mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method, comprising: obtaining a request associated with screen printing an image on a product, the request comprising at least one source image, and a key color value indicating a number of inks or key colors for use in the screen printing; obtaining a key color area value indicating a minimum image area for a particular color in the source image to be identified as one of the key colors; computationally determining a set of key colors equal in size to the key color value by: finding a candidate pixel for each connected subset of at least a particular size in the source image, sorting candidate pixels into at least one color group based on distance in color space from a set of representative colors, each being associated with a color group of the at least one color group, and adding at least one new representative color to the set of representative colors based on maximizing a distance in color space between the at least one new representative color and the set of representative colors; generating a destination image by transforming the source image to the destination image, based on the key color value and the key color area value; and sending the destination image for use in screen printing, wherein each of the steps is performed by one or more processors. obtaining a request associated with screen printing an image on a product, the request comprising at least one source image, and a key color value indicating a number of inks or key colors for use in the screen printing; obtaining a key color area value indicating a minimum image area for a particular color in the source image to be identified as one of the key colors; computationally determining a set of key colors equal in size to the key color value by: finding a candidate pixel for each connected subset of at least a particular size in the source image, sorting candidate pixels into at least one color group based on distance in color space from a set of representative colors, each being associated with a color group of the at least one color group, and adding at least one new representative color to the set of representative colors based on maximizing a distance in color space between the at least one new representative color and the set of representative colors; finding a candidate pixel for each connected subset of at least a particular size in the source image, sorting candidate pixels into at least one color group based on distance in color space from a set of representative colors, each being associated with a color group of the at least one color group, and adding at least one new representative color to the set of representative colors based on maximizing a distance in color space between the at least one new representative color and the set of representative colors; generating a destination image by transforming the source image to the destination image, based on the key color value and the key color area value; and sending the destination image for use in screen printing, wherein each of the steps is performed by one or more processors.
A dish washing machine comprising: a body ; a washing tub provided in the body ; a fixed nozzle positioned at one side of the washing tub to inject wash water into the washing tub ; a vane configured to be moveable within the washing tub and to reflect the wash water injected from the fixed nozzle toward dishes; and a drive unit to drive the vane ; wherein the drive unit comprises a motor to generate driving force; a belt connected to a drive pulley and an idle pulley to transfer the driving force of the motor to the vane ; a rail to guide movement of the vane ; a rear holder to rotatably support the drive pulley , the rear holder being coupled to one end of the rail ; and a front holder to rotatably support the idle pulley , the front holder being coupled to the other end of the rail . a body ; a washing tub provided in the body ; a fixed nozzle positioned at one side of the washing tub to inject wash water into the washing tub ; a vane configured to be moveable within the washing tub and to reflect the wash water injected from the fixed nozzle toward dishes; and a drive unit to drive the vane ; wherein the drive unit comprises a motor to generate driving force; a belt connected to a drive pulley and an idle pulley to transfer the driving force of the motor to the vane ; a rail to guide movement of the vane ; a rear holder to rotatably support the drive pulley , the rear holder being coupled to one end of the rail ; and a front holder to rotatably support the idle pulley , the front holder being coupled to the other end of the rail . a motor to generate driving force; a belt connected to a drive pulley and an idle pulley to transfer the driving force of the motor to the vane ; a rail to guide movement of the vane ; a rear holder to rotatably support the drive pulley , the rear holder being coupled to one end of the rail ; and a front holder to rotatably support the idle pulley , the front holder being coupled to the other end of the rail .
A carrier configured for use with a broadband x-ray source comprising an electron source and a primary target arranged to receive electrons from the electron source to produce broadband x-ray radiation in response to electrons impinging on the primary target , the carrier comprising: a housing configured to be removably coupled to the broadband x-ray source and configured to accommodate a secondary target capable of producing monochromatic x-ray radiation in response to incident broadband x-ray radiation, the housing comprising: a transmissive portion configured to allow broadband x-ray radiation to be transmitted to the secondary target when present, and a blocking portion configured to absorb broadband x-ray radiation, wherein the housing is configured such that, when the secondary target is accommodated within the housing , at least a first portion of the secondary target is positioned within the transmissive portion of the housing and a second portion of the secondary target is positioned within the blocking portion of the housing , wherein the transmissive portion comprises a first cylindrical portion configured to accommodate the secondary target and the blocking portion comprises a second cylindrical portion configured to overlap the second portion of the secondary target when the first cylindrical portion accommodates the secondary target , and wherein the secondary target is conical. a transmissive portion configured to allow broadband x-ray radiation to be transmitted to the secondary target when present, and a blocking portion configured to absorb broadband x-ray radiation, wherein the housing is configured such that, when the secondary target is accommodated within the housing , at least a first portion of the secondary target is positioned within the transmissive portion of the housing and a second portion of the secondary target is positioned within the blocking portion of the housing , wherein the transmissive portion comprises a first cylindrical portion configured to accommodate the secondary target and the blocking portion comprises a second cylindrical portion configured to overlap the second portion of the secondary target when the first cylindrical portion accommodates the secondary target , and wherein the secondary target is conical.
