mhurhangee/ep-ind-claims huggingface dataset:
A method for scrambling data, comprising: receiving, by a terminal device, radio resource control, RRC, from a network device; wherein third configuration information is configured by the RRC and the third configuration information comprises a plurality of pieces of scrambling information, wherein the plurality of pieces of scrambling information respectively correspond to control resource set groups corresponding to control resource sets associated with different search spaces, and the different search spaces are search spaces where pieces of downlink control information, DCI, for scheduling different physical downlink shared channels, PDSCHs, are located, wherein each of the control resource set groups includes one or more control resource sets; receiving, by the terminal device, DCIs for scheduling a plurality of PDSCHs, wherein the DCIs are located in different search spaces; wherein each of the search spaces corresponds to a control resource set group, and the control resource set groups are in correspondence with the plurality of pieces of scrambling information of the plurality of PDSCHs; determining, by the terminal device, multiple pieces of scrambling information corresponding to the different PDSCHs according to the third configuration information and an association relationship between the plurality of pieces of scrambling information and the control resource set groups; and performing, by the terminal device, descrambling of a plurality of received PDSCHs based on the determined multiple pieces of scrambling information of the plurality of PDSCHs. receiving, by a terminal device, radio resource control, RRC, from a network device; wherein third configuration information is configured by the RRC and the third configuration information comprises a plurality of pieces of scrambling information, wherein the plurality of pieces of scrambling information respectively correspond to control resource set groups corresponding to control resource sets associated with different search spaces, and the different search spaces are search spaces where pieces of downlink control information, DCI, for scheduling different physical downlink shared channels, PDSCHs, are located, wherein each of the control resource set groups includes one or more control resource sets; receiving, by the terminal device, DCIs for scheduling a plurality of PDSCHs, wherein the DCIs are located in different search spaces; wherein each of the search spaces corresponds to a control resource set group, and the control resource set groups are in correspondence with the plurality of pieces of scrambling information of the plurality of PDSCHs; determining, by the terminal device, multiple pieces of scrambling information corresponding to the different PDSCHs according to the third configuration information and an association relationship between the plurality of pieces of scrambling information and the control resource set groups; and performing, by the terminal device, descrambling of a plurality of received PDSCHs based on the determined multiple pieces of scrambling information of the plurality of PDSCHs.
An ion source comprising: a chamber; a first hollow cathode body having a first hollow cathode cavity and a first plasma exit orifice and a second hollow cathode body having a second hollow cathode cavity and a second plasma exit orifice, the first and second hollow cathode bodies being disposed adjacently in the chamber; a first ion accelerator between and in communication with the first plasma exit orifice and the chamber, wherein the first ion accelerator forms a first ion acceleration cavity; and a second ion accelerator between and in communication with the second plasma exit orifice and the chamber, wherein the second ion accelerator forms a second ion acceleration cavity, wherein the first hollow cathode body and the second hollow cathode body are configured to alternatively function as electrode and counter-electrode to generate a plasma, and wherein each of the first hollow cathode and second hollow cathode bodies in combination with the respective first and second ion acceleration cavities are configured to generate the necessary repulsive force for enabling the extraction and acceleration of ions without the presence of magnetic fields, wherein the first ion acceleration cavity comprises an integral part of the first hollow cathode body and/or the second ion acceleration cavity comprises an integral part of the second hollow cathode body, and characterized in that a width of the first ion acceleration cavity is larger than a width of the first plasma exit orifice, and a width of the second ion acceleration cavity is larger than a width of the second plasma exit orifice. a chamber; a first hollow cathode body having a first hollow cathode cavity and a first plasma exit orifice and a second hollow cathode body having a second hollow cathode cavity and a second plasma exit orifice, the first and second hollow cathode bodies being disposed adjacently in the chamber; a first ion accelerator between and in communication with the first plasma exit orifice and the chamber, wherein the first ion accelerator forms a first ion acceleration cavity; and a second ion accelerator between and in communication with the second plasma exit orifice and the chamber, wherein the second ion accelerator forms a second ion acceleration cavity, wherein the first hollow cathode body and the second hollow cathode body are configured to alternatively function as electrode and counter-electrode to generate a plasma, and wherein each of the first hollow cathode and second hollow cathode bodies in combination with the respective first and second ion acceleration cavities are configured to generate the necessary repulsive force for enabling the extraction and acceleration of ions without the presence of magnetic fields, wherein the first ion acceleration cavity comprises an integral part of the first hollow cathode body and/or the second ion acceleration cavity comprises an integral part of the second hollow cathode body, and characterized in that a width of the first ion acceleration cavity is larger than a width of the first plasma exit orifice, and a width of the second ion acceleration cavity is larger than a width of the second plasma exit orifice.
