mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising using at least one hardware processor to: compile source code of an application into a bitcode , wherein the source code comprises an allocation function for allocating memory that calls a dummy function using a plurality of parameters, and wherein the plurality of parameters comprises an identifier of a memory pool and a size of a data type to be stored in the memory pool; scan the bitcode ; while scanning the bitcode, detect each call to the dummy function in the bitcode ; for each detected call to the dummy function, extract the plurality of parameters used in the detected call to the dummy function, and generate an allocation record comprising the identifier of the memory pool and the size of the data type from the extracted plurality of parameters; generate a list of allocation records from the generated allocation records ; generate a header file based on the list of allocation records , wherein the header file comprises a definition of one or more buckets and a definition of each of one or more memory pools, wherein the definition of each of the one or more memory pools identifies at least one of the one or more buckets; and recompile the source code with the header file . compile source code of an application into a bitcode , wherein the source code comprises an allocation function for allocating memory that calls a dummy function using a plurality of parameters, and wherein the plurality of parameters comprises an identifier of a memory pool and a size of a data type to be stored in the memory pool; scan the bitcode ; while scanning the bitcode, detect each call to the dummy function in the bitcode ; for each detected call to the dummy function, extract the plurality of parameters used in the detected call to the dummy function, and generate an allocation record comprising the identifier of the memory pool and the size of the data type from the extracted plurality of parameters; generate a list of allocation records from the generated allocation records ; generate a header file based on the list of allocation records , wherein the header file comprises a definition of one or more buckets and a definition of each of one or more memory pools, wherein the definition of each of the one or more memory pools identifies at least one of the one or more buckets; and recompile the source code with the header file . while scanning the bitcode, detect each call to the dummy function in the bitcode ; for each detected call to the dummy function, extract the plurality of parameters used in the detected call to the dummy function, and generate an allocation record comprising the identifier of the memory pool and the size of the data type from the extracted plurality of parameters; generate a list of allocation records from the generated allocation records ; generate a header file based on the list of allocation records , wherein the header file comprises a definition of one or more buckets and a definition of each of one or more memory pools, wherein the definition of each of the one or more memory pools identifies at least one of the one or more buckets; and recompile the source code with the header file .
A method of operating an autonomous working vehicle within a predefined work region , the method comprising: defining, with an electronic controller associated with the working vehicle , a travelling containment zone that lies at least partially within the work region , the travelling containment zone defining a zone area that is less than an area of the work region; autonomously operating the working vehicle within the travelling containment zone ; constraining a position of the working vehicle to be within the travelling containment zone; and moving the travelling containment zone across the work region while the working vehicle operates within the travelling containment zone. defining, with an electronic controller associated with the working vehicle , a travelling containment zone that lies at least partially within the work region , the travelling containment zone defining a zone area that is less than an area of the work region; autonomously operating the working vehicle within the travelling containment zone ; constraining a position of the working vehicle to be within the travelling containment zone; and moving the travelling containment zone across the work region while the working vehicle operates within the travelling containment zone.
An electrical test and measurement system , comprising: a device under test, DUT, ; an oscilloscope; and a probe for use with the oscilloscope, where the probe comprises: an input configured to receive an input signal from the DUT ; a clamp control unit configured to apply at least one clamping/limiting level to the input signal to generate an output signal , wherein the at least one clamping/limiting level is dynamically controlled by the oscilloscope based on one or more changes to vertical sensitivity on the oscilloscope; and an output port configured to provide the clamped/limited output signal to the oscilloscope . a device under test, DUT, ; an oscilloscope; and a probe for use with the oscilloscope, where the probe comprises: an input configured to receive an input signal from the DUT ; a clamp control unit configured to apply at least one clamping/limiting level to the input signal to generate an output signal , wherein the at least one clamping/limiting level is dynamically controlled by the oscilloscope based on one or more changes to vertical sensitivity on the oscilloscope; and an output port configured to provide the clamped/limited output signal to the oscilloscope . an input configured to receive an input signal from the DUT ; a clamp control unit configured to apply at least one clamping/limiting level to the input signal to generate an output signal , wherein the at least one clamping/limiting level is dynamically controlled by the oscilloscope based on one or more changes to vertical sensitivity on the oscilloscope; and an output port configured to provide the clamped/limited output signal to the oscilloscope .
