mhurhangee/patent-ind-claim-en huggingface dataset:
A non-transitory computer readable medium comprising instructions which, when executed by one or more hardware processors, causes performance of operations comprising: configuring, by a first controller , a first access point within a Wireless Local Area Network, WLAN; responsive to a client device associating with the first access point , identifying, by the first access point , a second controller that is a primary controller for the client device, wherein a primary controller is a controller that is to maintain information corresponding to the client device and direct network traffic to and from the client device, wherein the second controller is different than the first controller that configures the first access point ; obtaining, by the first access point from the second controller , information corresponding to the client device; communicating, by the first access point with the client device , based on the information corresponding to the client device; and transmitting, by the first access point , network traffic received from the client device to the second controller , without transmitting the network traffic to the first controller . configuring, by a first controller , a first access point within a Wireless Local Area Network, WLAN; responsive to a client device associating with the first access point , identifying, by the first access point , a second controller that is a primary controller for the client device, wherein a primary controller is a controller that is to maintain information corresponding to the client device and direct network traffic to and from the client device, wherein the second controller is different than the first controller that configures the first access point ; obtaining, by the first access point from the second controller , information corresponding to the client device; communicating, by the first access point with the client device , based on the information corresponding to the client device; and transmitting, by the first access point , network traffic received from the client device to the second controller , without transmitting the network traffic to the first controller .
A light emitting diode, LED, comprising: a phosphor sheet comprising a mounting area and a plurality of supporters formed on a bottom surface of the mounting area ; and an LED chip supported by the plurality of supporters such that a light emission surface of the LED chip is bonded to an inside of the mounting area with adhesive filled in the phosphor sheet at a height, wherein sidewalls of the LED chip are in contact with the mounting area . a phosphor sheet comprising a mounting area and a plurality of supporters formed on a bottom surface of the mounting area ; and an LED chip supported by the plurality of supporters such that a light emission surface of the LED chip is bonded to an inside of the mounting area with adhesive filled in the phosphor sheet at a height, wherein sidewalls of the LED chip are in contact with the mounting area .
A device for dividing a surface into partial surfaces, comprising a frame surrounding the surface and at least one bar arranged on the frame , wherein the bar is arranged on the frame in such a way that at least two partial surfaces are formed, and the bar is arranged on the frame such that it can be displaced along a first direction , so that the dimensions of the partial surfaces can be changed in one direction by displacing the bar , wherein a transverse bar is arranged on the bar at an angle, preferably at a substantially right angle, the transverse bar being arranged on the frame such that it can be displaced along a second direction , so that the bar and the transverse bar form at least two partial surfaces whose sizes can be changed by displacing the bar and the transverse bar , wherein fastening devices, for example spikes , are provided for fastening bags, pouches, wall elements, tarpaulins or other elements, characterised in that wall elements are provided on the bar and on the transverse bar .
A system for loading pellets comprising an articulated or break barrel type barrel , a stock on which a chamber is fixed, said chamber ending externally with a fork where the barrel is articulated, the barrel comprising a pellet chamber , a magazine of pellets and articulating means , wherein the system comprises: - a first structure with a central section and two ends which are housed in fork of chamber , - a support where the central section of the first structure with forward and reverse movement thereof is positioned, at least partially, - a housing for said magazine , - a pushing means , linked to the first structure , arranged on the support ; the magazine being laid on the barrel , when the barrel is closed and the magazine being faced to the pellet chamber with the barrel at a moment of the barrel break trajectory, with a pellet placed in front of said pellet chamber at the end of the break trajectory. - a first structure with a central section and two ends which are housed in fork of chamber , - a support where the central section of the first structure with forward and reverse movement thereof is positioned, at least partially, - a housing for said magazine , - a pushing means , linked to the first structure , arranged on the support ;
A method of wireless communication, comprising: performing , by a first scheduling entity that is co-located at a site with a second scheduling entity, a first beam sweep, wherein the first beam sweep includes transmitting a plurality of directional beams; and transmitting a control signal, by the first scheduling entity, to a controllable reflective surface to control the controllable reflective surface to reduce a likelihood of a redirection, by the controllable reflective surface, of a directional beam of a potential second beam sweep by the second scheduling entity towards a scheduled entity associated with the second scheduling entity. performing , by a first scheduling entity that is co-located at a site with a second scheduling entity, a first beam sweep, wherein the first beam sweep includes transmitting a plurality of directional beams; and transmitting a control signal, by the first scheduling entity, to a controllable reflective surface to control the controllable reflective surface to reduce a likelihood of a redirection, by the controllable reflective surface, of a directional beam of a potential second beam sweep by the second scheduling entity towards a scheduled entity associated with the second scheduling entity.
