mhurhangee/patent-ind-claim-en huggingface dataset:
A method for adjusting sensor parameters to be set for two sensors when using the two sensors in functional connection with an object recognition algorithm in an object recognition, in which the sensors are selected from the group comprising: camera, LiDAR sensor, radar sensor, ultrasonic sensor, infrared sensor, sonar sensor, in which a. the sensor parameters to be set are set on the two sensors , b. the two sensors are activated with the set sensor parameters , and the two sensors capture data sensorily and provide it to the object recognition algorithm , c. the object recognition algorithm determines a result , comprising at least one recognized object , with a match value assigned to the recognized object, and provides it to a machine learning algorithm realized as a reinforcement learning agent, d. the machine learning algorithm , to which are provided the result and the set sensor parameters , which are set for capturing at the two sensors the data currently being sensorily captured, varies the respective sensor parameters of the two sensors within a respective sensor parameter range and provides for the two sensors the respective varied sensor parameters as sensor parameters to be set, e. the steps a. to d. are iteratively repeated until the respective match value assigned to the at least one recognized object reaches a maximum within at least one of the respective sensor parameter ranges. a. the sensor parameters to be set are set on the two sensors , b. the two sensors are activated with the set sensor parameters , and the two sensors capture data sensorily and provide it to the object recognition algorithm , c. the object recognition algorithm determines a result , comprising at least one recognized object , with a match value assigned to the recognized object, and provides it to a machine learning algorithm realized as a reinforcement learning agent, d. the machine learning algorithm , to which are provided the result and the set sensor parameters , which are set for capturing at the two sensors the data currently being sensorily captured, varies the respective sensor parameters of the two sensors within a respective sensor parameter range and provides for the two sensors the respective varied sensor parameters as sensor parameters to be set, e. the steps a. to d. are iteratively repeated until the respective match value assigned to the at least one recognized object reaches a maximum within at least one of the respective sensor parameter ranges.
A method of storing and managing measurements taken in an oilfield or wellbore , the method comprising: receiving the measurements as raw data (210; 215), wherein the raw data is acquired by an oilfield measurement or wellbore monitoring device, the raw data including traces at multiple X and Y coordinate values, converting the raw data to image rasters, wherein the converting does not comprise down-sampling the raw data, and wherein the converting includes: for each X coordinate and each Y coordinate, stacking multiple planar trace image rasters along the given X or Y coordinate to produce an image raster corresponding to the X or Y coordinate; assigning first unique identifiers, UIDs, to the raw data, wherein the first UIDs are stored separately from the raw data in a relational database, and wherein the raw data is queried using the first UIDs without reading the raw data; assigning second UIDs to at least each of the X and the Y coordinate image rasters; and storing at least the X and the Y coordinate image rasters along with the assigned second UIDs. receiving the measurements as raw data (210; 215), wherein the raw data is acquired by an oilfield measurement or wellbore monitoring device, the raw data including traces at multiple X and Y coordinate values, converting the raw data to image rasters, wherein the converting does not comprise down-sampling the raw data, and wherein the converting includes: for each X coordinate and each Y coordinate, stacking multiple planar trace image rasters along the given X or Y coordinate to produce an image raster corresponding to the X or Y coordinate; assigning first unique identifiers, UIDs, to the raw data, wherein the first UIDs are stored separately from the raw data in a relational database, and wherein the raw data is queried using the first UIDs without reading the raw data; assigning second UIDs to at least each of the X and the Y coordinate image rasters; and storing at least the X and the Y coordinate image rasters along with the assigned second UIDs.
A double button cream bottle comprising a bottle body and a bottle cap for closing the bottle body , wherein: an inner ring of the bottle cap is provided with an abutment ring , an upper limit of the abutment ring is provided with a button ring , and the button ring comprises two buttons disposed opposite each other and an elastic ring connecting the two buttons ; an upper portion of the bottle body is convexly and radially provided with a flange , a recess is formed at a lower end of the flange , and when the bottle body is inserted into the bottle cap , the elastic ring is snapped in the recess and limits the flange between an inner end of the bottle cap and the elastic ring ; an upper end of the bottle body is covered with a cover plate , the cover plate is provided with an elastic piece upwardly tilted, and when it is closed, the elastic piece is limited between the inner end of the bottle cap and the cover plate ; a side wall of the bottle cap is provided with button grooves corresponding to the buttons , and when the two buttons are simultaneously pressed, the elastic ring is pressed and deformed and disengages from the recess , so that the flange disengages from the limiting of the elastic ring ; and the bottle body is separated from the bottle cap by the elastic force of the elastic piece .