A Machine-Type-Communication Inter-Working Function, MTC-IWF, , for a communication system comprising a User Equipment, UE, , a Service Capability Server, SCS, , and a Home Subscriber Server, HSS, , the MTC-IWF comprising: means for receiving a device trigger message from the SCS , the device trigger message including an identifier of the UE ; characterized by means for sending, to the HSS , a request message including type information indicating that a request from the SCS is device trigger; means for receiving, from the HSS , a response message including parameters related to derivation of a key, a confidentiality key and an integrity key; and means for deriving the key, the confidentiality key and the integrity key based on the parameters, the key being used for deriving the confidentiality key and the integrity key to perform secure communication with the UE using the confidentiality key and the integrity key. means for receiving a device trigger message from the SCS , the device trigger message including an identifier of the UE ; characterized by means for sending, to the HSS , a request message including type information indicating that a request from the SCS is device trigger; means for receiving, from the HSS , a response message including parameters related to derivation of a key, a confidentiality key and an integrity key; and means for deriving the key, the confidentiality key and the integrity key based on the parameters, the key being used for deriving the confidentiality key and the integrity key to perform secure communication with the UE using the confidentiality key and the integrity key.
A method of transmitting control information by a communication device in a wireless communication system, the method comprising: receiving (S1702) a physical downlink shared channel, PDSCH,; and multiplexing (S1706) uplink control information, UCI, related to a plurality of uplink, UL,channels based on a time interval, between (i) the PDSCH and (ii) an earliest one of the plurality of UL channels, being equal to or larger than a reference time interval, wherein the plurality of UL channels are overlapped on a time axis, and include a first UL channel for response information for the PDSCH, and the method characterised in that the reference time interval is determined based on (a) a number of symbols and (b) a smallest subcarrier spacing, SCS, of a plurality of SCSs for the plurality of UL channels, and wherein the UCI related to the plurality of UL channels is not multiplexed based on the time interval being less than the reference time interval. receiving (S1702) a physical downlink shared channel, PDSCH,; and multiplexing (S1706) uplink control information, UCI, related to a plurality of uplink, UL,channels based on a time interval, between (i) the PDSCH and (ii) an earliest one of the plurality of UL channels, being equal to or larger than a reference time interval, wherein the plurality of UL channels are overlapped on a time axis, and include a first UL channel for response information for the PDSCH, and the method characterised in that the reference time interval is determined based on (a) a number of symbols and (b) a smallest subcarrier spacing, SCS, of a plurality of SCSs for the plurality of UL channels, and wherein the UCI related to the plurality of UL channels is not multiplexed based on the time interval being less than the reference time interval.
A tyre support device, which comprises a frame that has an inclined structure with a window , providing on said frame at least two adjusting devices for positioning the tyre (N) on the frame, each of said adjusting devices comprising: - Second adjusting means , that move on the inclined structure of the frame for adapting to the diameter of the tyre (N), - First adjusting means , placed on said second adjusting means to displace along the same to adapt to the width of the tyre (N), and - Support means , associated to the first adjustment means , for supporting the tyre (N) on its surface, driven by rotating means that make the support means rotate to make the tyre (N) rotate on its axis, wherein the second adjusting means move on the inclined structure to adapt to the diameter of the tyre (N), moving at the same time the first adjusting means with the support means placed on said second adjusting means , so that the support means make the tyre (N) rotate after the first adjusting means adapt to the width of the tyre (N). - Second adjusting means , that move on the inclined structure of the frame for adapting to the diameter of the tyre (N), - First adjusting means , placed on said second adjusting means to displace along the same to adapt to the width of the tyre (N), and - Support means , associated to the first adjustment means , for supporting the tyre (N) on its surface, driven by rotating means that make the support means rotate to make the tyre (N) rotate on its axis,
Cover feed-through (B) for a head-restraint rod of a head restraint of a vehicle seat, which cover feed-through is designed as a single-part, selffixing guide element and which has a closed upper side and a lower side spaced apart from the latter via a passage , wherein the lower side has at least one recess (4.1) in the shape of a segment of a circle or in the form of a slot, and wherein the recess (4.1) substantially extends in a circumferential direction of the lower side .
