mhurhangee/ep-ind-claims huggingface dataset:
A traction energy storage system for a vehicle, comprising: multiple electrical energy stores, wherein each of the energy stores comprises one or more interconnected cell modules and an energy store controller connected to the at least one cell module for signal transmission purposes, and the at least one cell module respectively comprises multiple interconnected storage cells and a cell module controller connected to the storage cells for signal transmission purposes, wherein each cell module controller is designed to detect cell states of the storage cells connected for signal transmission purposes and to take the detected cell states as a basis for outputting a module state, and wherein each energy store controller is designed to take the at least one module state as a basis for determining a storage state; and a system controller connected to the energy store controllers for signal transmission purposes, wherein the system controller is designed to take the storage states as a basis for outputting a control instruction for aligning the cell states with the energy store controllers, and wherein the energy store controllers are further designed to control the cell module controllers to align the cell states according to the control instruction. multiple electrical energy stores, wherein each of the energy stores comprises one or more interconnected cell modules and an energy store controller connected to the at least one cell module for signal transmission purposes, and the at least one cell module respectively comprises multiple interconnected storage cells and a cell module controller connected to the storage cells for signal transmission purposes, wherein each cell module controller is designed to detect cell states of the storage cells connected for signal transmission purposes and to take the detected cell states as a basis for outputting a module state, and wherein each energy store controller is designed to take the at least one module state as a basis for determining a storage state; and a system controller connected to the energy store controllers for signal transmission purposes, wherein the system controller is designed to take the storage states as a basis for outputting a control instruction for aligning the cell states with the energy store controllers, and wherein the energy store controllers are further designed to control the cell module controllers to align the cell states according to the control instruction.
A system for treatment of a region of a subject's body tissue, the system comprising: a housing; at least one source of electromagnetic radiation for generating treatment energy contained within the housing; a plurality of applicators, wherein each of said applicators is adapted to be placed in proximity to a treatment region of tissue of a patient's body and comprises a window having a skin-contacting surface through which the treatment energy is transmitted from the applicator to the treatment region; a plurality of umbilical cords, each of which extends from the housing to a distal end coupled to one of said plurality of applicators, each umbilical cord defining a conduit through which treatment energy generated by the at least one electromagnetic radiation source is delivered from the housing to the applicator; a frame configured to be coupled to the patient's body in a fixed position relative to the treatment region and defining at least one aperture into which a surface of the treatment region can extend, the frame being configured to removably couple to at least one applicator such that at least a portion of the skin-contacting surface of the window is disposed in contact with at least a portion of the surface of the treatment region extending into said aperture upon coupling with the frame; and at least one mask configured to be coupled to the frame, said mask configured to occlude a portion of the aperture of the frame so as to prevent a portion of the surface of the patient' s head or neck from extending into the aperture and into contact with the window of the applicator. at least one source of electromagnetic radiation for generating treatment energy contained within the housing; a plurality of applicators, wherein each of said applicators is adapted to be placed in proximity to a treatment region of tissue of a patient's body and comprises a window having a skin-contacting surface through which the treatment energy is transmitted from the applicator to the treatment region; a plurality of umbilical cords, each of which extends from the housing to a distal end coupled to one of said plurality of applicators, each umbilical cord defining a conduit through which treatment energy generated by the at least one electromagnetic radiation source is delivered from the housing to the applicator; a frame configured to be coupled to the patient's body in a fixed position relative to the treatment region and defining at least one aperture into which a surface of the treatment region can extend, the frame being configured to removably couple to at least one applicator such that at least a portion of the skin-contacting surface of the window is disposed in contact with at least a portion of the surface of the treatment region extending into said aperture upon coupling with the frame; and at least one mask configured to be coupled to the frame, said mask configured to occlude a portion of the aperture of the frame so as to prevent a portion of the surface of the patient' s head or neck from extending into the aperture and into contact with the window of the applicator.