A slide closure for a metallurgical vessel, preferably a tundish for a strand casting system, with a housing which can be fastened on to the bottom of the vessel, an upper closure plate , a lower closure plate and a closure plate , which can be longitudinally displaced therebetween, whereby the slide closure is provided with a first compensation unit I with spring arrangements for tensioning the closure plates against one another and a second compensation unit II with spring arrangements for pressing the closure plates against the upper inner sleeve , characterised in that the upper closure plate is arranged in a cover of the housing and the first compensation unit I is formed by the spring arrangements acting on tensile load between the cover and the housing , whereby the slide closure is provided in the second compensation unit II with an additional insertion frame arranged in the housing , in which the lower closure plate is fixed, against which the insertion frame can be pressed.
A rotary cooler consisting of a plurality of transport tubes for transporting material to be cooled indirectly, wherein the plurality of transport tubes are arranged about an axis of rotation and are adapted to be filled jointly via a filling region with material to be cooled, characterized in that each transport tube is arranged concentrically in a cooling tube and the indirect cooling of the material to be cooled takes place via the transport tube which is flown around by cooling medium and cools the material to be cooled via the wall of the transport tube .
Unit dose of GHB or of one of therapeutically acceptable salts thereof for use in the maintaining of alcohol abstinence in patients with an alcohol dependence, characterized in that the in vitro release of the active ingredient is more than 85% in fifteen minutes in a medium with pH 1 (HCl 0,1N), and preferably than 90% in fifteen minutes, said unit dose being selected from - a dose comprised between 1,25 and 1,75 g, preferably 1,50 g for use three times per day in the maintaining of alcohol abstinence in patients with severe or very severe alcohol dependence without a liver failure as defined by WHO in WHO/MSD/MSB/00.4; - a dose comprised between 0,75 and 1,25 g, preferably 0,75 g, for use three times per day in the maintaining of alcohol abstinence in patients with mild or moderate alcohol dependence without a liver failure as defined by WHO in WHO/MSD/MSB/00.4; - a dose comprised between 0,62 and 0,87 g, preferably 0,75 g, for use three times per day in the maintaining of alcohol abstinence in patients with severe or very severe alcohol dependence with a liver failure as defined by WHO in WHO/MSD/MSB/00.4; and a dose comprised between 0,37 and 0,62 g, preferably 0,37 g, for use three times per day in the maintaining of alcohol abstinence in patients with mild or moderate alcohol dependence with a liver failure as defined by WHO in WHO/MSD/MSB/00.4. - a dose comprised between 1,25 and 1,75 g, preferably 1,50 g for use three times per day in the maintaining of alcohol abstinence in patients with severe or very severe alcohol dependence without a liver failure as defined by WHO in WHO/MSD/MSB/00.4; - a dose comprised between 0,75 and 1,25 g, preferably 0,75 g, for use three times per day in the maintaining of alcohol abstinence in patients with mild or moderate alcohol dependence without a liver failure as defined by WHO in WHO/MSD/MSB/00.4; - a dose comprised between 0,62 and 0,87 g, preferably 0,75 g, for use three times per day in the maintaining of alcohol abstinence in patients with severe or very severe alcohol dependence with a liver failure as defined by WHO in WHO/MSD/MSB/00.4; and
