mhurhangee/patent-ind-claim-en huggingface dataset:
Internal gear pump , in particular for a motor vehicle , for delivering a fluid, comprising - an internal gear with an internal toothed ring , - an external gear with an external toothed ring , - wherein the teeth of the internal gear and external gear engage into one another, - a working chamber which is formed between the internal gear and the external gear and which is divided into an inflow working chamber and an outflow working chamber , - an inflow channel , which opens into the inflow working chamber and which serves for the introduction of the fluid for delivery into the inflow working chamber , and an outflow channel , which opens into the outflow working chamber and which serves for the discharge of the fluid for delivery out of the outflow working chamber , wherein the inflow working chamber and the outflow working chamber are separated from one another at a tip point and at a meshing point between the internal gear and external gear , - an electric motor with a stator and a rotor is integrated into the internal gear pump , and the external gear is formed by the rotor , and - the flanks of the teeth of the internal gear lie against the flanks of the teeth of the external gear in an engagement angle range , and a torque can be transmitted from the external gear to the internal gear in the engagement angle range , and the working chamber increases in size at the inflow working chamber , and the working chamber decreases in size at the outflow working chamber , characterized in that the inflow channel additionally opens partially into an angle range of the outflow working chamber , and the outflow channel is formed only in the engagement angle range between the internal gear and the external gear at the outflow working chamber . - an internal gear with an internal toothed ring , - an external gear with an external toothed ring , - wherein the teeth of the internal gear and external gear engage into one another, - a working chamber which is formed between the internal gear and the external gear and which is divided into an inflow working chamber and an outflow working chamber , - an inflow channel , which opens into the inflow working chamber and which serves for the introduction of the fluid for delivery into the inflow working chamber , and an outflow channel , which opens into the outflow working chamber and which serves for the discharge of the fluid for delivery out of the outflow working chamber , wherein the inflow working chamber and the outflow working chamber are separated from one another at a tip point and at a meshing point between the internal gear and external gear , - an electric motor with a stator and a rotor is integrated into the internal gear pump , and the external gear is formed by the rotor , and - the flanks of the teeth of the internal gear lie against the flanks of the teeth of the external gear in an engagement angle range , and a torque can be transmitted from the external gear to the internal gear in the engagement angle range , and the working chamber increases in size at the inflow working chamber , and the working chamber decreases in size at the outflow working chamber ,
A method for forming a wear resistant stud for a vehicle, in particular a tracked vehicle, or for a rubber wheel , the method comprising: providing an elongate threaded stud member having a top surface ; locating a body of tungsten carbide on said top surface ; surrounding said body of tungsten carbide with a weld pool ; and while said weld pool is hot, slowly cooling said weld pool , the method being characterized in that said weld pool is slowly cooled with the use of a rotary wire brush . providing an elongate threaded stud member having a top surface ; locating a body of tungsten carbide on said top surface ; surrounding said body of tungsten carbide with a weld pool ; and while said weld pool is hot, slowly cooling said weld pool , the method being characterized in that said weld pool is slowly cooled with the use of a rotary wire brush .
A method for uplink transmission by a user equipment, UE, comprising: determining a transmission power of a physical uplink shared channel, PUSCH, in accordance with a value of a PUSCH initial target power, a value of a pathloss, a value of a pathloss compensation factor, and a value of a transmit power command, TPC; and transmitting the PUSCH using the transmission power; characterized in that the method further comprises: obtaining information of an association between sounding reference signal, SRS, resource index and a plurality of power control parameters, the plurality of power control parameters comprising the PUSCH initial target power, the pathloss, the pathloss compensation factor, and the TPC; obtaining the SRS resource index; and determining the value of the PUSCH initial target power, the value of the pathloss, the value of the pathloss compensation factor, and the value of the TPC based on the association and the obtained SRS resource index. determining a transmission power of a physical uplink shared channel, PUSCH, in accordance with a value of a PUSCH initial target power, a value of a pathloss, a value of a pathloss compensation factor, and a value of a transmit power command, TPC; and transmitting the PUSCH using the transmission power; characterized in that the method further comprises: obtaining information of an association between sounding reference signal, SRS, resource index and a plurality of power control parameters, the plurality of power control parameters comprising the PUSCH initial target power, the pathloss, the pathloss compensation factor, and the TPC; obtaining the SRS resource index; and determining the value of the PUSCH initial target power, the value of the pathloss, the value of the pathloss compensation factor, and the value of the TPC based on the association and the obtained SRS resource index. obtaining information of an association between sounding reference signal, SRS, resource index and a plurality of power control parameters, the plurality of power control parameters comprising the PUSCH initial target power, the pathloss, the pathloss compensation factor, and the TPC; obtaining the SRS resource index; and determining the value of the PUSCH initial target power, the value of the pathloss, the value of the pathloss compensation factor, and the value of the TPC based on the association and the obtained SRS resource index.
