mhurhangee/patent-ind-claim-en huggingface dataset:
Converter for a three-phase voltage with - three electrically delta-connected series circuits (R1, R2, R3), each of which comprises at least two switching modules (SM) connected in series and an inductance, and - a control apparatus connected to the switching modules (SM), which control apparatus is configured to operate the switching modules (SM) such that branch currents with the fundamental frequency of the three-phase voltage and with at least one additional current harmonic flow in the series circuits (R1, R2, R3), wherein the additional current harmonic is dimensioned such that it flows in a closed loop in the series circuits (R1, R2, R3) of the converter , and remains within the converter, characterized in that - an energy swing (ΔW) of the series circuit is the difference between the maximum and minimum branch energies during a mains period in said series circuit, - the additional current harmonics are the third and the ninth harmonic and the magnitude and phase of the additional harmonic currents are dimensioned such that the energy swing (ΔW) in each of the series circuits (R1, R2, R3) is smaller than without the additional harmonic currents. - three electrically delta-connected series circuits (R1, R2, R3), each of which comprises at least two switching modules (SM) connected in series and an inductance, and - a control apparatus connected to the switching modules (SM), which control apparatus is configured to operate the switching modules (SM) such that branch currents with the fundamental frequency of the three-phase voltage and with at least one additional current harmonic flow in the series circuits (R1, R2, R3), wherein the additional current harmonic is dimensioned such that it flows in a closed loop in the series circuits (R1, R2, R3) of the converter , and remains within the converter, - an energy swing (ΔW) of the series circuit is the difference between the maximum and minimum branch energies during a mains period in said series circuit, - the additional current harmonics are the third and the ninth harmonic and the magnitude and phase of the additional harmonic currents are dimensioned such that the energy swing (ΔW) in each of the series circuits (R1, R2, R3) is smaller than without the additional harmonic currents.
Sealing ring comprising a polymer mixture which comprises at least one thermoplastic polyketone and at least one thermoplastic polyurethane.
A compound represented by the following formula : wherein X 1 represents a hydrogen atom or a halogen atom, X 2 represents a fluorine atom or a nitrile group, and X 3 represents a radioactive halogen atom, or a salt thereof. wherein X 1 represents a hydrogen atom or a halogen atom, X 2 represents a fluorine atom or a nitrile group, and X 3 represents a radioactive halogen atom, or a salt thereof.
A pharmaceutical composition containing Phragmitis Rhizoma extract as an active ingredient for use in a method of prevention or treatment of a disorder caused by side effect of an anticancer agent, wherein the disorder caused by side effect of an anticancer agent is a hematopoietic toxicity, and wherein the anticancer agent is an antitumor antibiotic, a topoisomerase inhibitor, or a taxane-based anticancer agent.
A method to quantify gas in the imaging of a scene having a background and a possible occurrence of gas, said method comprising: obtaining a gas infrared image representing infrared radiation within a high absorption wavelength band A for the gas emitted from the scene; obtaining a background infrared image representing infrared radiation within a low absorption wavelength band B for said gas emitted from the scene; generating a gas-absorption-path-length image as a scene difference infrared image based on the gas infrared image and the scene background infrared image; and generating a quantified scene difference infrared image based on the scene difference infrared image and a predefined gas-quantifying relation GQR. obtaining a gas infrared image representing infrared radiation within a high absorption wavelength band A for the gas emitted from the scene; obtaining a background infrared image representing infrared radiation within a low absorption wavelength band B for said gas emitted from the scene; generating a gas-absorption-path-length image as a scene difference infrared image based on the gas infrared image and the scene background infrared image; and generating a quantified scene difference infrared image based on the scene difference infrared image and a predefined gas-quantifying relation GQR.