A wind outlet structure for a glass sheet cooling device, comprising: a case , wherein interior of the case forms a wind inlet channel ; at least one wind outlet part , wherein the wind outlet part is connected to one surface of the case , interior of the wind outlet part forms a wind outlet channel communicated with the wind inlet channel , and another one surface of the wind outlet part opposite to the surface of wind outlet part which is connected to the case has a plurality of wind outlet holes ; and at least one windshield , wherein the windshield is disposed in the wind outlet channel of the wind outlet part , and the windshield has a plurality of perforations ; characterized in that the other surface of the wind outlet part opposite to the surface of wind outlet part , which is connected to the case , is a curved surface or an irregular surface, and the wind outlet holes are set on different angled surfaces; and the wind outlet structure is further provided with at least one controller disposed in the wind outlet channel of the wind outlet part and connected to the windshield , the controller controlling the windshield to move laterally, such that the perforations are communicated with or offset to the wind outlet holes . a case , wherein interior of the case forms a wind inlet channel ; at least one wind outlet part , wherein the wind outlet part is connected to one surface of the case , interior of the wind outlet part forms a wind outlet channel communicated with the wind inlet channel , and another one surface of the wind outlet part opposite to the surface of wind outlet part which is connected to the case has a plurality of wind outlet holes ; and at least one windshield , wherein the windshield is disposed in the wind outlet channel of the wind outlet part , and the windshield has a plurality of perforations ; characterized in that the other surface of the wind outlet part opposite to the surface of wind outlet part , which is connected to the case , is a curved surface or an irregular surface, and the wind outlet holes are set on different angled surfaces; and the wind outlet structure is further provided with at least one controller disposed in the wind outlet channel of the wind outlet part and connected to the windshield , the controller controlling the windshield to move laterally, such that the perforations are communicated with or offset to the wind outlet holes .
A computer implemented method comprising: obtaining a fundus image , the fundus image being an image of a fundus of an eye of a patient; and processing a model input comprising the fundus image using a fundus image processing neural network , wherein the fundus image processing neural network is configured to process the model input comprising the fundus image to generate a model output that predicts a current condition of the patient with respect to anemia; and generating, from at least the model output, a final prediction of the current condition with respect to anemia. obtaining a fundus image , the fundus image being an image of a fundus of an eye of a patient; and processing a model input comprising the fundus image using a fundus image processing neural network , wherein the fundus image processing neural network is configured to process the model input comprising the fundus image to generate a model output that predicts a current condition of the patient with respect to anemia; and generating, from at least the model output, a final prediction of the current condition with respect to anemia.
A chimeric antigen receptor (CAR) which binds B cell maturation antigen (BCMA), wherein the CAR comprises a Fab antigen binding domain, which comprises: a) a heavy chain variable region (VH) having complementarity determining regions (CDRs) with the following sequences: CDR1 - GFIFSDYN (SEQ ID No. 79) CDR2 - IIYDGSST (SEQ ID No. 80) CDR3 - ATRPGPFAY (SEQ ID No. 81); and b) a light chain variable region (VL) having complementarity determining regions (CDRs) with the following sequences: CDR1 - QSLLHSNGNTY (SEQ ID No. 82) CDR2 - LVS (SEQ ID No. 83) CDR3 - VHGTHAWT (SEQ ID No. 84). a) a heavy chain variable region (VH) having complementarity determining regions (CDRs) with the following sequences: CDR1 - GFIFSDYN (SEQ ID No. 79) CDR2 - IIYDGSST (SEQ ID No. 80) CDR3 - ATRPGPFAY (SEQ ID No. 81); and CDR1 - GFIFSDYN (SEQ ID No. 79) CDR2 - IIYDGSST (SEQ ID No. 80) CDR3 - ATRPGPFAY (SEQ ID No. 81); and b) a light chain variable region (VL) having complementarity determining regions (CDRs) with the following sequences: CDR1 - QSLLHSNGNTY (SEQ ID No. 82) CDR2 - LVS (SEQ ID No. 83) CDR3 - VHGTHAWT (SEQ ID No. 84). CDR1 - QSLLHSNGNTY (SEQ ID No. 82) CDR2 - LVS (SEQ ID No. 83) CDR3 - VHGTHAWT (SEQ ID No. 84).
