mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving a communication history by a first terminal, the method comprising: sending, to a first server, a subscribe request for receiving a communication history using a user of the first terminal; receiving (3221-3223, 3241-3243), from the first server, communication history information corresponding to all terminals (200, 220) corresponding to the user, wherein the communication history information includes information about all group members making a group call; storing the communication history information in the first terminal, in response to receiving a user input for making a new group call, sending, to a second server, a request for receiving filtered presence information for one or more group members among the all group members based on the communication history information; receiving, from the second sever, the filtered presence information for the one or more group members; and making the new group call between the first terminal and the one or more group members based on the filtered presence information. sending, to a first server, a subscribe request for receiving a communication history using a user of the first terminal; receiving (3221-3223, 3241-3243), from the first server, communication history information corresponding to all terminals (200, 220) corresponding to the user, wherein the communication history information includes information about all group members making a group call; storing the communication history information in the first terminal, in response to receiving a user input for making a new group call, sending, to a second server, a request for receiving filtered presence information for one or more group members among the all group members based on the communication history information; receiving, from the second sever, the filtered presence information for the one or more group members; and making the new group call between the first terminal and the one or more group members based on the filtered presence information.
A lock having a lock striker plate (6, 9) and an actuation member which are operatively connected to one another so that the lock striker plate (6, 9) can be moved from a moved out position into a retracted position and vice versa by actuating the actuation member if the lock (3, 4, 14) is in an unlocked state; having an actuator by which the lock (3, 4, 14) can be switched between the unlocked state and a locked state; and having a blocking element which is operatively connected to the actuator and by which a movement of the lock striker plate (6, 9) into the retracted position is prevented when the lock (3, 4, 14) is in the locked state, wherein the blocking element comprises a blocking section which, on the locking of the lock (3, 4, 14) engages into a free space which is regionally bounded by a contact region provided at the lock striker plate (6, 9) or at an element connected to the lock striker plate (6, 9), with the blocking section comprising a connection section formed for contact with the contact region, with the contact section and the contact region extending obliquely to one another and with at least one part of the blocking section comprising a part of the contact section also being able to be introduced into the free space when the lock striker plate (6, 9) is between the retracted position and the moved out position, characterised in that the blocking element and the actuator are held together by a force which is preset in a defined manner; and in that the blocking element and the actuator can be moved relative to one another on overcoming the force which is preset in a defined manner.
Method for analysing a sample suitable for single-plane illumination microscopy and optical projection tomography in the case of which - the sample is mounted rotatably about and displaceably along an axis of rotation, - the sample is illuminated via a first illumination device having a substantially flat light sheet in a fashion substantially parallel to the axis of rotation and, via an imaging objective with an optical axis which intersects the plane of the light sheet at an angle other than zero, preferably perpendicularly, light emitted by the sample is projected onto a detection device as a sectional image, - a plurality of sectional images of the sample are recorded and, at least for some of the sectional images, the sample is turned and/or displaced between the recordings, - and the sectional images recorded are registered and fused into a first data record of spatial image data of the sample, - the sample being illuminated in transmitted light substantially perpendicular to the axis of rotation via a second illumination device, the imaging objective projecting at least a portion of the sample as shadow image onto the detection device in an approximately central fashion, - a plurality of shadow images of the sample being recorded and the sample being turned and/or displaced between the recordings at least for some of the shadow images, and - a back projection algorithm being used to construct from the shadow images recorded a second data record of spatial image data of the sample. - the sample is mounted rotatably about and displaceably along an axis of rotation, - the sample is illuminated via a first illumination device having a substantially flat light sheet in a fashion substantially parallel to the axis of rotation and, via an imaging objective with an optical axis which intersects the plane of the light sheet at an angle other than zero, preferably perpendicularly, light emitted by the sample is projected onto a detection device as a sectional image, - a plurality of sectional images of the sample are recorded and, at least for some of the sectional images, the sample is turned and/or displaced between the recordings, - and the sectional images recorded are registered and fused into a first data record of spatial image data of the sample, - the sample being illuminated in transmitted light substantially perpendicular to the axis of rotation via a second illumination device, the imaging objective projecting at least a portion of the sample as shadow image onto the detection device in an approximately central fashion, - a plurality of shadow images of the sample being recorded and the sample being turned and/or displaced between the recordings at least for some of the shadow images, and - a back projection algorithm being used to construct from the shadow images recorded a second data record of spatial image data of the sample.
