mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a communication system, the communication system comprises a wireless devices and a base station, the method in the system comprising: sending from the wireless device, a request to resume communication, while in a Radio Resource Control, RRC, INACTIVE state, characterised by: in response to receiving the request to resume communication at the base station, and without first sending to the wireless device an instruction to resume, sending, from the base station, an instruction to release and redirect, and in response to receiving the instruction to release and redirect at the wireless device and without entering an RRC CONNECTED state, performing cell selection in a Radio Access Technology, RAT, and attempting to establish or resume communication with a selected cell. sending from the wireless device, a request to resume communication, while in a Radio Resource Control, RRC, INACTIVE state, characterised by: in response to receiving the request to resume communication at the base station, and without first sending to the wireless device an instruction to resume, sending, from the base station, an instruction to release and redirect, and in response to receiving the instruction to release and redirect at the wireless device and without entering an RRC CONNECTED state, performing cell selection in a Radio Access Technology, RAT, and attempting to establish or resume communication with a selected cell.
Electronic module comprising a dielectric support film with a first face, conductive tracks produced by printing conductive material on said first face, a semiconductor component connecting said tracks by means of electrical connections, characterized in that each connection comprises an electrical conductive wire (19, 24) connecting a stud of the semiconductor component to each track directly or through an island or an interconnection pad.
Interface module comprising a connector housing made of an electrically insulating material, wherein the connector housing receives at least one contact element, said at least one contact element being provided with a contact leg projecting below a planar supporting surface for contacting a contact surface on the surface of a male contact element in a preassembled state, the planar supporting surface being defined by the connector housing, characterized in that the interface module further comprises a spring element adapted to elastically abut against an underside of the male contact element in an assembled state of the male contact element, wherein, in said assembled state, the contact leg of the at least one contact element abuts the contact surface on an upside of the male contact element and the upside of the male contact element abuts against the planar supporting surface by means of the spring element, and a base defining a planar sliding surface for the male contact element, in that the connector housing is movably received in a receptacle of the base, in that the contact element is arranged above the sliding surface, in that the connector housing has an insertion opening adapted to receive the male contact element, in that the spring element is arranged opposite to the at least one contact element in a direction perpendicular to the sliding surface, and in that the male contact element is received within the insertion opening of the connector housing in the assembled state.
Multi-turn rotary encoder having - a single-turn unit comprising a code carrier, which can be scanned by a single-turn scanning device in order to generate single-turn position signals (SP, SP1, SP2), and a single-turn evaluation unit for processing the single-turn position signals (SP, SP1, SP2) to form at least one single-turn code word (SC, SC1, SC2) which indicates the absolute position of an input shaft within one revolution, - a first multi-turn unit (20, 40) which is dependent on the power supply and comprises at least one first multi-turn code carrier (11, 21), which can be scanned by a first multi-turn scanning device (13, 23) in order to generate first multi-turn position signals, and a first multi-turn evaluation unit for processing the first multi-turn position signals to form a first multi-turn code word which indicates the number of revolutions covered by the input shaft, - a second multi-turn unit which is independent of the power supply and comprises at least one second multi-turn code carrier (31.1, 31.2), which can be scanned by a second multi-turn scanning device (33.1, 33.1) in order to generate second multi-turn position signals (MP2.1, MP2.2), and a second multi-turn evaluation unit for processing the second multi-turn position signals (MP2.1, MP2.2) to form a second multi-turn code word which likewise indicates the number of revolutions covered by the input shaft, the value of the first multi-turn code word from the first multi-turn unit (20, 40) being able to be referenced with the value of the second multi-turn code word in an initialization phase after switching on the power supply for the multi-turn rotary encoder, and the second multi-turn unit being a transmission-based multi-turn unit. - a single-turn unit comprising a code carrier, which can be scanned by a single-turn scanning device in order to generate single-turn