mhurhangee/ep-ind-claims huggingface dataset:
A method for Machine Type Communication, MTC, applied to a terminal, the method comprising: receiving, by the terminal, cell broadcast information from a base station, the cell broadcast information comprising a sending location of a polling instruction; receiving, by the terminal, the polling instruction at the sending location from the base station; performing, by the terminal, registration on a first access resource indicated by the polling instruction; and sending, by the terminal, registration information to the base station. receiving, by the terminal, cell broadcast information from a base station, the cell broadcast information comprising a sending location of a polling instruction; receiving, by the terminal, the polling instruction at the sending location from the base station; performing, by the terminal, registration on a first access resource indicated by the polling instruction; and sending, by the terminal, registration information to the base station.
A communication method in a communication system, consisting of a roadside equipment provided with a plurality of first communication unit, wherein said first communication units are assigned with identical first MAC addresses; and a vehicle provided with a plurality of second communication units, the communication method comprises the steps of monitoring by said plurality of second communication units beacon signals (202, 301, 302) sent out by said roadside equipment when said vehicle travels to get close to said roadside equipment, sending out by said second communication units, a request to said first MAC address when the intensity of the beacon signal monitored by any of the second communication units is greater than a preset threshold value, so as to establish a communication (203, 303, 304, 305) between said vehicle and said roadside equipment; characterized in that the second communication units have been assigned an identical second MAC address for the subsequent data exchange.
An image sensor module comprising: an image sensor having an image surface; a plurality of lenses (210, 220, 230, 240) arranged sequentially from an object side to the image surface side, each of the lenses configured to refract an incident light; and at least one infra-red cut-off filter configured to cut off an infra-red component from the incident light, wherein at least one surface of the at least one infra-red cut-off filter has a concave shape in relation to the object side, wherein the plurality of lenses include: a first lens having a positive refractive power; a second lens having a negative refractive power; a third lens having a positive refractive power; and a fourth lens having a central area and a peripheral area which are convex and concave in relation to the object side, respectively, and wherein opposite surfaces of each of the plurality of lenses are aspherical surfaces, and the opposite surfaces of the at least one infrared cut-off filter are spherical surfaces. an image sensor having an image surface; a plurality of lenses (210, 220, 230, 240) arranged sequentially from an object side to the image surface side, each of the lenses configured to refract an incident light; and at least one infra-red cut-off filter configured to cut off an infra-red component from the incident light, wherein at least one surface of the at least one infra-red cut-off filter has a concave shape in relation to the object side, wherein the plurality of lenses include: a first lens having a positive refractive power; a second lens having a negative refractive power; a third lens having a positive refractive power; and a fourth lens having a central area and a peripheral area which are convex and concave in relation to the object side, respectively, and a first lens having a positive refractive power; a second lens having a negative refractive power; a third lens having a positive refractive power; and a fourth lens having a central area and a peripheral area which are convex and concave in relation to the object side, respectively, and wherein opposite surfaces of each of the plurality of lenses are aspherical surfaces, and the opposite surfaces of the at least one infrared cut-off filter are spherical surfaces.
A crystalline form of 3-((3S,4R)-3-methyl-6-(7H-pyrrolo[2,3-d]pyrimidin-4-yl)-1,6-diazaspiro[3.4]octan-1-yl)-3-oxopropanenitrile having Form β, which has an X-ray powder diffraction pattern comprising a characteristic peak, in terms of 2θ (°), at about 11.8.
An electronic candle, comprising a plastic wrapper and a white wax shell therein, wherein a spring is arranged inside the plastic wrapper and the white wax shell therein, an upright metal wire is arranged at the upper end of the spring, a metal ring is arranged at the lower end of the spring, the metal wire is sleeved with an included angle reflecting screen, a plurality of color flame projectors matched with the included angle reflecting screen are arranged on the plastic shell above the spring, a supporting rod with a concave point is arranged on the white wax shell below the spring, the supporting rod with the concave point transversely penetrates through the metal ring, a metal hook is arranged at the lower end of the metal ring, a soft iron sheet is connected to the metal hook, and a driver for driving the soft iron sheet to swing and an overall power supply for supplying power to the driver and the color flame projectors are arranged below the soft iron sheet.
