mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a silage good having improved quality to be subjected to an ensiling process, the method comprising: subjecting a freshly harvested good to be subjected to the ensiling process to an analysing process for determining a plurality of parameters ( x i ) characterising a chemical composition and/or a property of the harvested good ; applying a first model on the determined parameters ( xi ) to determine an ensilability index number ( Ini ), that is characteristic for an expected ensilability of the harvested good ; applying a second model on the determined parameters ( xi ) to determine a retention index number ( Rei ) , that is characteristic for an expected loss of dry matter (DM) of the harvested good during the ensiling process; determining types and amounts of ensiling additives to be added to the harvested good for controlling the ensiling process depending on the ensilability index number ( Ini ) and the retention index number ( Rei ); and supplying the determined additives to the harvested good to obtain the silage good , in case the determined amount of the ensiling additive exceeds zero. subjecting a freshly harvested good to be subjected to the ensiling process to an analysing process for determining a plurality of parameters ( x i ) characterising a chemical composition and/or a property of the harvested good ; applying a first model on the determined parameters ( xi ) to determine an ensilability index number ( Ini ), that is characteristic for an expected ensilability of the harvested good ; applying a second model on the determined parameters ( xi ) to determine a retention index number ( Rei ) , that is characteristic for an expected loss of dry matter (DM) of the harvested good during the ensiling process; determining types and amounts of ensiling additives to be added to the harvested good for controlling the ensiling process depending on the ensilability index number ( Ini ) and the retention index number ( Rei ); and supplying the determined additives to the harvested good to obtain the silage good , in case the determined amount of the ensiling additive exceeds zero.
A method of operating a computer system for evaluating medical conditions relating to effort of breathing in a subject in need thereof, the computer system comprising one or more processors, a display and memory storing one or more programs comprising instructions that when executed by the one or more processors cause the processors to: obtain, from a first sensor, first biometric signals wherein the first biometric signals are respiratory inductance plethysmography (RIP) and obtain, from a second sensor, second biometric signals, wherein the second biometric signals are esophageal pressure (Pes); calibrate the RIP signals, wherein the RIP signals are calibrated so as to provide a signal proportional to a tidal volume; determine, from the first and second biometric signals a relative effort of breathing value and plot the calibrated RIP signals against the Pes signals to obtain a flow pressure loop; and display on the display a report comprising an interpretation of the effort of breathing value, wherein the interpretation is updated as additional data relating to the flow pressure loops is received. obtain, from a first sensor, first biometric signals wherein the first biometric signals are respiratory inductance plethysmography (RIP) and obtain, from a second sensor, second biometric signals, wherein the second biometric signals are esophageal pressure (Pes); calibrate the RIP signals, wherein the RIP signals are calibrated so as to provide a signal proportional to a tidal volume; determine, from the first and second biometric signals a relative effort of breathing value and plot the calibrated RIP signals against the Pes signals to obtain a flow pressure loop; and display on the display a report comprising an interpretation of the effort of breathing value, wherein the interpretation is updated as additional data relating to the flow pressure loops is received.
Use of a disalt of malic acid in the production of a polyurethane foam to lower the glass transition temperature of the polyurethane foam obtained, wherein the disalt of malic acid is added to the reaction mixture comprising at least a polyol component, an isocyanate component, a catalyst to catalyse urethane or isocyanurate bond formation, an optional blowing agent and optionally further additives.
Support, to be applied in a corner, in particular covered with wall tiles, said support being provided with an overlay for a tile and, with respect to the tile, with two projecting lengths for being introduced in particular into a joint extending across the corner, wherein an angled section , at least partially covering the edge of the overlying tile , is connected to at least one free side of the flat overlay , and wherein, in a top view, the two freely terminating projecting lengths project past the support and the angled section in each case by less than the thickness of a wall tile (11, 13; 12, 14), characterized in that the angled section is formed integrally with the overlay.
Optical element for influencing the light output of lighting means, in particular for influencing the light output of one or more LEDs , wherein the optical element consists of a light-transmissive material and comprises at least one surface region which serves as a light-refracting light entry surface or light exit surface of the optical element and comprises a non-planar light-directing geometry, wherein the surface region comprises a structure which follows the light-directing geometry and was created by thermal processing, in particular by thermal reshaping of the optical element or a tool used for producing the optical element with corresponding shaping, e.g. an injection molding tool, characterized in that the structure of the surface region along a first direction has a continuous and differentiable wave-like shape comprising elevations with a height (h) in the range of about 5-100 μm.