A variable area turbine nozzle, VATN, system, comprising: a gas turbine engine comprising: a compressor configured to supply compressed air; a combustor configured to receive at least a portion of the compressed air and a flow of fuel, and to generate a flow of combusted gas; a turbine coupled to receive a core flow of the combusted gas from the combustor to rotate a turbine rotor; a turbine inlet nozzle disposed between the combustor and the turbine rotor, and configured to direct the combusted gas to the turbine rotor; and a number of vanes disposed in the turbine inlet nozzle; a drive system configured to rotate the vanes to vary a flow area through which the core flow passes; and a controller, wherein the drive system and the controller are configured to adjust a pressure ratio of the gas turbine engine to compensate for changing operational requirements of the gas turbine engine by rotating to positions matching the changing operational requirements; wherein the gas turbine engine is operable at varying altitudes; the drive system and the controller are configured to maintain a flat rating of the gas turbine engine power while the altitude changes by increasingly opening the vanes as the altitude increases, and keeping the core flow constant while pressure ratio of the turbine increases with increasing altitude to maintain the flat rating. a gas turbine engine comprising: a compressor configured to supply compressed air; a combustor configured to receive at least a portion of the compressed air and a flow of fuel, and to generate a flow of combusted gas; a turbine coupled to receive a core flow of the combusted gas from the combustor to rotate a turbine rotor; a turbine inlet nozzle disposed between the combustor and the turbine rotor, and configured to direct the combusted gas to the turbine rotor; and a number of vanes disposed in the turbine inlet nozzle; a compressor configured to supply compressed air; a combustor configured to receive at least a portion of the compressed air and a flow of fuel, and to generate a flow of combusted gas; a turbine coupled to receive a core flow of the combusted gas from the combustor to rotate a turbine rotor; a turbine inlet nozzle disposed between the combustor and the turbine rotor, and configured to direct the combusted gas to the turbine rotor; and a number of vanes disposed in the turbine inlet nozzle; a drive system configured to rotate the vanes to vary a flow area through which the core flow passes; and a controller, wherein the drive system and the controller are configured to adjust a pressure ratio of the gas turbine engine to compensate for changing operational requirements of the gas turbine engine by rotating to positions matching the changing operational requirements; wherein the gas turbine engine is operable at varying altitudes; the drive system and the controller are configured to maintain a flat rating of the gas turbine engine power while the altitude changes by increasingly opening the vanes as the altitude increases, and keeping the core flow constant while pressure ratio of the turbine increases with increasing altitude to maintain the flat rating.
An apparatus, comprising: a speaker device , comprising: a membrane positioned in a first plane; and a shutter positioned in a second plane that is substantially separated from the first plane; and a controller electrically coupled to the membrane and the shutter and configured to respectively apply a signal to the membrane and the shutter ; wherein the membrane is configured to oscillate in response to the signal along a first directional path and at a first frequency effective to generate an ultrasonic acoustic signal; and wherein the shutter is configured to move in response to the signal along a second directional path substantially perpendicular to the first directional path, thereby modulating the ultrasonic acoustic signal such that an audio signal is generated. a speaker device , comprising: a membrane positioned in a first plane; and a shutter positioned in a second plane that is substantially separated from the first plane; and a membrane positioned in a first plane; and a shutter positioned in a second plane that is substantially separated from the first plane; and a controller electrically coupled to the membrane and the shutter and configured to respectively apply a signal to the membrane and the shutter ; wherein the membrane is configured to oscillate in response to the signal along a first directional path and at a first frequency effective to generate an ultrasonic acoustic signal; and wherein the shutter is configured to move in response to the signal along a second directional path substantially perpendicular to the first directional path, thereby modulating the ultrasonic acoustic signal such that an audio signal is generated.