Electric vehicle configured to be positioned on an inductive charging station, comprising: - a first transponder unit for transmitting a wireless request message and for receiving a wireless response message (SI2) which responds to the request message and is transmitted by a second transponder unit assigned to the inductive charging station (IND1); - a navigation unit for accepting position data relating to the inductive charging station (IND1) which are contained in the response message (SI2); - a determination unit for determining a trajectory for positioning the electric vehicle (ECAR) on the inductive charging station (IND1) - by comparing the position data relating to the inductive charging station (IND1) with a current position of the electric vehicle (ECAR) determined by the navigation unit; and - by determining a propagation time difference of the response message (SI2) between the first transponder unit and two transponders of the second transponder unit which are arranged at a predefined distance. - a first transponder unit for transmitting a wireless request message and for receiving a wireless response message (SI2) which responds to the request message and is transmitted by a second transponder unit assigned to the inductive charging station (IND1); - a navigation unit for accepting position data relating to the inductive charging station (IND1) which are contained in the response message (SI2); - a determination unit for determining a trajectory for positioning the electric vehicle (ECAR) on the inductive charging station (IND1) - by comparing the position data relating to the inductive charging station (IND1) with a current position of the electric vehicle (ECAR) determined by the navigation unit; and - by determining a propagation time difference of the response message (SI2) between the first transponder unit and two transponders of the second transponder unit which are arranged at a predefined distance. - by comparing the position data relating to the inductive charging station (IND1) with a current position of the electric vehicle (ECAR) determined by the navigation unit; and - by determining a propagation time difference of the response message (SI2) between the first transponder unit and two transponders of the second transponder unit which are arranged at a predefined distance.
Method of operating a battery management system for monitoring a battery system comprising: - Providing a finite sequence of time-successive pairs of measured current and voltage values (I meas,k ; U meas,k ), the pairs of current and voltage values (I k ; U k ) indicating the current (I L ) flowing through the battery system and the voltage (U L ) applied to the battery system at the corresponding time ; - Providing an electrical equivalent model of the battery system , the electrical equivalent model comprising series-connected impedances (Z 1 , Z 2 , Z 3 , Z 4 ); - Providing initial impedance parameter values of the impedances of the electric equivalent model; characterized in that the method further comprises: - adjusting a first impedance parameter (R soldif ) of an impedance (Z 4 ) of the electrical equivalent model based on the difference between a first simulated voltage value (U sim,1 ) based on the initial impedance parameter values and the first current value (I 1 ) of the finite sequence and the first measured voltage value (U meas,1 ) of the finite sequence, whereby an optimised first impedance parameter value is obtained; - Minimising the deviation of a sequence of simulated voltage values (U sim,k ) obtained based on the electrical equivalent model and the sequence of measured current values (I meas,k ) from the sequence of measured voltage values (U meas,k ) by adjusting at least one further impedance parameter of the impedances (Z 1 , Z 2 , Z 3 , Z 4 ) of the electrical equivalent model, whereby an optimized further impedance parameter value of the at least one further impedance parameter is obtained. - Providing a finite sequence of time-successive pairs of measured current and voltage values (I meas,k ; U meas,k ), the pairs of current and voltage values (I k ; U k ) indicating the current (I L ) flowing through the battery system and the voltage (U L ) applied to the battery system at the corresponding time ; - Providing an electrical equivalent model of the battery system , the electrical equivalent model comprising series-connected impedances (Z 1 , Z 2 , Z 3 , Z 4 ); - Providing initial impedance parameter values of the impedances of the electric equivalent model; - adjusting a first impedance parameter (R soldif ) of an impedance (Z 4 ) of the electrical equivalent model based on the difference between a first simulated voltage value (U sim,1 ) based on the initial impedance parameter values and the first current value (I 1 ) of the finite sequence and the first measured voltage value (U meas,1 ) of the finite sequence, whereby an optimised first impedance parameter value is obtained; - Minimising the deviation of a sequence of simulated voltage values (U sim,k ) obtained based on the electrical equivalent model and the sequence of measured current values (I meas,k ) from the sequence of measured voltage values (U meas,k ) by adjusting at least one further impedance parameter of the impedances (Z 1 , Z 2 , Z 3 , Z 4 ) of the electrical equivalent model, whereby an optimized further impedance parameter value of the at least one further impedance parameter is obtained.
A fabric treatment composition comprising: a) benefit agent capsules wherein the benefit agent capsules comprise a shell material encapsulating a core material, wherein said shell material is derived from polyvinylalcohol and a shell component wherein said shell component is selected from the list consisting of polyacrylate,polyurea,and mixtures thereof; said core material comprises a benefit agent; b) a diaminostilbene brightener selected from and mixtures thereof, wherein M is a suitable cation. a) benefit agent capsules wherein the benefit agent capsules comprise a shell material encapsulating a core material, wherein said shell material is derived from polyvinylalcohol and a shell component wherein said shell component is selected from the list consisting of polyacrylate,polyurea,and mixtures thereof; said core material comprises a benefit agent; b) a diaminostilbene brightener selected from and mixtures thereof, wherein M is a suitable cation.
An effervescent developer precursor for preparing a developing solution for developing a lithographic printing plate precursor, characterized in that the effervescent developer precursor includes an effervescence generating compound.
