mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a first wind power installation comprising a rotor having a rotor blade that is adjustable with a pitch angle , which generates an electrical power and in the wake of which a second wind power installation is located in at least one wake wind direction (W), comprising the step of: - operating the first wind power installation in a substantially wake-free normal mode with a first pitch characteristic , and operating the first wind power installation in a wake-loaded wake mode with a second pitch characteristic , - wherein the first pitch characteristic represents a first profile of the pitch angle and the second pitch characteristic represents a second profile of the pitch angle as a function of the electrical power, - wherein the pitch angle of the second pitch characteristic is greater than the pitch angle of the first pitch characteristic for at least one range of the electrical power, characterized by the first pitch characteristic and the second pitch characteristic substantially matching up to a first power threshold value of the electrical power and, for an electrical power exceeding the first power threshold value , the pitch angle of the second pitch characteristic being greater than the pitch angle of the first pitch characteristic . - operating the first wind power installation in a substantially wake-free normal mode with a first pitch characteristic , and operating the first wind power installation in a wake-loaded wake mode with a second pitch characteristic , - wherein the first pitch characteristic represents a first profile of the pitch angle and the second pitch characteristic represents a second profile of the pitch angle as a function of the electrical power, - wherein the pitch angle of the second pitch characteristic is greater than the pitch angle of the first pitch characteristic for at least one range of the electrical power, characterized by
A HRG ground fault detector configured to detect a ground fault in a High Resistance Ground, HRG, system, the HRG ground fault detector comprising: a first input (A) adapted to be coupled to a first phase (PH A ) of the HRG system; a second input (B) adapted to be coupled to a second phase (PH B ) of the HRG system; a third input (C) adapted to be coupled to a third phase (PH C ) of the HRG system, with the HRG ground fault detector configured to generate a simulated neutral voltage V N' from the first phase (PH A ), the second phase (PH B ), and the third phase (PH C ), wherein the simulated neutral voltage V N' comprises a zero voltage potential when the first phase (PH A ), the second phase (PH B ), and the third phase (PH C ) are equal; an integrator coupled to a neutral node (N') and configured to integrate the simulated neutral voltage V N' , wherein the integrated voltage V INT is substantially constant in amplitude regardless of a frequency at the first phase (PH A ), the second phase (PH B ), and the third phase (PH C ); and a processing system coupled to the integrator, with the processing system configured to compare the integrated voltage V INT to a predetermined fault voltage threshold and detect a HRG ground fault in the HRG system if the integrated voltage V INT exceeds the predetermined fault voltage threshold, wherein the HRG ground fault detector is further configured to determine a fundamental frequency of a faulted phase from the integrated voltage V INT . a first input (A) adapted to be coupled to a first phase (PH A ) of the HRG system; a second input (B) adapted to be coupled to a second phase (PH B ) of the HRG system; a third input (C) adapted to be coupled to a third phase (PH C ) of the HRG system, with the HRG ground fault detector configured to generate a simulated neutral voltage V N' from the first phase (PH A ), the second phase (PH B ), and the third phase (PH C ), wherein the simulated neutral voltage V N' comprises a zero voltage potential when the first phase (PH A ), the second phase (PH B ), and the third phase (PH C ) are equal; an integrator coupled to a neutral node (N') and configured to integrate the simulated neutral voltage V N' , wherein the integrated voltage V INT is substantially constant in amplitude regardless of a frequency at the first phase (PH A ), the second phase (PH B ), and the third phase (PH C ); and a processing system coupled to the integrator, with the processing system configured to compare the integrated voltage V INT to a predetermined fault voltage threshold and detect a HRG ground fault in the HRG system if the integrated voltage V INT exceeds the predetermined fault voltage threshold, wherein the HRG ground fault detector is further configured to determine a fundamental frequency of a faulted phase from the integrated voltage V INT .
A device for checking the integrity of a digital transmission of a system , where an analog output of the system is configured to receive the digital transmission and produce an analog output signal transmitting it via an analog path , and where the system includes a first test signal generator, TSG, (108-1) for producing a test signal using a test generation function and for injecting the test signal into the digital transmission for output by the analog output , the device comprising: a second TSG (108-2) using same test generation function as the first TSG (108-1); and at least one processor configured to check the integrity of the digital transmission and output an indication of whether any errors are introduced due to a digital path of the digital transmission by: estimating the test signal using the second TSG (108-2) and compensating the test signal estimated for a linear transfer function of the digital path and the analog path of the analog output combined, and determining whether the compensated test signal estimated corresponds to the analog output signal transmitted by the analog output to determine whether the digital path of the digital transmission is free from errors. a second TSG (108-2) using same test generation function as the first TSG (108-1); and at least one processor configured to check the integrity of the digital transmission and output an indication of whether any errors are introduced due to a digital path of the digital transmission by: estimating the test signal using the second TSG (108-2) and compensating the test signal estimated for a linear transfer function of the digital path and the analog path of the analog output combined, and determining whether the compensated test signal estimated corresponds to the analog output signal transmitted by the analog output to determine whether the digital path of the digital transmission is free from errors. estimating the test signal using the second TSG (108-2) and compensating the test signal estimated for a linear transfer function of the digital path and the analog path of the analog output combined, and determining whether the compensated test signal estimated corresponds to the analog output signal transmitted by the analog output to determine whether the digital path of the digital transmission is free from errors.