An immunoassay method for detecting a cleaved high molecular weight kininogen (HMWK), the method comprising: (i) providing a support member, on which a first agent that specifically binds a cleaved HMWK is immobilized; (ii) contacting the support member of (i) with a biological sample suspected of containing a cleaved HMWK; (iii) contacting the support member obtained in (ii) with a second agent that binds HMWK, wherein the second agent is conjugated to a label; and (iv) detecting a signal released from the label of the second agent that is bound to the support member, directly or indirectly, to determine the level of the cleaved HMWK in the biological sample; wherein step (ii) is performed in the presence of ZnCl 2 . (i) providing a support member, on which a first agent that specifically binds a cleaved HMWK is immobilized; (ii) contacting the support member of (i) with a biological sample suspected of containing a cleaved HMWK; (iii) contacting the support member obtained in (ii) with a second agent that binds HMWK, wherein the second agent is conjugated to a label; and (iv) detecting a signal released from the label of the second agent that is bound to the support member, directly or indirectly, to determine the level of the cleaved HMWK in the biological sample;
A light receiving device comprising a light receiver comprising pixels arranged in an array in a first direction and in a second direction intersecting with the first direction, each of the pixels having one light receiving element or more, and the light receiver comprising at least one light receiving area having continuous pixels out of the pixels , outputting signals based on intensities of light received in the continuous pixels, and being changed in position in the light receiver according to a signal indicating a position in the first direction and a position in the second direction; and characterized by a switch circuitry configured to re-arrange the signals received from each of the pixels belonging in the light receiving area of the light receiving circuit based on relative position of each of the pixels in the light receiving area . a light receiver comprising pixels arranged in an array in a first direction and in a second direction intersecting with the first direction, each of the pixels having one light receiving element or more, and the light receiver comprising at least one light receiving area having continuous pixels out of the pixels , outputting signals based on intensities of light received in the continuous pixels, and being changed in position in the light receiver according to a signal indicating a position in the first direction and a position in the second direction; and characterized by a switch circuitry configured to re-arrange the signals received from each of the pixels belonging in the light receiving area of the light receiving circuit based on relative position of each of the pixels in the light receiving area .
A photovoltaic power plant system for power generation, the photovoltaic power plant system comprising one or more photovoltaic clusters and one or more modular multilevel converters , wherein: - each of the one or more photovoltaic clusters comprises a number of photovoltaic strings connected to one or more MPPT DC/DC converters via a combiner box , the combiner box electrically combining the outputs from the photovoltaic strings , wherein the one or more MPPT DC/DC converters comprise one or more inputs connected to the photovoltaic strings via the combiner box , and an output connected to a common LVDC bus , - each of the one or more photovoltaic clusters comprises one or more DC/DC converters comprising an input connected to the LVDC bus , and an output connected to an MVDC collection grid , wherein the DC/DC converter comprises a number of galvanically isolated converter cells connected in parallel at their input to the common LVDC bus , and in series at their output for increasing the output voltage to a MV level, each converter cell comprising at its output an extra converter cell and a bypass switch for redundancy, and - each of the one or more modular multilevel converters comprises an input connected to the one or more photovoltaic clusters via the MVDC collection grid and an output connected to a transmission grid . - each of the one or more photovoltaic clusters comprises a number of photovoltaic strings connected to one or more MPPT DC/DC converters via a combiner box , the combiner box electrically combining the outputs from the photovoltaic strings , wherein the one or more MPPT DC/DC converters comprise one or more inputs connected to the photovoltaic strings via the combiner box , and an output connected to a common LVDC bus , - each of the one or more photovoltaic clusters comprises one or more DC/DC converters comprising an input connected to the LVDC bus , and an output connected to an MVDC collection grid , wherein the DC/DC converter comprises a number of galvanically isolated converter cells connected in parallel at their input to the common LVDC bus , and in series at their output for increasing the output voltage to a MV level, each converter cell comprising at its output an extra converter cell and a bypass switch for redundancy, and - each of the one or more modular multilevel converters comprises an input connected to the one or more photovoltaic clusters via the MVDC collection grid and an output connected to a transmission grid .
A data transmission method, comprising: obtaining at least two pieces of service data , and determining frequency sub-bands of the at least two pieces of service data , wherein the frequency sub-bands of the at least two pieces of service data are different frequency sub-bands of a frequency band of a same optical carrier; mapping each piece of service data to the frequency sub-band of each piece of service data , to generate at least two to-be-sent service signals, wherein the at least two to-be-sent service signals are service signals pre-compensated based on dispersion and/or non-linear characteristics of the at least two to-be-sent service signals; and sending the at least two to-be-sent service signals through the same optical carrier characterized in that the determining frequency sub-bands of the at least two pieces of service data comprises: determining the frequency sub-bands of the at least two pieces of service data based on transmission distances of the at least two pieces of service data, wherein for each piece of service data, if the transmission distance of the service data is larger, a location of the frequency sub-band of the service data is closer to a central location of the frequency band of the optical carrier. obtaining at least two pieces of service data , and determining frequency sub-bands of the at least two pieces of service data , wherein the frequency sub-bands of the at least two pieces of service data are different frequency sub-bands of a frequency band of a same optical carrier; mapping each piece of service data to the frequency sub-band of each piece of service data , to generate at least two to-be-sent service signals, wherein the at least two to-be-sent service signals are service signals pre-compensated based on dispersion and/or non-linear characteristics of the at least two to-be-sent service signals; and sending the at least two to-be-sent service signals through the same optical carrier characterized in that the determining frequency sub-bands of the at least two pieces of service data comprises: determining the frequency sub-bands of the at least two pieces of service data based on transmission distances of the at least two pieces of service data, wherein for each piece of service data, if the transmission distance of the service data is larger, a location of the frequency sub-band of the service data is closer to a central location of the frequency band of the optical carrier. determining the frequency sub-bands of the at least two pieces of service data based on transmission distances of the at least two pieces of service data, wherein for each piece of service data, if the transmission distance of the service data is larger, a location of the frequency sub-band of the service data is closer to a central location of the frequency band of the optical carrier.