A robot cleaner comprising: a body which forms an outer appearance; and a mop module which is detachably connected to the body , wherein the mop module comprises: a pair of spin mops which contacts a floor while rotating clockwise or counterclockwise when viewed from a top; and a module housing which connects the pair of spin mops , wherein the robot cleaner further comprises: a mop driving unit disposed at the body , wherein torque of the mop driving unit is transmitted to the pair of spin mops in the connected state where the body and the mop module are connected. a body which forms an outer appearance; and a mop module which is detachably connected to the body , wherein the mop module comprises: a pair of spin mops which contacts a floor while rotating clockwise or counterclockwise when viewed from a top; and a module housing which connects the pair of spin mops , a pair of spin mops which contacts a floor while rotating clockwise or counterclockwise when viewed from a top; and a module housing which connects the pair of spin mops , wherein the robot cleaner further comprises: a mop driving unit disposed at the body , wherein torque of the mop driving unit is transmitted to the pair of spin mops in the connected state where the body and the mop module are connected. a mop driving unit disposed at the body , wherein torque of the mop driving unit is transmitted to the pair of spin mops in the connected state where the body and the mop module are connected.
A composition suitable for oral transmucosal absorption comprising a pharmaceutically acceptable cyclobenzaprine salt and a basifying agent.
A blood processing system , comprising: a centrifuge assembly having a rotational axis and including a light-transmissive portion , a light reflector , and a fluid processing region at least partially positioned between the light-transmissive portion and the light reflector ; and an optical sensor system secured to a fixture of the blood processing system and configured to emit a scanning light beam along a path toward the light-transmissive portion of the centrifuge assembly that is substantially parallel to, but offset from, a radial line perpendicular to and passing through the rotational axis of the centrifuge assembly , wherein the light-transmissive portion of the centrifuge assembly is configured to transmit at least a portion of the scanning light beam to the fluid processing region and the light reflector , and the light reflector is configured to reflect at least a portion of the scanning light beam toward the optical sensor system along a path substantially coaxial to the path of the scanning light beam from the optical sensor system toward the light-transmissive portion of the centrifuge assembly . a centrifuge assembly having a rotational axis and including a light-transmissive portion , a light reflector , and a fluid processing region at least partially positioned between the light-transmissive portion and the light reflector ; and a light-transmissive portion , a light reflector , and a fluid processing region at least partially positioned between the light-transmissive portion and the light reflector ; and an optical sensor system secured to a fixture of the blood processing system and configured to emit a scanning light beam along a path toward the light-transmissive portion of the centrifuge assembly that is substantially parallel to, but offset from, a radial line perpendicular to and passing through the rotational axis of the centrifuge assembly , wherein the light-transmissive portion of the centrifuge assembly is configured to transmit at least a portion of the scanning light beam to the fluid processing region and the light reflector , and the light reflector is configured to reflect at least a portion of the scanning light beam toward the optical sensor system along a path substantially coaxial to the path of the scanning light beam from the optical sensor system toward the light-transmissive portion of the centrifuge assembly .
A method for wireless communications by a user equipment, UE, comprising: determining one or more transmission resources for a service request, SR, transmission for: a first type of service or a second type of service; determining one or more priority levels associated with the one or more transmission resources; and when the SR transmission collides with at least one uplink transmission, transmitting the SR transmission using the determined one or more transmission resources and dropping the at least one uplink transmission, or dropping the SR transmission and transmitting the at least one uplink transmission, or transmitting the SR transmission and the at least one uplink transmission, based on the one or more priority levels associated with the one or more transmission resources. determining one or more transmission resources for a service request, SR, transmission for: a first type of service or a second type of service; determining one or more priority levels associated with the one or more transmission resources; and when the SR transmission collides with at least one uplink transmission, transmitting the SR transmission using the determined one or more transmission resources and dropping the at least one uplink transmission, or dropping the SR transmission and transmitting the at least one uplink transmission, or transmitting the SR transmission and the at least one uplink transmission, based on the one or more priority levels associated with the one or more transmission resources.
