mhurhangee/ep-ind-claims huggingface dataset:
A method by a wireless device, the method comprising: sending from the wireless device to a network node a first request for establishing a requested data context; receiving from the network node a session management information element coded to indicate acceptance of the request and that a maximum number of data contexts that can be supported for the wireless device is reached if establishing the data context would reach the maximum number of data contexts; and in response to receiving the session management information element, determining if a number of established data contexts is the maximum number of data contexts that can be supported for the wireless device; and avoiding sending from the wireless device to the network node a second request for a further data context while the number of established data contexts is the maximum number of data contexts that can be supported for the wireless device. sending from the wireless device to a network node a first request for establishing a requested data context; receiving from the network node a session management information element coded to indicate acceptance of the request and that a maximum number of data contexts that can be supported for the wireless device is reached if establishing the data context would reach the maximum number of data contexts; and in response to receiving the session management information element, determining if a number of established data contexts is the maximum number of data contexts that can be supported for the wireless device; and avoiding sending from the wireless device to the network node a second request for a further data context while the number of established data contexts is the maximum number of data contexts that can be supported for the wireless device.
A method for calibrating a PET scanner, the PET scanner having a plurality of detector rings, each detector ring having a plurality of detector units, each detector unit having a plurality of crystal elements, the method comprising: determining a line of response connecting a first detector unit and a second detector unit of the PET scanner, wherein the LOR correlates to a plurality of coincidence events occurred on the LOR and resulting from annihilation of positrons emitted by a radiation source; calculating a first time of flight of the LOR based on the plurality of coincidence events; determining a position of the radiation source; calculating a second TOF of the LOR based on the position of the radiation source; calculating a time offset based on a difference between the first TOF and the second TOF; and calibrating the first detector unit and the second detector unit based on the time offset. determining a line of response connecting a first detector unit and a second detector unit of the PET scanner, wherein the LOR correlates to a plurality of coincidence events occurred on the LOR and resulting from annihilation of positrons emitted by a radiation source; calculating a first time of flight of the LOR based on the plurality of coincidence events; determining a position of the radiation source; calculating a second TOF of the LOR based on the position of the radiation source; calculating a time offset based on a difference between the first TOF and the second TOF; and calibrating the first detector unit and the second detector unit based on the time offset.
Method for controlling a frequency converter, the frequency converter comprises a rectifier connected to an input voltage, a three-phase inverter provided with controllable solid-state switches, an intermediate voltage circuit between the rectifier and the three-phase inverter, and a control system, the frequency converter controls the operation of an electric motor connected to it, the method being characterized in that providing two auxiliary voltage sources (PS1, PS2), operating in different voltage ranges, to be connected to the intermediate voltage circuit, to each of the auxiliary voltage sources an own control unit (CU1, CU2) is connected, both of the control units are able to form a three-phase control pulse pattern controlling the inverter, controlling the first auxiliary voltage source to operate when the intermediate circuit voltage rises to a first level, and enabling the first auxiliary voltage source to supply operating voltage at least to the first control unit and to the gate drivers controlling the power semiconductors of the inverter, controlling the second auxiliary voltage source to operate when the intermediate circuit voltage rises to a second level, and enabling the second auxiliary voltage source to supply operating voltage at least to the second control unit and to the gate drivers controlling the power semiconductors of the inverter, and wherein when the second control unit energizes to operate, the using of the control signals formed by the first control unit for controlling the power semiconductors of the inverter is prevented.
A porous carbon material having a continuous porous structure in at least a portion thereof, in which the continuous porous structure has an orientation degree measured by a small-angle X-ray scattering method or an X-ray CT method of 1.10 or more.
Housing having a rotating machine element which is arranged therein and a heat exchanger which is integrated therein consisting of at least one tube for heat exchange between a first coolant which flows through the tube and a second coolant which wets the heat exchanger under the action of centrifugal forces, in order to be cooled and to be made available for further cooling of the rotating machine element, the heat exchanger being of approximately annular configuration and surrounding the rotating machine element substantially, characterized in that the at least one tube is a flat tube which is of curved configuration over its wide sides, a slat being fastened to the inwardly pointing wide side, and the wide sides being arranged approximately parallel to the rotational axis.
