mhurhangee/ep-ind-claims huggingface dataset:
A method of transforming a working mode in a Cognitive Radio, CR, system, comprising: acquiring, by a network side, parameters of traffic or communication quality of a subordinate cell of the network side, and measuring, by the network side, a demand degree of the subordinate cell on borrowed spectrum resources; determining, by the network side, that the subordinate cell transforms a working mode when the demand degree of the subordinate cell on borrowed spectrum resources meets a condition for working mode transformation; and notifying, by the network side, a base station to execute a network allocation policy of a mobile terminal in a corresponding working mode; wherein the working mode comprise a normal working mode and a CR working mode, wherein the CR working mode refers to a working mode of working at a system authorized spectrum and a borrowed spectrum at the same time, and the normal working mode refers to a working mode of working at a system authorized spectrum; and the working mode transformation comprises: transforming from the normal working mode to the CR working mode, or transforming from the CR working mode to the normal working mode. acquiring, by a network side, parameters of traffic or communication quality of a subordinate cell of the network side, and measuring, by the network side, a demand degree of the subordinate cell on borrowed spectrum resources; determining, by the network side, that the subordinate cell transforms a working mode when the demand degree of the subordinate cell on borrowed spectrum resources meets a condition for working mode transformation; and notifying, by the network side, a base station to execute a network allocation policy of a mobile terminal in a corresponding working mode; wherein the working mode comprise a normal working mode and a CR working mode, wherein the CR working mode refers to a working mode of working at a system authorized spectrum and a borrowed spectrum at the same time, and the normal working mode refers to a working mode of working at a system authorized spectrum; and the working mode transformation comprises: transforming from the normal working mode to the CR working mode, or transforming from the CR working mode to the normal working mode.
A computer implemented method comprising: receiving OCT data for a vessel of interest collected using an imaging probe, wherein the vessel of interest defines a lumen having a wall; for each frame in the sequence of frames of the OCT data, determining the lumen boundary; for each frame, automatically calculating a lumen cross sectional area for the frame; displaying a longitudinal -mode image of the lumen; and displaying the lumen cross sectional areas superimposed as a graph on the L-mode image. receiving OCT data for a vessel of interest collected using an imaging probe, wherein the vessel of interest defines a lumen having a wall; for each frame in the sequence of frames of the OCT data, determining the lumen boundary; for each frame, automatically calculating a lumen cross sectional area for the frame; displaying a longitudinal -mode image of the lumen; and displaying the lumen cross sectional areas superimposed as a graph on the L-mode image.
An indication management device, comprising: a voice acquisition component for acquiring a voice input by a voice input terminal; an indication recognition component for recognizing details of an indication from the voice acquired by the voice acquisition component; an importance degree determination component for determining a degree of importance of the indication based on a time word contained in the details recognized by the indication recognition component; and an output control component for controlling output of indication details to an output device in accordance with the degree of importance determined by the importance degree determination component, wherein the importance degree determination component calculates a required time by a difference between a current time and a time in the time word and determines the degree of importance of the indication in accordance with a length of the required time; and wherein the output device is a label printer. a voice acquisition component for acquiring a voice input by a voice input terminal; an indication recognition component for recognizing details of an indication from the voice acquired by the voice acquisition component; an importance degree determination component for determining a degree of importance of the indication based on a time word contained in the details recognized by the indication recognition component; and an output control component for controlling output of indication details to an output device in accordance with the degree of importance determined by the importance degree determination component, wherein the importance degree determination component calculates a required time by a difference between a current time and a time in the time word and determines the degree of importance of the indication in accordance with a length of the required time; and wherein the output device is a label printer.
Hydraulic mount, in particular for supporting a vehicle engine on a vehicle body, with a suspension spring supporting a mount core and enclosing a working chamber, a compensation chamber separated by an intermediate plate from the working chamber and bounded by a compensation membrane, wherein the compensation chamber and the working chamber are filled with a liquid and are connected to one another in a fluid-conducting manner via a damping channel arranged in the intermediate plate, wherein the intermediate plate has a decoupling membrane separating an absorber chamber from an air chamber, wherein the air chamber has a ventilation hole, wherein the intermediate plate has an absorber disc with an absorber channel, and wherein the absorber channel connects the absorber chamber with the working chamber, characterised in that the absorber disc is made of an elastic material and swings during operation.
Stabilization device for a two-wheeled vehicle, having a rotatably mounted gyroscope and a drive unit for driving the gyroscope, characterized in that a unit for reversing the direction of rotation, via which the direction of rotation of the gyroscope can be set, is arranged between the drive unit and the gyroscope.