A catheter for fluid delivery through at least one injection needle into tissue of a human body comprising: a catheter body having a central axis extending in a longitudinal direction, the catheter body having an internal fluid injection lumen; at least three needle guiding elements adapted to expand outwardly toward an interior wall of a target vessel; at least one lateral support structure adapted to support the at least three needle guiding elements as it expands outwardly toward the interior wall of the target vessel; the at least three injection needles, each having an injection lumen in fluid communication with the fluid injection lumen of the catheter body, the at least three injection needles adapted to be advanced outwardly, guided by the at least three needle guiding elements to penetrate the interior wall of the target vessel, the at least three injection needles having a distal opening for fluid delivery at or near its distal end; wherein the preformed radius of curvature of the at least three injection needles is similar to the radius of curvature of the at least three guiding elements such that the at least three needle guiding elements maintain their position against the interior wall of the target vessel as the at least three injection needles are advanced to penetrate the interior wall of the target vessel. a catheter body having a central axis extending in a longitudinal direction, the catheter body having an internal fluid injection lumen; at least three needle guiding elements adapted to expand outwardly toward an interior wall of a target vessel; at least one lateral support structure adapted to support the at least three needle guiding elements as it expands outwardly toward the interior wall of the target vessel; the at least three injection needles, each having an injection lumen in fluid communication with the fluid injection lumen of the catheter body, the at least three injection needles adapted to be advanced outwardly, guided by the at least three needle guiding elements to penetrate the interior wall of the target vessel, the at least three injection needles having a distal opening for fluid delivery at or near its distal end; wherein the preformed radius of curvature of the at least three injection needles is similar to the radius of curvature of the at least three guiding elements such that the at least three needle guiding elements maintain their position against the interior wall of the target vessel as the at least three injection needles are advanced to penetrate the interior wall of the target vessel.
A communication terminal that is one of a plurality of communication terminals receiving signals transmitted from a base station and radio-transmitting to the base station, characterized by comprising: - a time acquirer acquiring reference time information common to the plurality of communication terminals; - a clock generator generating a chip clock on the basis of the reference time information; - a code generator generating orthogonal codes in time with the timing of the chip clock; - a signal generator spreading transmission signals with the orthogonal codes to generate code division multiple access signals; - a carrier wave generator generating a carrier wave; and - a transmitter (25, 27) modulating the carrier wave generated by the carrier wave generator with the code division multiple access signals and transmitting the carrier wave to the base station, wherein the clock generator generates a chip clock having a chip duration of which the allowable error is larger than the time accuracy of the reference time information; and the signal generator spreads transmission signals including a short message to generate code division multiple access signals at slot times on the basis of the reference time information and common to the plurality of communication terminals. - a time acquirer acquiring reference time information common to the plurality of communication terminals; - a clock generator generating a chip clock on the basis of the reference time information; - a code generator generating orthogonal codes in time with the timing of the chip clock; - a signal generator spreading transmission signals with the orthogonal codes to generate code division multiple access signals; - a carrier wave generator generating a carrier wave; and - a transmitter (25, 27) modulating the carrier wave generated by the carrier wave generator with the code division multiple access signals and transmitting the carrier wave to the base station, wherein the clock generator generates a chip clock having a chip duration of which the allowable error is larger than the time accuracy of the reference time information; and the signal generator spreads transmission signals including a short message to generate code division multiple access signals at slot times on the basis of the reference time information and common to the plurality of communication terminals.
Electrical conducting device comprising - an electrically conductive conducting element and - an electrically insulating sheath surrounding said conducting element at least regionally, with a coating consisting of a material which has a resistivity which increases towards one end of the sheath is arranged on an outer side of said sheath, characterized in that - the resistivity increases towards one end in accordance with a continuously differential function, from an initial value to a final value; - the material of the coating comprises particles with a first electrical conductivity and particles with a lower second electrical conductivity, and - the increase in the resistivity towards the end of the sheath is effected by a decrease in concentration of the particles with the first conductivity and an increase in concentration of the particles with the second conductivity, wherein - a total content of the particles is at least so great in the material that a percolation threshold is exceeded. - an electrically conductive conducting element and - an electrically insulating sheath surrounding said conducting element at least regionally, with a coating consisting of a material which has a resistivity which increases towards one end of the sheath is arranged on an outer side of said sheath, - the resistivity increases towards one end in accordance with a continuously differential function, from an initial value to a final value; - the material of the coating comprises particles with a first electrical conductivity and particles with a lower second electrical conductivity, and - the increase in the resistivity towards the end of the sheath is effected by a decrease in concentration of the particles with the first conductivity and an increase in concentration of the particles with the second conductivity, wherein - a total content of the particles is at least so great in the material that a percolation threshold is exceeded.