A method of applying a material finish, the method comprising: positioning a target material and a sacrificial material with a material finish in a common pressure vessel; introducing carbon dioxide ("CO 2 ") within the pressure vessel; pressurizing the pressure vessel to at least 73.87 bar and raising the internal temperature of the pressure vessel to a temperature of at least 304 K, wherein the CO 2 achieves a supercritical fluid ("SCF") state while in the pressure vessel; initiating a flow of the CO 2 before or after achieving SCF state; perfusing, using SCF CO 2, the target material with material finish from the sacrificial material; reducing one or more of the pressure and the internal temperature within the pressure vessel while maintaining the flow of CO 2; and reducing the flow of the CO 2 after the pressure is below 73.87 bar and/or after the internal temperature is below 304 K.
A method performed by a wireless device (1810, 1820) in a wireless communication system, the method comprising: receiving, from a source cell, a measurement configuration; transmitting, to the source cell, a measurement report for first target cells based on the measurement configuration; receiving, from the source cell after transmitting the measurement report, first mobility commands for the first target cells, wherein each of the first mobility commands is related to a corresponding index, and comprises a mobility condition and a random access preamble for a corresponding first target cell; storing the first mobility commands; receiving, from the source cell after receiving the first mobility commands, a second mobility command for a second target cell, wherein the second mobility command is related to an index, and comprises one or both of a mobility condition or a random access preamble for the second target cell; determining whether the index related to the second mobility command is related to a first mobility command or is a new index; based on the index related to the second mobility command being related to the first mobility command, updating the first mobility command based on the second mobility command in relation to the index; based on the index related to the second mobility command being the new index, storing the second mobility command in relation to the index; evaluating a mobility condition in each of stored mobility commands; and applying a mobility command for a target cell based on the mobility condition being fulfilled for the target cell. receiving, from a source cell, a measurement configuration; transmitting, to the source cell, a measurement report for first target cells based on the measurement configuration; receiving, from the source cell after transmitting the measurement report, first mobility commands for the first target cells, wherein each of the first mobility commands is related to a corresponding index, and comprises a mobility condition and a random access preamble for a corresponding first target cell; storing the first mobility commands; receiving, from the source cell after receiving the first mobility commands, a second mobility command for a second target cell, wherein the second mobility command is related to an index, and comprises one or both of a mobility condition or a random access preamble for the second target cell; determining whether the index related to the second mobility command is related to a first mobility command or is a new index; based on the index related to the second mobility command being related to the first mobility command, updating the first mobility command based on the second mobility command in relation to the index; based on the index related to the second mobility command being the new index, storing the second mobility command in relation to the index; evaluating a mobility condition in each of stored mobility commands; and applying a mobility command for a target cell based on the mobility condition being fulfilled for the target cell.
A dishwasher comprising a device, arranged for fluid communication with a washing chamber, the device comprising: a duct arranged to allow a flow of air to and from the washing chamber, a drying material arranged in a bed within the duct, the bed having a front side and a back side wherein the back side of the bed is provided adjacent a side of the duct, the bed being arranged for a flow of air adjacent and parallel to the front side of the bed such that the flow of air is in direct contact with the bed, the drying material being able to withdraw moisture from the air flowing adjacent and parallel to the front side of the bed during a withdrawal step when the device is in use, and release moisture to the air at the front side of the bed during a regeneration step when the device is in use, a heating element arranged to heat the drying material during the regeneration step when the device is in use such that moisture is released from the drying material, and a fan, arranged to circulate the air to and from the washing chamber, thereby generating the flow of air, the device being arranged to form a closed loop air circulation system with the washing chamber of the dishwasher, whereby no exchange of air with the environment outside the dishwasher is allowed in use. a duct arranged to allow a flow of air to and from the washing chamber, a drying material arranged in a bed within the duct, the bed having a front side and a back side wherein the back side of the bed is provided adjacent a side of the duct, the bed being arranged for a flow of air adjacent and parallel to the front side of the bed such that the flow of air is in direct contact with the bed, the drying material being able to withdraw moisture from the air flowing adjacent and parallel to the front side of the bed during a withdrawal step when the device is in use, and release moisture to the air at the front side of the bed during a regeneration step when the device is in use, a heating element arranged to heat the drying material during the regeneration step when the device is in use such that moisture is released from the drying material, and a fan, arranged to circulate the air to and from the washing chamber, thereby generating the flow of air, the device being arranged to form a closed loop air circulation system with the washing chamber of the dishwasher, whereby no exchange of air with the environment outside the dishwasher is allowed in use.
