mhurhangee/patent-ind-claim-en huggingface dataset:
A handheld laser system for providing localized heating of target spots of skin for treating a patient wherein the treatment reduces any or all of the following: skin wrinkles, acne, hair, skin discoloration such as age spots, bacterial infections, viral infections, fungal infections, scar tissue or appearance thereof, cellulite, warts, or wound infection, comprising: a diode laser engine configured to generate light that is applied to the target spots of skin ; and a controller configured to drive the laser engine to generate a pulsed light beam to heat and then maintain the dermal temperature in the target spots within a desired heating temperature range by controlling in at least one beam parameter of the laser engine including an energy intensity, a pulse width, or a time delay between pulses, wherein one or more of the beam parameters change throughout the application of the energy to achieve the desired temperature range in a non-linear fashion wherein the laser engine initially drive at a high fluence into the skin until the desired temperature is reached, lower its fluence to allow the energy to evenly distribute in the targeted skin, and then finally modify its fluence to maintain this desired dermal temperature, and wherein the light generated by the diode laser engine has a wavelength between 1380 nm and 1570 nm and the dermal temperature is maintained within the desired heating of greater than 39 degrees Celsius and less than 45 degrees Celsius. a diode laser engine configured to generate light that is applied to the target spots of skin ; and a controller configured to drive the laser engine to generate a pulsed light beam to heat and then maintain the dermal temperature in the target spots within a desired heating temperature range by controlling in at least one beam parameter of the laser engine including an energy intensity, a pulse width, or a time delay between pulses, wherein one or more of the beam parameters change throughout the application of the energy to achieve the desired temperature range in a non-linear fashion wherein the laser engine initially drive at a high fluence into the skin until the desired temperature is reached, lower its fluence to allow the energy to evenly distribute in the targeted skin, and then finally modify its fluence to maintain this desired dermal temperature, and wherein the light generated by the diode laser engine has a wavelength between 1380 nm and 1570 nm and the dermal temperature is maintained within the desired heating of greater than 39 degrees Celsius and less than 45 degrees Celsius.
A shovel having a machine guidance function or a machine control function, the shovel comprising: a lower traveling body ; an upper turning body turnably mounted on the lower traveling body ; a cab mounted on the upper turning body ; an attachment attached to the upper turning body ; and a display device (D3) provided in the cab , wherein the display device (D3) is configured to display a first image and a second image , the first image including a first graphic (G1) representing a position of a preset target work surface and a second graphic (G2) vertically arranged relative to the first graphic (G1), the second graphic (G2) representing a change in a size of a distance between a working part of the attachment and the target work surface by changing an indicator position, characterized in that the second image represents the change in the size of the distance from the working part of the attachment to the target work surface by changing a display format in a same part, and the first graphic (G1) is displayed at a same height as the second image . a lower traveling body ; an upper turning body turnably mounted on the lower traveling body ; a cab mounted on the upper turning body ; an attachment attached to the upper turning body ; and a display device (D3) provided in the cab , wherein the display device (D3) is configured to display a first image and a second image , the first image including a first graphic (G1) representing a position of a preset target work surface and a second graphic (G2) vertically arranged relative to the first graphic (G1), the second graphic (G2) representing a change in a size of a distance between a working part of the attachment and the target work surface by changing an indicator position, characterized in that the second image represents the change in the size of the distance from the working part of the attachment to the target work surface by changing a display format in a same part, and the first graphic (G1) is displayed at a same height as the second image .