position signals (SP, SP1, SP2), and a single-turn evaluation unit for processing the single-turn position signals (SP, SP1, SP2) to form at least one single-turn code word (SC, SC1, SC2) which indicates the absolute position of an input shaft within one revolution, - a first multi-turn unit (20, 40) which is dependent on the power supply and comprises at least one first multi-turn code carrier (11, 21), which can be scanned by a first multi-turn scanning device (13, 23) in order to generate first multi-turn position signals, and a first multi-turn evaluation unit for processing the first multi-turn position signals to form a first multi-turn code word which indicates the number of revolutions covered by the input shaft, - a second multi-turn unit which is independent of the power supply and comprises at least one second multi-turn code carrier (31.1, 31.2), which can be scanned by a second multi-turn scanning device (33.1, 33.1) in order to generate second multi-turn position signals (MP2.1, MP2.2), and a second multi-turn evaluation unit for processing the second multi-turn position signals (MP2.1, MP2.2) to form a second multi-turn code word which likewise indicates the number of revolutions covered by the input shaft,
A method of communicating discovery information in a wireless neighborhood aware network, NAN, comprising: receiving a message from a neighboring wireless device (104, 106, 202), the message comprising an identifier associated with the neighboring wireless device (104, 106, 202); adding the identifier to a data structure indicative of discovered device identifiers; and transmitting a message comprising the data structure indicative of discovered device identifiers, wherein: the data structure comprises a Bloom filter, the Bloom filter is a bit array of m bits with k different hash functions associated with the bit array, wherein each hash function maps an input string to one of the m array positions with a uniform random distribution, and at least one of the k hash functions H(j,X,m) is defined as: (CRC32(j||X) & 0xFFFF) mod m, wherein j is a modification string X is the input string, and CRC32 is a 32 bit cyclic redundancy code. receiving a message from a neighboring wireless device (104, 106, 202), the message comprising an identifier associated with the neighboring wireless device (104, 106, 202); adding the identifier to a data structure indicative of discovered device identifiers; and transmitting a message comprising the data structure indicative of discovered device identifiers, wherein: the data structure comprises a Bloom filter, the Bloom filter is a bit array of m bits with k different hash functions associated with the bit array, wherein each hash function maps an input string to one of the m array positions with a uniform random distribution, and at least one of the k hash functions H(j,X,m) is defined as: (CRC32(j||X) & 0xFFFF) mod m, wherein j is a modification string X is the input string, and CRC32 is a 32 bit cyclic redundancy code. the data structure comprises a Bloom filter, the Bloom filter is a bit array of m bits with k different hash functions associated with the bit array, wherein each hash function maps an input string to one of the m array positions with a uniform random distribution, and at least one of the k hash functions H(j,X,m) is defined as: (CRC32(j||X) & 0xFFFF) mod m, wherein j is a modification string X is the input string, and CRC32 is a 32 bit cyclic redundancy code.
A method of operating an ultrasound imaging system to determine a dimension of an anatomical structure in a subject, comprising: transmitting ultrasound energy from a transducer coupled to the ultrasound imaging system into the subject; acquiring ultrasound echo data from the subject using the transducer; displaying, with the ultrasound imaging system, a plurality of two-dimensional image frames (550a-c; 550d-f; TP1A - TP9M) of a region of interest in the subject using the acquired ultrasound echo data; receiving user input at a user interface of the ultrasound imaging system, wherein the user input includes user-selected control points in at least a first and second image frame defining boundaries (552a, 552c; 552d, 552f) of the anatomical structure at different points in time; and interpolating the user-selected control points to determine boundaries of the anatomical structure in image frames that are obtained at times between the first and second image frames. transmitting ultrasound energy from a transducer coupled to the ultrasound imaging system into the subject; acquiring ultrasound echo data from the subject using the transducer; displaying, with the ultrasound imaging system, a plurality of two-dimensional image frames (550a-c; 550d-f; TP1A - TP9M) of a region of interest in the subject using the acquired ultrasound echo data; receiving user input at a user interface of the ultrasound imaging system, wherein the user input includes user-selected control points in at least a first and second image frame defining boundaries (552a, 552c; 552d, 552f) of the anatomical structure at different points in time; and interpolating the user-selected control points to determine boundaries of the anatomical structure in image frames that are obtained at times between the first and second image frames.