An isolating decoupler comprising: a shaft; a pulley journalled to the shaft and having a belt bearing surface, the belt bearing surface having a maximum diameter over balls; a one-way clutch mounted to the shaft; a clutch carrier mounted to the one-way clutch; a torsion spring engaged between the clutch carrier and the pulley, the torsion spring loadable in the unwinding direction; the torsion spring having a minimum internal diameter 2B; and characterized in that: the torsion spring minimum internal diameter is greater than the belt bearing surface maximum diameter over balls. a shaft; a pulley journalled to the shaft and having a belt bearing surface, the belt bearing surface having a maximum diameter over balls; a one-way clutch mounted to the shaft; a clutch carrier mounted to the one-way clutch; a torsion spring engaged between the clutch carrier and the pulley, the torsion spring loadable in the unwinding direction; the torsion spring having a minimum internal diameter 2B; and characterized in that: the torsion spring minimum internal diameter is greater than the belt bearing surface maximum diameter over balls.
A mobile mineral material processing station comprising: a mobile platform (110, 510) comprising tracks or wheels or a skid; a body supported by or formed by the mobile platform (110, 510); supported by the body in line, when the station is in a transport configuration: a feed conveyor; a screen with multiple layers for separating three or more different fractions of mineral material; a first exit conveyor; a second exit conveyor; and a third exit conveyor on top of the first exit conveyor and the second exit conveyor; and a first turning mechanism configured to enable turning the first exit conveyor from a transport position that is under the third exit conveyor to a first operation direction onto a first side of the mobile mineral material processing station for operating the mineral material processing station and back to the transport position for transporting the mineral material processing station; characterized by the station further comprising: a second turning mechanism configured to enable turning the second exit conveyor from a transport position under the third exit conveyor to a second operation direction onto a second side of the mobile mineral material processing station, opposite to the first side, and back to the transport position for transporting the mineral material processing station. a mobile platform (110, 510) comprising tracks or wheels or a skid; a body supported by or formed by the mobile platform (110, 510); supported by the body in line, when the station is in a transport configuration: a feed conveyor; a screen with multiple layers for separating three or more different fractions of mineral material; a first exit conveyor; a second exit conveyor; and a third exit conveyor on top of the first exit conveyor and the second exit conveyor; and a first turning mechanism configured to enable turning the first exit conveyor from a transport position that is under the third exit conveyor to a first operation direction onto a first side of the mobile mineral material processing station for operating the mineral material processing station and back to the transport position for transporting the mineral material processing station; characterized by the station further comprising: a second turning mechanism configured to enable turning the second exit conveyor from a transport position under the third exit conveyor to a second operation direction onto a second side of the mobile mineral material processing station, opposite to the first side, and back to the transport position for transporting the mineral material processing station.
An organic light-emitting diode (OLED) comprising an emission layer and an electron transport layer stack of at least two electron transport layers (161/162), wherein a first electron transport layer and a second electron transport layer comprises at least one matrix compound and in addition, - the first electron transport layer comprises an elemental metal selected from the group of lithium, magnesium and/or ytterbium; and the second electron transport layer comprises a lithium halide or a lithium organic complex; wherein the electron transport layer or layers comprising a lithium halide or a lithium organic complex is free of an elemental metal, and the electron transport layer or layers that comprises an elemental metal is free of a metal salt and/or a metal organic complex, whereby the matrix compound of the electron transport layers are selected same or different, and wherein the electron matrix compound is selected from: - an anthracene based compound or a heteroaryl substituted anthracene based compound; - a phosphine oxide based compound; - a substituted phenanthroline compound; whereby the second electron transport layer is disposed directly on the first electron transport layer and the first electron transport layer is arranged directly on the emission layer. wherein a first electron transport layer and a second electron transport layer comprises at least one matrix compound and in addition, - the first electron transport layer comprises an elemental metal selected from the group of lithium, magnesium and/or ytterbium; and the second electron transport layer comprises a lithium halide or a lithium organic complex; - the first electron transport layer comprises an elemental metal selected from the group of lithium, magnesium and/or ytterbium; and the second electron transport layer comprises a lithium halide or a lithium organic complex; wherein the electron transport layer or layers comprising a lithium halide or a lithium organic complex is free of an elemental metal, and the electron transport layer or layers that comprises an elemental metal is free of a metal salt and/or a metal organic complex, whereby the matrix compound of the electron transport layers are selected same or different, and wherein the electron matrix compound is selected from: - an anthracene based compound or a heteroaryl substituted anthracene based compound; - a phosphine oxide based compound; - a substituted phenanthroline compound; - an anthracene based compound or a heteroaryl substituted anthracene based compound; - a phosphine oxide based compound; - a substituted phenanthroline compound; whereby the second electron transport layer is disposed directly on the first electron transport layer and the first electron transport layer is arranged directly on the emission layer.