A doubly fed induction generator system, comprising: a doubly fed induction generator having a stator including stator windings and a rotor including rotor windings; and a converter coupled to said rotor windings, the converter comprising a plurality of current conducting bridges configured to couple said rotor windings of said doubly fed induction generator to a power grid , wherein said plurality of current conducting bridges comprise at least one controlled current conducting bridge and at least one uncontrolled current conducting bridge . a doubly fed induction generator having a stator including stator windings and a rotor including rotor windings; and a converter coupled to said rotor windings, the converter comprising a plurality of current conducting bridges configured to couple said rotor windings of said doubly fed induction generator to a power grid , wherein said plurality of current conducting bridges comprise at least one controlled current conducting bridge and at least one uncontrolled current conducting bridge .
A modified fibroblast growth factor-I (FGF-1) comprising mutations of human FGF-1 at positions 16, 66, and 117, with respect to the wild-type FGF-1 sequence (SEQ ID NO: 1).
An apparatus comprising means for: controlling capture of two images of an area, across which a pulse propagates, using different shutter scanning directions; converting the images into pulse-phase maps of the area; obtaining a pulse-phase difference map identifying differences between the pulse-phase maps of the area; obtaining a shutter-time difference map identifying differences between capture times of corresponding locations in the two images; and correcting the pulse-phase difference map using the shutter-time difference map to obtain a map of pulse-phase changes which have occurred over a duration of a shutter scan. controlling capture of two images of an area, across which a pulse propagates, using different shutter scanning directions; converting the images into pulse-phase maps of the area; obtaining a pulse-phase difference map identifying differences between the pulse-phase maps of the area; obtaining a shutter-time difference map identifying differences between capture times of corresponding locations in the two images; and correcting the pulse-phase difference map using the shutter-time difference map to obtain a map of pulse-phase changes which have occurred over a duration of a shutter scan.
Assembly for supplying power to a mobile load, in particular in a vertical application, such as a drilling rig or the like, comprising - a main energy chain for guiding at least one cable between a first connection point and a second connection point that is movable relative thereto and travels along a travel path of the load, between a first end position and a second end position , wherein a first end of the energy chain is fixed to the first connection point , and a second end of the energy chain is fixed to the second connection point ; - a displaceable carriage on which the first connection point and a third connection point are provided and which is displaceable between an operating position which is located in the central region between the first and the second end position, and a parked position between the operating position and the second end position, and - an auxiliary energy chain for guiding the at least one cable between the third connection point on the displaceable carriage and a stationary fourth connection point , characterized in that the carriage is assigned its own longitudinal guide in parallel with the displacement range of the main energy chain , which extends over approximately a quarter to approximately a third of the distance from the central region, between the first and the second end position, towards the second end position, and in that the carriage comprises a locking device by means of which the carriage is fixed in the operating position. - a main energy chain for guiding at least one cable between a first connection point and a second connection point that is movable relative thereto and travels along a travel path of the load, between a first end position and a second end position , wherein a first end of the energy chain is fixed to the first connection point , and a second end of the energy chain is fixed to the second connection point ; - a displaceable carriage on which the first connection point and a third connection point are provided and which is displaceable between an operating position which is located in the central region between the first and the second end position, and a parked position between the operating position and the second end position, and - an auxiliary energy chain for guiding the at least one cable between the third connection point on the displaceable carriage and a stationary fourth connection point ,
A method comprising the steps of: initializing a capture mode ; receiving data representing an image and associating a time stamp with said image time of capture; receiving data representing rotational position sampled by an inertial sensor; deactivating said capture mode; characterized in that it further comprises the steps of: interpolating an orientation of the image based on said time stamp and rotational position data; determining an average velocity of rotation and further adjusting said interpolation of the orientation as appropriate; rotating said image in response to said interpolated orientation to generate a rotated image; wherein aspect ratio of said image changes in response to said orientation; and storing said rotated image. initializing a capture mode ; receiving data representing an image and associating a time stamp with said image time of capture; receiving data representing rotational position sampled by an inertial sensor; deactivating said capture mode; interpolating an orientation of the image based on said time stamp and rotational position data; determining an average velocity of rotation and further adjusting said interpolation of the orientation as appropriate; rotating said image in response to said interpolated orientation to generate a rotated image; wherein aspect ratio of said image changes in response to said orientation; and storing said rotated image.