A clamping device for coaxially clamping a toolholder on a spindle of a balancing machine, said spindle being rotary about an axis of rotation and including at a frontal end a coaxial receiving socket, and said toolholder including a coupling shank axially insertable into the frontal end of the spindle, said coupling shank being adapted to be axially clamped in place in the receiving socket by means of releasable clamping means, and wherein at least one inner locating surface in the receiving socket, at least one outer locating surface on the coupling shank and, where applicable, one further engaging surface cooperate in order to support the toolholder in coaxial position radially and axially on the spindle, characterized in that the supporting of the coupling shank in the receiving socket takes place only on discrete supports spaced from each other circumferentially, wherein a first and a second one of the discrete supports are formed by inner and outer locating surfaces (40, 41, 43) and define, in combination, a rigid support in a first radial direction, and wherein a third one of the discrete supports is formed by a radially adjustable first supporting element and defines a support in a second radial direction opposite the first radial direction.
A method of encoding a picture in an image sequence, comprising: dividing said picture into a plurality of smaller portions, wherein each of said plurality of smaller portions is a pair of vertically adjacent macroblocks; and selectively encoding at least one of said plurality of smaller portions in frame coding mode and at least one of said plurality of smaller portions in field coding mode, wherein both fields of each of said macroblocks are encoded jointly if said frame coding mode is selected. dividing said picture into a plurality of smaller portions, wherein each of said plurality of smaller portions is a pair of vertically adjacent macroblocks; and selectively encoding at least one of said plurality of smaller portions in frame coding mode and at least one of said plurality of smaller portions in field coding mode, wherein both fields of each of said macroblocks are encoded jointly if said frame coding mode is selected.
A firebrick for a stove having a combustion chamber, the firebrick comprising: an air supply path for delivering a tertiary airflow to the combustion chamber, and wherein the air supply path comprises an air mixing formation for inducing swirling in the delivered tertiary airflow for promoting burning of smoke particles in the combustion chamber, characterised in that the air mixing formation is provided by a spiral channel formed integrally into the firebrick for guiding the tertiary airflow. an air supply path for delivering a tertiary airflow to the combustion chamber, and wherein the air supply path comprises an air mixing formation for inducing swirling in the delivered tertiary airflow for promoting burning of smoke particles in the combustion chamber, characterised in that the air mixing formation is provided by a spiral channel formed integrally into the firebrick for guiding the tertiary airflow.
Turbomachine comprising a low-pressure shaft extending along an axis (X-X) of the turbomachine which defines a front and a rear; a turbomachine stator supporting the low-pressure shaft by bearings including a rear bearing; an electrical machine located at a rear portion of the turbomachine and comprising a rotor disconnectably driven by the low-pressure shaft, and a stator attached to the stator of the turbomachine; comprising a journal for supporting the rotor of the electrical machine, the journal comprising a shaft segment releasably attached to a rear end of the low-pressure shaft by extending the low-pressure shaft, a frame to which the rotor of the electrical machine is attached and which surrounds the shaft segment, characterized in that the stator of the electrical machine surrounds the rotor of the electrical machine; and the turbine also comprises at least one bearing (26, 27) mounted between the frame and the shaft segment; and a sleeve that is axially mobile about the low-pressure shaft and/or the shaft segment that is rotationally connected to the low-pressure shaft and the shaft segment, and provided with rearwardly extending coupling means capable of being engaged with forwardly extending complementary coupling means of the frame.
A method of synchronizing a heart rate parameter of multiple users comprising: measuring a physiological parameter of each of the multiple users, generating by means of a processor a pacing signal at a specific frequency comprising the step of using at least one of the measured physiological parameters as an input into the generation of the pacing signal, presenting to each user an output (28; 36) based upon the measured physiological parameter of the respective user, and presenting by means of the processor and an output system to each user separately a breathing pacer stimulus based upon the generated pacing signal, said breathing pacer stimulus being configured to control the breathing of the user. measuring a physiological parameter of each of the multiple users, generating by means of a processor a pacing signal at a specific frequency comprising the step of using at least one of the measured physiological parameters as an input into the generation of the pacing signal, presenting to each user an output (28; 36) based upon the measured physiological parameter of the respective user, and presenting by means of the processor and an output system to each user separately a breathing pacer stimulus based upon the generated pacing signal, said breathing pacer stimulus being configured to control the breathing of the user.
