mhurhangee/ep-ind-claims huggingface dataset:
An automotive lamp comprising: a first light source that emits a blue first laser light; a second light source that emits a green second laser light; a third light source that emits a yellow or orange third laser light; a fourth light source that emits a red fourth laser light; and a light condensing unit that collects each of the first to fourth laser lights so as to generate a white laser light, wherein the first laser light has a peak wavelength in a wavelength region of 450 nm to 470 nm (both inclusive), wherein the second laser light has a peak wavelength in a wavelength region of 510 nm to 550 nm (both inclusive), wherein the third laser light has a peak wavelength in a wavelength region of 570 nm to 612 nm (both inclusive), and wherein the fourth laser light has a peak wavelength in a wavelength region of 630 nm to 650 nm (both inclusive). a first light source that emits a blue first laser light; a second light source that emits a green second laser light; a third light source that emits a yellow or orange third laser light; a fourth light source that emits a red fourth laser light; and a light condensing unit that collects each of the first to fourth laser lights so as to generate a white laser light, wherein the first laser light has a peak wavelength in a wavelength region of 450 nm to 470 nm (both inclusive), wherein the second laser light has a peak wavelength in a wavelength region of 510 nm to 550 nm (both inclusive), wherein the third laser light has a peak wavelength in a wavelength region of 570 nm to 612 nm (both inclusive), and wherein the fourth laser light has a peak wavelength in a wavelength region of 630 nm to 650 nm (both inclusive).
A method of communication at a wireless communications device, comprising: identifying (405; 1005) a first repetition level from a plurality of repetition levels for a first random access request sequence; determining (405; 1010), based on the first repetition level, a first initial power for the first random access request sequence; transmitting at least one random access request of the first random access request sequence according to the first initial power; identifying a second repetition level from the plurality of repetition levels for a second random access request sequence based on determining that a random access response was not received in response to the first random access request sequence; determining, based on the second repetition level, a second initial power for the second random access request sequence, wherein the second initial power is determined to be a maximum transmit power based on whether the second repetition level is a highest repetition level of the plurality of repetition levels; and transmitting at least one random access request of the second random access request sequence according to the second initial power. identifying (405; 1005) a first repetition level from a plurality of repetition levels for a first random access request sequence; determining (405; 1010), based on the first repetition level, a first initial power for the first random access request sequence; transmitting at least one random access request of the first random access request sequence according to the first initial power; identifying a second repetition level from the plurality of repetition levels for a second random access request sequence based on determining that a random access response was not received in response to the first random access request sequence; determining, based on the second repetition level, a second initial power for the second random access request sequence, wherein the second initial power is determined to be a maximum transmit power based on whether the second repetition level is a highest repetition level of the plurality of repetition levels; and transmitting at least one random access request of the second random access request sequence according to the second initial power.
An apparatus configured for therapeutic electrical stimulation of a patient, the apparatus comprising: an electrode carrier configured to place a set of electrodes into contact with the body of the patient at an injury site on the body of the patient; and a stimulation module comprising: control circuitry that is configured to sequentially activate individual subsets of electrodes in the set of electrodes, each subset including one or more electrodes activated as a signal source for the electrical stimulation signal and one or more electrodes activated as a signal sink for the electrical stimulation signal; wherein the module further comprises: a signal generation circuitry, characterized in that said signal generation circuitry is configured to generate an electrical stimulation signal as a Direct Current, DC, pulse train at a frequency of between 10 kHz and 50 kHz. an electrode carrier configured to place a set of electrodes into contact with the body of the patient at an injury site on the body of the patient; and a stimulation module comprising: control circuitry that is configured to sequentially activate individual subsets of electrodes in the set of electrodes, each subset including one or more electrodes activated as a signal source for the electrical stimulation signal and one or more electrodes activated as a signal sink for the electrical stimulation signal; wherein the module further comprises: a signal generation circuitry, characterized in that said signal generation circuitry is configured to generate an electrical stimulation signal as a Direct Current, DC, pulse train at a frequency of between 10 kHz and 50 kHz. control circuitry that is configured to sequentially activate individual subsets of electrodes in the set of electrodes, each subset including one or more electrodes activated as a signal source for the electrical stimulation signal and one or more electrodes activated as a signal sink for the electrical stimulation signal; wherein the module further comprises: a signal generation circuitry, characterized in that said signal generation circuitry is configured to generate an electrical stimulation signal as a Direct Current, DC, pulse train at a frequency of between 10 kHz and 50 kHz.