A door detection system comprising an elevator car door of an elevator car that moves towards and away from an elevator door frame and a hoistway door that moves towards and away from the elevator door frame, the elevator door detection system comprising: a transmitter-receiver positioned on the elevator car door with a first face configured to transmit a first signal and a second face configured to transmit and receive a second signal; a first receiver positioned on the elevator door frame configured to receive the first transmitted signal; and a reflector positioned on the hoistway door substantially opposite the second transmitting and receiving face when the elevator car door and the hoistway door are closed, wherein the transmitter-receiver includes one or more processors configured to: detect the reflected signal from the reflector, determine whether the hoistway door is properly positioned with respect to the elevator car door based on the detected signal, and send instructions to the elevator detection system to keep the elevator car stationary when the hoistway door is not properly positioned with respect to the elevator car door. a transmitter-receiver positioned on the elevator car door with a first face configured to transmit a first signal and a second face configured to transmit and receive a second signal; a first receiver positioned on the elevator door frame configured to receive the first transmitted signal; and a reflector positioned on the hoistway door substantially opposite the second transmitting and receiving face when the elevator car door and the hoistway door are closed, wherein the transmitter-receiver includes one or more processors configured to: detect the reflected signal from the reflector, determine whether the hoistway door is properly positioned with respect to the elevator car door based on the detected signal, and send instructions to the elevator detection system to keep the elevator car stationary when the hoistway door is not properly positioned with respect to the elevator car door. detect the reflected signal from the reflector, determine whether the hoistway door is properly positioned with respect to the elevator car door based on the detected signal, and send instructions to the elevator detection system to keep the elevator car stationary when the hoistway door is not properly positioned with respect to the elevator car door.
An implantable electrode with increased stability comprising a sputtered metal layer , electroplated metal micro sticks on the sputtered metal layer with spaces between the metal micro sticks and a polymer, wherein the polymer fills the spaces between the metal micro sticks.
A computer-implemented method of decompressing transducer data for speech recognition, comprising: determining a location of a compressed block in an array of compressed blocks of transducer-related data; determining the compression rate of individual compressed entries in the located compressed block; determining a key value to be applied to individual compressed entries of the located compressed block to obtain the uncompressed value of the entry; determining the bit location of a compressed entry inside the compressed block by multiplying the index of the entry with the determined compression rate; reading the compressed entry from the compressed block; and decompressing the compressed entry by adding the key value to the compressed entry. determining a location of a compressed block in an array of compressed blocks of transducer-related data; determining the compression rate of individual compressed entries in the located compressed block; determining a key value to be applied to individual compressed entries of the located compressed block to obtain the uncompressed value of the entry; determining the bit location of a compressed entry inside the compressed block by multiplying the index of the entry with the determined compression rate; reading the compressed entry from the compressed block; and decompressing the compressed entry by adding the key value to the compressed entry.
A surgical adaptor comprising: an arm that includes a longitudinal member and a transverse member , the longitudinal member extending along and being engageable with an extender that is connected with a receiver of a fastener having a shaft fixed with vertebral tissue, the transverse member being disposed about the extender and defining a recess configured for disposal of a spinal rod , the longitudinal member being configured to releasably engage a surgical instrument to manipulate the vertebral tissue. an arm that includes a longitudinal member and a transverse member , the longitudinal member extending along and being engageable with an extender that is connected with a receiver of a fastener having a shaft fixed with vertebral tissue, the transverse member being disposed about the extender and defining a recess configured for disposal of a spinal rod , the longitudinal member being configured to releasably engage a surgical instrument to manipulate the vertebral tissue.