A decoding method for decoding a coded picture signal for a coding unit, the coding unit including one or more transform units, the decoding method comprising: obtaining, from the coded picture signal, a luminance CBF flag indicating whether or not a quantized coefficient is included in a transform unit from among the one or more transform units; judging (S201) whether or not a size of the coding unit is identical to a size of the transform unit; characterized by setting ctxldxlnc for prescribing probability information used for arithmetic decoding to either 0 or 1 according to whether or not the size of the coding unit is identical to the size of the transform unit and whether or not the size of the transform unit is the same as a maximum size of the transform unit, so that (i) ctxldxlnc is set to 1 when the size of the coding unit is identical to the size of the transform unit or the size of the transform unit is the same as the maximum size of the transform unit and (ii) ctxldxlnc is set to 0 when the size of the coding unit is not identical to the size of the transform unit and the size of the transform unit is not the same as the maximum size of the transform unit; performing arithmetic decoding (S204) on the luminance CBF flag using probability information based on the ctxldxlnc; and reconstructing a picture signal for the coding unit using the quantized coefficient of the transform unit when the luminance CBF flag indicates that the quantized coefficient is included in the transform unit. obtaining, from the coded picture signal, a luminance CBF flag indicating whether or not a quantized coefficient is included in a transform unit from among the one or more transform units; judging (S201) whether or not a size of the coding unit is identical to a size of the transform unit; characterized by setting ctxldxlnc for prescribing probability information used for arithmetic decoding to either 0 or 1 according to whether or not the size of the coding unit is identical to the size of the transform unit and whether or not the size of the transform unit is the same as a maximum size of the transform unit, so that (i) ctxldxlnc is set to 1 when the size of the coding unit is identical to the size of the transform unit or the size of the transform unit is the same as the maximum size of the transform unit and (ii) ctxldxlnc is set to 0 when the size of the coding unit is not identical to the size of the transform unit and the size of the transform unit is not the same as the maximum size of the transform unit; performing arithmetic decoding (S204) on the luminance CBF flag using probability information based on the ctxldxlnc; and reconstructing a picture signal for the coding unit using the quantized coefficient of the transform unit when the luminance CBF flag indicates that the quantized coefficient is included in the transform unit.
A method for synthesizing a decursin derivative, comprising: (I) preparing a solution by mixing cinnamyl bromide and an N-methyl-2-pyrrolidone (NMP) solvent; (II) preparing a solution by mixing decursinol, a tetrahydrofuran (THF) solvent, and sodium hydride (NaH); and (III) obtaining a decursin derivative represented by Chemical Formula 1 by mixing the solutions prepared in (I) and (II). (I) preparing a solution by mixing cinnamyl bromide and an N-methyl-2-pyrrolidone (NMP) solvent; (II) preparing a solution by mixing decursinol, a tetrahydrofuran (THF) solvent, and sodium hydride (NaH); and (III) obtaining a decursin derivative represented by Chemical Formula 1 by mixing the solutions prepared in (I) and (II).
A strike plate for a drive rod fitting of a window, a French window or the like, with a base part and with a head part connected to the base part and with at least one retaining edge arranged in the head part for the support of a lock pin of the drive rod fitting, wherein the head part is designed in the cross section U-shaped with a base and two legs projecting from the base , characterized in that the retaining edge is arranged in a first leg of the head part and that the base part has a support and that the support projects between the two legs of the top part .