A downhole completion system for completing a well having a borehole , said downhole completion system comprising: - a well tubular metal structure arranged in the borehole forming an annulus and comprising: - a wall , and - a plurality of sensor units forming a mesh network , where each sensor unit is configured to form a network node being configured to relay data for the mesh network, and where each of the sensors is configured to cooperate in the distribution of data in the network, wherein each sensor unit is configured to receive wirelessly transmitted data from an adjacent sensor unit and to forward the received data to adjacent sensor units, and wherein at least a number of said sensor units is provided with a self-powering device configured to harvest energy downhole. - a well tubular metal structure arranged in the borehole forming an annulus and comprising: - a wall , and - a plurality of sensor units forming a mesh network , where each sensor unit is configured to form a network node being configured to relay data for the mesh network, and where each of the sensors is configured to cooperate in the distribution of data in the network, wherein each sensor unit is configured to receive wirelessly transmitted data from an adjacent sensor unit and to forward the received data to adjacent sensor units, and wherein at least a number of said sensor units is provided with a self-powering device configured to harvest energy downhole. - a wall , and - a plurality of sensor units forming a mesh network , where each sensor unit is configured to form a network node being configured to relay data for the mesh network, and where each of the sensors is configured to cooperate in the distribution of data in the network, wherein each sensor unit is configured to receive wirelessly transmitted data from an adjacent sensor unit and to forward the received data to adjacent sensor units, and wherein at least a number of said sensor units is provided with a self-powering device configured to harvest energy downhole.
An adaptive system for automatic tracking of a target in at least one video stream, comprising: - at least one dynamically configurable tracking device (14 1 , ..., 14 n ), receiving said at least one video stream, adapted for detection and automatic tracking of at least one target by analysis of said at least one video stream, - a calculator to determine at least one metric performance value from a target tracking result (R 1 , ..., R n ) provided by said at least one tracking device (14 1 , ..., 14 n ), - a corrector of at least one configuration parameter of said least one tracking device (14 1 , ..., 14 n ) as a function of said at least one metric performance value, and - at least one dynamic configurator (16 1 , ..., 16 n ) of said at least one tracking device (14 1 , ..., 14 n ) by application of said at least one corrected configuration parameter, characterized in that it further comprises at least one supplementary reference tracking device (14 MSTR ) differing from the at least one tracking device (14 1 , ..., 14 n ) by higher performance hardware resources, receiving at least one portion (P 1 , ..., P n ) of said at least one video stream, and in that the calculator is more specifically adapted to calculate said at least one metric performance value based on a comparison on said at least one video stream portion, of the target tracking result (R 1 , ..., R n ) supplied by said at least one tracking device (14 1 , ..., 14 n ) and a reference tracking result (S 1 , ..., S n ) supplied by said at least one supplementary reference tracking device (14 MSTR ) thanks to its higher performance hardware resources. - at least one dynamically configurable tracking device (14 1 , ..., 14 n ), receiving said at least one video stream, adapted for detection and automatic tracking of at least one target by analysis of said at least one video stream, - a calculator to determine at least one metric performance value from a target tracking result (R 1 , ..., R n ) provided by said at least one tracking device (14 1 , ..., 14 n ), - a corrector of at least one configuration parameter of said least one tracking device (14 1 , ..., 14 n ) as a function of said at least one metric performance value, and - at least one dynamic configurator (16 1 , ..., 16 n ) of said at least one tracking device (14 1 , ..., 14 n ) by application of said at least one corrected configuration parameter,
A method of encoding an image to create a bitstream of encoded data using an encoder, the image being partitioned into blocks, wherein a current block contains a sequence of N coefficients, and wherein the sequence is an input vector of N dimensions, the input vector having a magnitude value and angle values in a polar coordinate system, the method comprising: normalizing the input vector using the magnitude value of the input vector to generate a normalized vector; quantizing the normalized vector using a vector quantizer to produce a quantized normalized vector; reconstructing the angle values from the quantized normalized vector; determining a quantizer for the magnitude value based on the reconstructed angle values; quantizing the magnitude value using the quantizer for the magnitude value to produce a quantized magnitude value; and entropy encoding the quantized normalized vector and the quantized magnitude value to produce the encoded data. normalizing the input vector using the magnitude value of the input vector to generate a normalized vector; quantizing the normalized vector using a vector quantizer to produce a quantized normalized vector; reconstructing the angle values from the quantized normalized vector; determining a quantizer for the magnitude value based on the reconstructed angle values; quantizing the magnitude value using the quantizer for the magnitude value to produce a quantized magnitude value; and entropy encoding the quantized normalized vector and the quantized magnitude value to produce the encoded data.
