mhurhangee/ep-ind-claims huggingface dataset:
A Non-3GPP InterWorking Function, N3IWF, entity comprising: position information management means for managing a Cell ID, a Tracking Area, TA, ID and an Emergency Area, EA, ID as a distribution destination in a 3GPP mobile communication system and position information indicating a position of a communication terminal connected to an access system different from the 3GPP mobile communication system by associating at least one of the Cell ID, the TA ID, and the EA ID with the position information when the position information is comprised within at least one of the Cell ID, the TA ID, and the EA ID; communication terminal management means for managing the communication terminal and at least one of the Cell ID, the TA ID, and the EA ID as a distribution destination in a mobile communication system to which the communication terminal belongs by associating the communication terminal with at least one of the Cell ID, the TA ID, and the EA ID based on positional information indicating a current position of the communication terminal within at least one of the Cell ID, the TA ID, and the EA ID; and communication means for, when it receives emergency information for which at least one of the Cell ID, the TA ID, and the EA ID is designated as its distribution destination, transmitting the emergency information to the communication terminal by changing at least one of the Cell ID, the TA ID, and the EA ID as the distribution destination to identification information of the communication terminal. position information management means for managing a Cell ID, a Tracking Area, TA, ID and an Emergency Area, EA, ID as a distribution destination in a 3GPP mobile communication system and position information indicating a position of a communication terminal connected to an access system different from the 3GPP mobile communication system by associating at least one of the Cell ID, the TA ID, and the EA ID with the position information when the position information is comprised within at least one of the Cell ID, the TA ID, and the EA ID; communication terminal management means for managing the communication terminal and at least one of the Cell ID, the TA ID, and the EA ID as a distribution destination in a mobile communication system to which the communication terminal belongs by associating the communication terminal with at least one of the Cell ID, the TA ID, and the EA ID based on positional information indicating a current position of the communication terminal within at least one of the Cell ID, the TA ID, and the EA ID; and communication means for, when it receives emergency information for which at least one of the Cell ID, the TA ID, and the EA ID is designated as its distribution destination, transmitting the emergency information to the communication terminal by changing at least one of the Cell ID, the TA ID, and the EA ID as the distribution destination to identification information of the communication terminal.
A method for selectively removing carbon dioxide, CO 2, from an exhaust gas produced by an internal combustion engine, ICE, on a mobile device, said ICE being provided with coolant fluid, comprising: (i) contacting said exhaust gas produced by said ICE to a first side of a facilitated transport, FT, membrane; and (ii) directing a stream of steam produced by contact of said coolant fluid with said ICE to remove CO 2 complexed to a polymer from a second side of said FT membrane, said FT membrane comprises a polymer having a complexing agent or carrier having affinity for CO 2 incorporated in said polymer. (i) contacting said exhaust gas produced by said ICE to a first side of a facilitated transport, FT, membrane; and (ii) directing a stream of steam produced by contact of said coolant fluid with said ICE to remove CO 2 complexed to a polymer from a second side of said FT membrane, said FT membrane comprises a polymer having a complexing agent or carrier having affinity for CO 2 incorporated in said polymer.
A cycling suit comprising a seat pad in the crotch area, and a plurality of fabric panels which are associated along structural seam lines, wherein the suit has a structure made of several fabric portions connected to each other by perimeter seams, characterized in that the seat pad comprises a soft fabric cover and at least two shaped pads fixed to said cover, the suit further comprises an additional front connection panel for connection of a front part of said seat pad to the suit, said additional front connection panel being fixed to said front part of seat pad on at least a seam line, said front connection panel being also fixed to the suit along at least two of said perimeter seams.
