mhurhangee/ep-ind-claims huggingface dataset:
A method of compensating a processed audio signal for undesired coloration, comprising: at an electronic device having an array of microphones and a processor: receiving a plurality of microphone signals (x1, x2, x3) from the array of microphones; generating a processed signal from the plurality of microphone signals; wherein generating the processed signal from the plurality of microphone signals comprises one or both of beamforming and deconvolution; generating a compensated processed signal by compensating the processed audio signal in accordance with a plurality of compensation coefficients, comprising: generating first spectrum values from the processed audio signal; generating reference spectrum values (<PX>) from multiple second spectrum values (PX1, PX2, PX3) which are generated from each of at least two of the microphone signals in the plurality of microphone signals (x1, x2, x3); and the method is characterised by further generating the plurality of compensation coefficients from the reference spectrum values (<PX>) and the first spectrum values. receiving a plurality of microphone signals (x1, x2, x3) from the array of microphones; generating a processed signal from the plurality of microphone signals; wherein generating the processed signal from the plurality of microphone signals comprises one or both of beamforming and deconvolution; generating a compensated processed signal by compensating the processed audio signal in accordance with a plurality of compensation coefficients, comprising: generating first spectrum values from the processed audio signal; generating reference spectrum values (<PX>) from multiple second spectrum values (PX1, PX2, PX3) which are generated from each of at least two of the microphone signals in the plurality of microphone signals (x1, x2, x3); and the method is characterised by further generating first spectrum values from the processed audio signal; generating reference spectrum values (<PX>) from multiple second spectrum values (PX1, PX2, PX3) which are generated from each of at least two of the microphone signals in the plurality of microphone signals (x1, x2, x3); and the method is characterised by further generating the plurality of compensation coefficients from the reference spectrum values (<PX>) and the first spectrum values.
A distance estimation device (1, 1x) comprising: an acquiring unit (15, 16) configured to acquire a first distance group including distances from a movable body to at least three ground objects at a first time, a second distance group including distances from the movable body to the at least three ground obj ects at a second time, and a third distance group including distances between the at least three ground objects; and a calculating unit configured to select, from the at least three ground objects, two ground objects based on the distances to the at least three ground objects or the distances between the at least three ground objects, and further configured to calculate a moving distance of the movable body from the first time to the second time based on the distances from the movable body to the selected ground objects and the distance between the selected ground objects. an acquiring unit (15, 16) configured to acquire a first distance group including distances from a movable body to at least three ground objects at a first time, a second distance group including distances from the movable body to the at least three ground obj ects at a second time, and a third distance group including distances between the at least three ground objects; and a calculating unit configured to select, from the at least three ground objects, two ground objects based on the distances to the at least three ground objects or the distances between the at least three ground objects, and further configured to calculate a moving distance of the movable body from the first time to the second time based on the distances from the movable body to the selected ground objects and the distance between the selected ground objects.
Foldable elevator car frame comprising: a ceiling, a floor platform and at least one upright extending between the floor platform and the ceiling; and at least one hinge allowing at least a movable portion of the floor platform and/or a movable portion of the ceiling to pivot with respect to the at least one upright between a folded transportation configuration and an extended operational configuration; characterized in that the at least one upright comprises: an upper portion pivotably connected to the ceiling; a lower portion pivotably connected to the floor platform; and a middle portion pivotably connected to the upper and lower portions (24a, 24b), respectively, so that the at least one upright is foldable between an extended operational configuration, in which the upper portion, the middle portion, and the lower portion extend linearly along a common axis; and a folded transportation configuration, in which the upper and lower portions are (24a, 24b) oriented in an inclined configuration with respect to the middle portion. a ceiling, a floor platform and at least one upright extending between the floor platform and the ceiling; and at least one hinge allowing at least a movable portion of the floor platform and/or a movable portion of the ceiling to pivot with respect to the at least one upright between a folded transportation configuration and an extended operational configuration; characterized in that the at least one upright comprises: an upper portion pivotably connected to the ceiling; a lower portion pivotably connected to the floor platform; and a middle portion pivotably connected to the upper and lower portions (24a, 24b), respectively, so that the at least one upright is foldable between an extended operational configuration, in which the upper portion, the middle portion, and the lower portion extend linearly along a common axis; and a folded transportation configuration, in which the upper and lower portions are (24a, 24b) oriented in an inclined configuration with respect to the middle portion. an upper portion pivotably connected to the ceiling; a lower portion pivotably connected to the floor platform; and a middle portion pivotably connected to the upper and lower portions (24a, 24b), respectively, so that the at least one upright is foldable between an extended operational configuration, in which the upper portion, the middle portion, and the lower portion extend linearly along a common axis; and a folded transportation configuration, in which the upper and lower portions are (24a, 24b) oriented in an inclined configuration with respect to the middle portion.