A system for transferring samples in a controlled environment, comprising: a sample container configured to convey a sample from a first device to a second device, wherein the first device is under pressure and the second device is under vacuum, wherein the second device comprises: a load chamber configured to accept the sample from the sample container; a vacuum pump coupled to the load chamber using a conduit such that the vacuum pump is in fluid communication with the load chamber as required; characterized in that said second device further comprises an orifice sized to significantly restrict the flow of fluids through the conduit coupling the vacuum pump to the load chamber, wherein the orifice is configured to allow for a transition from a viscous into a molecular flow using differential pumping. a sample container configured to convey a sample from a first device to a second device, wherein the first device is under pressure and the second device is under vacuum, wherein the second device comprises: a load chamber configured to accept the sample from the sample container; a vacuum pump coupled to the load chamber using a conduit such that the vacuum pump is in fluid communication with the load chamber as required; characterized in that said second device further comprises an orifice sized to significantly restrict the flow of fluids through the conduit coupling the vacuum pump to the load chamber, wherein the orifice is configured to allow for a transition from a viscous into a molecular flow using differential pumping. a load chamber configured to accept the sample from the sample container; a vacuum pump coupled to the load chamber using a conduit such that the vacuum pump is in fluid communication with the load chamber as required; characterized in that said second device further comprises an orifice sized to significantly restrict the flow of fluids through the conduit coupling the vacuum pump to the load chamber, wherein the orifice is configured to allow for a transition from a viscous into a molecular flow using differential pumping.
A method performed by a user interface system of a vehicle for providing in said vehicle, while said vehicle is travelling, a graphic visualization of a propulsion energy level gauge relative to a vehicle range meter, said method comprising: determining a current vehicle range of said vehicle based on a current remaining propulsion energy level of an energy storage device of said vehicle; determining at least one hypothetical vehicle range of said vehicle based on at least one hypothetical level of remaining propulsion energy of said energy storage device, said hypothetical level of remaining propulsion energy indicating a fictive level should said energy storage device be refuelled and/or recharged at a predetermined instant in time, such as e.g. the current instant in time; and providing said graphic visualization on a display, said propulsion energy level gauge conveying said current remaining propulsion energy level and said hypothetical level of remaining propulsion energy, and said vehicle range meter conveying said current vehicle range and said hypothetical vehicle range, wherein, in said graphic visualization, said current remaining propulsion energy level is graphically associated with said current vehicle range, and said hypothetical level of remaining propulsion energy is graphically associated with said hypothetical vehicle range. determining a current vehicle range of said vehicle based on a current remaining propulsion energy level of an energy storage device of said vehicle; determining at least one hypothetical vehicle range of said vehicle based on at least one hypothetical level of remaining propulsion energy of said energy storage device, said hypothetical level of remaining propulsion energy indicating a fictive level should said energy storage device be refuelled and/or recharged at a predetermined instant in time, such as e.g. the current instant in time; and providing said graphic visualization on a display, said propulsion energy level gauge conveying said current remaining propulsion energy level and said hypothetical level of remaining propulsion energy, and said vehicle range meter conveying said current vehicle range and said hypothetical vehicle range, wherein, in said graphic visualization, said current remaining propulsion energy level is graphically associated with said current vehicle range, and said hypothetical level of remaining propulsion energy is graphically associated with said hypothetical vehicle range.
Battery housing part for a traction battery of an electric or hybrid vehicle, wherein a first partial region of the battery housing part is formed from a plastic and at least one second partial region is formed from a material different therefrom, characterized in that at least on a portion of the periphery of the battery housing part, as an edge protection for the same, at least one frame-like reinforcing component is provided which consists of a different material from the battery housing part, wherein the reinforcing component, seen in cross section, has a triangular portion with a chamfer and with a web portion adjoining this.
Device for air-conditioning stalls, in particular for cooling and/or humidifying stall air with evaporation members, at least one spray pipe which is arranged thereabove and which can be supplied with fluid, at least one deflector above the at least one spray pipe and retention members for the at least one spray pipe as well as for the at least one deflector above the evaporation members, wherein the or the respective deflector can be secured to the retention members with at least one of the opposing longitudinal edge regions thereof by means of at least one hinge connection (29, 30), wherein the at least one hinge connection (29, 30) is constructed to pivot the or the respective deflector relative to the retention members which carry it, characterised in that the respective deflector can be pivoted relative to the retention members optionally about one of two releasable hinge connections (29, 30) at the opposing longitudinal edge regions thereof.