An adhesive composition comprising a polyisobutylene polymer component having an average weight average molecular weight ranging from 15,000 g/mole to 300,000 g/mole based on Gel Permeation Chromatography (GPC) utilizing polystyrene standards; a styrene-isobutylene block copolymer component; and wherein the weight ratio of styrene-isobutylene block copolymer to polyisobutylene polymer of the adhesive composition is greater than 2.2:1.
An X-ray table (t, 110, 210, 310, 410) that is reversibly rotatable without interfering with an X-ray imaging unit (x, 140, 440) while a top surface thereof faces the X-ray imaging unit (x, 140, 440), the X-ray table (t, 110, 210, 310, 410) comprising: a top plate ; and an X-ray receiver that is coupled to the surface of the top plate and rotates together with the top plate, characterised in that the X-ray table further comprises a mobile member that is on one end rotatably coupled to a bottom surface of the top plate by a rotary hinge , wherein a rotation axis of the mobile member is located at a center in a length direction of the top plate or in a vicinity of the center, wherein a first support including casters is rotatably coupled to another end of the mobile member; and wherein a second support including casters is rotatably coupled to the top plate ; wherein the mobile member is located in a horizontal posture and in contact with the bottom surface of the top plate when the top plate is located in the horizontal posture, and wherein the mobile member is rotated with respect to the top plate when the top plate rotates to a vertical posture until the mobile member is also located in the vertical posture and in contact with another part of the bottom surface of the top plate . a top plate ; and an X-ray receiver that is coupled to the surface of the top plate and rotates together with the top plate, characterised in that the X-ray table further comprises a mobile member that is on one end rotatably coupled to a bottom surface of the top plate by a rotary hinge , wherein a rotation axis of the mobile member is located at a center in a length direction of the top plate or in a vicinity of the center, wherein a first support including casters is rotatably coupled to another end of the mobile member; and wherein a second support including casters is rotatably coupled to the top plate ; wherein the mobile member is located in a horizontal posture and in contact with the bottom surface of the top plate when the top plate is located in the horizontal posture, and wherein the mobile member is rotated with respect to the top plate when the top plate rotates to a vertical posture until the mobile member is also located in the vertical posture and in contact with another part of the bottom surface of the top plate .
A hydrophobic coating composition comprising: a formulation of alumina- silica based nano composite, the formulation comprising: silica nano-particles derived from TetraEthoxySilane (TEOS) as a precursor for silica and HexaDecylTriMethoxySilane (HDTMS) as an organic modifier, wherein ratio of TEOS and HDTMS is in the range of about 0.15 to 0.2, aluminum iso propoxide as a precursor for alumina, ammonia as a catalyst, wherein the catalyst is a pH modifier; and one or more resin onto which the formulation is dispersed to form the hydrophobic coating composition, wherein ratio of the resin and the formulation is in the range of about 10 to 17 wt %. a formulation of alumina- silica based nano composite, the formulation comprising: silica nano-particles derived from TetraEthoxySilane (TEOS) as a precursor for silica and HexaDecylTriMethoxySilane (HDTMS) as an organic modifier, wherein ratio of TEOS and HDTMS is in the range of about 0.15 to 0.2, aluminum iso propoxide as a precursor for alumina, ammonia as a catalyst, wherein the catalyst is a pH modifier; and silica nano-particles derived from TetraEthoxySilane (TEOS) as a precursor for silica and HexaDecylTriMethoxySilane (HDTMS) as an organic modifier, wherein ratio of TEOS and HDTMS is in the range of about 0.15 to 0.2, aluminum iso propoxide as a precursor for alumina, ammonia as a catalyst, wherein the catalyst is a pH modifier; and one or more resin onto which the formulation is dispersed to form the hydrophobic coating composition, wherein ratio of the resin and the formulation is in the range of about 10 to 17 wt %.