System for manipulating cells under a microscope, comprising a capillary as cell manipulation tool and a protective device protecting the capillary, wherein the capillary and the protective device are moveable relative to one another between a position in which the capillary is protected without contact and a position releasing the capillary for manipulation, characterised in that the system comprises a swivel arm, swivellable around a horizontal axis of rotation, at the end of which, opposite the axis of rotation, a capillary adjustment means, moveable along three orthogonal working axes (7, 8, 9), is provided, to which the capillary is attached so as to be swivellable around a capillary axis parallel to the axis of rotation, wherein the protective device is attached to a capillary holder holding the capillary, wherein the capillary is fixed to the capillary holder with a clamping nut serving as clamping member and the protective device can be clipped onto the clamping member, wherein the outer surface of the clamping nut has flattenings with a width across flats and a region of the protective device is designed to conform to this width across flats.
A method for operating a control unit of an energy harvester, comprising the steps of - activating the control unit from a sleep mode, - interrogating whether there is sufficient energy in an energy storage unit, - if it is detected that there is sufficient energy, measuring the phase difference and frequency values of an adjustable beam and a fixed beam, - recording the measured phase difference and frequency values in the memory of the control unit, - calculating the frequency of the ambient vibration and the phase difference between the output voltages of the adjustable beam and the fixed beam by using the said recorded values, - comparing the positive value of the calculated phase difference with a predetermined threshold value, - if the calculated phase difference is smaller than the said threshold value, position of the mass is changed by means of a piezomotor, - if the calculated phase difference is greater than the said threshold value, switching the control unit to the sleep mode. - activating the control unit from a sleep mode, - interrogating whether there is sufficient energy in an energy storage unit, - if it is detected that there is sufficient energy, measuring the phase difference and frequency values of an adjustable beam and a fixed beam, - recording the measured phase difference and frequency values in the memory of the control unit, - calculating the frequency of the ambient vibration and the phase difference between the output voltages of the adjustable beam and the fixed beam by using the said recorded values, - comparing the positive value of the calculated phase difference with a predetermined threshold value, - if the calculated phase difference is smaller than the said threshold value, position of the mass is changed by means of a piezomotor, - if the calculated phase difference is greater than the said threshold value, switching the control unit to the sleep mode.
Method for producing a semiconductor component, comprising: producing a layer structure which comprises a germanium layer provided with phosphorus as a doping agent, at least one neighbouring layer adjacent to the germanium layer, the neighbouring layer not being doped or being doped with phosphorus in a concentration which is different from the germanium layer, characterised in that at least one region delta-doped with silicon is arranged either in the germanium layer or in the neighbouring layer, prior to the layer structure being exposed to a temperature of 550 °C or higher in a process step. producing a layer structure which comprises a germanium layer provided with phosphorus as a doping agent, at least one neighbouring layer adjacent to the germanium layer, the neighbouring layer not being doped or being doped with phosphorus in a concentration which is different from the germanium layer, characterised in that at least one region delta-doped with silicon is arranged either in the germanium layer or in the neighbouring layer, prior to the layer structure being exposed to a temperature of 550 °C or higher in a process step.