A window bolt comprising a bolt rod and a bolt seat (2; 2'; 2"), wherein said bolt seat is designed to be arranged on a window frame and said bolt rod is able to move back and forth on said bolt seat (2; 2'; 2"), one end of said bolt rod being able to head out of said window frame so that it cooperates with the jack or slot of another window frame in order to establish a connection between these two window frames (5, 6), wherein said bolt seat (2; 2'; 2") is in the form of a long strip shape extending along a longitudinal direction, its back end has fixing means for fixing to a first side of the window frame, and its front end has two sides folded downwards respectively in order to form a baffle part, said front end further has a toothed part (4, 4') which is adapted to be fixed against a second side of an window frame, the toothed part (4, 4') projecting backward in the longitudinal direction and is formed in front of said front end of said baffle part, and wherein the middle part of the bolt seat has a guide hole along the direction of its length, and another end of said bolt rod has a projecting actuation part which projects through said guide hole and is able to move back and forth in said guide hole.
A composite gas storage tank (200; 300; 400) comprising a composite wall (216; 316; 416) defining a main storage volume (220; 320; 420) and having a hollow conduit portion (205; 305; 405) communicating with and extending away from the main storage volume, the composite gas storage tank further comprising a hollow coupling element (214; 314; 414), wherein a length portion of the hollow coupling element is embedded within and extends substantially parallel to the hollow conduit portion of the composite wall and the remainder of the length of the hollow coupling element extends beyond the end of the hollow conduit portion remote from the main storage volume, the hollow conduit portion and the coupling element providing communication between the main storage volume and the exterior of the composite gas storage tank.
An antenna comprising: a waveguide having an aperture at a first end and a conducting component at a second end, the conducting component shorting the waveguide; a first driven dipole substantially orthogonal to a second driven dipole, both the first and second driven dipoles located near the aperture of the waveguide, wherein the first and second driven dipoles are connected to the conducting component by one or more plates and configured to be fed in quadrature; and a parasitic resonator positioned near the first and second driven dipoles; characterised in that the first and second driven dipoles are tuned to about 1225 MHz, and the parasitic resonator is tuned to about 1575 MHz. a waveguide having an aperture at a first end and a conducting component at a second end, the conducting component shorting the waveguide; a first driven dipole substantially orthogonal to a second driven dipole, both the first and second driven dipoles located near the aperture of the waveguide, wherein the first and second driven dipoles are connected to the conducting component by one or more plates and configured to be fed in quadrature; and a parasitic resonator positioned near the first and second driven dipoles; characterised in that the first and second driven dipoles are tuned to about 1225 MHz, and the parasitic resonator is tuned to about 1575 MHz.
A method performed by a user equipment, UE, for determining a start position of a system information, SI, window used for acquiring a SI message in a wireless communication network, wherein SI messages are transmitted in periodically occurring SI windows, characterized in that one or more SI messages are scheduled using a first or a second list of scheduling information, the method comprising: - if an SI message is scheduled using the first list of scheduling information, determining the start position of the SI window based on the order of entry of said SI message in a list of SI messages configured by the first list of scheduling information; else - if an SI message is scheduled using the second list of scheduling information, determining the start position of the SI window by taking an input parameter into account, wherein the input parameter is a value of a field in a message received from a radio network node, said value being configured for said SI message by the radio network node, whereby the UE determines the start position of the SI window based on an integer value x, which integer value x is calculated by taking the received input parameter minus 1 and multiplying it with a value representing the window length of the SI window, wherein the SI window starts at a slot #a, where a = x mod N, in the radio frame for which SFN mod T = FLOOR(x/N), where T is the periodicity of the concerned SI message and N is the number of slots in a radio frame. - if an SI message is scheduled using the first list of scheduling information, determining the start position of the SI window based on the order of entry of said SI message in a list of SI messages configured by the first list of scheduling information; else - if an SI message is scheduled using the second list of scheduling information, determining the start position of the SI window by taking an input parameter into account, wherein the input parameter is a value of a field in a message received from a radio network node, said value being configured for said SI message by the radio network node, whereby the UE determines the start position of the SI window based on an integer value x, which integer value x is calculated by taking the received input parameter minus 1 and multiplying it with a value representing the window length of the SI window, wherein the SI window starts at a slot #a, where a = x mod N, in the radio frame for which SFN mod T = FLOOR(x/N), where T is the periodicity of the concerned SI message and N is the number of slots in a radio frame.
Sensor arrangement, comprising an input surface, below which a first capacitive sensor is disposed, a means for evaluating a change in capacitance of the first sensor, which is connected to said sensor and is embodied to provide a first output signal if there is a change in capacitance, characterised in that the input surface has at least one light-permeable part surface and an optical sensor is disposed below the part surface, wherein the optical sensor is connected to an evaluation unit and the evaluation unit is embodied to carry out a light-permeability measurement of an object located on the input surface by means of the optical sensor and to create a presence signal if a light permeability determined falls below a predetermined value, in this case the evaluation unit is further embodied to evaluate the first output signal and the presence signal and, if both signals are present, to provide a validity signal.
