mhurhangee/patent-ind-claim-en huggingface dataset:
Wind turbine rotor blade with a longitudinal direction , a maximum profile chord length and a longitudinal section , which begins at a longitudinal position with the maximum profile chord length and extends from there in the direction of the blade root and which has a suction side and a vortex generator being arranged on the suction side and having a design flow direction , wherein the design flow direction is aligned at an angle different from 90° to the longitudinal direction , characterized in that a front end of the vortex generator being first exposed to the air flow points in the direction to the blade root .
A sample analyzer comprising: a suction unit configured to suction a sample in a sample container through a stopper installed in an opening of the sample container; a rack transport unit configured to transport a sample rack holding a sample container along a transport path, and position the sample container held by the sample rack at a suction position by the suction unit; a sample transport unit in which a sample container other than the sample container transported by the rack transport unit is installed and which is configured to transport the installed sample container; a measurement unit configured to measure a sample suctioned by the suction unit from the sample container positioned at the suction position; and an analysis unit configured to analyze the sample based on the measurement result of the measurement unit, characterised in that the sample transport unit comprises a holding member configured to hold the sample container, and a rotation drive unit configured to rotate the holding member in a horizontal direction such that the sample in the sample container can be sucked by the suction unit. a suction unit configured to suction a sample in a sample container through a stopper installed in an opening of the sample container; a rack transport unit configured to transport a sample rack holding a sample container along a transport path, and position the sample container held by the sample rack at a suction position by the suction unit; a sample transport unit in which a sample container other than the sample container transported by the rack transport unit is installed and which is configured to transport the installed sample container; a measurement unit configured to measure a sample suctioned by the suction unit from the sample container positioned at the suction position; and an analysis unit configured to analyze the sample based on the measurement result of the measurement unit, characterised in that the sample transport unit comprises a holding member configured to hold the sample container, and a rotation drive unit configured to rotate the holding member in a horizontal direction such that the sample in the sample container can be sucked by the suction unit.
An aerosol-generating device comprising: a heating element configured to heat an aerosol-forming substrate for generating an aerosol; a temperature sensor for measuring a temperature of the heating element ; an aerosol monitoring means for measuring an aerosol property comprising at least one of a physical property and a chemical composition of the generated aerosol, wherein the aerosol monitoring means is positioned at or along a flow channel downstream of the heating element ; a controller configured to adjust a power supplied to the heating element based on: i) the measured heating element temperature in a first feedback control loop ; and ii) the measured aerosol property in a second feedback control loop ; an auxiliary aerosol controlling means for adjusting aerosol properties of the generated aerosol; and wherein the controller is configured to adjust at least one control variable for the auxiliary aerosol controlling means based on the measured aerosol properties in the second feedback control loop . a heating element configured to heat an aerosol-forming substrate for generating an aerosol; a temperature sensor for measuring a temperature of the heating element ; an aerosol monitoring means for measuring an aerosol property comprising at least one of a physical property and a chemical composition of the generated aerosol, wherein the aerosol monitoring means is positioned at or along a flow channel downstream of the heating element ; a controller configured to adjust a power supplied to the heating element based on: i) the measured heating element temperature in a first feedback control loop ; and ii) the measured aerosol property in a second feedback control loop ; i) the measured heating element temperature in a first feedback control loop ; and ii) the measured aerosol property in a second feedback control loop ; an auxiliary aerosol controlling means for adjusting aerosol properties of the generated aerosol; and wherein the controller is configured to adjust at least one control variable for the auxiliary aerosol controlling means based on the measured aerosol properties in the second feedback control loop .
A method for testing edge computing, comprising: obtaining (S101, S210, S310, S410, S540) a model to be tested from a mobile edge platform, wherein the mobile edge platform is associated with a deep learning model and wherein the mobile edge platform is configured to transform a model of a cloud into a model that is be applied to an edge device, the transformed model being the model to be tested; generating (S102, S220, S320, S420, S550) a test task based on the model to be tested, the test task comprising the model to be tested and an automated test program for operating the model to be tested; delivering (S103, S330, S430, S560) the test task to an edge device, to enable the edge device to operate the model to be tested by executing the automated test program; and generating (S104, S280, S360, S570) a test result based on execution information of the test task, the test result reflecting availability and correctness of the model to be tested and ability and performance of the edge device compatible with the model to be tested. obtaining (S101, S210, S310, S410, S540) a model to be tested from a mobile edge platform, wherein the mobile edge platform is associated with a deep learning model and wherein the mobile edge platform is configured to transform a model of a cloud into a model that is be applied to an edge device, the transformed model being the model to be tested; generating (S102, S220, S320, S420, S550) a test task based on the model to be tested, the test task comprising the model to be tested and an automated test program for operating the model to be tested; delivering (S103, S330, S430, S560) the test task to an edge device, to enable the edge device to operate the model to be tested by executing the automated test program; and generating (S104, S280, S360, S570) a test result based on execution information of the test task, the test result reflecting availability and correctness of the model to be tested and ability and performance of the edge device compatible with the model to be tested.