Cleaner combination in a block form having at least one cleaner component in the form of a descaler or cleaner block, to be received in a receiving device in an interior of a cooking appliance or oven, characterized in that the cleaner combination comprises, in addition to the descaler or cleaner block, further cleaner components which are connected to one another by way of at least one connecting and separating layer (24, 26, 40), which brings about gravity-induced detachment of a cleaner component, and/or which are provided with a dissolvable casing (28, 38), where the cleaner combination comprises a descaler or cleaner block, a further cleaner block, a bleach block and/or an enzymatic cleaner block which are each connected to one another by means of a connecting and separating layer (24, 26, 40) or are enclosed by a casing (28, 38).
Silver-white effect pigments, characterised in that synthetic mica flakes having an equivalence diameter distribution according to which 90% of the particles are in the range from 2 to 40 μm, and a thickness distribution according to which 90% of the particles are in the range from 100 to 3500 nm, have a coating having a refractive index ≥ 1.9 comprising titanium dioxide and zinc oxide and/or one or more low-solubility alkaline-earth metal compounds.
A method of obtaining user input, the method comprising: initiating a display of an optical tracking grid on an electronic graphical display (104, 334, 702) comprising a touch sensitive screen input; capturing images of at least a portion of the optical tracking grid by a tracking pen device; detecting with the tracking pen device, within the images, the optical tracking grid; disabling the touch sensitive screen input in response to detecting the optical tracking grid with the tracking pen device; determine changes among the images of the at least a portion of the optical tracking grid; determining, based on the changes, a movement of a portion of the tracking pen device; and producing, in response to determining the movement, a data set characterizing movement. initiating a display of an optical tracking grid on an electronic graphical display (104, 334, 702) comprising a touch sensitive screen input; capturing images of at least a portion of the optical tracking grid by a tracking pen device; detecting with the tracking pen device, within the images, the optical tracking grid; disabling the touch sensitive screen input in response to detecting the optical tracking grid with the tracking pen device; determine changes among the images of the at least a portion of the optical tracking grid; determining, based on the changes, a movement of a portion of the tracking pen device; and producing, in response to determining the movement, a data set characterizing movement.
A centrifugal compression system, comprising: an inlet configured to receive a fluid stream from a well head or separator; an outlet; a liquid injection port (508, 510) configured to introduce a liquid into the fluid stream and create a multiphase fluid; a fluid treatment device, the fluid treatment device being a slug suppressor, an atomizing device, or a combination thereof; a centrifugal compressor configured to compress the multiphase fluid to create a multiphase discharge stream, wherein the compression system is configured to measure a discharge parameter of the multiphase discharge stream; a controller configured to control the quantity of liquid introduced into the compression system via the liquid injection port (508, 510) such that when a measured discharge parameter corresponding to a pressure ratio of the centrifugal compressor exceeds a first predetermined point the controller increases the pressure ratio by increasing the quantity of liquid introduced into the compression system corresponding to an increase of the pressure ratio above and/or on the left side of a surge line without causing surge or pulsate backflow through the centrifugal compressor; and a recycle line to recycle a portion of the compressed multiphase fluid to the centrifugal compressor. an inlet configured to receive a fluid stream from a well head or separator; an outlet; a liquid injection port (508, 510) configured to introduce a liquid into the fluid stream and create a multiphase fluid; a fluid treatment device, the fluid treatment device being a slug suppressor, an atomizing device, or a combination thereof; a centrifugal compressor configured to compress the multiphase fluid to create a multiphase discharge stream, wherein the compression system is configured to measure a discharge parameter of the multiphase discharge stream; a controller configured to control the quantity of liquid introduced into the compression system via the liquid injection port (508, 510) such that when a measured discharge parameter corresponding to a pressure ratio of the centrifugal compressor exceeds a first predetermined point the controller increases the pressure ratio by increasing the quantity of liquid introduced into the compression system corresponding to an increase of the pressure ratio above and/or on the left side of a surge line without causing surge or pulsate backflow through the centrifugal compressor; and a recycle line to recycle a portion of the compressed multiphase fluid to the centrifugal compressor.
An electronic equipment having a data storage area and connectable to a network, comprising a capacity inquiring part that inquires an empty capacity of a storage area of other electronic equipment (5b-5d) connected thereto via the network based on a request to store data from a user; a storage part having a storage area and having a specific storage area in response to the user in the storage area; an internal storage processing part that stores data in response to the storage request in the specific storage area of the own electronic equipment when there is empty capacity in the specific storage area of the own electronic equipment in response to the user; an external storage processing part that transmits data in response to the storage request to the other electronic equipment (5b-5d) and stores the data when there is no empty capacity in the specific storage area of the own electronic equipment and there is an empty capacity in the specific storage area in response to the user in the storage area of the other electronic equipment (5b-5d); and a data management part that manages data stored in the specific storage area of the other electronic equipment as data stored in the specific storage area of the own electronic equipment accessible from the user, and wherein the specific storage area of the own electronic equipment and specific storage area of the other electronic equipment in response to the user are secured as the same user box, where the user box is a user specific inherent storage area secured for each user. a capacity inquiring part that inquires an empty capacity of a storage area of other electronic equipment (5b-5d) connected thereto via the network based on a request to store data from a user; a storage part having a storage area and having a specific storage area in response to the user in the storage area; an internal storage processing part that stores data in response to the storage request in the specific storage area of the own electronic equipment when there is empty capacity in the specific storage area of the own electronic equipment in response to the user; an external storage processing part that transmits data in response to the storage request to the other electronic equipment (5b-5d) and stores the data when there is no empty capacity in the specific storage area of the own electronic equipment and there is an empty capacity in the specific storage area in response to the user in the storage area of the other electronic equipment (5b-5d); and a data management part that manages data stored in the specific storage area of the other electronic equipment as data stored in the specific storage area of the own electronic equipment accessible from the user, and wherein the specific storage area of the own electronic equipment and specific storage area of the other electronic equipment in response to the user are secured as the same user box, where the user box is a user specific inherent storage area secured for each user.
A method for operating a gas turbine, wherein a CO 2 -containing gas is compressed in a compressor, the compressed gas is used to burn a fuel in at least one subsequent combustion chamber (14, 18), and the hot combustion gases are used to drive at least one turbine (17, 21), wherein the species concentration of the gas mixture flowing through the gas turbine is measured at several points within the gas turbine by means of a plurality of species concentration sensors (22; 22a-I; 23) provided in a distributed arrangement, and the measured concentration values are utilised to control the gas turbine and/or optimise the combustion performance of said gas turbine, wherein the gas turbine is of the sequential-combustion-type with two combustors (14, 15; 18, 19) and two turbines (17, 21) respectively and flue gas recirculation, whereby at least part of the flue gas at the exit of the gas turbine is recirculated and enters the compressor after being mixed with fresh gas, the concentration of O 2 is measured by means of said plurality of species concentration sensors (22; 22a-I; 23), and the fuel flow into the second combustor (18, 19) is controlled based on the measured species concentrations, characterised in that the O 2 profile is measured inside the first combustor (14, 15).
A guide blade adjusting device for a turbomachine, namely for rotating multiple guide blades grouped to form a guide blade ring about guide blade axes of rotation of the guide blades of the guide blade ring extending in the radial direction, having a driveshaft, to which the drive motor can be coupled and which can be driven via the drive motor; a control ring, which transmits a rotation of the driveshaft for rotating guide blades of the guide blade ring to the same; wherein each guide blade has a front blade part and a rear blade part each, which are each rotatable relative to one another about a common axis of rotation, namely the respective guide blade axis of rotation; characterized in that the driveshaft is directly coupled to one of the guide blades of the guide blade ring in such a manner that the blade parts (22, 23) of this guide blade of the guide blade ring, can be directly rotated emanating from the driveshaft without intermediate connection of the control ring; the driveshaft is indirectly coupled to the other guide blades of the guide blade ring in such a manner that the blade parts (22, 23) of the other guide blades of the guide blade ring are indirectly rotatable emanating from the driveshaft subject to the intermediate connection of the control ring; a drive lever (28, 29) each acts on a bearing pin of the front blade part and a bearing pin of the rear blade part of the guide blade, wherein the drive levers (28, 29) of the blade parts of the respective guide blade are coupled among one another via a coupling device in each case in such a manner that the blade parts (22, 23) of the respective guide blade are synchronously rotatable.