A container assembly, comprising: a barrier defining a slot and further defining a window that opens to the slot ; a frame , wherein the barrier is movably attached to the frame such that the barrier moves between a first position and a second position; an indicator slidably positioned within the slot ; and a retainer attached to the frame , wherein: the retainer is configured to maintain the indicator in a first state within the slot when the barrier is in the first position; the retainer is further configured to release the indicator into a second state] when the indicator is in the first state and the barrier moves from the first position toward the second position, wherein the indicator, when released by the retainer, moves, travels, rolls, drops, pivots, or otherwise traverses through the slot to the window under the influence of gravity; and the second state indicates the barrier has moved from the first position toward the second position, wherein the indicator is resettable by an operator from the second state to the first state by moving the indicator from the second state to the first state . a barrier defining a slot and further defining a window that opens to the slot ; a frame , wherein the barrier is movably attached to the frame such that the barrier moves between a first position and a second position; an indicator slidably positioned within the slot ; and a retainer attached to the frame , wherein: the retainer is configured to maintain the indicator in a first state within the slot when the barrier is in the first position; the retainer is further configured to release the indicator into a second state] when the indicator is in the first state and the barrier moves from the first position toward the second position, wherein the indicator, when released by the retainer, moves, travels, rolls, drops, pivots, or otherwise traverses through the slot to the window under the influence of gravity; and the second state indicates the barrier has moved from the first position toward the second position, wherein the indicator is resettable by an operator from the second state to the first state by moving the indicator from the second state to the first state . the retainer is configured to maintain the indicator in a first state within the slot when the barrier is in the first position; the retainer is further configured to release the indicator into a second state] when the indicator is in the first state and the barrier moves from the first position toward the second position, wherein the indicator, when released by the retainer, moves, travels, rolls, drops, pivots, or otherwise traverses through the slot to the window under the influence of gravity; and the second state indicates the barrier has moved from the first position toward the second position, wherein the indicator is resettable by an operator from the second state to the first state by moving the indicator from the second state to the first state .
A method of transmitting packets of data that pertain to a target, the method comprising: sensing a first signed magnitude of an electromagnetic property of the target; transmitting a first packet of data, the first packet of data having a first header that encodes the first signed magnitude, followed by first payload pulses that encode a first portion of a message associated with the target; sensing a second signed magnitude of the electromagnetic property of the target; and transmitting a second packet of data, the second packet of data having a second header that encodes the second signed magnitude, followed by second payload pulses that encode a second portion of the message associated with the target. sensing a first signed magnitude of an electromagnetic property of the target; transmitting a first packet of data, the first packet of data having a first header that encodes the first signed magnitude, followed by first payload pulses that encode a first portion of a message associated with the target; sensing a second signed magnitude of the electromagnetic property of the target; and transmitting a second packet of data, the second packet of data having a second header that encodes the second signed magnitude, followed by second payload pulses that encode a second portion of the message associated with the target.
A method for determining the sequence of multiple target single-stranded polynucleotides immobilised on a solid support by sequential incorporation of complementary nucleotides comprising: (a) providing a mixture of four nucleotides, where the nucleotides have a base that is linked to a detectable fluorescent label via a photocleavable O-nitrobenzyl based linker, wherein the detectable label and/or the cleavable linker is of a size sufficient to prevent the incorporation of a second nucleotide into the nucleic acid molecule and where the detectable fluorescent label linked to each type of nucleotide can be distinguished upon detection from the detectable label used for other types of nucleotides; (b) incorporating a nucleotide into the complement of the target single stranded polynucleotides; (c) removing the non-incorporated nucleotides; (d) detecting the fluorescent labels of the nucleotide of (b), thereby determining the type of nucleotide incorporated; (e) removing the fluorescent label of the nucleotides of (b) to permit further nucleotide incorporation to occur; and (f) repeating steps (b) - (e) one or more times; thereby determining the sequence of each target single-stranded polynucleotide. (a) providing a mixture of four nucleotides, where the nucleotides have a base that is linked to a detectable fluorescent label via a photocleavable O-nitrobenzyl based linker, wherein the detectable label and/or the cleavable linker is of a size sufficient to prevent the incorporation of a second nucleotide into the nucleic acid molecule and where the detectable fluorescent label linked to each type of nucleotide can be distinguished upon detection from the detectable label used for other types of nucleotides; (b) incorporating a nucleotide into the complement of the target single stranded polynucleotides; (c) removing the non-incorporated nucleotides; (d) detecting the fluorescent labels of the nucleotide of (b), thereby determining the type of nucleotide incorporated; (e) removing the fluorescent label of the nucleotides of (b) to permit further nucleotide incorporation to occur; and (f) repeating steps (b) - (e) one or more times; thereby determining the sequence of each target single-stranded polynucleotide.