An aqueous suspension comprising: a) at least one hydraulic binder in a concentration of between 15% to 70% w/w of the total weight of the aqueous suspension; b) at least one freeze control agent in a concentration of between 1.5% to 5% w/w of the total weight of the aqueous suspension; c) an aqueous solution; and d) a stabilising agent in a concentration of between 0.3% to 2% w/w of the total weight of the aqueous suspension wherein the at least one stabilising agent is capable of reducing or preventing hydration of the hydraulic binder and wherein the at least one stabilising agent is selected from boric acid and a phosphorus-containing compound selected from metaphosphoric acid, phosphorous acid, phosphoric acid and phosphonic acid. a) at least one hydraulic binder in a concentration of between 15% to 70% w/w of the total weight of the aqueous suspension; b) at least one freeze control agent in a concentration of between 1.5% to 5% w/w of the total weight of the aqueous suspension; c) an aqueous solution; and d) a stabilising agent in a concentration of between 0.3% to 2% w/w of the total weight of the aqueous suspension wherein the at least one stabilising agent is capable of reducing or preventing hydration of the hydraulic binder and wherein the at least one stabilising agent is selected from boric acid and a phosphorus-containing compound selected from metaphosphoric acid, phosphorous acid, phosphoric acid and phosphonic acid.
A medical device, wherein the device has been formed from a monofilament fiber comprising polyhydroxyalkanoate polymer coated with a spin finish comprising Tween® 20, and wherein after the device has been formed, the device is scoured to remove the Tween® 20 leaving a residual level of Tween® 20 on the monofilament fiber of less than 0.5 weight percent.
A bag comprising: a body made of plastics material defining a volume for receiving a product; and a sealable portion for sealing an opening of the body , the sealable portion including a first layer and a second layer that is externally arranged around at least a portion of the first layer and has a higher melting point than the first layer ; wherein the sealable portion is configured such that, in use, a heating device may fuse the first layer together to seal the sealable portion and close the opening, where the second layer is configured to permit the transfer of heat from the heating device to the first layer to cause fusing but prevent the fusing of the first layer to the heating device; and wherein the second layer is formed of a material that is different to the plastics material of the body . a body made of plastics material defining a volume for receiving a product; and a sealable portion for sealing an opening of the body , the sealable portion including a first layer and a second layer that is externally arranged around at least a portion of the first layer and has a higher melting point than the first layer ; wherein the sealable portion is configured such that, in use, a heating device may fuse the first layer together to seal the sealable portion and close the opening, where the second layer is configured to permit the transfer of heat from the heating device to the first layer to cause fusing but prevent the fusing of the first layer to the heating device; and wherein the second layer is formed of a material that is different to the plastics material of the body .
A particle including: - a surface; - transition metal ions at least partially coating the surface; and - a first target molecule and a second target molecule, wherein the first and second target molecules are different to each other, wherein the particle is formed from one or more substrate molecules or atoms that embody the particle; and wherein the transition metal ions form co-ordination bonds with the substrate molecules or atoms at the particle surface, and at least one of the first target molecules and at least one of the second target molecules, thereby linking the first and second target molecules to the particle. - a surface; - transition metal ions at least partially coating the surface; and - a first target molecule and a second target molecule, wherein the first and second target molecules are different to each other,
A method for manufacturing a card comprising a transparent window with a front side and a back side , the method comprising the step of: printing (S1) a color picture on the back side of the window , characterised in that the method comprises further the step of: laser engraving (S2) a greyscale image matching the color picture on the front side of the window .