A start-up method of a hydrogen generator, the hydrogen generator comprising: a reformer configured to generate a hydrogen-containing gas by a reforming reaction of a material gas; a combustor configured to heat the reformer by diffusion combustion of the material gas and combustion air; a supplementary air flow rate adjuster configured to adjust a flow rate of supplementary air added to the material gas; an ignitor configured to perform ignition operation of the combustor ; and a controller ; characterized in that the start-up method comprising: a step of adjusting, by the supplementary air flow rate adjuster , the flow rate of supplementary air added to the material gas before being supplied to the combustor ; a step of controlling, by the controller , the supplementary air flow rate adjuster such that the flow rate of a mixture gas of the material gas and the supplementary air becomes a predetermined value; and a step of performing, by the ignitor , the ignition operation of the combustor . a reformer configured to generate a hydrogen-containing gas by a reforming reaction of a material gas; a combustor configured to heat the reformer by diffusion combustion of the material gas and combustion air; a supplementary air flow rate adjuster configured to adjust a flow rate of supplementary air added to the material gas; an ignitor configured to perform ignition operation of the combustor ; and a controller ; characterized in that the start-up method comprising: a step of adjusting, by the supplementary air flow rate adjuster , the flow rate of supplementary air added to the material gas before being supplied to the combustor ; a step of controlling, by the controller , the supplementary air flow rate adjuster such that the flow rate of a mixture gas of the material gas and the supplementary air becomes a predetermined value; and a step of performing, by the ignitor , the ignition operation of the combustor . a step of adjusting, by the supplementary air flow rate adjuster , the flow rate of supplementary air added to the material gas before being supplied to the combustor ; a step of controlling, by the controller , the supplementary air flow rate adjuster such that the flow rate of a mixture gas of the material gas and the supplementary air becomes a predetermined value; and a step of performing, by the ignitor , the ignition operation of the combustor .
A method of operation of a terminal device in a cellular communications network, the method comprising: sending a GMM Attach Request message to the network, the GMM Attach Request message identifying security capabilities of the terminal device ; receiving from the network an echo message in the GMM layer including information identifying the security capabilities of the terminal device, wherein the echo message is received with integrity protection . sending a GMM Attach Request message to the network, the GMM Attach Request message identifying security capabilities of the terminal device ; receiving from the network an echo message in the GMM layer including information identifying the security capabilities of the terminal device, wherein the echo message is received with integrity protection .
Method for ejecting a guided missile that can be guided about a roll, pitch and yaw axis from a support platform , wherein the guided missile has - two pairs of rudder elements for producing roll, pitch and yaw moments, the two rudder elements of each pair being arranged opposite one another on the circumference of the fuselage of the guided missile relative to the longitudinal axis (L) of the guided missile , and - a flight control mechanism for activating the orientation of the two pairs of rudder elements , comprising the method steps a) inverse deflection of the rudder elements of each pair by means of the flight control mechanism prior to ejection from the support platform or immediately following ejection from the support platform upon entry of the guided missile into a flow field of the support platform , in such a manner that the flow resistance experienced by the guided missile after it has been ejected in the flow field of the support platform is greater by comparison with a flow resistance that the guided missile would experience if the rudder elements of each pair were to be in a neutral position, in which the surfaces influencing the flight direction of the rudder elements of the pairs extend parallel to the longitudinal axis of the guided missile , and b) after leaving the flow field, support platform , deflection of the rudder elements of each pair by means of the flight control mechanism , in such a manner that the guided missile is guided in the direction of a target. - two pairs of rudder elements for producing roll, pitch and yaw moments, the two rudder elements of each pair being arranged opposite one another on the circumference of the fuselage of the guided missile relative to the longitudinal axis (L) of the guided missile , and - a flight control mechanism for activating the orientation of the two pairs of rudder elements , a) inverse deflection of the rudder elements of each pair by means of the flight control mechanism prior to ejection from the support platform or immediately following ejection from the support platform upon entry of the guided missile into a flow field of the support platform , in such a manner that the flow resistance experienced by the guided missile after it has been ejected in the flow field of the support platform is greater by comparison with a flow resistance that the guided missile would experience if the rudder elements of each pair were to be in a neutral position, in which the surfaces influencing the flight direction of the rudder elements of the pairs extend parallel to the longitudinal axis of the guided missile , and b) after leaving the flow field, support platform , deflection of the rudder elements of each pair by means of the flight control mechanism , in such a manner that the guided missile is guided in the direction of a target.