Actuating element, in particular for an electronic domestic appliance, having: an electrically non-conductive carrier which defines at least one detection portion; a plurality of electrically conductive measuring electrodes which are arranged spaced apart from one another along the detection portion of the carrier; and an operating element which is arranged at a first predefined distance (a) from the measuring electrodes and is movable relative thereto, wherein the operating element has at least one sensor portion which is at least partially electrically conductive and is arranged at a second predefined distance (b) from the measuring electrodes, which second predefined distance is different from the first predefined distance (a), wherein the operating element is made of an electrically conductive material characterized in that the detection portion of the carrier is formed substantially as a lateral surface of a cylinder; and the operating element is substantially annular and is arranged substantially coaxially with the detection portion of the carrier. an electrically non-conductive carrier which defines at least one detection portion; a plurality of electrically conductive measuring electrodes which are arranged spaced apart from one another along the detection portion of the carrier; and an operating element which is arranged at a first predefined distance (a) from the measuring electrodes and is movable relative thereto, wherein the operating element has at least one sensor portion which is at least partially electrically conductive and is arranged at a second predefined distance (b) from the measuring electrodes, which second predefined distance is different from the first predefined distance (a), wherein the operating element is made of an electrically conductive material characterized in that the detection portion of the carrier is formed substantially as a lateral surface of a cylinder; and the operating element is substantially annular and is arranged substantially coaxially with the detection portion of the carrier.
A case (215, 315, 35, 135) for a rechargeable battery, the case comprising a first resin layer and a second resin layer, wherein the first resin layer is on one surface of the second resin layer, and the second resin layer includes a resin comprising a compound containing a butyl group, wherein the case does not comprise a metal film; characterized in that, the resin comprising a compound containing a butyl group includes a poly isobutylene rubber, a copolymer rubber of poly isobutylene and isoprene, a halogenated butyl rubber, an acrylonitrile butadiene rubber, a poly sulfide butadiene rubber, or a styrene butadiene rubber, wherein the case further comprises a third resin layer, wherein the first resin layer is on one surface of the second resin layer and the third resin layer is on another surface of the second resin layer.
A wall sleeve configured for connection to an exhaust air system with fan and having a ventilation opening, which opening can be closed by closure which is motor driven and displaceable between a closed position and an open position, characterized in that the wall sleeve comprises an electronic control unit and in that the adjusting movement of the closure is controllable by the electronic control unit to which a sensor arranged in the wall sleeve, is connected for measuring the airflow generated by the fan, wherein the control unit is configured to evaluate the air flow as a signal for reciprocating the closure appropriately between the closed position and the open position.
A method for producing a ply involved in the construction of a multiply panel for forming, or as the complement of, a wall, a floor or a ceiling, or a pitched surface for a building, said ply being formed of a juxtaposition of blades, said blades being either structural blades, preferably made of wood, or filling blades arranged between the structural blades, made of a material different from that of the structural blades, whereby said materials may be selected for their thermal or acoustic insulation, their thermal inertia or their fire resistance, said method comprising the following steps: - laying a first blade on a table, with a first side edge against a stop, the second side edge in a predefined blade assembling plane forming a mark, - gluing the first side edge of a second blade, contacting through a contacting means said first side edge with the second edge of the first blade on the assembling plane, thus forming an assembly of two blades, and the second unglued side edge of the second blade forming the end edge of the ply being produced, - lateral displacement of said ply being produced relative to the assembling plane, until the end edge of the ply being produced corresponds to the assembling plane, - gluing the first side edge of a third blade, - and so on, until all the blades of the ply are assembled, wherein each lateral displacement of said ply being produced relative to the assembling plane is performed by the synchronized displacement of a table, which the ply being produced is in contact with by its lower face and a driving means, which the ply being produced is in contact with by its upper surface. - laying a first blade on a table, with a first side edge against a stop, the second side edge in a predefined blade assembling plane forming a mark, - gluing the first side edge of a second blade, contacting through a contacting means said first side edge with the second edge of the first blade on the assembling plane, thus forming an assembly of two blades, and the second unglued side edge of the second blade forming the end edge of the ply being produced, - lateral displacement of said ply being produced relative to the assembling plane, until the end edge of the ply being produced corresponds to the assembling plane, - gluing the first side edge of a third blade, - and so on, until all the blades of the ply are assembled,