mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling at least one guide vane of a gas turbine comprising: receiving a reference signal associated with the at least one guide vane; measuring an actuator position and an angular position associated with the at least one guide vane; generating a deadband signal based at least in part on the angular position ; and manipulating the at least one guide vane based at least in part on the deadband signal and the reference signal , wherein generating the deadband signal is further based on a difference between the actuator position and the angular position . receiving a reference signal associated with the at least one guide vane; measuring an actuator position and an angular position associated with the at least one guide vane; generating a deadband signal based at least in part on the angular position ; and manipulating the at least one guide vane based at least in part on the deadband signal and the reference signal , wherein generating the deadband signal is further based on a difference between the actuator position and the angular position .
A chitosan derivative, wherein said chitosan is modified with glutathione with the formation of a peptide bond, to form chitathione, a compound having peptide bonds between amine groups of units of poly(2-deoxy-2-aminoglucose) and available carboxyl groups of glutathione, for use in preventing symptoms of skin allergy caused by the contact with metals, especially heavy metals, in particular nickel.
Modular printed-circuit-board plug connector , wherein the printed-circuit-board plug connector has at least one first housing part and one second housing part which are able to be joined together to form a plug-connector housing; and wherein the printed-circuit-board plug connector has at least two different plug-connector modules which are held in a pluggable manner in the plug-connector housing by the joined-together housing parts , characterized in that the plug-connector modules are of substantially cuboidal design and have on two oppositely situated surfaces in each case two parallel grooves, a rear groove and a front groove , in that the plug-connector modules are able to be placed one next to the other on a plugging-side bearing surface of the first housing part , and in that , on the edge of the bearing surface , there is arranged a segmented web which engages into the rear groove of the plug-connector module . the plug-connector modules are of substantially cuboidal design and have on two oppositely situated surfaces in each case two parallel grooves, a rear groove and a front groove , in that the plug-connector modules are able to be placed one next to the other on a plugging-side bearing surface of the first housing part , and in that , on the edge of the bearing surface , there is arranged a segmented web which engages into the rear groove of the plug-connector module .
A process for the manufacture of hydrogen peroxide by the AO-process comprising the two alternate essential steps of (a) hydrogenation of a working solution in a hydrogenation unit in the presence of a catalyst, wherein said working solution contains at least one alkylanthraquinone dissolved in at least one organic solvent, to obtain at least one corresponding alkylanthrahydroquinone compound; and (b) oxidation of said at least one alkylanthrahydroquinone compound to obtain hydrogen peroxide in an oxidation unit; and further comprising the step of (c) extracting the hydrogen peroxide formed in the oxidation step in an extraction unit, characterized in that the hydrogenation, oxidation and extraction steps are performed in an reactor system which is designed as a compact modular system of a hydrogenation unit, an oxidation unit and an extraction unit, and wherein said reactor system is configured to operate without a reversion unit for continuous reversion and periodical cyclic reversion of the working solution, as a small to medium scale AO-process with a production capacity of hydrogen peroxide of up to 20 kilo tons per year, wherein the working solution and the catalyst are, each independent from each other, replaced and/or treated for regeneration or reactivation only intermittently or periodically after periods of 3 to 12 months in the loop of the AO-process steps (a), (b) and (c). (a) hydrogenation of a working solution in a hydrogenation unit in the presence of a catalyst, wherein said working solution contains at least one alkylanthraquinone dissolved in at least one organic solvent, to obtain at least one corresponding alkylanthrahydroquinone compound; and (b) oxidation of said at least one alkylanthrahydroquinone compound to obtain hydrogen peroxide in an oxidation unit; and further comprising the step of (c) extracting the hydrogen peroxide formed in the oxidation step in an extraction unit, characterized in that the hydrogenation, oxidation and extraction steps are performed in an reactor system which is designed as a compact modular system of a hydrogenation unit, an oxidation unit and an extraction unit, and wherein said reactor system is configured to operate without a reversion unit for continuous reversion and periodical cyclic reversion of the working solution, as a small to medium scale AO-process with a production capacity of hydrogen peroxide of up to 20 kilo tons per year, wherein the working solution and the catalyst are, each independent from each other, replaced and/or treated for regeneration or reactivation only intermittently or periodically after periods of 3 to 12 months in the loop of the AO-process steps (a), (b) and (c).
Safety switch with a locking unit , by means of which an associated actuator is retained in a locking setting, characterised in that the locking unit has an opening and a blocking element, wherein in a locking position the blocking element projects into the opening projects into the opening and engages behind an actuator head of the actuator disposed in the locking setting, that the blocking element is retained in the locking position by means of a setting element with an adjusting force, and that on introduction or removal of the actuator head via the opening of the actuator head the blocking element is deflected against the adjusting force, that the locking setting of the actuator is monitored by signals of a transponder in the actuator being detected in a reader unit of the safety switch when the actuator is moved into the locking setting in the safety switch .
An aircrew automation system for use in an aircraft, the aircrew automation system comprising: a core platform ; a human machine interface operatively coupled with the core platform to provide an interface between an aircrew member and the aircrew automation system ; an aircrew health monitoring system operatively coupled with the core platform to monitor one or more health parameters for the aircrew member; an aircraft state monitoring system coupled with the core platform to determine flight situation data; and an actuation system operatively coupled with the core platform to actuate one or more flight controls of the aircraft based in response to commands from the core platform , wherein the aircraft state monitoring system is a perception system to visually monitor one or more cockpit instruments of the aircraft to generate the flight situation data. a core platform ; a human machine interface operatively coupled with the core platform to provide an interface between an aircrew member and the aircrew automation system ; an aircrew health monitoring system operatively coupled with the core platform to monitor one or more health parameters for the aircrew member; an aircraft state monitoring system coupled with the core platform to determine flight situation data; and an actuation system operatively coupled with the core platform to actuate one or more flight controls of the aircraft based in response to commands from the core platform , wherein the aircraft state monitoring system is a perception system to visually monitor one or more cockpit instruments of the aircraft to generate the flight situation data.
A method of wireless communications performed by a User Equipment, UE , the method comprising: receiving a Conditional Handover, CHO, command from a source base station, BS, the CHO command comprising a CHO command identity, ID, and a measurement ID associated with the CHO command ID; executing the CHO command to handover the UE to a target BS when a trigger condition associated with the measurement ID is fulfilled, executing the CHO command comprising executing the CHO command without reporting a measurement report that is configured by a report configuration associated with the measurement ID; determining whether to remove the CHO command; and autonomously removing the report configuration in a case that the CHO command is removed. receiving a Conditional Handover, CHO, command from a source base station, BS, the CHO command comprising a CHO command identity, ID, and a measurement ID associated with the CHO command ID; executing the CHO command to handover the UE to a target BS when a trigger condition associated with the measurement ID is fulfilled, executing the CHO command comprising executing the CHO command without reporting a measurement report that is configured by a report configuration associated with the measurement ID; determining whether to remove the CHO command; and autonomously removing the report configuration in a case that the CHO command is removed.
A method for modifying the color gamut of a digital image, the method comprising the following steps performed in an apparatus for processing an image: a) receiving a digital image ( I ); b) checking if there is a need of gamut reduction or gamut extension wherein if the target gamut is enclosed by the source gamut, then gamut reduction is needed, and if the source gamut is encompassed by the target gamut, then gamut extension has to be performed; c) converting the input image ( I ) into the HSV color space to obtain the components H 0, S 0 , and V 0 ; d) convolving S 0 with a kernel ( K ) and adding a constant-valued image (P) in the result to obtain an interim gamut-mapped image ( S i ) as: wherein the said kernel ( K ) is computed as: wherein F is a Fourier transform operation, ω is a Gaussian kernel with standard deviation equal to the one-third of the number of rows or columns of the input image, whichever is larger; and c 1 is a constant and c 2 is a positive constant in the case of gamut extension, and c 2 is a negative constant in the case of gamut reduction; e) applying a threshold operation that is S f = max(S 0 , S i ) in the case of gamut extension and S f = min(S 0 , S i ) in the case of gamut reduction; f) converting the HSV image with channels ( H 0 , S f , V 0 ) into the RGB color space of the target device to obtain the final gamut-mapped image. a) receiving a digital image ( I ); b) checking if there is a need of gamut reduction or gamut extension wherein if the target gamut is enclosed by the source gamut, then gamut reduction is needed, and if the source gamut is encompassed by the target gamut, then gamut extension has to be performed; c) converting the input image ( I ) into the HSV color space to obtain the components H 0, S 0 , and V 0 ; d) convolving S 0 with a kernel ( K ) and adding a constant-valued image (P) in the result to obtain an interim gamut-mapped image ( S i ) as: wherein the said kernel ( K ) is computed as: wherein F is a Fourier transform operation, ω is a Gaussian kernel with standard deviation equal to the one-third of the number of rows or columns of the input image, whichever is larger; and c 1 is a constant and c 2 is a positive constant in the case of gamut extension, and c 2 is a negative constant in the case of gamut reduction; e) applying a threshold operation that is S f = max(S 0 , S i ) in the case of gamut extension and S f = min(S 0 , S i ) in the case of gamut reduction; f) converting the HSV image with channels ( H 0 , S f , V 0 ) into the RGB color space of the target device to obtain the final gamut-mapped image.
A method for producing a xylan-containing material, comprising the steps of: (a) adding an acid and/or carbon dioxide to a black liquor discharged during a soda cooking step of wood chips including hardwood chips to adjust the pH of the black liquor to be in the range of 1 to 9, thereby giving a suspension; (b) dehydrating and washing an insoluble matter generated in the suspension to separately collect the insoluble matter; and (c) adding an organic solvent to the insoluble matter obtained at the step (b) to give a suspension, and separately collecting a xylan-containing material made of the insoluble matter present in the suspension by solid/liquid separation. (a) adding an acid and/or carbon dioxide to a black liquor discharged during a soda cooking step of wood chips including hardwood chips to adjust the pH of the black liquor to be in the range of 1 to 9, thereby giving a suspension; (b) dehydrating and washing an insoluble matter generated in the suspension to separately collect the insoluble matter; and (c) adding an organic solvent to the insoluble matter obtained at the step (b) to give a suspension, and separately collecting a xylan-containing material made of the insoluble matter present in the suspension by solid/liquid separation.
A method of determining a gaze point of an eye watching a visual display controllable by a display signal, the method comprising: generating a display signal using a graphics card in order for the visual display to produce a screen pattern (310; 320; 340); receiving a signal encoding an image of the eye including a corneo-scleral reflection of the screen pattern (310; 320; 340); determining, based on in part the geometry of said corneo-scleral reflection of the screen pattern, a gaze point of the eye , wherein said determining a gaze point includes utilising the graphics card as a parallel processor; wherein the graphics card receives, directly from an imaging device the signal encoding an image of the eye including a corneo-scleral reflection of the screen pattern and wherein said determining a gaze point comprises: extracting, using the graphics card one or more image features in said corneo-scleral reflection of the screen pattern and comparing, using the graphics card , said one or more image features with the display signal in order to retrieve these in the screen pattern . generating a display signal using a graphics card in order for the visual display to produce a screen pattern (310; 320; 340); receiving a signal encoding an image of the eye including a corneo-scleral reflection of the screen pattern (310; 320; 340); determining, based on in part the geometry of said corneo-scleral reflection of the screen pattern, a gaze point of the eye , wherein said determining a gaze point includes utilising the graphics card as a parallel processor; wherein the graphics card receives, directly from an imaging device the signal encoding an image of the eye including a corneo-scleral reflection of the screen pattern and wherein said determining a gaze point comprises: extracting, using the graphics card one or more image features in said corneo-scleral reflection of the screen pattern and comparing, using the graphics card , said one or more image features with the display signal in order to retrieve these in the screen pattern . extracting, using the graphics card one or more image features in said corneo-scleral reflection of the screen pattern and comparing, using the graphics card , said one or more image features with the display signal in order to retrieve these in the screen pattern .
A terminal comprising: a receiving section that receives a downlink, DL, signal using at least one of a plurality of time intervals for transmission included in a subframe; a transmission section that transmits acknowledgement/negative acknowledgement, ACK/NACK, information for the DL signal using an uplink control channel on at least one of a plurality of time intervals for transmission in a subframe after a predetermined period in units of a subframe, and a control section that applies frequency hopping to the uplink control channel and controls such that each region of the uplink control channel allocated to different frequency ranges by the frequency hopping has a same number of symbols, the at least one of the time intervals for transmission of the ACK/NACK information being constituted of an even number of symbols. a receiving section that receives a downlink, DL, signal using at least one of a plurality of time intervals for transmission included in a subframe; a transmission section that transmits acknowledgement/negative acknowledgement, ACK/NACK, information for the DL signal using an uplink control channel on at least one of a plurality of time intervals for transmission in a subframe after a predetermined period in units of a subframe, and a control section that applies frequency hopping to the uplink control channel and controls such that each region of the uplink control channel allocated to different frequency ranges by the frequency hopping has a same number of symbols, the at least one of the time intervals for transmission of the ACK/NACK information being constituted of an even number of symbols.