Fitting, in particular an inlet and/or outlet fitting , comprising a water guide pipe with a wall laterally delimiting the water guide pipe , an opening and a further opening and an insert element which can be inserted at least partially into the water guide pipe via one of the two openings and removed again, wherein the water guide pipe has a first pipe section extending along a first central axis (M1) and a second pipe section extending along a second central axis (M2), wherein the first central axis (M1) is oriented at an angle (α) inclined at an angle to the second central axis (M2), wherein the insert element is at least partially insertable into the second pipe section , characterized in that , in the inserted state, the insert element projects into a projection (P) of the cross section of the first pipe section as seen in the direction of the first central axis (M1) and forms a baffle surface for the water emerging from the first pipe section into the second pipe section . a water guide pipe with a wall laterally delimiting the water guide pipe , an opening and a further opening and an insert element which can be inserted at least partially into the water guide pipe via one of the two openings and removed again, wherein the water guide pipe has a first pipe section extending along a first central axis (M1) and a second pipe section extending along a second central axis (M2), wherein the first central axis (M1) is oriented at an angle (α) inclined at an angle to the second central axis (M2), wherein the insert element is at least partially insertable into the second pipe section , characterized in that , in the inserted state, the insert element projects into a projection (P) of the cross section of the first pipe section as seen in the direction of the first central axis (M1) and forms a baffle surface for the water emerging from the first pipe section into the second pipe section .
3-(β-phenylisopropyl)- N -phenylcarbamoylsydnonimine or a pharmaceutically acceptable salt thereof for use in a method of treating a dyskinesia in a human, wherein 0.001 mg to 200 mg per kg body weight of 3-(β-phenylisopropyl)- N- phenylcarbamoylsydnonimine or pharmaceutically acceptable salt thereof is administered orally.
Printing system for printing on a material, in particular paper, cardboard, foil, aluminium or fabric, comprising: an ink formulation module for providing an ink recipe, a printing unit for applying ink to the material, a sensor for generating color measurement data (CMD), and a control module being connected to the sensor and to the printing unit , wherein the color measurement data (CMD) comprises at least one actual ink color value of the ink applied to the material by the printing unit , wherein the control module is configured to receive at least one unit parameter (UP) from the printing unit , to receive the color measurement data (CMD) from the sensor and to transmit the at least one unit parameter (UP) and at least parts of the color measurement data (CMD) as a recipe request (RR) to the ink formulation module , wherein the at least one unit parameter (UP) comprises an identifier, in particular an identification number, of the printing unit , an identifier, in particular an identification number, of a component of the printing unit , in particular of a printing roller or an anilox roller , a rotating speed of the printing roller or the anilox roller , gravure information of the printing roller or the anilox roller , and/or a processing speed of the printing unit , wherein the control module is configured to provide the recipe request (RR) and to transfer it to the ink formulation module automatically and wherein the ink formulation module is configured to create at least one adjusted ink recipe (AR) based on the recipe request (RR). an ink formulation module for providing an ink recipe, a printing unit for applying ink to the material, a sensor for generating color measurement data (CMD), and a control module being connected to the sensor and to the printing unit , wherein the color measurement data (CMD) comprises at least one actual ink color value of the ink applied to the material by the printing unit , wherein the control module is configured to receive at least one unit parameter (UP) from the printing unit , to receive the color measurement data (CMD) from the sensor and to transmit the at least one unit parameter (UP) and at least parts of the color measurement data (CMD) as a recipe request (RR) to the ink formulation module , wherein the at least one unit parameter (UP) comprises an identifier, in particular an identification number, of the printing unit , an identifier, in particular an identification number, of a component of the printing unit , in particular of a printing roller or an anilox roller , a rotating speed of the printing roller or the anilox roller , gravure information of the printing roller or the anilox roller , and/or a processing speed of the printing unit , wherein the control module is configured to provide the recipe request (RR) and to transfer it to the ink formulation module automatically and wherein the ink formulation module is configured to create at least one adjusted ink recipe (AR) based on the recipe request (RR).
A chemically modified GLP-1 polypeptide, comprising an amino acid sequence having at least 75% identity to GLP-1 (H*AEGTFTS*DVS*S*YLEGQAAK*EFIAWLVK*GR), wherein at least one of the amino acid residues marked with * is alkylated with an optionally substituted C 1 -C 16 alkyl group, wherein the N-terminal amino acid residue of the polypeptide is an N-2,2,2-trifluoroethyl amino acid represented by the formula: