mhurhangee/ep-ind-claims huggingface dataset:
Sliding door system for a motor vehicle, comprising a frame around a door opening in a side wall of the motor vehicle, the frame having two predominantly horizontally running longitudinal frames, an upper and a lower, and a sliding door and a second door for closing the door opening, no vehicle body pillar being arranged between the sliding door and the door, and it being possible, in order to open and close the door opening, for the sliding door to be moved in a closing direction (s) out of an open position and into a closed position via a guide device with guide rails (5, 6, 7) along a non-linear path relative to the vehicle body, and it being possible for the said sliding door to be fixed in the closed position by means of a closing apparatus, the closing apparatus comprising a closing mechanism, by way of which a front end region of the sliding door in the closing direction (s) can be fixed releasably to at least one longitudinal frame, and the said closing apparatus having a locking apparatus for fixing the rear end region of the sliding door, the locking apparatus comprising exclusively stationary locking elements which are configured as plug-in elements which can be plugged into one another in the closing direction (s) for a plug-in connection (16, 17) with a plug-in receptacle (18, 20) and a plug-in part (19, 21), characterized in that a rear guide rail (6, 7) in the closing direction (s), in which guide rail (6, 7) the sliding door is mounted displaceably by way of a rear end region in the closing direction (s), has an S-shaped profile with a rear end section in the closing direction (s), which end section is arranged approximately parallel to the larger side area of the sliding door in the closed position, in that a plug-in part (19, 21) and/or the corresponding plug-in receptacle (18, 20) can be set in order to adjust the closed position of the sliding door, by the plug-in receptacle (18, 20) having an insert which can be fixed in different positions with respect to the vehicle body, and/or by the plug-in pin being mounted eccentrically in a plug-in part (19, 21) and being capable of being fixed in a defined eccentric position for setting purposes.
A method, for use in a user equipment in a cellular telecommunication system having a plurality of downlink physical channels including synchronization channels and a pilot channel for channel estimation and whose timing is set in relation to that of the said synchronization channels, the method characterized by comprising: attempting to estimate the channel on the pilot channel; and in the event that the user equipment is unable to properly estimate the channel on the pilot channel to within a predetermined threshold over a predetermined time period, attempting to detect a timing of transmissions on the synchronization channels; and in the event that the user equipment is unable to detect the timing of transmissions on the synchronization channels within a predetermined threshold over a predetermined time period, determining that there is a radio link problem. attempting to estimate the channel on the pilot channel; and in the event that the user equipment is unable to properly estimate the channel on the pilot channel to within a predetermined threshold over a predetermined time period, attempting to detect a timing of transmissions on the synchronization channels; and in the event that the user equipment is unable to detect the timing of transmissions on the synchronization channels within a predetermined threshold over a predetermined time period, determining that there is a radio link problem.
A method for dynamically controlling a wind turbine, the method comprising: operating the wind turbine based on a thrust set point and a speed set point; determining, via a processor, a desired change in actual speed of the wind turbine in response to control actuations starting from an instantaneous operating point; determining, via the processor, a desired change in actual thrust of the wind turbine in response to control actuations starting from the instantaneous operating point; determining, via the processor, at least one parameter set point that achieves the desired change in actual speed and the desired change in actual thrust; and controlling the wind turbine based on the parameter set point so as to maintain the actual thrust and the actual speed of the wind turbine within a certain tolerance of the thrust set point and the speed set point, thereby regulating loads acting on the wind turbine; characterized in that in operating regions when a wind speed is above a rated wind speed, the thrust set point is adjusted according to a filtered or unfiltered power output, wherein, when the wind speed is below the rated wind speed, the thrust set point is adjusted according to a filtered or unfiltered pitch angle, and wherein, when the wind speed is at or near rated wind speed, the thrust set point is adjusted based on a maximum design thrust of the wind turbine. operating the wind turbine based on a thrust set point and a speed set point; determining, via a processor, a desired change in actual speed of the wind turbine in response to control actuations starting from an instantaneous operating point; determining, via the processor, a desired change in actual thrust of the wind turbine in response to control actuations starting from the instantaneous operating point; determining, via the processor, at least one parameter set point that achieves the desired change in actual speed and the desired change in actual thrust; and controlling the wind turbine based on the parameter set point so as to maintain the actual thrust and the actual speed of the wind turbine within a certain tolerance of the thrust set point and the speed set point, thereby regulating loads acting on the wind turbine; characterized in that in operating regions when a wind speed is above a rated wind speed, the thrust set point is adjusted according to a filtered or unfiltered power output, wherein, when the wind speed is below the rated wind speed, the thrust set point is adjusted according to a filtered or unfiltered pitch angle, and wherein, when the wind speed is at or near rated wind speed, the thrust set point is adjusted based on a maximum design thrust of the wind turbine.
An engineered Streptococcus pyogenes Cas9 (SpCas9) protein variant having an identity of at least 99% identity with SEQ ID NO:1 and comprising the mutations selected from the following group: K562L-R661L-K855Q; K562Q-R661L-K855Q; K652L-R661L-K855Q; K652Q-R661L-K855Q; R661L-K855Q-K1003Q; R661L-K855Q-R1060Q; R661L-R691L-K855Q; R661L-R780L-K855Q; R661L-R780Q-K855Q; R661L-K81 0L-K855Q; R661L-K848L-K855Q; R661L-K81 0Q-K855Q; R661L-K855Q-K1003L; and R661L-K855Q-R1060L; with reference to the amino acid numbering in the corresponding position of an unmodified mature, wild-type Streptococcus pyogenes Cas9 shown in SEQ ID NO:1. K562L-R661L-K855Q; K562Q-R661L-K855Q; K652L-R661L-K855Q; K652Q-R661L-K855Q; R661L-K855Q-K1003Q; R661L-K855Q-R1060Q; R661L-R691L-K855Q; R661L-R780L-K855Q; R661L-R780Q-K855Q; R661L-K81 0L-K855Q; R661L-K848L-K855Q; R661L-K81 0Q-K855Q; R661L-K855Q-K1003L; and R661L-K855Q-R1060L; with reference to the amino acid numbering in the corresponding position of an unmodified mature, wild-type Streptococcus pyogenes Cas9 shown in SEQ ID NO:1.
An anaerobic digester (1, 10, 20, 30) having a gas bubble agitated mixing system, said digester comprising: a container in which a viscous fluid may be held; a plurality of gas pipes, each gas pipe having an outlet arranged to introduce gas bubbles into the base region of the container, said gas bubbles being of a size suitable to agitate the viscous fluid; a moveable carrier arm having said gas pipe outlets mounted thereon, wherein the movement of the carrier arm causes the position at which each outlet introduces gas bubbles into the container to vary over time; at least one scraper means mounted on the moveable carrier arm, said scraper means being oriented to impart a scraping effect on at least one of the walls of the container as the carrier arm moves; and a sump positioned to receive any solid material that has accumulated at the base of the container, wherein the container comprises the sump at the base thereof; and characterised in said digester further comprising gas control means for sequentially expelling gas bubbles into the container ensuring an even flow of gas through each gas pipe in turn. a container in which a viscous fluid may be held; a plurality of gas pipes, each gas pipe having an outlet arranged to introduce gas bubbles into the base region of the container, said gas bubbles being of a size suitable to agitate the viscous fluid; a moveable carrier arm having said gas pipe outlets mounted thereon, wherein the movement of the carrier arm causes the position at which each outlet introduces gas bubbles into the container to vary over time; at least one scraper means mounted on the moveable carrier arm, said scraper means being oriented to impart a scraping effect on at least one of the walls of the container as the carrier arm moves; and a sump positioned to receive any solid material that has accumulated at the base of the container, wherein the container comprises the sump at the base thereof; and characterised in said digester further comprising gas control means for sequentially expelling gas bubbles into the container ensuring an even flow of gas through each gas pipe in turn.
Method for locating a network device in a mesh network, wherein the mesh network is formed by the network device and at least one further network device (2 to 8), characterized in that from the network device - a message is generated - a step value and an initial step value are stored in the message, - the step value is initialized with the initial step value, and - the message is then sent to the mesh network, that from the at least one further network device (2 to 8) - the message is received and - it is determined whether the message is classified as received for the first time, that, only if the message is classified by the at least one further network device (2 to 8) as being received for the first time, from the at least one further network device (2 to 8) - a delta step value is added to the step value, - a distance of the at least one further network device (2 to 8) from the network device is determined from the step value changed in this way and the initial step value, and - the distance for locating the network device is indicated for a user at the at least one further network device (2 to 8). that from the network device - a message is generated - a step value and an initial step value are stored in the message, - the step value is initialized with the initial step value, and - the message is then sent to the mesh network, - a message is generated - a step value and an initial step value are stored in the message, - the step value is initialized with the initial step value, and - the message is then sent to the mesh network, that from the at least one further network device (2 to 8) - the message is received and - it is determined whether the message is classified as received for the first time, - the message is received and - it is determined whether the message is classified as received for the first time, that, only if the message is classified by the at least one further network device (2 to 8) as being received for the first time, from the at least one further network device (2 to 8) - a delta step value is added to the step value, - a distance of the at least one further network device (2 to 8) from the network device is determined from the step value changed in this way and the initial step value, and - the distance for locating the network device is indicated for a user at the at least one further network device (2 to 8). - a delta step value is added to the step value, - a distance of the at least one further network device (2 to 8) from the network device is determined from the step value changed in this way and the initial step value, and - the distance for locating the network device is indicated for a user at the at least one further network device (2 to 8).
A method for manufacturing a fibrous yarn, said method comprising providing an aqueous suspension comprising fibers originating from at least one plant based raw material source and at least one rheology modifier, directing said suspension through at least one nozzle for forming at least one yarn, providing a metal alginate hydrogel onto the surface of the yarn that exits the at least one nozzle, wherein the aqueous fibrous yarn is merge at the nozzle exit with an annular flow of the metal alginate hydrogel which is prepared by adding bivalent metal cations to a solution of alginate such that the metal alginate hydrogel is coated on the surface of the yarn, and subjecting the said at least one yarn to dewatering.
Method for producing a surface structure of a radiation-cooled combustion chamber of a rocket engine, wherein a structuring of the combustion chamber surface facing radially outwards is effected, a pattern consisting of a plurality of individual depressions being produced as the structuring, characterised in that the structuring is effected with a pulsed, optically pumped solid-state laser, wherein the solid-state laser and/or the combustion chamber are displaced relative to one another in the axial direction of the combustion chamber and/or in a specific radial direction of the combustion chamber, and the angle assumed between the solid-state laser and the combustion chamber is changed to produce the depressions, the angle being assumed between an axis of rotation of the combustion chamber and a beam axis of the solid-state laser crossing the axis of rotation.
A screening device for refrigerator cabinets comprising a winding roller able to rotate on itself about a central axis thereof and a flexible screen having a free and an opposite end fixed to the winding roller, two transmission belts (120, 125), each of which is wound about at least a first pulley (130, 155) and a second pulley (135, 160) in such a way as to develop in a closed pathway which comprises a straight operating portion (140, 165) which is parallel to an operating portion of the other transmission belt, a draw bar fixed to the free end of the flexible screen and having ends thereof fixed to the two transmission belts (120, 125) at respective operating portions (140, 165), and activating means for simultaneously rotating the pulleys of both the transmission belts (120, 125), wherein the first pulleys (130, 155) of the transmission belts (120, 125) are kinematically connected by the winding roller and characterised in that the free end of the flexible screen is fixed to the draw bar by means of a second winding roller, which second winding roller is rotatably coupled to the draw bar and is associated to spring means able to rotate the second winding roller about a central axis thereof.
An oven for heating food comprising: a controller; two or more heating elements (112, 114, 116, 118) comprising a first heating element and a second heating element; one or more position sensors (138, 140) constructed and arranged to obtain position information of a food item to be heated in the oven by the two or more heating elements (112, 114, 116, 118); and the controller configured to receive the position information from the one or more position sensors (138, 140), and to control a temperature output of the two or more heating elements (112, 114, 116, 118) based at least in part on the position information; and characterised in that the one or more position sensors (138, 140) are constructed and arranged to obtain the position information of the food item by directly sensing a position of the food item; and the controller is configured to adjust a temperature output of the two or more heating elements (112, 114, 116, 118) in real-time during cooking in response to determining that the food item to be heated is closer to the second heating element than the first heating element, and to cause the first heating element to emit heat at a first temperature and to cause the second heating element to emit heat at a second temperature, the first temperature being higher than the second temperature. a controller; two or more heating elements (112, 114, 116, 118) comprising a first heating element and a second heating element; one or more position sensors (138, 140) constructed and arranged to obtain position information of a food item to be heated in the oven by the two or more heating elements (112, 114, 116, 118); and the controller configured to receive the position information from the one or more position sensors (138, 140), and to control a temperature output of the two or more heating elements (112, 114, 116, 118) based at least in part on the position information; and characterised in that the one or more position sensors (138, 140) are constructed and arranged to obtain the position information of the food item by directly sensing a position of the food item; and the controller is configured to adjust a temperature output of the two or more heating elements (112, 114, 116, 118) in real-time during cooking in response to determining that the food item to be heated is closer to the second heating element than the first heating element, and to cause the first heating element to emit heat at a first temperature and to cause the second heating element to emit heat at a second temperature, the first temperature being higher than the second temperature.
Method for quality assurance of a radiation field produced by a radiation therapy apparatus, said radiation therapy apparatus having a radiation head, and emitting a radiation beam, comprising the steps of: • providing a transmission ionization chamber detector as reference detector for measuring a signal indicative of the dose of said radiation beam at the exit of said radiation head, said ionization chamber having a size and being positioned for being traversed by all of said radiation beam; • providing one or more field detectors positionable and moveable across the radiation field; • positioning the field detector in the radiation field and measuring simultaneously the dose from the field detector and from the ionization chamber; • computing the ratio of the dose from the field detector to the dose of the ionization chamber. • providing a transmission ionization chamber detector as reference detector for measuring a signal indicative of the dose of said radiation beam at the exit of said radiation head, said ionization chamber having a size and being positioned for being traversed by all of said radiation beam; • providing one or more field detectors positionable and moveable across the radiation field; • positioning the field detector in the radiation field and measuring simultaneously the dose from the field detector and from the ionization chamber; • computing the ratio of the dose from the field detector to the dose of the ionization chamber.
A system for detecting and analyzing an arcing phenomenon within an electrical power distribution system which exhibits wideband radiofrequency emission with a varying amplitude changing at the electrical power distribution system fundamental a.c. frequency and its harmonics and located within a given geographic region, comprising: a) a mobile receiving assemblage including a wideband antenna (36, 146, 182, 264, 440, 726, 728, 872), a computer controllable wideband radio receiver (52, 144, 186, 266, 442, 722, 724, 874) operatively coupled with said wideband antenna (36, 146, 182, 264, 440, 726, 728, 872) and having an amplitude detected output, and a GPS receiver (32, 152, 202, 276) providing GPS position data; characterized in that the system further comprises: b) an analog-to-digital converter (270, 446, 754, 762) responsive to said amplitude detected output to convert it to digital form at a sampling rate to provide first high frequency parameter digital samples; c) a digital signal processor configured for carrying out arc detection and analysis including fast Fourier transforms of said digital samples, extracting narrow band signal frequencies therefrom that are harmonically related to said fundamental frequency, analyzing said harmonically related narrow band frequencies for peak amplitudes and summing such peak amplitudes to derive maintenance merit values; and d) a control computer (56, 150) including a digital storage facility (236, 288, 306) and responsive to control said radio receiver (52, 144, 186, 266, 442, 722, 724, 874) to locate said amplitude detected output, compile said maintenance merit values with said GPS position data, and submit such compiled data to the storage facility (236, 288, 306). a) a mobile receiving assemblage including a wideband antenna (36, 146, 182, 264, 440, 726, 728, 872), a computer controllable wideband radio receiver (52, 144, 186, 266, 442, 722, 724, 874) operatively coupled with said wideband antenna (36, 146, 182, 264, 440, 726, 728, 872) and having an amplitude detected output, and a GPS receiver (32, 152, 202, 276) providing GPS position data; b) an analog-to-digital converter (270, 446, 754, 762) responsive to said amplitude detected output to convert it to digital form at a sampling rate to provide first high frequency parameter digital samples; c) a digital signal processor configured for carrying out arc detection and analysis including fast Fourier transforms of said digital samples, extracting narrow band signal frequencies therefrom that are harmonically related to said fundamental frequency, analyzing said harmonically related narrow band frequencies for peak amplitudes and summing such peak amplitudes to derive maintenance merit values; and d) a control computer (56, 150) including a digital storage facility (236, 288, 306) and responsive to control said radio receiver (52, 144, 186, 266, 442, 722, 724, 874) to locate said amplitude detected output, compile said maintenance merit values with said GPS position data, and submit such compiled data to the storage facility (236, 288, 306).
A dry refractory paint precursor composition comprising: 5 to 55 wt.-% mineral filler; 20 to 45 wt.-% glass frit comprising SiO 2, Na 2 O, B 2 O 3, Fe 2 O 3, CoO, CaO, K 2 O, MgO and/or Al 2 O 3; and 0.1 to 25 wt.-% of a binder selected from waterglass, cement and mixtures thereof, all based on the total weight of the composition, wherein the amount of B 2 O 3 in the said frit ranges from 10 to 40 wt.-%, based on the total amount of glass frit. 5 to 55 wt.-% mineral filler; 20 to 45 wt.-% glass frit comprising SiO 2, Na 2 O, B 2 O 3, Fe 2 O 3, CoO, CaO, K 2 O, MgO and/or Al 2 O 3; and 0.1 to 25 wt.-% of a binder selected from waterglass, cement and mixtures thereof, all based on the total weight of the composition, wherein the amount of B 2 O 3 in the said frit ranges from 10 to 40 wt.-%, based on the total amount of glass frit.
A recombinant, replication-deficient cytomegalovirus comprising a heterologous nucleic acid encoding a cancer antigen, for use in a method of generating a long term, repeatedly stimulated immune response against the cancer antigen in a subject, the method comprising: administering to the subject, by intraperitoneal or intravenous administration, the recombinant, replication-deficient cytomegalovirus comprising a heterologous nucleic acid encoding the cancer antigen, whereby viral latency is established in the subject, thereby generating the repeatedly stimulated immune response against the cancer antigen. administering to the subject, by intraperitoneal or intravenous administration, the recombinant, replication-deficient cytomegalovirus comprising a heterologous nucleic acid encoding the cancer antigen, whereby viral latency is established in the subject, thereby generating the repeatedly stimulated immune response against the cancer antigen.
A container (201; 301) for candle wax, comprising a base part (210; 310) with a bottom (212; 312), and a wall (230; 330) extending upwardly from the base part, whereby the base part (210; 310) and the wall (230; 330) are provided as separate parts, characterized in that the base part (210; 310) is made of an elastic material.