A vehicle identification method comprising: acquiring appearance information of an inspected vehicle (S21) and obtaining external features of the vehicle based on the appearance information (S22); acquiring a X-ray image of the vehicle (S23) and obtaining internal features of the vehicle from the X-ray image (S24); forming descriptions on the vehicle at least based on the external features and the internal features (S25), and determining a vehicle model of the vehicle from a vehicle model database by utilizing the descriptions (S26); characterized in that the descriptions include feature vectors formed by the external features and the internal features acquiring appearance information of an inspected vehicle (S21) and obtaining external features of the vehicle based on the appearance information (S22); acquiring a X-ray image of the vehicle (S23) and obtaining internal features of the vehicle from the X-ray image (S24); forming descriptions on the vehicle at least based on the external features and the internal features (S25), and determining a vehicle model of the vehicle from a vehicle model database by utilizing the descriptions (S26); characterized in that the descriptions include feature vectors formed by the external features and the internal features
A method of operating a corona ignition system , comprising the step of: providing energy to a corona igniter at a first drive frequency during a first period of time and at a third drive frequency during a third period of time spaced from the first period of time by a second period of time during which no energy is provided to the corona igniter, characterized in that the method further comprises the step of obtaining a resonant frequency of the corona igniter from at least one of a first output voltage and a first output current of the corona igniter during the second period of time during which no energy is provided to the corona igniter. providing energy to a corona igniter at a first drive frequency during a first period of time and at a third drive frequency during a third period of time spaced from the first period of time by a second period of time during which no energy is provided to the corona igniter, characterized in that the method further comprises the step of obtaining a resonant frequency of the corona igniter from at least one of a first output voltage and a first output current of the corona igniter during the second period of time during which no energy is provided to the corona igniter.
A multi-ply paper substrate produced by an air-laid process, comprising: at least two plies contacting are bonded to one another by an adhesive selected from the group consisting of starch, cooked starch, adhesive starch,bicomponent fiber,synthetic fiber, binder, or any combination thereof; the multi-ply paper substrate having a basis weight of 80-200 gsm; an internal bond of 0.021 - 0.386 kg/cm (10-180 milli-ft.-lb/sq.) in. as measured by TAPPI method 541; a delamination ply with an internal bond of 0.021 - 0.386 kg/cm (10-180 milli-ft.-lb/sq.in.) as measured by TAPPI method 541, wherein the delamination ply comprises 50% or greater by weight of fibers of hardwood fibers, less than 50% by weight of fibers of refined or fibrillated fibers or less than 50% by weight of an adhesive; one or more strength plies with an internal bond greater than that of the delamination ply, wherein the strength ply or plies comprise(s) more than 50% of adhesive, more than 50% by weight of fibers of softwood fibers or more than 50% bv weight of fibers of refined or fibrillated fibers; one or more outer ply comprising not-over-refined or long fibers; an MD tensile of 35 - 525 N/cm (20-300 lbε/inch) width as measured by TAPPI method 494; and a CD tensile of 17.5 - 525 N/cm (10-300 lbε/inch) width as measured by TAPPI method 494. at least two plies contacting are bonded to one another by an adhesive selected from the group consisting of starch, cooked starch, adhesive starch,bicomponent fiber,synthetic fiber, binder, or any combination thereof; the multi-ply paper substrate having a basis weight of 80-200 gsm; an internal bond of 0.021 - 0.386 kg/cm (10-180 milli-ft.-lb/sq.) in. as measured by TAPPI method 541; a delamination ply with an internal bond of 0.021 - 0.386 kg/cm (10-180 milli-ft.-lb/sq.in.) as measured by TAPPI method 541, wherein the delamination ply comprises 50% or greater by weight of fibers of hardwood fibers, less than 50% by weight of fibers of refined or fibrillated fibers or less than 50% by weight of an adhesive; one or more strength plies with an internal bond greater than that of the delamination ply, wherein the strength ply or plies comprise(s) more than 50% of adhesive, more than 50% by weight of fibers of softwood fibers or more than 50% bv weight of fibers of refined or fibrillated fibers; one or more outer ply comprising not-over-refined or long fibers; an MD tensile of 35 - 525 N/cm (20-300 lbε/inch) width as measured by TAPPI method 494; and a CD tensile of 17.5 - 525 N/cm (10-300 lbε/inch) width as measured by TAPPI method 494.
Method for operating a paper machine, wherein the paper machine comprises a plurality of drives and a motion controller , wherein the drives and optional detectors provide motion parameters (BP) for the motion controller , wherein at least one performance value (KPI) is determined with the aid of the motion controller by using the motion parameters (BP) and/or controller parameters (RP), wherein the motion controller has at least one closed-loop controller for controlling at least one motion parameter (BP), each controller parameter (RP) is a manipulated variable of a closed-loop controller of the motion controller and the at least one performance value (KPI) indicates an operating state of the paper machine , wherein the at least one performance value (KPI) is displayed on a display , wherein the performance values (KPI) are derived from the motion parameters (BP) and/or the controller parameters (RP), in particular from their respective changes over time, and wherein a control quality is determined as a performance value (KPI) from at least one controller parameter (RP) and/or at least one motion parameter (BP), wherein the control quality indicates a speed of the closed-loop control response to a motion parameter (BP) to be set.