An abrasive cutter for cutting through a rail of a track with - a base body, - a cutting disc holder for mounting a cutting disc and - a drive for driving the cutting disc holder in rotation about a rotational axis (A 2), wherein -- the drive is directly coupled to the cutting disc holder, -- the drive comprises an electric drive motor, -- a drive axis (A 1) of the electric drive motor and the rotational axis (A 2) align, wherein at least one clamping element for fastening the cutting disc to the cutting disc holder has a diameter, characterized in that the drive has a maximum transverse extent which is at most equal to the diameter of the at least one clamping element, and in that the electric drive motor has a power density P Spez, wherein P Spez ≥ 0.5 kW/kg. - a base body, - a cutting disc holder for mounting a cutting disc and - a drive for driving the cutting disc holder in rotation about a rotational axis (A 2), wherein -- the drive is directly coupled to the cutting disc holder, -- the drive comprises an electric drive motor, -- a drive axis (A 1) of the electric drive motor and the rotational axis (A 2) align, -- the drive is directly coupled to the cutting disc holder, -- the drive comprises an electric drive motor, -- a drive axis (A 1) of the electric drive motor and the rotational axis (A 2) align, at least one clamping element for fastening the cutting disc to the cutting disc holder has a diameter, characterized in that the drive has a maximum transverse extent which is at most equal to the diameter of the at least one clamping element, and in that the electric drive motor has a power density P Spez, wherein P Spez ≥ 0.5 kW/kg.
An obturator device comprising: a jacket having a proximal portion and an opposite distal portion, the proximal portion having a contoured face; an elongated mandrel having a proximal portion and an opposite distal portion, wherein the distal portion of the mandrel is coupled to the jacket, and wherein the proximal portion of the elongated mandrel extends proximally from the jacket; and a sleeve encircling at least a portion of the jacket and extending beyond the proximal portion of the jacket; characterized in that, the proximal portion of the mandrel is arcuate. a jacket having a proximal portion and an opposite distal portion, the proximal portion having a contoured face; an elongated mandrel having a proximal portion and an opposite distal portion, wherein the distal portion of the mandrel is coupled to the jacket, and wherein the proximal portion of the elongated mandrel extends proximally from the jacket; and a sleeve encircling at least a portion of the jacket and extending beyond the proximal portion of the jacket; characterized in that, the proximal portion of the mandrel is arcuate.
An oil-in-water emulsion composition comprising: (a) an aqueous dispersion of composite particles of a first oil-soluble ultraviolet absorber and an organic polymer contained in an external phase (water phase), wherein the first oil-soluble ultraviolet absorber is bis-ethylhexyloxyphenol methoxyphenyl triazine, (b) a nonionic surfactant and a fatty acid soap, (c) a water-swellable clay mineral selected from the group consisting of saponite and bentonite, (d) a higher fatty acid, and (e) a second oil-soluble ultraviolet absorber dissolved in an internal phase (oil phase), wherein the second oil-soluble ultraviolet absorber is selected from the group consisting of 2-ethylhexyl paramethoxycinnamate, homosalate, octyl salicylate, oxybenzone, 4-t-butyl-4'-methoxydibenzoylmethane, octyl triazone, methylene bis-benzotriazolyl tetramethylbutyl phenol, 2-hydroxy-4-methoxybenzophenone, dihydroxydimethoxybenzophenone, dihydroxybenzophenone, tetrahydroxybenzophenone, hexyl diethylamino hydroxybenzoyl benzoate, 2-cyano-3,3-diphenylacrylic acid 2'-ethylhexyl ester, polysilicone-15 and drometrizole polysiloxane. (a) an aqueous dispersion of composite particles of a first oil-soluble ultraviolet absorber and an organic polymer contained in an external phase (water phase), wherein the first oil-soluble ultraviolet absorber is bis-ethylhexyloxyphenol methoxyphenyl triazine, (b) a nonionic surfactant and a fatty acid soap, (c) a water-swellable clay mineral selected from the group consisting of saponite and bentonite, (d) a higher fatty acid, and (e) a second oil-soluble ultraviolet absorber dissolved in an internal phase (oil phase), wherein the second oil-soluble ultraviolet absorber is selected from the group consisting of 2-ethylhexyl paramethoxycinnamate, homosalate, octyl salicylate, oxybenzone, 4-t-butyl-4'-methoxydibenzoylmethane, octyl triazone, methylene bis-benzotriazolyl tetramethylbutyl phenol, 2-hydroxy-4-methoxybenzophenone, dihydroxydimethoxybenzophenone, dihydroxybenzophenone, tetrahydroxybenzophenone, hexyl diethylamino hydroxybenzoyl benzoate, 2-cyano-3,3-diphenylacrylic acid 2'-ethylhexyl ester, polysilicone-15 and drometrizole polysiloxane.