A method for utilizing invisible junction features for generating a graphical user interface (1022, 1024, 1026), the method comprising: receiving a first input image of a text document from an image capture device; detecting an intrinsic skeleton within the first input image; detecting locations of invisible junctions within the first input image based on the skeleton; identifying an electronic document corresponding to the first input image and a first pose of the image capture device using the invisible junctions, the first pose including a position and an orientation of the image capture device; retrieving information associated with the electronic document; and providing the retrieved information at a viewing angle in the graphical user interface; wherein the viewing angle of the retrieved information is based on the first pose; the invisible junction features being feature points, the feature points being junctions of the intrinsic skeleton in a blank space of the text document. receiving a first input image of a text document from an image capture device; detecting an intrinsic skeleton within the first input image; detecting locations of invisible junctions within the first input image based on the skeleton; identifying an electronic document corresponding to the first input image and a first pose of the image capture device using the invisible junctions, the first pose including a position and an orientation of the image capture device; retrieving information associated with the electronic document; and providing the retrieved information at a viewing angle in the graphical user interface; wherein the viewing angle of the retrieved information is based on the first pose;
A device comprising: one or more optical sensors (408, 418, 518, 710) configured to capture optical data associated with packaging of a waste product; a scale configured to determine a weight of the waste product; a memory configured to store identification data associated with a plurality of waste products; and a processor coupled to the one or more optical sensors, to the scale, and to the memory, the processor configured to: determine product data from the optical data; search one or more data sources to identify the waste product and a composition of the waste product based on the product data; sort the waste product into a selected bin of a plurality of bins based on the composition; record the weight of the waste product to a record associated with the selected bin; and wherein, when the processor fails to identify the waste product based on the optical data, the processor is configured to: capture images of the packaging of the waste product in response to failure of the identification; and generate an output signal configured to control a sorting operation to store the waste product into a temporary bin. one or more optical sensors (408, 418, 518, 710) configured to capture optical data associated with packaging of a waste product; a scale configured to determine a weight of the waste product; a memory configured to store identification data associated with a plurality of waste products; and a processor coupled to the one or more optical sensors, to the scale, and to the memory, the processor configured to: determine product data from the optical data; search one or more data sources to identify the waste product and a composition of the waste product based on the product data; sort the waste product into a selected bin of a plurality of bins based on the composition; record the weight of the waste product to a record associated with the selected bin; and wherein, when the processor fails to identify the waste product based on the optical data, the processor is configured to: capture images of the packaging of the waste product in response to failure of the identification; and generate an output signal configured to control a sorting operation to store the waste product into a temporary bin. determine product data from the optical data; search one or more data sources to identify the waste product and a composition of the waste product based on the product data; sort the waste product into a selected bin of a plurality of bins based on the composition; record the weight of the waste product to a record associated with the selected bin; and wherein, when the processor fails to identify the waste product based on the optical data, the processor is configured to: capture images of the packaging of the waste product in response to failure of the identification; and generate an output signal configured to control a sorting operation to store the waste product into a temporary bin. capture images of the packaging of the waste product in response to failure of the identification; and generate an output signal configured to control a sorting operation to store the waste product into a temporary bin.
A foldable wheelchair comprising two side frame components (11a, 11b), respectively a left and a right side frame components, each mounting front and rear wheels (12a, 13a; 12b, 13b), respectively left and right, front and rear wheels, said rear wheels (13a, 13b) having an axis of rotation (XX'), said side frame components (11a, 11b) being connected together for relative folding movement between an erected position and a folded position by foldable link element extending between said two side frame components (11a, 11b), characterised in that the left, respectively the right, side frame component (11a, 11b) comprises a T-shaped bracket, along which is connected both a rear wheel suspension of the left, respectively the right, rear wheel (13a, 13b) and a left, respectively a right, end (21a, 22b) of the foldable link element, wherein the position of T-shaped bracket is adjustable along the back-to-front direction of the wheelchair so as to permit the adjustment of the position of the center of gravity of the wheelchair.