A control system of an air conditioning system, the control system comprising: a display means for being provided in an indoor unit of the air conditioning system for emitting light; a human detection sensor for detecting movement of a person in a predetermined region; a calculation means adapted to calculate an amount of activity of the person detected by the human detection sensor within a predetermined period; a storage means adapted to store correspondence information representing a correspondence between a time slot and day and night information serving as identification information for distinguishing between day and night; and a control means adapted to acquire current time information, to control the luminance of the display means based on the day and night information corresponding to the current time read out of the correspondence information and the amount of activity. a display means for being provided in an indoor unit of the air conditioning system for emitting light; a human detection sensor for detecting movement of a person in a predetermined region; a calculation means adapted to calculate an amount of activity of the person detected by the human detection sensor within a predetermined period; a storage means adapted to store correspondence information representing a correspondence between a time slot and day and night information serving as identification information for distinguishing between day and night; and a control means adapted to acquire current time information, to control the luminance of the display means based on the day and night information corresponding to the current time read out of the correspondence information and the amount of activity.
A syringe comprising a barrel with a nose end and needle, the nose end of the syringe characterized by: a needle redirection device further comprising a slide member attached to the nose end of the barrel with a tip end of the needle projecting forwardly of the slide member in coaxial alignment with the barrel during the injection; the slide member being configured to bend the tip end of the needle upon the application of manual pressure to a touch pad of the slide member following the injection, thereby moving the slide member transversely relative to the nose end of the coaxially aligned needle and barrel until the tip end of the needle is bent transversely is disposed behind and is protected by the slide member, wherein the nose end further comprises a slide support structure to which the slide member is attached so as to permit relative transverse slidable movement between the slide member and the slide support structure, wherein the needle is inserted through an aperture of the slide support structure and is attached in fixed relation to the inside of the slide support structure. a needle redirection device further comprising a slide member attached to the nose end of the barrel with a tip end of the needle projecting forwardly of the slide member in coaxial alignment with the barrel during the injection; the slide member being configured to bend the tip end of the needle upon the application of manual pressure to a touch pad of the slide member following the injection, thereby moving the slide member transversely relative to the nose end of the coaxially aligned needle and barrel until the tip end of the needle is bent transversely is disposed behind and is protected by the slide member, wherein the nose end further comprises a slide support structure to which the slide member is attached so as to permit relative transverse slidable movement between the slide member and the slide support structure, wherein the needle is inserted through an aperture of the slide support structure and is attached in fixed relation to the inside of the slide support structure.
A solar assisted gas turbine system, comprising: a compressor for compressing air; a combustor for burning the compressor-compressed air and a fuel; a gas turbine including a turbine driven by combustion gases generated in the combustor; characterized in that the solar assisted gas turbine system further comprises: a heat collector for collecting solar heat, heating pressure-boosted water with the solar heat to a temperature that is higher than a boiling point under an atmospheric pressure and is lower than a boiling point under the boosted pressure, and creating high-pressure hot water; and an atomizer that depressurizes the high-pressure hot water to an atmospheric pressure, thereby atomizing the high-pressure hot water, and sprays the atomized hot water into a flow of air taken into the compressor. a compressor for compressing air; a combustor for burning the compressor-compressed air and a fuel; a gas turbine including a turbine driven by combustion gases generated in the combustor; characterized in that the solar assisted gas turbine system further comprises: a heat collector for collecting solar heat, heating pressure-boosted water with the solar heat to a temperature that is higher than a boiling point under an atmospheric pressure and is lower than a boiling point under the boosted pressure, and creating high-pressure hot water; and an atomizer that depressurizes the high-pressure hot water to an atmospheric pressure, thereby atomizing the high-pressure hot water, and sprays the atomized hot water into a flow of air taken into the compressor. a heat collector for collecting solar heat, heating pressure-boosted water with the solar heat to a temperature that is higher than a boiling point under an atmospheric pressure and is lower than a boiling point under the boosted pressure, and creating high-pressure hot water; and an atomizer that depressurizes the high-pressure hot water to an atmospheric pressure, thereby atomizing the high-pressure hot water, and sprays the atomized hot water into a flow of air taken into the compressor.
A method, performed in a network node in a wireless communication network, for determining radio coverage for at least one small cell base station using a wireless device connected to the communication network, the method comprising: sending (S10c), to the wireless device, information defining at least one path along which radio conditions of the at least one small cell base station are to be measured by the wireless device, and configuring, to the wireless device, a threshold, wherein the threshold is used for a comparison with a distance between a starting point of the at least one path and a current position of the wireless device; receiving measurements of the radio conditions of the at least one small cell base station, the measurements being performed by the wireless device along the at least one path wherein the measurements by the wireless device are initiated when the distance is below the threshold; receiving position estimates defining the position of the wireless device performing the radio condition measurements; and determining radio coverage using the radio condition measurements and corresponding position estimates. sending (S10c), to the wireless device, information defining at least one path along which radio conditions of the at least one small cell base station are to be measured by the wireless device, and configuring, to the wireless device, a threshold, wherein the threshold is used for a comparison with a distance between a starting point of the at least one path and a current position of the wireless device; receiving measurements of the radio conditions of the at least one small cell base station, the measurements being performed by the wireless device along the at least one path wherein the measurements by the wireless device are initiated when the distance is below the threshold; receiving position estimates defining the position of the wireless device performing the radio condition measurements; and determining radio coverage using the radio condition measurements and corresponding position estimates.