Motor vehicle structure with a sunroof comprising: - a body comprising in its top part lateral sills comprising the upper edges of the lateral door openings, a sill front crossmember , and, at the rear part, a lower rear crossmember with which there is integral a shelf structure extending inside a rear passenger space of the vehicle, and covered with a lining ; - a roof frame defining at least one opening , and being configured to be able to act as a support for at least one movable roof closing one part of the opening and for at least one glazed rear part forming a rear windshield closing another part of the opening , the roof frame comprising at least one front end crossmember and one rear end crossmember which are connected by longitudinal beams , characterized in that : - the roof frame forms a continuous frame which is mounted on upper faces of the lateral sills , of the sill front crossmember and the lower rear crossmember of the body, the rear end crossmember of the roof frame being mounted on the lower rear crossmember of the body; - a support for an actuation member of the movable roof is disposed between the rear shelf structure and its lining , close to the rear end crossmember of the roof frame. - a body comprising in its top part lateral sills comprising the upper edges of the lateral door openings, a sill front crossmember , and, at the rear part, a lower rear crossmember with which there is integral a shelf structure extending inside a rear passenger space of the vehicle, and covered with a lining ; - a roof frame defining at least one opening , and being configured to be able to act as a support for at least one movable roof closing one part of the opening and for at least one glazed rear part forming a rear windshield closing another part of the opening , the roof frame comprising at least one front end crossmember and one rear end crossmember which are connected by longitudinal beams , - the roof frame forms a continuous frame which is mounted on upper faces of the lateral sills , of the sill front crossmember and the lower rear crossmember of the body, the rear end crossmember of the roof frame being mounted on the lower rear crossmember of the body; - a support for an actuation member of the movable roof is disposed between the rear shelf structure and its lining , close to the rear end crossmember of the roof frame.
A 3D printing device defined by a polar coordinate frame including an r-axis, a z-axis, and a rotational theta axis, the 3D printing device comprising: a base including a top surface ; a rotary printing stage rotatably attached to the top surface of the base and configured to rotate between ends of the rotational theta axis; a pair of towers disposed along a pair of axes aligned with the z-axis; a rail disposed along the r-axis and slidably coupled to the pair of towers to slide along the z-axis; a print head slidably disposed on the rail; a master printing tool coupling component joined to the print head to form a first portion of a coupled tool assembly ; characterized by a rotatable tool carousel rotatably coupled to the base , the rotatable tool carousel including a plurality of bays to removably house a respective plurality of printing tools , each printing tool including a printing tool body to form a second portion of the coupled tool assembly , the printing tool body configured to couple with the master printing tool coupling component (1120 to form the coupled tool assembly wherein the first portion of the coupled tool assembly is locked and coupled to the second portion of the coupled tool assembly such that the printing tool is removable from a respective bay (117A-117G) of the plurality of bays that houses the printing tool when the coupled tool assembly moves along the r-axis in a direction opposite from the rotatable tool carousel . a base including a top surface ; a rotary printing stage rotatably attached to the top surface of the base and configured to rotate between ends of the rotational theta axis; a pair of towers disposed along a pair of axes aligned with the z-axis; a rail disposed along the r-axis and slidably coupled to the pair of towers to slide along the z-axis; a print head slidably disposed on the rail; a master printing tool coupling component joined to the print head to form a first portion of a coupled tool assembly ; characterized by a rotatable tool carousel rotatably coupled to the base , the rotatable tool carousel including a plurality of bays to removably house a respective plurality of printing tools , each printing tool including a printing tool body to form a second portion of the coupled tool assembly , the printing tool body configured to couple with the master printing tool coupling component (1120 to form the coupled tool assembly wherein the first portion of the coupled tool assembly is locked and coupled to the second portion of the coupled tool assembly such that the printing tool is removable from a respective bay (117A-117G) of the plurality of bays that houses the printing tool when the coupled tool assembly moves along the r-axis in a direction opposite from the rotatable tool carousel .
A method for pre-charging a power conversion device , wherein the power conversion device is configured to perform power conversion between a charging pile and a traction battery, and the method comprises: receiving , by the power conversion device , a first message sent by a battery management system of the traction battery, and the first message is configured to indicate that the battery management system is ready for charging; performing , by the power conversion device , a pre-charging, and the pre-charging comprises: charging a capacitor in the power conversion device ; and forwarding , by the power conversion device , the first message to the charging pile after the pre-charging is completed. receiving , by the power conversion device , a first message sent by a battery management system of the traction battery, and the first message is configured to indicate that the battery management system is ready for charging; performing , by the power conversion device , a pre-charging, and the pre-charging comprises: charging a capacitor in the power conversion device ; and forwarding , by the power conversion device , the first message to the charging pile after the pre-charging is completed.