An apparatus, comprising; a set of memory cells (703-714, 723-734, 743-754, 763-774) arranged in a set of NAND strings (700n, 710, 720n, 730n); a set of word lines (WL0-WL95) connected to the set of memory cells, the set of word lines comprises a first word line (WLn) connected to a first memory cell in the set of memory cells and a second word line (WLn+1) connected to a second memory cell in the set of memory cells, the first memory cell is adjacent to the second memory cell; and a control circuit (110, 122) connected to the set of memory cells, the control circuit is configured to program the first memory cell, program the second memory cell after programming the first memory cell, read the first memory cell after the programming of the second memory cell to classify a threshold voltage of the first memory cell into a respective range of threshold voltages (840, 841), and characterized in that the control circuit is further configured to: read the second memory cell after the programming of the second memory cell to classify a threshold voltage of the second memory cell into a respective range of threshold voltages, and decide whether to reprogram the first memory cell based on the respective range of threshold voltages of the first memory cell and the respective range of threshold voltages of the second memory cell. a set of memory cells (703-714, 723-734, 743-754, 763-774) arranged in a set of NAND strings (700n, 710, 720n, 730n); a set of word lines (WL0-WL95) connected to the set of memory cells, the set of word lines comprises a first word line (WLn) connected to a first memory cell in the set of memory cells and a second word line (WLn+1) connected to a second memory cell in the set of memory cells, the first memory cell is adjacent to the second memory cell; and a control circuit (110, 122) connected to the set of memory cells, the control circuit is configured to program the first memory cell, program the second memory cell after programming the first memory cell, read the first memory cell after the programming of the second memory cell to classify a threshold voltage of the first memory cell into a respective range of threshold voltages (840, 841), and characterized in that the control circuit is further configured to: read the second memory cell after the programming of the second memory cell to classify a threshold voltage of the second memory cell into a respective range of threshold voltages, and decide whether to reprogram the first memory cell based on the respective range of threshold voltages of the first memory cell and the respective range of threshold voltages of the second memory cell. read the second memory cell after the programming of the second memory cell to classify a threshold voltage of the second memory cell into a respective range of threshold voltages, and decide whether to reprogram the first memory cell based on the respective range of threshold voltages of the first memory cell and the respective range of threshold voltages of the second memory cell.
A method for detecting a leak in a hose of a hydraulic system having a control valve assembly with first and second work ports in fluid communication with an actuator and a first leak detection protocol, characterized in that the method comprising implementing the first leak detection protocol including the steps of: (a) estimating a first hydraulic fluid flow rate for fluid flowing from the control valve assembly first work port to the actuator; (b) estimating a second hydraulic fluid flow rate for fluid flowing from the actuator to the control valve assembly second work port; (c) calculating a proportional flow rate difference between the first and second hydraulic fluid flow rates; (d) calculating a flow error value by subtracting the proportional flow rate difference from a predetermined margin value; and (e) generating a hydraulic fluid leak signal when the flow error value integrated over time exceeds a total flow error threshold value. (a) estimating a first hydraulic fluid flow rate for fluid flowing from the control valve assembly first work port to the actuator; (b) estimating a second hydraulic fluid flow rate for fluid flowing from the actuator to the control valve assembly second work port; (c) calculating a proportional flow rate difference between the first and second hydraulic fluid flow rates; (d) calculating a flow error value by subtracting the proportional flow rate difference from a predetermined margin value; and (e) generating a hydraulic fluid leak signal when the flow error value integrated over time exceeds a total flow error threshold value.
Method for monitoring a motor vehicle with an automated driving function, with different operating modes (SSL1, SSL2, SSL3) for bringing the motor vehicle to a standstill, wherein at least one energy store (106, 110), in particular a battery, supplies at least one consumer (112, 114) which can bring the vehicle to a standstill, characterized in that the respective operating mode (SSL1, SSL2, SSL3) is respectively assigned a load profile (141, 142, 145, 151) which usually occurs when controlling the consumer (114, 116) in this operating mode (SSL1, SSL2, SSL3), and in that at least one characteristic variable of the energy store (106, 110) is predicted on the basis of at least one of the load profiles (141, 142, 145, 151), and the operating mode (SSL1, SSL2, SSL3) associated with the load profile (141, 142, 145, 151) and/or the automated driving function is/are enabled, blocked, left or influenced on the basis of the predicted characteristic variable of the energy store (106, 110).