A method of coating a filter substrate comprising a plurality of channels, wherein each channel has an open end and a closed end, which method comprises the steps of: (a) depositing a pre-determined amount of a liquid into a containment means at an upper end of the filter substrate using a shower head, wherein the shower head comprises a plurality of apertures arranged to dispense the liquid onto an upper end face of the filter substrate, and wherein the liquid has a viscosity of ≤ 600 mPa.s [600 cP] (as measured at 20 °C on a BrookfieldTM RV DVII+ Extra Pro viscometer using a SC4-27 spindle at 50 rpm) spindle speed); and (b) coating the channels having open ends at the upper end of the filter substrate with the pre-determined amount of liquid from the containment means by applying a vacuum to a lower end of the filter substrate to draw the liquid along the channels having open ends at the upper end of the filter substrate. (a) depositing a pre-determined amount of a liquid into a containment means at an upper end of the filter substrate using a shower head, wherein the shower head comprises a plurality of apertures arranged to dispense the liquid onto an upper end face of the filter substrate, and wherein the liquid has a viscosity of ≤ 600 mPa.s [600 cP] (as measured at 20 °C on a BrookfieldTM RV DVII+ Extra Pro viscometer using a SC4-27 spindle at 50 rpm) spindle speed); and (b) coating the channels having open ends at the upper end of the filter substrate with the pre-determined amount of liquid from the containment means by applying a vacuum to a lower end of the filter substrate to draw the liquid along the channels having open ends at the upper end of the filter substrate.
A handheld cleaner, comprising: a dust cup assembly (100, WD, VB), comprising: a casing (1, D1, B1); a negative pressure device (3, D3, B3) disposed in the casing and configured to suck an airflow from an environment into the casing; and a dedusting device (4, D2, B2) disposed in the casing and configured to remove dust from the sucked airflow; and a handle assembly (200, WE, VC), comprising: a handle casing (51, E1, D1) disposed to the casing and having a holding portion (512, E11, C11) for user handholding; characterized in that a power supply device (52, E2, C2) is disposed to a top of the holding portion, and/or in the holding portion, and electrically connected to the negative pressure device. a dust cup assembly (100, WD, VB), comprising: a casing (1, D1, B1); a negative pressure device (3, D3, B3) disposed in the casing and configured to suck an airflow from an environment into the casing; and a dedusting device (4, D2, B2) disposed in the casing and configured to remove dust from the sucked airflow; and a casing (1, D1, B1); a negative pressure device (3, D3, B3) disposed in the casing and configured to suck an airflow from an environment into the casing; and a dedusting device (4, D2, B2) disposed in the casing and configured to remove dust from the sucked airflow; and a handle assembly (200, WE, VC), comprising: a handle casing (51, E1, D1) disposed to the casing and having a holding portion (512, E11, C11) for user handholding; characterized in that a power supply device (52, E2, C2) is disposed to a top of the holding portion, and/or in the holding portion, and electrically connected to the negative pressure device. a handle casing (51, E1, D1) disposed to the casing and having a holding portion (512, E11, C11) for user handholding; characterized in that a power supply device (52, E2, C2) is disposed to a top of the holding portion, and/or in the holding portion, and electrically connected to the negative pressure device.
An autonomous follower vehicle, comprising: a chassis; a conveyance system (16, 18) carrying said chassis; and a controller configured to steer said conveyance system (16, 18), said autonomous follower vehicle being characterized in that the controller is further configured to execute the steps of: receiving steering radius information from a leader vehicle; and creating steering instructions for the follower vehicle dependent upon said steering radius information from said leader vehicle. a chassis; a conveyance system (16, 18) carrying said chassis; and a controller configured to steer said conveyance system (16, 18), said autonomous follower vehicle being characterized in that the controller is further configured to execute the steps of: receiving steering radius information from a leader vehicle; and creating steering instructions for the follower vehicle dependent upon said steering radius information from said leader vehicle. receiving steering radius information from a leader vehicle; and creating steering instructions for the follower vehicle dependent upon said steering radius information from said leader vehicle.