Electrical discharge machining method in which a part is machined by means of a tool taking the form of an electrode wire along a machining front that retreats before the tool under the effect of erosive discharges: - the part and the tool, both of which are electrically conductive, being separated from one another by a machining gap; - a cyclic sequence of voltage pulses ( U ign) being applied between the tool and the part so as to generate the erosive discharges; - the tool being set in motion along at least one axis with respect to the part; - the erosive discharges being separated from one another by pause times; - a quantity representative of the width of the machining gap being measured in real time, characterized in that two feedback loops are employed: - an external loop (5, 7, 10, 11, 12, 14, 15, 3, 5), calculating a scalar velocity setpoint ( Vref) for controlling the unit for regulating the motions of axes according to the quantity representative of the width of the machining gap or according to the pause time, the unit for regulating the motions of axes acting on the motors that move the mechanical axes, thereby adjusting the width of the machining gap; - an internal loop (5, 7, 10, 11, 16, 20, 9, 6, 5), feedback-controlling the average machining power ( P moy) while counteracting the variations in the width of the machining gap by acting on the pause time, according to a predetermined law relating the pause time to the quantity representative of the width of the machining gap, thereby quickly adjusting the width of the machining gap. - the part and the tool, both of which are electrically conductive, being separated from one another by a machining gap; - a cyclic sequence of voltage pulses ( U ign) being applied between the tool and the part so as to generate the erosive discharges; - the tool being set in motion along at least one axis with respect to the part; - the erosive discharges being separated from one another by pause times; - a quantity representative of the width of the machining gap being measured in real time, - an external loop (5, 7, 10, 11, 12, 14, 15, 3, 5), calculating a scalar velocity setpoint ( Vref) for controlling the unit for regulating the motions of axes according to the quantity representative of the width of the machining gap or according to the pause time, the unit for regulating the motions of axes acting on the motors that move the mechanical axes, thereby adjusting the width of the machining gap; - an internal loop (5, 7, 10, 11, 16, 20, 9, 6, 5), feedback-controlling the average machining power ( P moy) while counteracting the variations in the width of the machining gap by acting on the pause time, according to a predetermined law relating the pause time to the quantity representative of the width of the machining gap, thereby quickly adjusting the width of the machining gap.
A system for reducing visibility of registration errors in an image to be printed using a digital color printer, the image having cyan, magenta, yellow, and black color planes, each color plane having a plurality of respective C, M, Y and K pixels, said pixels used to form objects on said C, M, Y and K color planes, said system comprising: a) means for detecting colored edges of colored objects on each of the C, M and K color planes; b) means for detecting coincident and opposing edge transitions on CM, CK and KM color plane pairs; c) means for performing processing on the detected coincident and opposing edge transitions to determine the color plane and direction to extend the objects, if necessary; d) means for spreading or choking the objects across the determined color plane using a simple trap generation rule and a single trap generation rule, wherein said means for spreading or choking using said single trap generation rule comprises, with respect to first and second color planes, if there are extensions on both sides of the color edge, determining which two colorants will generate said extensions and, determining which of the two extensions is darker and generating the darker extension, wherein said means for detecting said edges of objects comprises means for measuring spatial rates of change of color value and comparing the color values across the edges against at least two thresholds on each color plane independent of other color planes using a Laplacian kernel for each pixel in the color plane, wherein said means for performing processing to determine the color plane and direction to extend the objects comprises means for comparing convolved pixel values for each edge of each color plane, wherein said convolved pixel values are obtained by performing a convolution calculation for each pixel in each of said color planes, wherein said means for spreading or choking comprises nine convolution matrices, wherein the nine convolution matrices include up to nine convolution modules in a hardware implementation to allow parallel access to image data, wherein the hardware implementation uses a 1-4 Laplacian Kernel, including one shifter, two adders, one subtractor, and one comparator for each convolution module, and wherein the comparator compares a convolved pixel value against a convolution threshold, to determine whether there is an edge or not on for each color plane, and the result is compared with the results from other planes, and the edge is a candidate for trapping if the directions of the determined edges are opposite to one another. a) means for detecting colored edges of colored objects on each of the C, M and K color planes; b) means for detecting coincident and opposing edge transitions on CM, CK and KM color plane pairs; c) means for performing processing on the detected coincident and opposing edge transitions to determine the color plane and direction to extend the objects, if necessary; d) means for spreading or choking the objects across the determined color plane using a simple trap generation rule and a single trap generation rule,