An agricultural distribution machine for spreading liquid and/or solid plant protection products by means of a distribution apparatus , which is arranged to be height-adjustable on a frame of the distribution machine , and which is equipped with a plurality of nozzle holders , which are in each case spaced apart from each other, wherein each of the nozzle holders in each case has at least one spray nozzle for distributing the plant protection product to be spread, characterised in that the activation of the distribution apparatus or the distribution of the plant protection products is carried out based on at least two spray profiles stored in a computer unit , which spray profiles each comprise or take into account at least three parameters and/or sensor values, wherein a spray profile is composed of at least a nozzle profile and an associated pressure range and an associated height control , and wherein, in the instance of a deviation of at least one parameter or of one sensor value of a first spray profile , an automated activation of the distribution apparatus is carried out based on the parameters of the at least one second other, previously selected spray profile , in which the parameters are defined differently.
A pharmaceutical combination comprising: (A) an anti-LY75 antibody, or an antigen-binding portion thereof, said antibody or portion comprising: a) a heavy chain variable region comprising: i) a first vhCDR comprising SEQ ID NO: 5; ii) a second vhCDR comprising SEQ ID NO: 6; and iii) a third vhCDR comprising SEQ ID NO: 7; and b) a light chain variable region comprising: i) a first vlCDR comprising SEQ ID NO: 8; ii) a second vlCDR comprising SEQ ID NO: 9; and iii) a third vlCDR comprising SEQ ID NO: 10; wherein the anti-LY75 antibody or an antigen-binding portion thereof further comprises a covalently-attached moiety, and wherein said moiety is a maytansinoid; and (B) Rituximab; wherein the pharmaceutical combination is in the form of a combined preparation for simultaneous, separate or sequential use and wherein the pharmaceutical combination is for use in the treatment of diffuse large B-cell lymphoma (DLBCL) or Non-Hodgkin's lymphoma. (A) an anti-LY75 antibody, or an antigen-binding portion thereof, said antibody or portion comprising: a) a heavy chain variable region comprising: i) a first vhCDR comprising SEQ ID NO: 5; ii) a second vhCDR comprising SEQ ID NO: 6; and iii) a third vhCDR comprising SEQ ID NO: 7; and b) a light chain variable region comprising: i) a first vlCDR comprising SEQ ID NO: 8; ii) a second vlCDR comprising SEQ ID NO: 9; and iii) a third vlCDR comprising SEQ ID NO: 10; wherein the anti-LY75 antibody or an antigen-binding portion thereof further comprises a covalently-attached moiety, and wherein said moiety is a maytansinoid; and a) a heavy chain variable region comprising: i) a first vhCDR comprising SEQ ID NO: 5; ii) a second vhCDR comprising SEQ ID NO: 6; and iii) a third vhCDR comprising SEQ ID NO: 7; and i) a first vhCDR comprising SEQ ID NO: 5; ii) a second vhCDR comprising SEQ ID NO: 6; and iii) a third vhCDR comprising SEQ ID NO: 7; and b) a light chain variable region comprising: i) a first vlCDR comprising SEQ ID NO: 8; ii) a second vlCDR comprising SEQ ID NO: 9; and iii) a third vlCDR comprising SEQ ID NO: 10; i) a first vlCDR comprising SEQ ID NO: 8; ii) a second vlCDR comprising SEQ ID NO: 9; and iii) a third vlCDR comprising SEQ ID NO: 10; (B) Rituximab; wherein the pharmaceutical combination is in the form of a combined preparation for simultaneous, separate or sequential use and wherein the pharmaceutical combination is for use in the treatment of diffuse large B-cell lymphoma (DLBCL) or Non-Hodgkin's lymphoma.
An effective, low dose amount of desmopressin and a beta-3-adrenergic receptor agonist for use in a method of treating a urinary frequency disorder by inhibiting the urge to urinate in an adult human subject over an interval of about two hours to no more than about eight hours, comprising administering to an adult human subject in need thereof said effective, low dose amount of desmopressin and a beta-3-adrenergic receptor agonist so that both exert physiological activity during an overlapping time period.