A method for analyzing scans of a shoe part to generate dimension data, which is useable to model three-dimensional (3-D) features of the shoe part, the method comprising: attaching a first shoe part onto a second shoe part , such that a terminal edge of the first shoe part encircles the second shoe part ; projecting a laser beam onto the first shoe part and the second shoe part , such that a first segment of a projected laser line extends on the first shoe part and a second segment of the projected laser line extends on the second shoe part ; recording , with at least one camera , an image of the projected laser line that depicts a first-segment representation and a second-segment representation , wherein an interface region between the first-segment representation and the second-segment representation represents a position of the terminal edge ; identifying a coordinate point of the interface region that defines a position of the interface region as depicted in the image; and converting the coordinate point to a geometric coordinate point of the second shoe part , wherein the geometric coordinate point is deemed a bite point that represents a position on the second shoe part that is aligned with a portion of the terminal edge , wherein settings of the at least one camera and/or a color of the laser beam and/or a power level of the laser beam is/are adjusted based on a color of the first shoe part and the second shoe part . attaching a first shoe part onto a second shoe part , such that a terminal edge of the first shoe part encircles the second shoe part ; projecting a laser beam onto the first shoe part and the second shoe part , such that a first segment of a projected laser line extends on the first shoe part and a second segment of the projected laser line extends on the second shoe part ; recording , with at least one camera , an image of the projected laser line that depicts a first-segment representation and a second-segment representation , wherein an interface region between the first-segment representation and the second-segment representation represents a position of the terminal edge ; identifying a coordinate point of the interface region that defines a position of the interface region as depicted in the image; and converting the coordinate point to a geometric coordinate point of the second shoe part , wherein the geometric coordinate point is deemed a bite point that represents a position on the second shoe part that is aligned with a portion of the terminal edge , wherein settings of the at least one camera and/or a color of the laser beam and/or a power level of the laser beam is/are adjusted based on a color of the first shoe part and the second shoe part .
A crusher bucket comprising a casing in which there are defined an inlet for charging material to be crushed and an opposite discharge for discharging processed material and in which there are mounted crushing elements comprising a fixed jaw and a movable jaw , wherein the movable jaw is supported on the casing by means of a pair of eccentric shafts , said pair of eccentric shaft comprising a rear eccentric shaft , said rear eccentric shaft being the shaft nearest to the discharge of the two eccentric shafts, the eccentric shafts comprising a central portion and respective opposite ends eccentric with respect to the central portion , the movable jaw being supported on the central portion and further comprising an adjustment device which is capable of varying a distance (d) between the fixed jaw and the movable jaw at least in the region of the discharge , said rear eccentric shaft being supported in a movable manner to the casing , such that the distance (d) between the fixed jaw and the movable jaw is varied by varying the position of the rear eccentric shaft , moving it towards or away from the fixed jaw , characterized in that the adjustment device comprises at least one spacer which is or can be arranged between an abutment portion and at least one movable support , on which at least the rear eccentric shafts is supported in a rotatable manner, the movable support being fixed in a movable manner to the casing .
A method for determining formation integrity during drilling of a wellbore , comprising: determining an annulus fluid pressure in a wellbore during drilling thereof; and adjusting the annulus pressure by a predetermined amount; comparing flow rate of drilling fluid into the wellbore to drilling fluid flow rate out of the wellbore ; repeating the adjusting and comparing; and determining at least one of a formation pore pressure and a formation fracture pressure from the annulus pressure when the compared flow rates differ by a selected amount; the method being for determining formation integrity during active drilling of the wellbore , while said wellbore is being drilled ahead. determining an annulus fluid pressure in a wellbore during drilling thereof; and adjusting the annulus pressure by a predetermined amount; comparing flow rate of drilling fluid into the wellbore to drilling fluid flow rate out of the wellbore ; repeating the adjusting and comparing; and determining at least one of a formation pore pressure and a formation fracture pressure from the annulus pressure when the compared flow rates differ by a selected amount; the method being for determining formation integrity during active drilling of the wellbore , while said wellbore is being drilled ahead.