A method for converting a 12-bit digital signal to a 8-bit digital signal wherein the digital input signal comprises twelve bits, including a sign bit, the method comprising: removing the sign bit from the 12-bit digital signal and adding a predetermined offset of 129 to the remaining digital signal to form a 11-bit biased input before performing the companding process; and using a two-bit chord and a 5-bit step to represent the 11-bit input when performing a companding process to seven bits as a compressed code word; wherein the companding process comprises encoding the biased input according to the following table: Biased Input Compressed Code Word Chord Step Bit: 10 9 8 7 6 5 4 3 2 1 0 6 5 4 3 2 1 0 0 0 0 1 A B C D E x x 0 0 A B C D E 0 0 1 A B C D E x x x 0 1 A B C D E 0 1 A B C D E x x x x 1 0 A B C D E 1 A B C D E x x x x x 1 1 A B C D E where "x" represents the discarded bits in the encoding process and ABCDE represent the rest of the bits of the original code word wherein the sign bit is transferred to the final compressed code word. removing the sign bit from the 12-bit digital signal and adding a predetermined offset of 129 to the remaining digital signal to form a 11-bit biased input before performing the companding process; and using a two-bit chord and a 5-bit step to represent the 11-bit input when performing a companding process to seven bits as a compressed code word;
A method for transferring data between a data source and a data sink which are controlled by a common clock, wherein the data source and the data sink are functional units of a system built in an integrated circuit, comprising: sending a stream of data elements from said source to said sink; simultaneously sending a first binary signal (svalid) from source to sink, said first signal being low if the data element is to be ignored by the sink and otherwise being high; simultaneously sending a second binary signal from sink to source (saccept), said second signal being low if the data element is not accepted by the sink and otherwise being high; characterized by simultaneously sending a third binary signal (sframe) from said source to said sink, wherein the third signal marks the beginning and the end of a logical group of data elements within the data stream, wherein the third binary signal being high signifies the data belonging to a first logical data stream and the third binary signal being low signifies the data belonging to a second logical data stream. sending a stream of data elements from said source to said sink; simultaneously sending a first binary signal (svalid) from source to sink, said first signal being low if the data element is to be ignored by the sink and otherwise being high; simultaneously sending a second binary signal from sink to source (saccept), said second signal being low if the data element is not accepted by the sink and otherwise being high; characterized by simultaneously sending a third binary signal (sframe) from said source to said sink, wherein the third signal marks the beginning and the end of a logical group of data elements within the data stream, wherein the third binary signal being high signifies the data belonging to a first logical data stream and the third binary signal being low signifies the data belonging to a second logical data stream.
An insertion object of which at least a tip portion is suitable for insertion into a subject, the insertion object having: a light guide member that guides light emitted from a light source; a light emitting portion that emits the light guided by the light guide member; and a photoacoustic wave generating portion that generates photoacoustic waves caused by the light emitted from the light emitting portion, wherein the insertion object has an opening and has an inner cavity therein, and the photoacoustic wave generating portion includes a light absorbent member that absorbs the light emitted from the light emitting portion and generates photoacoustic waves, characterized in that the light absorbent member is provided on an inner wall of the inner cavity and also functions as a fixing member that fixes the tip portion of the light guide member to the inner wall. a light guide member that guides light emitted from a light source; a light emitting portion that emits the light guided by the light guide member; and a photoacoustic wave generating portion that generates photoacoustic waves caused by the light emitted from the light emitting portion, wherein the insertion object has an opening and has an inner cavity therein, and the photoacoustic wave generating portion includes a light absorbent member that absorbs the light emitted from the light emitting portion and generates photoacoustic waves, characterized in that the light absorbent member is provided on an inner wall of the inner cavity and also functions as a fixing member that fixes the tip portion of the light guide member to the inner wall.
An ultrasonic imaging system which visually guides the insertion of an invasive device such as a needle comprising: a 3D ultrasonic imaging probe which is capable of imaging different planes of a volumetric region; a needle guide, dimensioned to attach to the imaging probe in a predetermined orientation, characterized in that the needle guide has a plurality of needle insertion positions to guide a needle for insertion into the volumetric region through different needle insertion planes, the needle guide is adapted to produce a plane identification signal which identifies the insertion plane of a needle being inserted into the volumetric region; and the system further comprises an ultrasound system coupled to the probe and responsive to the plane identification signal and controlling the 3D ultrasonic imaging probe to produce a 2D image of the identified plane. a 3D ultrasonic imaging probe which is capable of imaging different planes of a volumetric region; a needle guide, dimensioned to attach to the imaging probe in a predetermined orientation, characterized in that the needle guide has a plurality of needle insertion positions to guide a needle for insertion into the volumetric region through different needle insertion planes, the needle guide is adapted to produce a plane identification signal which identifies the insertion plane of a needle being inserted into the volumetric region; and the system further comprises an ultrasound system coupled to the probe and responsive to the plane identification signal and controlling the 3D ultrasonic imaging probe to produce a 2D image of the identified plane.