A compound of Formula I wherein: Q is X is hydrogen or C(O)R 4 ; Z is N or N + →O - and W is O; R 1 is hydrogen or alkyl, substituted with 0, 1 or multiple R 7 ; R 2 is methyl; R 3 is aryl or a saturated cyclic carbon chain, optionally substituted with 0, 1 or multiple R 7 ; R 4 is alkoxy or benzyloxy, each optionally substituted with 0, 1, or multiple R 7 ; R 5 is hydrogen, alkoxy, or halo, each optionally substituted with 0,1, or multiple R 7 ; R 6 is hydrogen, -C(O)R 8 , or -CH 2 OC(O)R 8 ; R 7 is hydrogen, alkyl, halo, or, alkoxy, each optionally substituted with 0, 1, or multiple R 9 ; R 8 is alkyl, alkoxy, or aryl, each optionally substituted with 0, 1, or multiple R 7 ; R 9 is hydrogen, or halo; and R 10 is hydrogen or alkyl, each substituted with 0, 1 or multiple R 7 , wherein term "alkyl" refers to a branched, unbranched, or saturated cyclic carbon chain. Q is X is hydrogen or C(O)R 4 ; Z is N or N + →O - and W is O; R 1 is hydrogen or alkyl, substituted with 0, 1 or multiple R 7 ; R 2 is methyl; R 3 is aryl or a saturated cyclic carbon chain, optionally substituted with 0, 1 or multiple R 7 ; R 4 is alkoxy or benzyloxy, each optionally substituted with 0, 1, or multiple R 7 ; R 5 is hydrogen, alkoxy, or halo, each optionally substituted with 0,1, or multiple R 7 ; R 6 is hydrogen, -C(O)R 8 , or -CH 2 OC(O)R 8 ; R 7 is hydrogen, alkyl, halo, or, alkoxy, each optionally substituted with 0, 1, or multiple R 9 ; R 8 is alkyl, alkoxy, or aryl, each optionally substituted with 0, 1, or multiple R 7 ; R 9 is hydrogen, or halo; and R 10 is hydrogen or alkyl, each substituted with 0, 1 or multiple R 7 , wherein term "alkyl" refers to a branched, unbranched, or saturated cyclic carbon chain.
Magnetic field generator, designed as a portable natural field simulator, comprising an electrical circuit having a circuit in which a battery (+U B ), a field coil (F) connected thereto and a downstream switching transistor (T) are arranged in series, the base (B) of the switching transistor being connected to a clock generator for a clock rate of 6 Hz to 10 Hz, preferably of 8 Hz, so that the field coil (F) can be switched on and off as an inductance at the battery voltage (+U B ) at the clock rate of the clock generator, as a result of which an alternating magnetic field having an oscillation of 6 Hz to 10 Hz, preferably of 8 Hz, can be generated for near-natural simulation of the fundamental frequency of the Schumann resonances, characterized in that a capacitor (K) is arranged in a parallel circuit to the field coil (F) in order to form a resonant circuit (S) having a resonance frequency of 5 to 30 kHz, preferably of 10 kHz and, furthermore, a diode (D1) is connected in the current flow between the battery (+U B ) and the resonant circuit (S) and/or between the resonant circuit (S) and the switching transistor (T), as a result of which, after the field coil (F) has been switched off in a clocked manner, clocked electromagnetic oscillations of 5 to 30 kHz, preferably of 10 kHz, which decay in an attenuated manner, can be generated from the dissipation of the magnetic field of the field coil (F) at the frequency of the simulated fundamental frequency of the Schumann resonances, for near-natural simulation of sferics pulses as so-called fair-weather sferics. characterized in that a capacitor (K) is arranged in a parallel circuit to the field coil (F) in order to form a resonant circuit (S) having a resonance frequency of 5 to 30 kHz, preferably of 10 kHz and, furthermore, a diode (D1) is connected in the current flow between the battery (+U B ) and the resonant circuit (S) and/or between the resonant circuit (S) and the switching transistor (T), as a result of which, after the field coil (F) has been switched off in a clocked manner, clocked electromagnetic oscillations of 5 to 30 kHz, preferably of 10 kHz, which decay in an attenuated manner, can be generated from the dissipation of the magnetic field of the field coil (F) at the frequency of the simulated fundamental frequency of the Schumann resonances, for near-natural simulation of sferics pulses as so-called fair-weather sferics.