Display apparatus for displaying information, in particular for a vehicle, having a mechanical indicator and a display surface which is capable of being illuminated with a light beam for representing the information, wherein movable deflection means (7, 19) are present with which the path of the light beam can be changed, and wherein the deflection means (7, 19) are configured such that they move the light beam multiple times over a section of the display surface in order to represent current information on the section, characterized in that the deflection means (7, 19) are arranged in an eccentric position with respect to the axis of the mechanical indicator and/or to the axis of a scale of the mechanical indicator.
An image segmentation method, performed by a computer device, the method comprising: encoding an original image based on a vector, to obtain a target feature map, the original image comprising a target object, the vector comprising a plurality of weights each representing an accuracy level of labeling a region of an object in an image; decoding the target feature map, to obtain a first segmented image of the original image, the first segmented image indicating a target region in which the target object is located in the original image; performing image reconstruction on the first segmented image based on the vector, to obtain a plurality of labeled segmented images, each of the labeled segmented images corresponding to one weight, and each of the labeled segmented images indicating a corresponding labeled target region; and processing the target feature map based on the plurality of labeled segmented images, to obtain a second segmented image of the original image. encoding an original image based on a vector, to obtain a target feature map, the original image comprising a target object, the vector comprising a plurality of weights each representing an accuracy level of labeling a region of an object in an image; decoding the target feature map, to obtain a first segmented image of the original image, the first segmented image indicating a target region in which the target object is located in the original image; performing image reconstruction on the first segmented image based on the vector, to obtain a plurality of labeled segmented images, each of the labeled segmented images corresponding to one weight, and each of the labeled segmented images indicating a corresponding labeled target region; and processing the target feature map based on the plurality of labeled segmented images, to obtain a second segmented image of the original image.
A nonaqueous electrolyte secondary battery comprising a positive electrode, a negative electrode, and a nonaqueous electrolytic solution, wherein the positive electrode includes a positive electrode active material layer; the positive electrode active material layer includes trilithium phosphate and, as a positive electrode active material, a lithium transition metal composite oxide including at least lithium, nickel, manganese, and cobalt; the nonaqueous electrolytic solution includes lithium fluorosulfonate; a mass ratio of trilithium phosphate to the positive electrode active material is 1% by mass or more and 5% by mass or less; and a content of lithium fluorosulfonate in the nonaqueous electrolytic solution is 0.15% by mass or more and 1.0% by mass or less.
A portable electronic device, comprising radiation means (104A, 104B) for directing optical radiation energy non-invasively at intracranial nerve tissue of a user through an external auditory canal of the user of the portable electronic device to stimulate the user's intracranial nerve tissue, wherein the portable electronic device further comprises a controller, which is connected to the radiation means (202, 502), the portable electronic device further comprises a communication adapter for connecting the portable electronic device to an external control device; and the controller is configured to control the distribution of optical radiation on the basis of a command received from the external control device; and; that the controller further comprises several processing programs with instructions for different optical radiation distributions characterized in that the controller controls the spatial distribution of optical radiation.
A process for producing a stable, injectable solution containing from 0.04 to 0.20 mg/ml noradrenaline, characterised by including the following steps: a. dissolving noradrenaline and optionally an excipient in deoxygenated or degassed water, to obtain a concentration of noradrenaline from 0.04 to 0.20 mg/ml, b. adjusting the pH of the resulting solution by adding hydrochloric acid until a value in the range from 3.2 to 3.6 is achieved, c. filtrating the resulting noradrenaline solution in an inert gas current, d. distributing the noradrenaline solution in an inert gas current, e. sterilizing the noradrenaline solution. a. dissolving noradrenaline and optionally an excipient in deoxygenated or degassed water, to obtain a concentration of noradrenaline from 0.04 to 0.20 mg/ml, b. adjusting the pH of the resulting solution by adding hydrochloric acid until a value in the range from 3.2 to 3.6 is achieved, c. filtrating the resulting noradrenaline solution in an inert gas current, d. distributing the noradrenaline solution in an inert gas current, e. sterilizing the noradrenaline solution.