A method for bandwidth aggregation in a dedicated access point, said method comprising providing communication to at least one wireless client device through a connectivity to said corresponding dedicated access point, as well as locating and recognizing a plurality of neighboring Access Points' (AP2, AP3), characterized in that it comprises following actions: a) notifying, by said dedicated access point, a predetermined absence period to said at least one wireless client device to which it provides communication; b) during said predetermined absence period, said dedicated access point becoming a client to at least a second access point of said plurality of neighboring Access Points' (AP2, AP3); c) receiving, by said dedicated access point as a client, backhaul data corresponding to a backhaul bandwidth of said at least second access point and aggregating said received backhaul data from said at least second access point to its own backhaul data; and d) sending, by said dedicated access point, said aggregated backhaul data to said at least one wireless client device after the predetermined absence period has lapsed. a) notifying, by said dedicated access point, a predetermined absence period to said at least one wireless client device to which it provides communication; b) during said predetermined absence period, said dedicated access point becoming a client to at least a second access point of said plurality of neighboring Access Points' (AP2, AP3); c) receiving, by said dedicated access point as a client, backhaul data corresponding to a backhaul bandwidth of said at least second access point and aggregating said received backhaul data from said at least second access point to its own backhaul data; and d) sending, by said dedicated access point, said aggregated backhaul data to said at least one wireless client device after the predetermined absence period has lapsed.
A method for transmitting system information, comprising a terminal device (1100, 1700) determining time-frequency resources for receiving n groups of system information, wherein an i-th group of system information in the n groups of system information occupies continuous system information time-domain resources in a time domain, and system information frequency-domain resources occupied by system information in the i-th group of system information are different from each other in respective time-domain resources, and the i-th group of system information comprises k pieces of system information, where n is a positive integer, k is a positive integer, and i is a positive integer less than or equal to n; the terminal device (1100, 1700) receiving the n groups of system information sent by a network device (800, 1400) on the time-frequency resources, wherein the system information in the i-th group of system information occupies continuous system information frequency-domain resources, and wherein n groups of system information are mapped to time-domain resources and frequency-domain resources in a cyclically shifted manner. a terminal device (1100, 1700) determining time-frequency resources for receiving n groups of system information, wherein an i-th group of system information in the n groups of system information occupies continuous system information time-domain resources in a time domain, and system information frequency-domain resources occupied by system information in the i-th group of system information are different from each other in respective time-domain resources, and the i-th group of system information comprises k pieces of system information, where n is a positive integer, k is a positive integer, and i is a positive integer less than or equal to n; the terminal device (1100, 1700) receiving the n groups of system information sent by a network device (800, 1400) on the time-frequency resources, wherein the system information in the i-th group of system information occupies continuous system information frequency-domain resources, and wherein n groups of system information are mapped to time-domain resources and frequency-domain resources in a cyclically shifted manner.
Fuel injector, having an injector housing in which there is formed at least one injection opening for injecting fuel into the combustion chamber of an internal combustion engine, wherein the throughflow through the at least one injection opening is controllable by means of an injection element which is movable up and down in a longitudinal axis, in particular by means of a nozzle needle, wherein the injection element is arranged in a high-pressure chamber and protrudes, with an end region averted from the at least one injection opening, into an element (25; 25a) which delimits a control chamber, and wherein the control chamber is hydraulically connected via at least one inflow channel (48, 49; 51; 55) to the high-pressure chamber and can be relieved of pressure via an outflow channel into a low-pressure region, characterized in that the at least one inflow channel (48, 49; 51) is designed to form a laminar throughflow of the fuel, and comprises at least one groove which is formed in the injection element between the control chamber and the high-pressure chamber at the shell surface of the injection element, the width/depth ratio of which groove amounts to less than 1:10, preferably approximately 1:20.