A method for manufacturing a fiber-reinforced resin molding material in which a cut fiber tow (CF) is impregnated with a resin, the method including: a separation step of intermittently separating a fiber tow (CF) along a longitudinal direction (X) thereof and forming at least two separation-processed lines (d) extending in the longitudinal direction (X) and arranged side by side in a width direction (Y) of the fiber tow (CF); and a cutting step of cutting the fiber tow (CF) after the separation step at an interval (L) in the longitudinal direction (X), characterized in that the separation step and the cutting step are carried out so as to satisfy all of to below: 1 ≤ c/L ≤ 50 c < a b/L < 1 , wherein in the to , "c" is an overlapping length of separated parts when one of the separation-processed lines (d) is projected to another separation-processed line (d) adjacent thereto in the width direction (Y); "L" is the intervals in the cutting step; "a" is a length of the separated part in the separation-processed line (d); and "b" is a length of an unseparated part in the separation-processed line (d). a separation step of intermittently separating a fiber tow (CF) along a longitudinal direction (X) thereof and forming at least two separation-processed lines (d) extending in the longitudinal direction (X) and arranged side by side in a width direction (Y) of the fiber tow (CF); and a cutting step of cutting the fiber tow (CF) after the separation step at an interval (L) in the longitudinal direction (X), characterized in that the separation step and the cutting step are carried out so as to satisfy all of to below: 1 ≤ c/L ≤ 50 c < a b/L < 1 , wherein in the to , "c" is an overlapping length of separated parts when one of the separation-processed lines (d) is projected to another separation-processed line (d) adjacent thereto in the width direction (Y); "L" is the intervals in the cutting step; "a" is a length of the separated part in the separation-processed line (d); and "b" is a length of an unseparated part in the separation-processed line (d).
A method for manufacturing a composite material, comprising: producing a plant fiber yarn from a plant raw material; weaving the plant fiber yarn to obtain a plant fiber fabric; and using the plant fiber fabric to form the composite material whose outermost layer is the plant fiber fabric; wherein the step of using the plant fiber fabric to form the composite material comprises: impregnating the plant fiber fabric with a resin to form a plant fiber fabric prepreg; placing the plant fiber fabric prepreg on an upper surface of a base prepreg and optionally on a lower surface of the base prepreg to form a composite material precursor, and curing the composite material precursor to form the composite material; characterized in that the producing the plant fiber yarn from the plant raw material comprises chemical degumming of raw fibers; the chemical degumming comprises adding in the degumming process sodium triphosphate (Na 5 P 3 O 10 ), a surfactant and a non-acid leaching preparation to replace two boilings after acid leaching with a one-pot cooking method of a non-acid leaching, wherein the surfactant is selected from sodium dodecylbenzene sulfonate, sodium polyacrylate, polyvinyl alcohol, alkyl polyoxyethylene ether, and sodium dibutyl naphthalene sulfonate; and the non-acid leaching preparation is selected from an antifoaming agent, urea, and caustic soda. producing a plant fiber yarn from a plant raw material; weaving the plant fiber yarn to obtain a plant fiber fabric; and using the plant fiber fabric to form the composite material whose outermost layer is the plant fiber fabric; impregnating the plant fiber fabric with a resin to form a plant fiber fabric prepreg; placing the plant fiber fabric prepreg on an upper surface of a base prepreg and optionally on a lower surface of the base prepreg to form a composite material precursor, and curing the composite material precursor to form the composite material; characterized in that the producing the plant fiber yarn from the plant raw material comprises chemical degumming of raw fibers; the chemical degumming comprises adding in the degumming process sodium triphosphate (Na 5 P 3 O 10 ), a surfactant and a non-acid leaching preparation to replace two boilings after acid leaching with a one-pot cooking method of a non-acid leaching, wherein the surfactant is selected from sodium dodecylbenzene sulfonate, sodium polyacrylate, polyvinyl alcohol, alkyl polyoxyethylene ether, and sodium dibutyl naphthalene sulfonate; and the non-acid leaching preparation is selected from an antifoaming agent, urea, and caustic soda.
A computer-implemented method of calculating a volume of a drop pendant using a microprocessor, comprising: generating, using the microprocessor, a gravity vector based on a direction of gravity with respect to the drop pendant; establishing, using the microprocessor, a reference frame of the drop pendant for an image processing based on a reference point of the drop pendant and the gravity vector; generating, using the microprocessor, a first reference line associated with the reference frame for representing an actual orientation of the drop pendant; generating, using the microprocessor, a second reference line associated with the reference frame for representing a longitudinal axis of a chamber in which the drop pendant is located; comparing, using the microprocessor, the first and second reference lines with respect to the gravity vector; and calculating, using the microprocessor, the volume of the drop pendant based on the comparison of the first and second reference lines and the gravity vector. generating, using the microprocessor, a gravity vector based on a direction of gravity with respect to the drop pendant; establishing, using the microprocessor, a reference frame of the drop pendant for an image processing based on a reference point of the drop pendant and the gravity vector; generating, using the microprocessor, a first reference line associated with the reference frame for representing an actual orientation of the drop pendant; generating, using the microprocessor, a second reference line associated with the reference frame for representing a longitudinal axis of a chamber in which the drop pendant is located; comparing, using the microprocessor, the first and second reference lines with respect to the gravity vector; and calculating, using the microprocessor, the volume of the drop pendant based on the comparison of the first and second reference lines and the gravity vector.