A nucleic acid molecule comprising WHI2 and CUP1-2 genes that increases stress tolerance in an organism and comprising: (a) a fusion polynucleotide sequence comprising WHI2 and CUP1-2 genes, the nucleotide sequence encoding an amino acid sequence wherein the entire amino acid sequence is at least 85% identical to SEQ ID NO: 110; (b) a fusion polynucleotide sequence that is complementary to the fusion polynucleotide sequence according to paragraph (a); (c) a fusion polynucleotide sequence according to SEQ ID NO: 47; (d) a fusion polynucleotide sequence that is complementary to the fusion polynucleotide sequence according to paragraph (c); or (e) a fusion polynucleotide sequence encoding an amino acid sequence that is SEQ ID NO: 110. (a) a fusion polynucleotide sequence comprising WHI2 and CUP1-2 genes, the nucleotide sequence encoding an amino acid sequence wherein the entire amino acid sequence is at least 85% identical to SEQ ID NO: 110; (b) a fusion polynucleotide sequence that is complementary to the fusion polynucleotide sequence according to paragraph (a); (c) a fusion polynucleotide sequence according to SEQ ID NO: 47; (d) a fusion polynucleotide sequence that is complementary to the fusion polynucleotide sequence according to paragraph (c); or (e) a fusion polynucleotide sequence encoding an amino acid sequence that is SEQ ID NO: 110.
A method for operating a base station in a wireless communication system, the method comprising: receiving (601, 603) first feedback information indicating a first preferred beam from a first terminal and second feedback information indicating a second preferred beam from a second terminal; allocating to both the first terminal and the second terminal the first preferred beam as a beam for data transmission; identifying a modulation and coding scheme, MCS, level for data transmission to the second terminal based on a gain difference between the first preferred beam and the second preferred beam; and while transmitting first data to the first terminal using the first preferred beam in a designated time interval, transmitting second data to the second terminal using the first preferred beam in the designated time interval based on the identified MCS level, wherein a first resource for the first data and a second resource for the second data occupy a same time resource and different frequency resources. receiving (601, 603) first feedback information indicating a first preferred beam from a first terminal and second feedback information indicating a second preferred beam from a second terminal; allocating to both the first terminal and the second terminal the first preferred beam as a beam for data transmission; identifying a modulation and coding scheme, MCS, level for data transmission to the second terminal based on a gain difference between the first preferred beam and the second preferred beam; and while transmitting first data to the first terminal using the first preferred beam in a designated time interval, transmitting second data to the second terminal using the first preferred beam in the designated time interval based on the identified MCS level, wherein a first resource for the first data and a second resource for the second data occupy a same time resource and different frequency resources.
A nanoparticle, comprising: an amphiphilic block polymer comprising a hydrophilic block having a sarcosine unit and a hydrophobic block having a lactic acid unit; and a substance labeled with a radioactive emitting nuclide, characterized in that the radioactive emitting nuclide is a β-ray emitting nuclide, and that the nanoparticle is for internal radiation therapy of a lesion site treated with percutaneous local therapy. an amphiphilic block polymer comprising a hydrophilic block having a sarcosine unit and a hydrophobic block having a lactic acid unit; and a substance labeled with a radioactive emitting nuclide, characterized in that the radioactive emitting nuclide is a β-ray emitting nuclide, and that the nanoparticle is for internal radiation therapy of a lesion site treated with percutaneous local therapy.
Multi-component lattice mast piece of a lattice mast of a crane having a. a longitudinal axis, b. a plurality of chord elements extending along the longitudinal axis, c. a plurality of connection bars (16, 20, 30) each connecting two adjacent chord elements to one another, d. a lattice mast cross-sectional surface orientated perpendicularly to the longitudinal axis and having a lattice mast width (B G) and having a lattice mast height (H G) and e. at least two lattice mast assemblies (24, 25, 26, 27) which can be releasably connected to one another, wherein the lattice mast assemblies (24, 25, 26, 27) each f. comprise a lattice mast assembly width (B GB) which is smaller than the lattice mast width (B G) and/or g. comprise a lattice mast assembly height (H GB) which is smaller than the lattice mast height (H G) and wherein the connection bars (16, 20, 30) are fixedly connected to a chord element in a working arrangement, wherein the lattice mast assemblies (24, 25, 26, 27) each form one quarter of the lattice mast cross-sectional surface, wherein each lattice mast assembly (24, 25, 26, 27) comprises a chord element, two connection bars each arranged at the end face and designed as zero bars, and a plurality of connection bars disposed as diagonal bars, characterised in that, in the region of the ends of the diagonal bars and of the zero bars, the lattice mast assemblies (24, 25, 26, 27) comprise connection elements in the form of connection lugs for connection of the lattice mast assemblies (24, 25, 26, 27) to form a lattice mast piece, and, in the region of the connection lugs, connection pieces for connection of a torque-resistant hinged support are disposed in order to stiffen the lattice mast piece. a. a longitudinal axis, b. a plurality of chord elements extending along the longitudinal axis, c. a plurality of connection bars (16, 20, 30) each connecting two adjacent chord elements to one another, d. a lattice mast cross-sectional surface orientated perpendicularly to the longitudinal axis and having a lattice mast width (B G) and having a lattice mast height (H G) and e. at least two lattice mast assemblies (24, 25, 26, 27) which can be releasably connected to one another, wherein the lattice mast assemblies (24, 25, 26, 27) each f. comprise a lattice mast assembly width (B GB) which is smaller than the lattice mast width (B G) and/or g. comprise a lattice mast assembly height (H GB) which is smaller than the lattice mast height (H G) and