Crystal form I of a compound of formula, characterized in that: the crystal form I has an X-ray powder diffraction spectrum, which is obtained by using Cu-Kα radiation and represented by diffraction angle 2θ angle, in which there are characteristic peaks at 5.56, 9.15, 9.79, 11.08, 19.59, 20.25 and 22.16, wherein the error range of 2θ angle of each characteristic peak is ±0.2,
A counterfeit preventive paper comprising paper sheets (15a, 15b) and a thread inserted into the paper sheets (15a, 15b), characterized in that the thread comprises a string-like and light permeable substrate having front and back sides, at least one metal thin film layer (3, 4) formed in a pattern of either character or figure or both on one side and an opposite side of the substrate, and a colored resin layer (7, 8) on each of the metal thin film layers (3, 4) patterned same as the respective metal thin film layer (3, 4), and in that the paper satisfies the following conditions (a) and (b): (a) the respective colored resin layer (7, 8) can be recognized as the pattern by reflected light when viewed from the one side, and, if the paper is viewed from the opposite side with reflected light, the laterally or vertically inverted pattern of the recognized colored resin layer (7, 8) is hardly visible, and (b) if the paper is viewed with transmitted light while held to light, the pattern of the recognized colored resin layer (7, 8) is visible as a shadow. characterized in that the thread comprises a string-like and light permeable substrate having front and back sides, at least one metal thin film layer (3, 4) formed in a pattern of either character or figure or both on one side and an opposite side of the substrate, and a colored resin layer (7, 8) on each of the metal thin film layers (3, 4) patterned same as the respective metal thin film layer (3, 4), and in that the paper satisfies the following conditions (a) and (b): (a) the respective colored resin layer (7, 8) can be recognized as the pattern by reflected light when viewed from the one side, and, if the paper is viewed from the opposite side with reflected light, the laterally or vertically inverted pattern of the recognized colored resin layer (7, 8) is hardly visible, and (b) if the paper is viewed with transmitted light while held to light, the pattern of the recognized colored resin layer (7, 8) is visible as a shadow. (a) the respective colored resin layer (7, 8) can be recognized as the pattern by reflected light when viewed from the one side, and, if the paper is viewed from the opposite side with reflected light, the laterally or vertically inverted pattern of the recognized colored resin layer (7, 8) is hardly visible, and (b) if the paper is viewed with transmitted light while held to light, the pattern of the recognized colored resin layer (7, 8) is visible as a shadow.
A method, comprising: providing a first substrate; and forming a first battery electrode on the first substrate, wherein forming the first battery electrode on the first substrate comprises: depositing a first layer of a first electrode active material on a first portion of a surface of the first substrate; and forming a first current collector that comprises a first conductive material, wherein forming the first current collector comprises depositing, using a thin film deposition process, the first conductive material on a surface of the first layer of the first electrode active material, the first conductive material being deposited over an edge of the first layer of the first electrode active material and onto a second portion of the surface of the first substrate, the second portion of the first substrate being adjacent to the first portion of the first substrate; and removing the first battery electrode from the first substrate, the first battery electrode comprising the first layer of the first electrode active material and the first current collector. providing a first substrate; and forming a first battery electrode on the first substrate, wherein forming the first battery electrode on the first substrate comprises: depositing a first layer of a first electrode active material on a first portion of a surface of the first substrate; and forming a first current collector that comprises a first conductive material, wherein forming the first current collector comprises depositing, using a thin film deposition process, the first conductive material on a surface of the first layer of the first electrode active material, the first conductive material being deposited over an edge of the first layer of the first electrode active material and onto a second portion of the surface of the first substrate, the second portion of the first substrate being adjacent to the first portion of the first substrate; and depositing a first layer of a first electrode active material on a first portion of a surface of the first substrate; and forming a first current collector that comprises a first conductive material, wherein forming the first current collector comprises depositing, using a thin film deposition process, the first conductive material on a surface of the first layer of the first electrode active material, the first conductive material being deposited over an edge of the first layer of the first electrode active material and onto a second portion of the surface of the first substrate, the second portion of the first substrate being adjacent to the first portion of the first substrate; and removing the first battery electrode from the first substrate, the first battery electrode comprising the first layer of the first electrode active material and the first current collector.
A method performed in a self-organizing network including a first function instance and a second function instance, each of the first and second function instances having operational stages including an input operational stage and an output operational stage, comprising: receiving at least one request from the first function instance of the self-organizing network; receiving operational stage information of the first function instance; comparing said first function instance and the second function instance effective in the self-organizing network to determine whether the first function instance and the second function instance overlap, if the first function instance and the second function instance overlap, using said operational stage information and comparing an assigned effective priority for an operational stage of the first function instance and an assigned effective priority for an operational stage of the second function instance, in determining which of the first and second function instance to run in dependence on which of the effective priorities has higher priority; and causing the determined instance to be run. receiving at least one request from the first function instance of the self-organizing network; receiving operational stage information of the first function instance; comparing said first function instance and the second function instance effective in the self-organizing network to determine whether the first function instance and the second function instance overlap, if the first function instance and the second function instance overlap, using said operational stage information and comparing an assigned effective priority for an operational stage of the first function instance and an assigned effective priority for an operational stage of the second function instance, in determining which of the first and second function instance to run in dependence on which of the effective priorities has higher priority; and causing the determined instance to be run.