A method of producing minced fish meat frozen into granules, the method comprising: a) raising the temperature of fish meat (raw material) which has been frozen at -20°C or less to a temperature of from -10°C to -5°C; b) mincing the fish meat while maintaining the temperature of the fish meat at a temperature of from -10°C to -5°C by using a meat mincer having a feed screw, a plate, and a plate knife at a rotation speed of 165 rpm or less of the plate knife and the meat mincer to keep a clearance (gap) between the plate knife and the feed screw of the meat mincer at substantially 0 mm, before mincing the fish meat; c) cooling the minced fish meat to -20°C or less; and d) crushing the minced fish meat frozen at -20°C or less into granules. a) raising the temperature of fish meat (raw material) which has been frozen at -20°C or less to a temperature of from -10°C to -5°C; b) mincing the fish meat while maintaining the temperature of the fish meat at a temperature of from -10°C to -5°C by using a meat mincer having a feed screw, a plate, and a plate knife at a rotation speed of 165 rpm or less of the plate knife and the meat mincer to keep a clearance (gap) between the plate knife and the feed screw of the meat mincer at substantially 0 mm, before mincing the fish meat; c) cooling the minced fish meat to -20°C or less; and d) crushing the minced fish meat frozen at -20°C or less into granules.
A peptide or salt thereof, consisting of the amino acid sequence represented by the SEQ ID NO:1: R. 1 -Y-Xaa 1 -Xaa 2 - Xaa 3 -Xaa 4 - Xaa 5 -Xaa 6 - Xaa 7 -Xaa 8 - Xaa 9 -Xaa 10 wherein : Xaa1 is Trp, Phe or Tyr; Xaa2 is Trp, Phe or Tyr; Xaa3 is Lys; Xaa4 is Tyr, Trp or Phe; Xaa5 is Tyr, Trp or Phe; Xaa6 is Gly or Ala; Xaa7 is Lys; Xaa8 is Ala or Aib; Xaa9 is Ile, Leu or Ala; Xaa10:Tyr; Y, if present, is Aib and wherein R 1 , if present, is H, CF (carboxy fluorescein), palmitoyl (CH 3 (CH 2 ) 14 CO-), oleyl (CH 3 (CH 2 ) 7 (CH) 2 (CH 2 ) 7 CO-), stearyl (CH 3 (CH 2 ) 16 CO-), linoleyl (CH 3 (CH 2 ) 4 (CH) 2 CH 2 (CH) 2 (CH 2 ) 7 CO-), or linolenyl (CH 3 CH 2 (CH) 2 CH 2 (CH) 2 CH 2 (CH) 2 (CH 2 ) 7 CO-). Xaa1 is Trp, Phe or Tyr; Xaa2 is Trp, Phe or Tyr; Xaa3 is Lys; Xaa4 is Tyr, Trp or Phe; Xaa5 is Tyr, Trp or Phe; Xaa6 is Gly or Ala; Xaa7 is Lys; Xaa8 is Ala or Aib; Xaa9 is Ile, Leu or Ala; Xaa10:Tyr; Y, if present, is Aib and wherein R 1 , if present, is H, CF (carboxy fluorescein), palmitoyl (CH 3 (CH 2 ) 14 CO-), oleyl (CH 3 (CH 2 ) 7 (CH) 2 (CH 2 ) 7 CO-), stearyl (CH 3 (CH 2 ) 16 CO-), linoleyl (CH 3 (CH 2 ) 4 (CH) 2 CH 2 (CH) 2 (CH 2 ) 7 CO-), or linolenyl (CH 3 CH 2 (CH) 2 CH 2 (CH) 2 CH 2 (CH) 2 (CH 2 ) 7 CO-).
A carbamate compound represented by the formula (I): wherein, R 1 represents a hydrogen atom or a C1-C3 alkyl group; R 2 , R 3 , R 4 and R 5 each independently represents a hydrogen atom, a halogen atom, a C1-C3 alkyl group optionally having one or more halogen atoms, a C3-C4 cycloalkyl group optionally having one or more halogen atoms or a C1-C3 alkoxy group optionally having one or more halogen atoms; Z 1 represents a C1-C3 alkyl group; and m represents any one of integers from 1 to 4. R 1 represents a hydrogen atom or a C1-C3 alkyl group; R 2 , R 3 , R 4 and R 5 each independently represents a hydrogen atom, a halogen atom, a C1-C3 alkyl group optionally having one or more halogen atoms, a C3-C4 cycloalkyl group optionally having one or more halogen atoms or a C1-C3 alkoxy group optionally having one or more halogen atoms; Z 1 represents a C1-C3 alkyl group; and m represents any one of integers from 1 to 4.