A fiber circuit management system, comprising: a fiber circuit platform; and a splice tray to hold a fiber splice, the splice tray being formed as an oblong structure, the splice tray being rotatably coupled to the fiber circuit platform, the splice tray including a plurality of latching mechanisms (152A, 152B, 152C), each latching mechanism (152A, 152B, 152C) being formed on a different outer portion of a body of the splice tray to be coupled to the fiber circuit platform in more than one orientation and rotatably engageable with the fiber circuit platform, wherein each latching mechanism (152A, 152B, 152C) includes a coupling portion (154A, 154B, 154C) and one or more fiber entrance/exit channels (156, 157) that are formed as an extension that extends away from a main splice tray body area, wherein, when the latching mechanism is engaged with the platform, the corresponding one or more fiber entrance/exit channels (156, 157) extend to a position proximate to a respective fiber guiding channel formed on the fiber circuit platform. a fiber circuit platform; and a splice tray to hold a fiber splice, the splice tray being formed as an oblong structure, the splice tray being rotatably coupled to the fiber circuit platform, the splice tray including a plurality of latching mechanisms (152A, 152B, 152C), each latching mechanism (152A, 152B, 152C) being formed on a different outer portion of a body of the splice tray to be coupled to the fiber circuit platform in more than one orientation and rotatably engageable with the fiber circuit platform, wherein each latching mechanism (152A, 152B, 152C) includes a coupling portion (154A, 154B, 154C) and one or more fiber entrance/exit channels (156, 157) that are formed as an extension that extends away from a main splice tray body area, wherein, when the latching mechanism is engaged with the platform, the corresponding one or more fiber entrance/exit channels (156, 157) extend to a position proximate to a respective fiber guiding channel formed on the fiber circuit platform.
A robot (100, 400), comprising: a movable member (140, 150); a motor operable to change a position of the movable member (140, 150) relative to a vertical axis; and a servo operable to control the motor, the servo having a normal operational mode in which the servo controls the motor to define the position of the movable member relative to the vertical axis so that the servo prevents the movable member (140, 150) from falling, the servo additionally having a training mode in which the servo supplies to the motor a current in response to which the motor applies to the movable member (140, 150) a motive force that offsets the weight of the movable member (140, 150), a position sensor operable to provide to the servo position information regarding the position of the movable member (140, 150) relative to the vertical axis a controller (180, 480) operable in the normal operational mode to provide a position signal to the servo, the controller additionally operable in the training mode to receive the position information from the position sensor, characterized in that the controller includes a dynamic target current signal generator active during the training mode for: receiving the position information from the position sensor as an input, calculating, based on the position information and a model of the robot, a target torque that the motor needs to offset the weight of the movable member (140, 150), generating as an output a target current signal to be provided to the motor in order that the motor applies the target torque to the movable member (140, 150). a movable member (140, 150); a motor operable to change a position of the movable member (140, 150) relative to a vertical axis; and a servo operable to control the motor, the servo having a normal operational mode in which the servo controls the motor to define the position of the movable member relative to the vertical axis so that the servo prevents the movable member (140, 150) from falling, the servo additionally having a training mode in which the servo supplies to the motor a current in response to which the motor applies to the movable member (140, 150) a motive force that offsets the weight of the movable member (140, 150), a position sensor operable to provide to the servo position information regarding the position of the movable member (140, 150) relative to the vertical axis a controller (180, 480) operable in the normal operational mode to provide a position signal to the servo, the controller additionally operable in the training mode to receive the position information from the position sensor, receiving the position information from the position sensor as an input, calculating, based on the position information and a model of the robot, a target torque that the motor needs to offset the weight of the movable member (140, 150), generating as an output a target current signal to be provided to the motor in order that the motor applies the target torque to the movable member (140, 150).