A data supplying apparatus comprising: detection means for detecting that a disconnection of a short range wireless direct connection with a data processing apparatus has occurred or a first electric field intensity of a first signal received from the data processing apparatus is less than a threshold value; determination means for determining that the short range wireless direct connection with the data processing apparatus is restored after it is detected that the disconnection of the short range wireless direct connection has occurred or that a second electric field intensity of a second signal received from the data processing apparatus is more than the threshold value after it is detected that the first electric field intensity is less than the threshold value, wherein the first and second signals are used for a short range wireless direct communication; switch means (S1211, S1210) for, in response to a fact that said determination means determines that the short range wireless direct connection with the data processing apparatus is restored or the second electric field intensity is more than the threshold value, switching image data to be transmitted from first image data to second image data different from the first image data, wherein the first image data is transmitted before said detection means detected that the short range wireless direct connection was disconnected or the first electric field intensity was less than the threshold value; and transmission means for transmitting the second image data to the data processing apparatus. detection means for detecting that a disconnection of a short range wireless direct connection with a data processing apparatus has occurred or a first electric field intensity of a first signal received from the data processing apparatus is less than a threshold value; determination means for determining that the short range wireless direct connection with the data processing apparatus is restored after it is detected that the disconnection of the short range wireless direct connection has occurred or that a second electric field intensity of a second signal received from the data processing apparatus is more than the threshold value after it is detected that the first electric field intensity is less than the threshold value, wherein the first and second signals are used for a short range wireless direct communication; switch means (S1211, S1210) for, in response to a fact that said determination means determines that the short range wireless direct connection with the data processing apparatus is restored or the second electric field intensity is more than the threshold value, switching image data to be transmitted from first image data to second image data different from the first image data, wherein the first image data is transmitted before said detection means detected that the short range wireless direct connection was disconnected or the first electric field intensity was less than the threshold value; and transmission means for transmitting the second image data to the data processing apparatus.
System for converting wastes into gaseous fuels adapted to subject the wastes to a pyrolysis process, and subject the liquid and solid outputs of the pyrolysis process to a gasification process, wherein said pyrolysis process and said gasification process are performed in series and in loop, characterized in that it comprises: - at least one hopper; - at least one chamber, connected to the hopper, for mixing wastes and hot gases from gasification; - at least one rotating drum, connected to the chamber, adapted to perform a pyrolysis process; - at least one pump adapted to operate the chamber; - at least one centrifugating device connected to the rotating drum and adapted to separate syngas and tar from char; - at least one mechanical separator for the char and at least one thermal separator for the tar, connected to the centrifugating device; - at least one gasifying device adapted to perform the gasification process of tar and char from the pyrolysis process; - at least one cleaning element, connected to the mechanical separator and the gasifying device and adapted to perform a chemical and electric washing of the char; and - at least one hot gas duct coming from the gasifying device and connected to the chamber. - at least one hopper; - at least one chamber, connected to the hopper, for mixing wastes and hot gases from gasification; - at least one rotating drum, connected to the chamber, adapted to perform a pyrolysis process; - at least one pump adapted to operate the chamber; - at least one centrifugating device connected to the rotating drum and adapted to separate syngas and tar from char; - at least one mechanical separator for the char and at least one thermal separator for the tar, connected to the centrifugating device; - at least one gasifying device adapted to perform the gasification process of tar and char from the pyrolysis process; - at least one cleaning element, connected to the mechanical separator and the gasifying device and adapted to perform a chemical and electric washing of the char; and - at least one hot gas duct coming from the gasifying device and connected to the chamber.