A connector for a high-current cable , which connector comprises a connector head having a terminal portion for an electrical terminal, comprises a connection portion , and comprises an adapter piece , wherein a. the adapter piece is connected to the cable and the connection portion via connections produced by means of resistance butt welding, b. the adapter piece comprises a cable portion having a fine-wire bunched conductor and comprises a sleeve surrounding the cable portion , and c. the material of the cable portion is different from the material of the cable . a. the adapter piece is connected to the cable and the connection portion via connections produced by means of resistance butt welding, b. the adapter piece comprises a cable portion having a fine-wire bunched conductor and comprises a sleeve surrounding the cable portion , and c. the material of the cable portion is different from the material of the cable .
Method for making a piezoelectric device and electrodes for monitoring the structural integrity of a structure, comprising the steps of: - defining a directivity function D(k1,k2) that has, in the domain of wave numbers, a plurality of maxima arranged on different concentric circumferences having center in the origin of the axes, - computing a load distribution in spatial coordinates f(x1,x2) by inverse Fourier transform of the directivity function D(k1,k2) defined in the domain of wave numbers, - making (402-404) said device and electrodes, wherein - the directivity function D(k1,k2) is asymmetrical, - the electrodes (1,2,3..n) of the device are made according to the following steps: - gathering the values of the load distribution f(x1,x2) in the complex plane (R,I), - defining at least two sectors of said plane that comprise at least one real value and one imaginary value, - making said plurality of electrodes equal in number to the number of the defined sectors, wherein each electrode of said plurality has a shape corresponding to the points of the load distribution f(x1,x2) that lie in the same sector . - defining a directivity function D(k1,k2) that has, in the domain of wave numbers, a plurality of maxima arranged on different concentric circumferences having center in the origin of the axes, - computing a load distribution in spatial coordinates f(x1,x2) by inverse Fourier transform of the directivity function D(k1,k2) defined in the domain of wave numbers, - making (402-404) said device and electrodes, wherein - the directivity function D(k1,k2) is asymmetrical, - the electrodes (1,2,3..n) of the device are made according to the following steps: - gathering the values of the load distribution f(x1,x2) in the complex plane (R,I), - defining at least two sectors of said plane that comprise at least one real value and one imaginary value, - making said plurality of electrodes equal in number to the number of the defined sectors, wherein each electrode of said plurality has a shape corresponding to the points of the load distribution f(x1,x2) that lie in the same sector . - gathering the values of the load distribution f(x1,x2) in the complex plane (R,I), - defining at least two sectors of said plane that comprise at least one real value and one imaginary value, - making said plurality of electrodes equal in number to the number of the defined sectors, wherein each electrode of said plurality has a shape corresponding to the points of the load distribution f(x1,x2) that lie in the same sector .
Axle mounting unit , in particular for commercial vehicles, comprising a surrounding element , an end element , at least one fastening element and a securing device wherein the axle mounting unit is configured to brace a first chassis part (A), in particular an axle, to a second chassis part (L), in particular a control arm, wherein the surrounding element is configured to be arranged on the first chassis part (A), wherein the end element is configured to be arranged on the second chassis part (L), wherein the surrounding element has at least two legs which each extend in a leg direction (S), wherein the end element extends between the two legs or is configured to extend between the two legs , wherein the fastening element braces the end element with the surrounding element or is configured to brace the end element with the surrounding element , wherein the end element has at least one lead-through through which one of the legs extends or which is configured for one of the legs to extend therethrough, wherein the securing device is a form-fit securing device and/or is a means of creating a positive locking, wherein the form-fit securing device serves to limit and/or prevent a displacement of the separated part in the direction of the leg (S) in a positive-locking manner in the event of mechanical failure or the severing of a part of the axle mounting unit , in particular of a part of the leg , wherein the securing device comprises a recess which is configured to plastically deform the fastening element when the end element is braced with the surrounding element , so that the recess forms a positive-locking connection with the plastically deformed part of the fastening element , wherein the fastening element is fixed on the surrounding element in such a way that the fastening element can only be released irreversibly, in particular not non-destructively, from the surrounding element , characterized in that the recess is arranged within the at least one lead-through of the end element .