A light-emitting device comprising: a plurality of partially drivable light sources, and a color conversion component configured to convert at least part of incident light from at least part of the light sources and emit outgoing light falling in a different wavelength region from the incident light, wherein the color conversion component comprises: partition walls disposed to form a pattern of recesses corresponding to the light sources, and color conversion layers disposed in the recesses, wherein the color conversion layers comprise two or more kinds of color conversion layers configured to emit outgoing lights falling in different wavelength regions from one another, wherein each of the color conversion layers comprises a pyrromethene derivative, wherein the pyrromethene derivative is a compound represented by the general formula below: where in the general formula , X is C-R 7 or N, and R 1 , R 3 , R 4 , and R 6 to R 9 are the same as or different from one another and are each selected from hydrogen, alkyl group, cycloalkyl group, heterocyclic group, alkenyl group, cycloalkenyl group, alkynyl group, hydroxy group, thiol group, alkoxy group, alkylthio group, aryl ether group, aryl thioether group, aryl group, heteroaryl group, halogen, cyano group, aldehyde group, carbonyl group, carboxy group, ester group, carbamoyl group, amino group, nitro group, silyl group, siloxanyl group, boryl group, sulfo group, phosphine oxide group, and fused ring and aliphatic ring formed with an adjacent substituent, wherein R 2 and R 5 each are a fluorine-containing ester group, wherein the color conversion component comprises a resin, and wherein the resin has an oxygen permeability of not less than 0.1 cc/m 2 ·day·atm. a plurality of partially drivable light sources, and a color conversion component configured to convert at least part of incident light from at least part of the light sources and emit outgoing light falling in a different wavelength region from the incident light, partition walls disposed to form a pattern of recesses corresponding to the light sources, and color conversion layers disposed in the recesses, wherein R 2 and R 5 each are a fluorine-containing ester group, wherein the color conversion component comprises a resin, and wherein the resin has an oxygen permeability of not less than 0.1 cc/m 2 ·day·atm.
Method for generating a surroundings map of a surroundings area of a motor vehicle , in which method the surroundings area is captured by way of at least one sensor on the motor vehicle, wherein capturing of the surroundings area by way of the at least one sensor is performed at at least two different points in time (T1, T2), and in a manner dependent on said surroundings clearance situations detected in each case in a manner dependent on items of sensor information at the points in time (T1, T2), a decision is made as regards whether an object which is at least supposedly situated in the surroundings area in at least one surroundings clearance situation is, upon an updating of the surroundings map , included on the then updated surroundings map , characterized in that a multiplicity of different reference clearances is predefined, and at least in a manner dependent on a comparison of the surroundings clearance situations with at least one reference clearance and on a confidence value which characterizes a probability of existence of an object in a surroundings area during an object capture process of the sensor , the object is rendered present or absent in the updated surroundings map .
A method of forming a ceramic product including a transparent ceramic material comprising a sapphire, the method comprising: providing a transparent ceramic panel , wherein providing the transparent ceramic panel comprises polishing the transparent ceramic panel ; placing the polished transparent ceramic panel between bend jigs including polished bend jigs formed of any refractory metal so long as it maintains its strength at the bending temperatures; heating the panel ; and bending the panel to conform to a non-planar geometry; wherein the transparent ceramic panel retains at least a portion of the polish after bending. providing a transparent ceramic panel , wherein providing the transparent ceramic panel comprises polishing the transparent ceramic panel ; placing the polished transparent ceramic panel between bend jigs including polished bend jigs formed of any refractory metal so long as it maintains its strength at the bending temperatures; heating the panel ; and bending the panel to conform to a non-planar geometry; wherein the transparent ceramic panel retains at least a portion of the polish after bending.
Light module for a vehicle headlamp, the light module having a heat sink and a plurality of light units fixed on the heat sink , each comprising at least one light source , a light source support and a reflector unit fixed on the light source support, at least one of the light units resting rotatably with the light source support on a horizontal bearing surface of the heat sink , characterized in that in the at least one of the light units, the light source is formed by at least one LED and the light source carrier is formed by a circuit board .