A method of receiving data by a UE which operates under a Non-Orthogonal Multiple Access, NOMA, scheme, the method comprising: receiving, from a base station, within a same physical resource, a combined signal comprising a first signal and a second signal that are superimposed on each other (S901); the method being further comprised by applying a phase rotation information for the first signal and the second signal (S902) by determining a power ratio between the first signal and the second signal and determining the phase rotation information based on the power ratio; removing, from the combined signal, the second signal based on the phase rotation information (S903); and decoding the first signal from the combined signal (S904), wherein the first signal and the second signal are for different applications of the same UE, wherein the phase rotation information comprises a first phase angle of a first signal constellation of the first signal and a second phase angle of a second signal constellation of the second signal. receiving, from a base station, within a same physical resource, a combined signal comprising a first signal and a second signal that are superimposed on each other (S901); the method being further comprised by applying a phase rotation information for the first signal and the second signal (S902) by determining a power ratio between the first signal and the second signal and determining the phase rotation information based on the power ratio; removing, from the combined signal, the second signal based on the phase rotation information (S903); and decoding the first signal from the combined signal (S904), wherein the first signal and the second signal are for different applications of the same UE, wherein the phase rotation information comprises a first phase angle of a first signal constellation of the first signal and a second phase angle of a second signal constellation of the second signal.
A method for manufacturing a product in the form of a sheet or a block, comprising: preparing an initial mixture which mainly comprises one or more stones or a stone-like granular material having a selected particle size and a binder; depositing a layer of the initial mixture having a predetermined thickness onto a surface of a conveyor belt ; performing prepressing and obtaining a roughly formed material; systematically depositing a plurality of layers of initial mixtures onto the surface of the conveyor belt in parallel, such that each of the layers is not superposed in a direction perpendicular to the surface of the conveyor belt , but arranged in sequence in a direction of width of the conveyor belt to form a multi-component or composite mixture structure; the conveyor belt conveys the multi-component or composite mixture into a rotated container or support member; after discharged from the rotated container or support member, a final mixture is conveyed to perform subsequent pre-compression and hardening; characterized in that one or more of the layers of the initial mixtures deposited on the surface of the conveyor belt in parallel are reprocessed respectively according to respective requirement of technology by using a spouting plant or a dusting apparatus. preparing an initial mixture which mainly comprises one or more stones or a stone-like granular material having a selected particle size and a binder; depositing a layer of the initial mixture having a predetermined thickness onto a surface of a conveyor belt ; performing prepressing and obtaining a roughly formed material; systematically depositing a plurality of layers of initial mixtures onto the surface of the conveyor belt in parallel, such that each of the layers is not superposed in a direction perpendicular to the surface of the conveyor belt , but arranged in sequence in a direction of width of the conveyor belt to form a multi-component or composite mixture structure; the conveyor belt conveys the multi-component or composite mixture into a rotated container or support member; after discharged from the rotated container or support member, a final mixture is conveyed to perform subsequent pre-compression and hardening; characterized in that one or more of the layers of the initial mixtures deposited on the surface of the conveyor belt in parallel are reprocessed respectively according to respective requirement of technology by using a spouting plant or a dusting apparatus.
A method for optical bonding a cover with a curved surface to a rectangular flat display substrate to form a display, wherein the display comprises a rectangular shaped dam as a stick-on or built-in member on the cover, the method comprising: applying a bonding material on the curved surface of the cover to adhere the cover to the flat display substrate to form the display, and placing the display substrate on the uncured bonding material, wherein the dam is used to contain the bonding material disposed between the display substrate and the cover, characterized in that the display substrate is placed such that it is spaced from the rectangular shaped dam along its periphery when seen in a projection onto a plane parallel to the flat display substrate. applying a bonding material on the curved surface of the cover to adhere the cover to the flat display substrate to form the display, and placing the display substrate on the uncured bonding material, wherein the dam is used to contain the bonding material disposed between the display substrate and the cover, characterized in that the display substrate is placed such that it is spaced from the rectangular shaped dam along its periphery when seen in a projection onto a plane parallel to the flat display substrate.