A system for managing heat generated in a tip of an endoscope, comprising a controller external to the endoscope, wherein said controller comprises a memory for storing programmatic functions and a processor for executing said programmatic functions;, an input device in data communication with said controller, wherein said input device is adapted to receive data indicative of a programmatic function and wherein said input device is configured to communicate said data indicative of a programmatic function to the controller; and, a plurality of discrete illuminators positioned within said tip and in electrical communication with said controller, wherein each of said plurality of discrete illuminators emits an amount of visible light, wherein said controller executes a programmatic function based upon said data indicative of a programmatic function that causes at least one of said plurality of discrete illuminators to emit said visible light either at a baseline illumination level that is greater than zero, or in a flash mode characterised in that in the flash mode the at least one of said plurality of discrete illuminators emits said visible light at a first illumination level that is greater than the baseline illumination level for a first period of time and at a second illumination level that is greater than zero but less than the baseline illumination level for a second period of time.
A system comprising: a moving robot configured to travel in a cleaning area, the moving robot including a controller configured to generate a map of the cleaning area, and to manage a movement of the moving robot based on the map; and a terminal configured to receive the map, to set a plurality of virtual walls in the map, and to transmit information associated with the virtual walls to the moving robot, wherein the terminal is configured to set for each of the plurality of virtual walls an attribute related to controlling an operation of the moving robot with respect to a location associated with the virtual wall, characterized in that the terminal is configured to set a level for each of the virtual walls, activate the virtual walls of a selected level and to deactivate the virtual walls of an unselected level, when a level is selected, and the moving robot is configured to divide a travelable area based on the virtual walls, to perform cleaning while traveling in the cleaning area, and to perform a specified operation according to the attribute assigned to a virtual wall when reaching the location associated with a virtual wall. a moving robot configured to travel in a cleaning area, the moving robot including a controller configured to generate a map of the cleaning area, and to manage a movement of the moving robot based on the map; and a terminal configured to receive the map, to set a plurality of virtual walls in the map, and to transmit information associated with the virtual walls to the moving robot, wherein the terminal is configured to set for each of the plurality of virtual walls an attribute related to controlling an operation of the moving robot with respect to a location associated with the virtual wall, characterized in that the terminal is configured to set a level for each of the virtual walls, activate the virtual walls of a selected level and to deactivate the virtual walls of an unselected level, when a level is selected, and the moving robot is configured to divide a travelable area based on the virtual walls, to perform cleaning while traveling in the cleaning area, and to perform a specified operation according to the attribute assigned to a virtual wall when reaching the location associated with a virtual wall.
A method, performed by a server, for determining token scope information so that a client can obtain a scoped token for a cloud service, the method comprising; requesting and receiving data of a cloud service from another server (301, 302, 401, 402, 701, 702); receiving a token scope information request for an operation of the cloud service from a client (303, 403, 703); deriving token scope information based on the data for said operation (304, 406a, 406b, 706a, 706b); and sending token scope information to the client (305, 409, 710) so that the client can request a scoped token with capabilities enabling them to access the operation of the cloud service. requesting and receiving data of a cloud service from another server (301, 302, 401, 402, 701, 702); receiving a token scope information request for an operation of the cloud service from a client (303, 403, 703); deriving token scope information based on the data for said operation (304, 406a, 406b, 706a, 706b); and sending token scope information to the client (305, 409, 710) so that the client can request a scoped token with capabilities enabling them to access the operation of the cloud service.
A stent with a marker (A, B) for confirming a position of the stent within a human body, the stent formed of wires, wherein the stent has a stent main wire formed in a zigzag pattern, and wherein a pipe (10, 11, 12), which is made of a raw material which can be recognized by at least one of an X-ray imaging apparatus and a magnetic resonance imaging apparatus is fitted to a zigzag-shaped turn-back section of the stent main wire and/or a vicinity of the turn-back section, characterized in that the pipe (10, 11, 12) as the marker (A, B) has a width of at least 2,5 mm, a length of at least 1,0 mm and a thickness of at least 0,5 mm.