A method for determining a decompressed Higher Order Ambisonics representation from a compressed HOA representation, said method comprising: receiving a current encoded compressed frame containing the compressed HOA representation; perceptually decoding the current encoded compressed frame to provide a perceptually decoded frame ( Ŷ ( k -2)) of channels; re-distributing said perceptually decoded frame ( Ŷ ( k - 2)) of channels based on a transmitted assignment vector ( γ ( k)) indicating at least an index of an additional coefficient sequence of an ambient HOA component in order to re-create a corresponding recreated frame of a residual ambient HOA component ( Ĉ AMB,RED ( k - 2)) and a corresponding recreated frame of HOA directional signals ( X̂ DIR ( k - 2)); re-composing a current decompressed frame ( Ĉ ( k - 3)) of the HOA representation from the recreated frame of directional signals ( X̂ DIR ( k - 2)) and from the recreated frame of the residual ambient HOA component ( Ĉ AMB,RED ( k - 2) based on transmitted indices of detected directional signals ( ( k)) and a transmitted set of dominant direction estimates ( ( k)), wherein said re-composing the current decompressed frame ( Ĉ ( k - 3)) is further based on predicted signals that are predicted with respect to uniformly distributed directions from said directional signals ( X̂ DIR ( k - 2)). receiving a current encoded compressed frame containing the compressed HOA representation; perceptually decoding the current encoded compressed frame to provide a perceptually decoded frame ( Ŷ ( k -2)) of channels; re-distributing said perceptually decoded frame ( Ŷ ( k - 2)) of channels based on a transmitted assignment vector ( γ ( k)) indicating at least an index of an additional coefficient sequence of an ambient HOA component in order to re-create a corresponding recreated frame of a residual ambient HOA component ( Ĉ AMB,RED ( k - 2)) and a corresponding recreated frame of HOA directional signals ( X̂ DIR ( k - 2)); re-composing a current decompressed frame ( Ĉ ( k - 3)) of the HOA representation from the recreated frame of directional signals ( X̂ DIR ( k - 2)) and from the recreated frame of the residual ambient HOA component ( Ĉ AMB,RED ( k - 2) based on transmitted indices of detected directional signals ( ( k)) and a transmitted set of dominant direction estimates ( ( k)), wherein said re-composing the current decompressed frame ( Ĉ ( k - 3)) is further based on predicted signals that are predicted with respect to uniformly distributed directions from said directional signals ( X̂ DIR ( k - 2)).
A Doherty amplifier (1, 1A, 1B) comprising: a first amplifying element to amplify a first signal; a second amplifying element to amplify a second signal having a phase difference with the first signal; a first transmission line connected to an output terminal of the first amplifying element; and a second transmission line connected to an output terminal of the second amplifying element, an output combining point for connecting the Doherty amplifier (1, 1A, 1B) to an external load (R L) at which the first signal having passed through the first transmission line and the second signal having passed through the second transmission line are subjected to different phase synthesis and combined for directly output to the external load (R L), wherein the first transmission line and the second transmission line are equal to each other in characteristic impedance, the phase difference between the first signal and the second signal is configured to be selected so as not to be equal to a difference in electrical length between the second transmission line and the first transmission line, the electrical length of the first transmission line is within a range from 70 degrees to 90 degrees, the electrical length of the second transmission line is within a range from 90 degrees to 180 degrees, and the characteristic impedance of the first transmission line and the characteristic impedance of the second transmission line are smaller than a value obtained by doubling the external load (R L). a first amplifying element to amplify a first signal; a second amplifying element to amplify a second signal having a phase difference with the first signal; a first transmission line connected to an output terminal of the first amplifying element; and a second transmission line connected to an output terminal of the second amplifying element, an output combining point for connecting the Doherty amplifier (1, 1A, 1B) to an external load (R L) at which the first signal having passed through the first transmission line and the second signal having passed through the second transmission line are subjected to different phase synthesis and combined for directly output to the external load (R L), wherein the first transmission line and the second transmission line are equal to each other in characteristic impedance, the phase difference between the first signal and the second signal is configured to be selected so as not to be equal to a difference in electrical length between the second transmission line and the first transmission line, the electrical length of the first transmission line is within a range from 70 degrees to 90 degrees, the electrical length of the second transmission line is within a range from 90 degrees to 180 degrees, and the characteristic impedance of the first transmission line and the characteristic impedance of the second transmission line are smaller than a value obtained by doubling the external load (R L).