A method , implemented by a processor , the method comprising: receiving , by the processor , sensor data related to a physical asset ; obtaining , by the processor , at least a stored model of the physical asset from a data storage device , said stored model being based on data received from one or more sensors embedded or integrated with the physical asset; generating , by the processor , a visualization representation of the physical asset based on an integration of the sensor data related to the physical asset and the stored model of the physical asset ; presenting , by the processor in a shared virtual workspace accessible by a first user entity and at least one second user entity located remotely from the first user entity , the virtualization representation of the physical asset ; annotating the visualization representation with text-based comments and/or markings generated in the shared virtual workspace in response to commands and instructions of the second user entity; characterised by transmitting the annotations to a field location containing the physical asset; projecting the annotations onto the physical asset. receiving , by the processor , sensor data related to a physical asset ; obtaining , by the processor , at least a stored model of the physical asset from a data storage device , said stored model being based on data received from one or more sensors embedded or integrated with the physical asset; generating , by the processor , a visualization representation of the physical asset based on an integration of the sensor data related to the physical asset and the stored model of the physical asset ; presenting , by the processor in a shared virtual workspace accessible by a first user entity and at least one second user entity located remotely from the first user entity , the virtualization representation of the physical asset ; annotating the visualization representation with text-based comments and/or markings generated in the shared virtual workspace in response to commands and instructions of the second user entity; characterised by transmitting the annotations to a field location containing the physical asset; projecting the annotations onto the physical asset.
A method for setting different tuner and human machine interface, HMI, settings of a radio tuner with RDS functionality, comprising the steps of: providing (S205) a database of different predetermined tuner parameters with regard to country- and region-specific broadcast transmitting preferences stored in a storage unit comprised in the radio tuner ; receiving, by the radio tuner , at least one RDS signal of a broadcast comprising a PI code and an Extended Country Code, ECC, and evaluating (S210) the received at least one RDS signal; determining (S220) a current country and a current region by decoding (S222) the PI code and the ECC and determining (S222) the current country and current region from the decoded PI code and ECC; loading (S225) specific tuner parameters from the database based on the determined current country and current region; adjusting (S230) tuner settings of the radio tuner with respect to country- and region-specific broadcast characteristics in accordance with the determined current country and current region; and updating (S240) the HMI settings of the radio tuner in accordance with the current country and current region; wherein the country- and region-specific broadcast characteristics include channel spacings and/or a maximum frequency deviation; and wherein adjusting tuner settings of the radio tuner comprises adjusting (S235) tuner settings in accordance with the loaded specific tuner parameters. providing (S205) a database of different predetermined tuner parameters with regard to country- and region-specific broadcast transmitting preferences stored in a storage unit comprised in the radio tuner ; receiving, by the radio tuner , at least one RDS signal of a broadcast comprising a PI code and an Extended Country Code, ECC, and evaluating (S210) the received at least one RDS signal; determining (S220) a current country and a current region by decoding (S222) the PI code and the ECC and determining (S222) the current country and current region from the decoded PI code and ECC; loading (S225) specific tuner parameters from the database based on the determined current country and current region; adjusting (S230) tuner settings of the radio tuner with respect to country- and region-specific broadcast characteristics in accordance with the determined current country and current region; and updating (S240) the HMI settings of the radio tuner in accordance with the current country and current region; wherein the country- and region-specific broadcast characteristics include channel spacings and/or a maximum frequency deviation; and wherein adjusting tuner settings of the radio tuner comprises adjusting (S235) tuner settings in accordance with the loaded specific tuner parameters.
A method for a base station to schedule transmissions by mobile stations comprising the steps of: making a determination by a processing unit regarding a duration in terms of a number of frames starting with a current frame within which a packet must be transmitted and marking packets for which the duration is below a threshold as delay-sensitive packets; scheduling all delay sensitive packets with the processing unit ; scheduling non-delay sensitive packets with the processing unit if time-frequency resources are still available; characterised by determining with the processing unit if all time-frequency resources in the current transmission time interval are occupied due to a previous scheduling procedure assigning all time-frequency resources in the current transmission time interval and if there are more packets waiting in a queue which indicates high system load; determining with the processing unit in high system load conditions if fragmenting, for transmission across multiple transmission time intervals, any of the non-delay sensitive packets already scheduled can reduce the number of time-frequency resources used for the non-delay sensitive packet; and fragmenting, with the processing unit , the non-delay sensitive packets already scheduled that may be transmitted with fewer time-frequency resources and using the resulting unoccupied time-frequency resources to schedule more packets. making a determination by a processing unit regarding a duration in terms of a number of frames starting with a current frame within which a packet must be transmitted and marking packets for which the duration is below a threshold as delay-sensitive packets; scheduling all delay sensitive packets with the processing unit ; scheduling non-delay sensitive packets with the processing unit if time-frequency resources are still available; characterised by determining with the processing unit if all time-frequency resources in the current transmission time interval are occupied due to a previous scheduling procedure assigning all time-frequency resources in the current transmission time interval and if there are more packets waiting in a queue which indicates high system load; determining with the processing unit in high system load conditions if fragmenting, for transmission across multiple transmission time intervals, any of the non-delay sensitive packets already scheduled can reduce the number of time-frequency resources used for the non-delay sensitive packet; and fragmenting, with the processing unit , the non-delay sensitive packets already scheduled that may be transmitted with fewer time-frequency resources and using the resulting unoccupied time-frequency resources to schedule more packets.