Process for the preparation of a base formulation for a dermatological sunscreen composition, wherein the base formulation comprises an oil phase and a water phase and contains a plurality of UV-absorbing substances and at least one amphiphilic substance which forms lamellar structures, at which an oil phase is produced which comprises at least one triglyceride and the substantial content of UV-absorbing substances, and said oil phase is heated and homogenized in a first step to at least 80°C and at most 83°C, and at least one UV-absorbing inorganic substance is admixed in a second step at at least 70°C and at most 76°C; a water phase is produced which comprises the substantial content of amphiphilic substance, and said water phase is heated to at least 70°C and homogenised; both phases are combined, optionally with the addition of at least one further UV-absorbing substance, and the combined product is homogenised.
A method of wireless communication, comprising: transmitting , by a base station, BS, via an antenna array including a plurality of antenna elements, a first communication signal using a first number of the plurality of antenna elements and a first transmit power level; receiving , by the BS from at least one user equipment, UE, one or more measurement reports based on the first communication signal; and transmitting , by the BS, a second communication signal using a second number of the plurality of antenna elements and a second transmit power level based on the one or more measurement reports, wherein the first number of the plurality of antenna elements is greater than the second number of the plurality of antenna elements, and the first transmit power level is less than the second transmit power level. transmitting , by a base station, BS, via an antenna array including a plurality of antenna elements, a first communication signal using a first number of the plurality of antenna elements and a first transmit power level; receiving , by the BS from at least one user equipment, UE, one or more measurement reports based on the first communication signal; and transmitting , by the BS, a second communication signal using a second number of the plurality of antenna elements and a second transmit power level based on the one or more measurement reports, wherein the first number of the plurality of antenna elements is greater than the second number of the plurality of antenna elements, and the first transmit power level is less than the second transmit power level.
A blow mold for blow-molding a resin container equipped with a recessed part as a grip portion , comprising: a cavity mold composed of a pair of split molds having a first split mold and a second split mold for forming a cavity in which a bottomed cylindrical preform is to be housed; to each of the first split mold and second split mold a link member is disposed having one end side pivotably supported by a shaft member , and having on another end side an attached recess insert die which presses the preform during blow molding to form the grip portion ; the blow mold being characterized in having a cam member which is provided lateral to each cavity split mold so as to be linearly movable, wherein the cam members press the link members in accordance with a linear movement thereof to pivot the link members with the recess insert dies toward the cavity for forming the grip portion . a cavity mold composed of a pair of split molds having a first split mold and a second split mold for forming a cavity in which a bottomed cylindrical preform is to be housed; to each of the first split mold and second split mold a link member is disposed having one end side pivotably supported by a shaft member , and having on another end side an attached recess insert die which presses the preform during blow molding to form the grip portion ; the blow mold being characterized in having a cam member which is provided lateral to each cavity split mold so as to be linearly movable, wherein the cam members press the link members in accordance with a linear movement thereof to pivot the link members with the recess insert dies toward the cavity for forming the grip portion .
An apparatus comprising: an endoscopic camera ; a vision control cart coupled to the endoscopic camera , the vision control cart including an image processor , the image processor being configured to desaturate a captured visible color image of tissue within a surgical site into a desaturated image, the desaturated image being a grayscale image, a black/white image, or monochrome image, the visible color image being captured by the endoscopic camera , the visible color image being a reflected white light image captured from visible electro-magnetic spectrum light, and the image processor being configured to acquire a first enhanced image of the tissue within the surgical site, the first enhanced image captured by the endoscopic camera in response to illuminating the tissue with non-visible electromagnetic radiation, wherein the image processor is further configured to color the first enhanced image with a first visible color to form a first enhanced color image; and a surgeon console coupled the vision control cart , the surgeon console including a display device coupled to the image processor , the display device being configured to display a superposition of the desaturated image and the first enhanced color image together to form a blended image. an endoscopic camera ; a vision control cart coupled to the endoscopic camera , the vision control cart including an image processor , the image processor being configured to desaturate a captured visible color image of tissue within a surgical site into a desaturated image, the desaturated image being a grayscale image, a black/white image, or monochrome image, the visible color image being captured by the endoscopic camera , the visible color image being a reflected white light image captured from visible electro-magnetic spectrum light, and the image processor being configured to acquire a first enhanced image of the tissue within the surgical site, the first enhanced image captured by the endoscopic camera in response to illuminating the tissue with non-visible electromagnetic radiation, wherein the image processor is further configured to color the first enhanced image with a first visible color to form a first enhanced color image; and a surgeon console coupled the vision control cart , the surgeon console including a display device coupled to the image processor , the display device being configured to display a superposition of the desaturated image and the first enhanced color image together to form a blended image.