A method for controlling the growth of eukaryotic cells, the method comprising: - receiving, by a control logic , a target cell density and a target time , the target cell density representing a desired cell density of the eukaryotic cells at the target time, the target time representing a future point in time; - cultivating the eukaryotic cells in a culture medium (M1) of a first tank ; for each of a plurality of time intervals: • measuring the cell density of the eukaryotic cells in the culture medium; • computing, by the control logic, a predicted cell density at the target time as a function of at least the measured cell density; • comparing, by the control logic, the predicted cell density and the target cell density; • adjusting, by the control logic, the temperature of the culture medium in the first tank if the predicted cell density deviates from the target cell density by - increasing the temperature by 0.1 °C to 1°C if the predicted cell density is lower than the target cell density; or - decreasing the temperature by 0.1 °C to 1°C if the predicted cell density is higher than the target cell density. - receiving, by a control logic , a target cell density and a target time , the target cell density representing a desired cell density of the eukaryotic cells at the target time, the target time representing a future point in time; - cultivating the eukaryotic cells in a culture medium (M1) of a first tank ; for each of a plurality of time intervals: • measuring the cell density of the eukaryotic cells in the culture medium; • computing, by the control logic, a predicted cell density at the target time as a function of at least the measured cell density; • comparing, by the control logic, the predicted cell density and the target cell density; • adjusting, by the control logic, the temperature of the culture medium in the first tank if the predicted cell density deviates from the target cell density by - increasing the temperature by 0.1 °C to 1°C if the predicted cell density is lower than the target cell density; or - decreasing the temperature by 0.1 °C to 1°C if the predicted cell density is higher than the target cell density. • measuring the cell density of the eukaryotic cells in the culture medium; • computing, by the control logic, a predicted cell density at the target time as a function of at least the measured cell density; • comparing, by the control logic, the predicted cell density and the target cell density; • adjusting, by the control logic, the temperature of the culture medium in the first tank if the predicted cell density deviates from the target cell density by - increasing the temperature by 0.1 °C to 1°C if the predicted cell density is lower than the target cell density; or - decreasing the temperature by 0.1 °C to 1°C if the predicted cell density is higher than the target cell density. - increasing the temperature by 0.1 °C to 1°C if the predicted cell density is lower than the target cell density; or - decreasing the temperature by 0.1 °C to 1°C if the predicted cell density is higher than the target cell density.
Assembly for connecting a flat body to a voltage supply, having a ribbon cable , a control unit , and a connection element , wherein the voltage supply is provided at least to supply the control unit with an electric voltage and the flat body has - an electrically conductive structure , - a capacitive switching surface for generating a control signal, and the control unit is provided to receive the control signal, - wherein the assembly has a housing with a line connection between an electrical conductor and a flat strip conductor running in the ribbon cable - wherein the control unit is arranged in the housing , characterized in that the control unit is embedded in an insulating material between the flat body and the connection element and that the housing has a setting means for adjusting a sensitivity of the control unit . - an electrically conductive structure , - a capacitive switching surface for generating a control signal, and the control unit is provided to receive the control signal, - wherein the assembly has a housing with a line connection between an electrical conductor and a flat strip conductor running in the ribbon cable - wherein the control unit is arranged in the housing , characterized in that the control unit is embedded in an insulating material between the flat body and the connection element and that the housing has a setting means for adjusting a sensitivity of the control unit . characterized in that the control unit is embedded in an insulating material between the flat body and the connection element and that the housing has a setting means for adjusting a sensitivity of the control unit .
A method for wireless communications by a user equipment, UE, (115-a), comprising: receiving, from a base station, a waveform reporting request instructing the UE to measure a waveform, wherein the waveform includes a reference signal, such as a positioning reference signal or a channel state information reference signal; identifying a set of reporting parameters for sampling the waveform; generating samples of the waveform based at least in part on the set of reporting parameters; and transmitting, to the base station, a waveform report that includes the samples of the waveform generated based at least in part on the set of reporting parameters. receiving, from a base station, a waveform reporting request instructing the UE to measure a waveform, wherein the waveform includes a reference signal, such as a positioning reference signal or a channel state information reference signal; identifying a set of reporting parameters for sampling the waveform; generating samples of the waveform based at least in part on the set of reporting parameters; and transmitting, to the base station, a waveform report that includes the samples of the waveform generated based at least in part on the set of reporting parameters.