A global positioning system, GPS, registration tool, GRT, unit , the GRT unit comprising: a streetlight controller, SLC, connector module that is configured to couple the GRT unit to a SLC ; and a light fixture connector module that is configured to couple the GRT unit to a light fixture , wherein the GRT unit is configured to register GPS coordinates of the SLC during installation of the SLC at the light fixture and store the GPS coordinates of the SLC in the SLC before the GRT unit is removed and the SLC is plugged into the light fixture. a streetlight controller, SLC, connector module that is configured to couple the GRT unit to a SLC ; and a light fixture connector module that is configured to couple the GRT unit to a light fixture , wherein the GRT unit is configured to register GPS coordinates of the SLC during installation of the SLC at the light fixture and store the GPS coordinates of the SLC in the SLC before the GRT unit is removed and the SLC is plugged into the light fixture.
A method of creating training data for training an artificial neural network for detecting screen objects in one or more video frames rendered at or using a media device , the method comprising: rendering at a media device , a plurality of video frames of a source video stream , each frame comprising one or more primary screen objects, the source video stream further comprising original metadata for describing a further screen object to be rendered in at least one of the plurality of video frames, wherein the further screen object is configured to be superimposed on the one or more primary screen objects of a given frame during rendering; rendering each frame of the plurality of frames at least once with the further screen object and at least once without the further screen object; and creating a training data set including a set of rendered video frames , each frame in the training data set corresponding to one of the plurality of video frames rendered with and without the further screen object, and further including a corresponding data item for each frame indicating the presence or absence of a further screen object in each frame; wherein the one or more primary screen objects comprise dynamic images and/or optical characters and the further screen object is a timed text screen object. rendering at a media device , a plurality of video frames of a source video stream , each frame comprising one or more primary screen objects, the source video stream further comprising original metadata for describing a further screen object to be rendered in at least one of the plurality of video frames, wherein the further screen object is configured to be superimposed on the one or more primary screen objects of a given frame during rendering; rendering each frame of the plurality of frames at least once with the further screen object and at least once without the further screen object; and creating a training data set including a set of rendered video frames , each frame in the training data set corresponding to one of the plurality of video frames rendered with and without the further screen object, and further including a corresponding data item for each frame indicating the presence or absence of a further screen object in each frame; wherein the one or more primary screen objects comprise dynamic images and/or optical characters and the further screen object is a timed text screen object.
A multi-function valve comprising: a temperature-controlled valve core set comprising a first housing and a temperature-controlled operation assembly, the first housing being provided with a cold water inlet , a hot water inlet and a mixed water outlet , the temperature-controlled operation assembly being configured to adjust a temperature of water flow of the mixed water outlet , and the temperature-controlled operation assembly comprising a temperature adjustment rotating rob and a temperature adjustment rotary knob ; an on-off/switching valve core set comprising a second housing , a push switch operation assembly and a rotation switching operation assembly, the second housing being provided with a mixed water inlet , a first mixed water outlet and a second mixed water outlet , and the mixed water inlet being in communication with the mixed water outlet ; the temperature adjustment rotary knob being rotatably mounted to the rotation switching operation assembly; the push switch operation assembly being configured to selectively open the mixed water inlet or close the mixed water inlet ; and a transmission mechanism disposed between the temperature adjustment rotary knob and the temperature adjustment rotation rod for transmitting torque of the temperature adjustment rotary knob to the temperature adjustment rotation rod to adjust a flow cross-sectional area of the cold water inlet and/or the hot water inlet , characterised by the rotation switching operation assembly being configured to selectively open the first mixed water outlet and close the second mixed water outlet , or close the first mixed water outlet and open the second mixed water outlet . a temperature-controlled valve core set comprising a first housing and a temperature-controlled operation assembly, the first housing being provided with a cold water inlet , a hot water inlet and a mixed water outlet , the temperature-controlled operation assembly being configured to adjust a temperature of water flow of the mixed water outlet , and the temperature-controlled operation assembly comprising a temperature adjustment rotating rob and a temperature adjustment rotary knob ; an on-off/switching valve core set comprising a second housing , a push switch operation assembly and a rotation switching operation assembly, the second housing being provided with a mixed water inlet , a first mixed water outlet and a second mixed water outlet , and the mixed water inlet being in communication with the mixed water outlet ; the temperature adjustment rotary knob being rotatably mounted to the rotation switching operation assembly; the push switch operation assembly being configured to selectively open the mixed water inlet or close the mixed water inlet ; and a transmission mechanism disposed between the temperature adjustment rotary knob and the temperature adjustment rotation rod for transmitting torque of the temperature adjustment rotary knob to the temperature adjustment rotation rod to adjust a flow cross-sectional area of the cold water inlet and/or the hot water inlet , characterised by