A control method for controlling an electrical taxiing system adapted to moving an aircraft while it is taxiing, the method comprising the steps of: - generating a ground speed setpoint (Cvs) for the aircraft; - transforming the ground speed setpoint (Cvs) into an optimized speed setpoint (Cvo); - implementing a regulator loop having the optimized speed setpoint (Cvo) as its setpoint; and - generating a command (Coc) for the electrical taxiing system from an output of the regulator loop, characterized in that the optimized speed setpoint (Cvo) presents a curve as a function of time that has a predefined function comprising a plurality of linear portions (5, 6, 7, 8), each having a slope that is a function of the ground speed setpoint. - generating a ground speed setpoint (Cvs) for the aircraft; - transforming the ground speed setpoint (Cvs) into an optimized speed setpoint (Cvo); - implementing a regulator loop having the optimized speed setpoint (Cvo) as its setpoint; and - generating a command (Coc) for the electrical taxiing system from an output of the regulator loop, characterized in that the optimized speed setpoint (Cvo) presents a curve as a function of time that has a predefined function comprising a plurality of linear portions (5, 6, 7, 8), each having a slope that is a function of the ground speed setpoint.
A substituted paracyclophane of formula wherein X 1 and X 2 are linear, branched or cyclic linking groups wherein the link is formed via 2, 3 or 4 carbon atoms, and wherein the link may optionally contain in addition to the carbon atoms a heteroatom selected from the group consisting of O, N or S, where the N atom may in turn be bonded to an alkyl group such as CH 3, C 2 H 5, C 3 H 7 or C 4 H 9 or an aryl group, and the S atom may be bonded to an alkyl or aryl group or be part of an SO or SO 2 moiety, and wherein the carbon atoms in the linking group may optionally be substituted with a halide, Y 1 and Y 2 are selected from the group consisting of hydrogen, halide, straight chain C1-C20 alkyl, branched chain C1-C20 alkyl, cycloalkyl, aryl or heteroaryl and Z is an unsubstituted linear, branched or cyclic alkyl group, substituted or unsubstituted aryl group or substituted or unsubstituted heteroaryl group, wherein, when Z is a substituted aryl group, Z is a 2,5-disubstituted phenyl group, wherein the substituents are selected from one or more of halide, hydroxyl, C1-10 alkoxy, CHO, CO 2 H, CN, NH 2, NHR or NR 2 where R is C1-10 alkyl or aryl; and wherein, when Z is a substituted heteroaryl group, the substituents are selected from one or more of halide, hydroxyl, C1-30 alkoxy, carboxyl, methacryl, vinyl, nitrile, nitro, sulphate, mercapto or amino.
A motor vehicle with a passenger compartment, which is designed side door-free and comprises a front door arranged on the front side of the passenger compartment, which can be displaced out of the front opening in rearward direction via an upper edge of a front opening of the passenger compartment, characterized in that the front opening of the passenger compartment is formed by a rigid safety frame, in that the passenger compartment is designed as safety cell, to which the front door belongs as integral part, and in that the upper edge of the front door is assigned a pivot axis, which can be pushed out of the front opening of the passenger compartment with the front door, before the front door can be pivoted out of the front opening of the passenger compartment about said pivot axis.
A temperature adjustment method for a vehicle, comprising the following steps: obtaining a required power and an actual power used for performing temperature adjustment on a battery; obtaining an intra-vehicle temperature of a vehicle and an air conditioner set temperature; and adjusting an opening degree of an intra-vehicle cooling branch and an opening degree of a battery cooling branch according to the required power, the actual power, the intra-vehicle temperature, and the air conditioner set temperature, so that the battery reaches a target temperature within a target time. obtaining a required power and an actual power used for performing temperature adjustment on a battery; obtaining an intra-vehicle temperature of a vehicle and an air conditioner set temperature; and adjusting an opening degree of an intra-vehicle cooling branch and an opening degree of a battery cooling branch according to the required power, the actual power, the intra-vehicle temperature, and the air conditioner set temperature, so that the battery reaches a target temperature within a target time.
