether to request any of the updated software modules on the received list based at least in part on the identity of the plurality of processors of the first client system; the virtual machine operable to request one or more updated software modules based on the determination that one or more of the plurality of processors are associated with the one or more updated software modules; the receiver operable to receive updated software modules requested by the first virtual machine; and the first virtual machine operable to install the received updated software modules.
A hair care composition comprising: a) cationic deposition polymer; and b) discrete dispersed droplets of a water-insoluble conditioning agent; wherein the cationic deposition polymer comprises at least 90% by weight cationically-modified guar by weight of the cationic deposition polymer and wherein the cationically-modified guar comprises: (i) first cationically-modified guar polymer having a charge density of greater than 1.2 meq/g and a molecular weight of at least 1 million g/mol; and (ii) second cationically-modified guar polymer having a charge density of from 0.9 to 1.2 meq/g and a molecular weight of at least 1 million g/mol. Wherein the composition additionally comprises a surface active block polymer selected from poloxamer or poloxamine; wherein the composition comprises particulate anti-dandruff agent; and wherein the cationic charge density is calculated from the degree of substitution using the following equation: cationic charge density in milliequivalents per gram meq / g = DS × 1000 162 + 151 × DS; and wherein the degree of substitution is measured using 1 H NMR and the spectrum is recorded at 25°C. a) cationic deposition polymer; and b) discrete dispersed droplets of a water-insoluble conditioning agent; wherein the cationic deposition polymer comprises at least 90% by weight cationically-modified guar by weight of the cationic deposition polymer and wherein the cationically-modified guar comprises: (i) first cationically-modified guar polymer having a charge density of greater than 1.2 meq/g and a molecular weight of at least 1 million g/mol; and (ii) second cationically-modified guar polymer having a charge density of from 0.9 to 1.2 meq/g and a molecular weight of at least 1 million g/mol. (i) first cationically-modified guar polymer having a charge density of greater than 1.2 meq/g and a molecular weight of at least 1 million g/mol; and (ii) second cationically-modified guar polymer having a charge density of from 0.9 to 1.2 meq/g and a molecular weight of at least 1 million g/mol.
An aggregate spreader system for an aggregate spreading device, the aggregate spreader system comprising: a vertical support couplable to the aggregate spreading device; a first wall extending from a first end coupled to the vertical support to a second end; a second wall extending from the second end of the first wall; characterized in that the vertical support has a first portion slidably engaged with a second portion; and in that the aggregate spreader system comprises a lift actuator configured to cause the first portion of the vertical support to move with the respect to the second portion of the vertical support to adjust the vertical position of the first and second walls (40, 42). a vertical support couplable to the aggregate spreading device; a first wall extending from a first end coupled to the vertical support to a second end; a second wall extending from the second end of the first wall; characterized in that the vertical support has a first portion slidably engaged with a second portion; and in that the aggregate spreader system comprises a lift actuator configured to cause the first portion of the vertical support to move with the respect to the second portion of the vertical support to adjust the vertical position of the first and second walls (40, 42).
A power transmission fluid, including: (a) a major amount of a base oil; and (b) a minor amount of an additive composition including: at least one alkoxylated alcohol of the formula R-[O-(CH 2) X] Y -OH, wherein R is an aliphatic hydrocarbon group having from 8 to 18 carbon atoms, X is 2 to 4, and Y is 1 to 6; and a dispersant selected from a hydrocarbyl succinimide, a hydrocarbyl succinamide, a mixture of an ester and an amide of a hydrocarbyl-substituted succinic acid, and a hydroxyester of a hydrocarbyl-substituted succinic acid; wherein the power transmission fluid includes 0.01 to 20 wt% of the alkoxylated alcohol and 0.01 to 15 wt% of the dispersant, based on the total weight of the fluid. (a) a major amount of a base oil; and (b) a minor amount of an additive composition including: at least one alkoxylated alcohol of the formula R-[O-(CH 2) X] Y -OH, wherein R is an aliphatic hydrocarbon group having from 8 to 18 carbon atoms, X is 2 to 4, and Y is 1 to 6; and a dispersant selected from a hydrocarbyl succinimide, a hydrocarbyl succinamide, a mixture of an ester and an amide of a hydrocarbyl-substituted succinic acid, and a hydroxyester of a hydrocarbyl-substituted succinic acid; wherein the power transmission fluid includes 0.01 to 20 wt% of the alkoxylated alcohol and 0.01 to 15 wt% of the dispersant, based on the total weight of the fluid. at least one alkoxylated alcohol of the formula R-[O-(CH 2) X] Y -OH, wherein R is an aliphatic hydrocarbon group having from 8 to 18 carbon atoms, X is 2 to 4, and Y is 1 to 6; and a dispersant selected from a hydrocarbyl succinimide, a hydrocarbyl succinamide, a mixture of an ester and an amide of a hydrocarbyl-substituted succinic acid, and a hydroxyester of a hydrocarbyl-substituted succinic acid; wherein the power transmission fluid includes 0.01 to 20 wt% of the alkoxylated alcohol and 0.01 to 15 wt% of the dispersant, based on the total weight of the fluid.
A RFID reader comprising: - an application interface, - a master controller connected to the application interface, - a communication controller connected to the master controller, the communication controller comprising at least a first protocol engine for handling at least a first communication protocol, the first protocol engine being further connected to a first secure element, - a RF frontend connected to the communication controller, and - an antenna connected to the RF frontend, characterized in that a bypass switch is provided between the master controller and the RF frontend to select between - a signal path either directly between the master controller and the RF frontend and - a signal path via the first protocol engine between the master controller and the RF frontend. - an application interface, - a master controller connected to the application interface, - a communication controller connected to the master controller, the communication controller comprising at least a first protocol engine for handling at least a first communication protocol, the first protocol engine being further connected to a first secure element, - a RF frontend connected to the communication controller, and - an antenna connected to the RF frontend, - a signal path either directly between the master controller and the RF frontend and - a signal path via the first protocol engine between the master controller and the RF frontend.