Bacterial strain of the species Streptococcus thermophilus deposited with the CNCM under accession number CNCM 1-5334, for use thereof in the prevention and/or treatment of an inflammatory intestinal disorder and/or of a disorder caused by said inflammatory intestinal disorder, in an individual, said disorder caused by said inflammatory intestinal disorder being selected from the list consisting of weight loss, loss of lean mass, muscle loss, hypertrophy of the colon, a change in intestinal permeability and any combination of these disorders.
A method for detecting the presence of an object in a zone by means of a wireless detector (15, 16, 17, 18, 19, 20; 80) located proximal to the zone, the wireless detector (15, 16, 17, 18, 19, 20; 80) comprising an orientation sensor for sensing the spatial attitude of the detector (15, 16, 17, 18, 19, 20; 80), the method comprising: receiving a solid angle defined, by a user, relative to a first spatial reference plane by an azimuth range and an elevation range, the azimuth range and the elevation range being such that the solid angle would include at least part of the zone were the solid angle to be projected from the location of the detector (15, 16, 17, 18, 19, 20; 80); detecting by means of the detector (15, 16, 17, 18, 19, 20; 80) a wireless signal from the object, and thereby estimating the direction of the object from the detector (15, 16, 17, 18, 19, 20; 80) with reference to a second spatial reference plane fixed relative to the detector; sensing by means of the orientation sensor the spatial attitude of the detector (15, 16, 17, 18, 19, 20; 80); and transforming at least one of the solid angle and the estimated direction using the sensed spatial attitude such that they are both in the same spatial reference plane, and comparing the solid angle and the estimated direction in that same spatial reference plane so as to determine whether the object is present in the zone. receiving a solid angle defined, by a user, relative to a first spatial reference plane by an azimuth range and an elevation range, the azimuth range and the elevation range being such that the solid angle would include at least part of the zone were the solid angle to be projected from the location of the detector (15, 16, 17, 18, 19, 20; 80); detecting by means of the detector (15, 16, 17, 18, 19, 20; 80) a wireless signal from the object, and thereby estimating the direction of the object from the detector (15, 16, 17, 18, 19, 20; 80) with reference to a second spatial reference plane fixed relative to the detector; sensing by means of the orientation sensor the spatial attitude of the detector (15, 16, 17, 18, 19, 20; 80); and transforming at least one of the solid angle and the estimated direction using the sensed spatial attitude such that they are both in the same spatial reference plane, and comparing the solid angle and the estimated direction in that same spatial reference plane so as to determine whether the object is present in the zone.
Valve device for a motor vehicle comprising a flow housing comprising at least one inlet and at least one outlet , a drive motor with a stator and a rotor , a transmission , which can be made to rotate by means of the drive motor and via which a control body with a drive shaft or drive axle can be rotated, on which the control body is arranged at least in a rotationally fixed manner and via which the control body is beared, via which a fluidic connection between the at least one inlet and the at least one outlet can be controlled, characterised in that the drive shaft or drive axle extends from the control body through the transmission at least into the rotor of the drive motor , wherein an encoder magnet is attached at least non-rotatably to the drive shaft or drive axle as a transmitter, which communicates with a magnetic sensor for position detection, wherein the rotor is separated from the stator by a separating can , which separates an inner space , in which the encoder magnet is arranged, from an outer space , in which the sensor is arranged. a flow housing comprising at least one inlet and at least one outlet , a drive motor with a stator and a rotor , a transmission , which can be made to rotate by means of the drive motor and via which a control body with a drive shaft or drive axle can be rotated, on which the control body is arranged at least in a rotationally fixed manner and via which the control body is beared, via which a fluidic connection between the at least one inlet and the at least one outlet can be controlled,
A composition for improving bone health, comprising a functional fermented material using oysters, the composition comprising a fermented extract extracted from a fermented material of oysters and seaweed, which is obtained by fermenting oysters and seaweed, wherein the fermented material of oysters is fermented using Lactobacillus fermentum JS and/or Aspergillus usamii.