A system for aspirating thrombus, comprising: an aspiration catheter comprising: an elongate shaft configured for placement within a blood vessel of a subject; a supply lumen and an aspiration lumen each extending within the shaft and separated by a wall, wherein the wall forms a supply tube forming the supply lumen and an interior wall of the elongate shaft forms the aspiration lumen, the supply lumen having a proximal end and a distal end, and the aspiration lumen having a proximal end and an open distal end, a portion of the supply tube being configured to move within the aspiration lumen due to flow force exerted over an external surface of the supply tube so that a remaining inner luminal space of the aspiration lumen self-optimizes for flow of aspirated thrombus; and a circumferentially-extending slit in the wall at or near the distal end of the supply lumen, the slit being configured to allow the injection of pressurized fluid into the aspiration lumen at or near the distal end of the aspiration lumen when the pressurized fluid is pumped through the supply lumen. an elongate shaft configured for placement within a blood vessel of a subject; a supply lumen and an aspiration lumen each extending within the shaft and separated by a wall, wherein the wall forms a supply tube forming the supply lumen and an interior wall of the elongate shaft forms the aspiration lumen, the supply lumen having a proximal end and a distal end, and the aspiration lumen having a proximal end and an open distal end, a portion of the supply tube being configured to move within the aspiration lumen due to flow force exerted over an external surface of the supply tube so that a remaining inner luminal space of the aspiration lumen self-optimizes for flow of aspirated thrombus; and a circumferentially-extending slit in the wall at or near the distal end of the supply lumen, the slit being configured to allow the injection of pressurized fluid into the aspiration lumen at or near the distal end of the aspiration lumen when the pressurized fluid is pumped through the supply lumen.
A method for performing a highly multiplex single primer extension reaction, comprising: a. extending at least about 1,000 different primers in a single primer extension reaction using a plurality of target nucleic acids as templates in the presence of a MutS protein, and Mg 2+ at a minimum concentration of about 6 mM to generate extension products. a. extending at least about 1,000 different primers in a single primer extension reaction using a plurality of target nucleic acids as templates in the presence of a MutS protein, and Mg 2+ at a minimum concentration of about 6 mM to generate extension products.
An airbag jacket (1; 1A; 1B), comprising an airbag (2; 2B) that is to be expanded along an outer surface of a body of a wearer, wherein the airbag (2; 2B) includes a first surface on a body side of the wearer and a second surface on an opposite side thereto, and wherein a gas is to be supplied between the first surface and the second surface to expand the airbag (2; 2B), and a limiting device (6; 9) for limiting a separating distance of the second surface and the first surface at a time when the airbag (2; 2B) is expanded, characterized in that the airbag (2; 2B) is formed by stitching an inner panel constituting the first surface to an outer panel constituting the second surface, wherein the outer panel forms an entire envelope of the airbag jacket (1; 1A; 1B) to surround the body of the wearer across an entire periphery in a direction perpendicular to the longitudinal direction thereof, while the inner panel is extended around the waistline of the wearer, from a front surface up to before reaching a center of a back surface upon wrapping around both flanks.
A method of locating of a lesion within a breast, the method comprising: receiving, at a computing system an indication of a location of a target lesion within the breast on a first image of the breast obtained by a first imaging modality; receiving, at the computing system, a second image of the breast obtained by a second imaging modality; analyzing, with a lesion matching engine operating on the computing system, the first image including the target lesion and the second image including a potential lesion to correlate the first image and the second image using artificial intelligence to determine a probability that the potential lesion corresponds to the target lesion, wherein analyzing the potential lesion comprises comparing form factors of breast tissue surrounding the target lesion and the potential lesion; and outputting an indicator of said probability for display on a graphical user interface. receiving, at a computing system an indication of a location of a target lesion within the breast on a first image of the breast obtained by a first imaging modality; receiving, at the computing system, a second image of the breast obtained by a second imaging modality; analyzing, with a lesion matching engine operating on the computing system, the first image including the target lesion and the second image including a potential lesion to correlate the first image and the second image using artificial intelligence to determine a probability that the potential lesion corresponds to the target lesion, wherein analyzing the potential lesion comprises comparing form factors of breast tissue surrounding the target lesion and the potential lesion; and outputting an indicator of said probability for display on a graphical user interface.
A composition for use in a washing apparatus to remove hair by dissolution on a textile material, comprising: a non-chlorine-based bleaching agent; and a bleach activator; characterised in that a concentration ratio of the bleaching agent to the bleach activator is 4:1 and wherein the bleaching agent is 40% by weight and the bleach activator is 10% by weight. a non-chlorine-based bleaching agent; and a bleach activator; characterised in that a concentration ratio of the bleaching agent to the bleach activator is 4:1 and wherein the bleaching agent is 40% by weight and the bleach activator is 10% by weight.