A computer-implemented method for dynamically and proactively scanning a computing environment for application misconfiguration security threats, the method comprising: identifying , by scanning applications of a network device, an application of the network device, the application configured for network communications; analyzing a network security configuration of the application, the analyzing including accessing at least one of a list of network addresses or a source code of the application; identifying , based on the analyzing, in the list of network addresses or the source code, a target network address that the application is configured to use to redirect the network device to a target network resource; comparing the target network address to a whitelist of trusted target network addresses; assessing , based on the comparing, whether the network security configuration is misconfigured; and determining , based on the assessment, whether to provide a configuration validation status for the application. identifying , by scanning applications of a network device, an application of the network device, the application configured for network communications; analyzing a network security configuration of the application, the analyzing including accessing at least one of a list of network addresses or a source code of the application; identifying , based on the analyzing, in the list of network addresses or the source code, a target network address that the application is configured to use to redirect the network device to a target network resource; comparing the target network address to a whitelist of trusted target network addresses; assessing , based on the comparing, whether the network security configuration is misconfigured; and determining , based on the assessment, whether to provide a configuration validation status for the application.
A protective circuit for a current transformer for preventing a secondary voltage (Us) on a secondary circuit (10.1) of the current transformer from exceeding a secondary voltage threshold, comprising: - a protective circuit input (12.1) which can be coupled to the secondary circuit (10.1) of the current transformer such that the secondary voltage (Us) is applied to the protective circuit input (12.1); - a control unit connected to the protective circuit input (12.1); and - a switch unit connected to the protective circuit input (12.1) and operatively connected to the control unit ; wherein - the control unit comprises a comparator unit (16.2) and is adapted to provide a control signal to the switch unit in response to the secondary voltage (Us) exceeding the secondary voltage threshold, if an input voltage of the comparator unit (16.2) exceeds a threshold; - the control unit furthermore comprises a rectifier (16.1) connected to the protective circuit input (12.1), for providing a direct current voltage (Ug) which is a function of an amplitude of the secondary voltage (Us), as an input voltage for the comparator unit (16.2); - the switch unit is implemented as a semiconductor circuit which comprises two MOSFETs (T1, T2) arranged anti-serially in a back-to-back circuit, which are connected to one another at a central connection; - the rectifier (16.1) comprises four bridge legs, with two bridge legs providing the direct current voltage (Ug) and two bridge legs being connected to the central connection of the switch unit; and - the switch unit is adapted to short-circuit the protective circuit input (12.1) in response to the control signal supplied from the control unit . - a protective circuit input (12.1) which can be coupled to the secondary circuit (10.1) of the current transformer such that the secondary voltage (Us) is applied to the protective circuit input (12.1); - a control unit connected to the protective circuit input (12.1); and - a switch unit connected to the protective circuit input (12.1) and operatively connected to the control unit ; - the control unit comprises a comparator unit (16.2) and is adapted to provide a control signal to the switch unit in response to the secondary voltage (Us) exceeding the secondary voltage threshold, if an input voltage of the comparator unit (16.2) exceeds a threshold; - the control unit furthermore comprises a rectifier (16.1) connected to the protective circuit input (12.1), for providing a direct current voltage (Ug) which is a function of an amplitude of the secondary voltage (Us), as an input voltage for the comparator unit (16.2); - the switch unit is implemented as a semiconductor circuit which comprises two MOSFETs (T1, T2) arranged anti-serially in a back-to-back circuit, which are connected to one another at a central connection; - the rectifier (16.1) comprises four bridge legs, with two bridge legs providing the direct current voltage (Ug) and two bridge legs being connected to the central connection of the switch unit; and - the switch unit is adapted to short-circuit the protective circuit input (12.1) in response to the control signal supplied from the control unit .