A medical image diagnostic system comprising: an X-ray computerized tomography apparatus, which comprises an input unit for inputting scan position information by using a scan condition and a position determination image of a tested body; a data acquisition unit that acquires data for creating an X-ray CT image of the tested body on the basis of the scan condition and the scan position information with an X-ray CT scan; an image creating unit for creating an X-ray CT image on the basis of the data for creating the X-ray CT image; a storage unit that stores the X-ray CT image as one series information; and a shared object creating unit for creating a shared object in which the scan condition and the scan position information are added in the position determination image and the shared object creating unit is further configured for creating relation information related to the corresponding series information by using information on the series stored, a photographing condition used in the corresponding scan, or an image creating condition used for creating the X-ray CT image; and the medical image diagnostic system further comprises a PACS server configured for storing the acquired series information in an image storage unit and the shared object and the relation information in a shared object storage unit. an X-ray computerized tomography apparatus, which comprises an input unit for inputting scan position information by using a scan condition and a position determination image of a tested body; a data acquisition unit that acquires data for creating an X-ray CT image of the tested body on the basis of the scan condition and the scan position information with an X-ray CT scan; an image creating unit for creating an X-ray CT image on the basis of the data for creating the X-ray CT image; a storage unit that stores the X-ray CT image as one series information; and a shared object creating unit for creating a shared object in which the scan condition and the scan position information are added in the position determination image and the shared object creating unit is further configured for creating relation information related to the corresponding series information by using information on the series stored, a photographing condition used in the corresponding scan, or an image creating condition used for creating the X-ray CT image; and the medical image diagnostic system further comprises a PACS server configured for storing the acquired series information in an image storage unit and the shared object and the relation information in a shared object storage unit.
A disposable detector tip (26, 426) comprising: an optical fiber section (29, 520) having a proximal end and a distal end; first and second reflecting surfaces (40, 42) formed on the distal end of the optical fiber section, the reflecting surfaces positioned so that light coupled into the proximal end of the optical fiber section is reflected in a manner that results in an interference signal; a deposit of analyte binding molecules formed on the optical fiber section in the vicinity of the reflecting surfaces, where binding of analyte molecules to the deposit of analyte binding molecules causes a change in the interference signal; and a connector structure fixedly attached to the optical fiber section, the connector structure being removably attachable to a tip connector of an optical coupling assembly (30, 430) so that the proximal end of the optical fiber section is optically coupled to one or more optical fibers contained in the tip connector; said optical fiber section being sufficiently short and sufficiently supported by the connector structure so that any unsupported portions of the optical fiber section are stiff; and wherein the connector structure maintains an air gap between the proximal end of the optical fiber section and the optical fibers contained in the tip connector. an optical fiber section (29, 520) having a proximal end and a distal end; first and second reflecting surfaces (40, 42) formed on the distal end of the optical fiber section, the reflecting surfaces positioned so that light coupled into the proximal end of the optical fiber section is reflected in a manner that results in an interference signal; a deposit of analyte binding molecules formed on the optical fiber section in the vicinity of the reflecting surfaces, where binding of analyte molecules to the deposit of analyte binding molecules causes a change in the interference signal; and a connector structure fixedly attached to the optical fiber section, the connector structure being removably attachable to a tip connector of an optical coupling assembly (30, 430) so that the proximal end of the optical fiber section is optically coupled to one or more optical fibers contained in the tip connector; said optical fiber section being sufficiently short and sufficiently supported by the connector structure so that any unsupported portions of the optical fiber section are stiff; and wherein the connector structure maintains an air gap between the proximal end of the optical fiber section and the optical fibers contained in the tip connector.
An element holder for accommodating a thermosensitive flow rate detecting element, comprising: a flat substrate having a thin film layer (2, 11) consisting of a support film and a protective film both made of insulating material and laminated on one surface thereof; a heating resistance section and a comparative resistance section provided by disposing thermosensitive resistor in predetermined patterns between the support film and the protective film of the thin film layer (2, 11); recesses which are provided in at least such portions of the flat substrate that face the heating resistance section and the comparative resistance section, and penetrate the flat substrate in the direction of thickness thereof; and a fluid flow passage which communicates with the recess facing the comparative resistance section so as to flow the fluid to the recess facing the comparative recess section, wherein the flow rate detecting element is adapted to measure the flow rate or velocity of the fluid by means of the heating resistance section according to the report of fluid temperature sensed by the comparative resistance section, characterized in that the element holder has a cross section of airfoil shape having at least one gap opening (22, 26) provided in the holder surface in the upstream and the downstream portions in such a position as the fluid can be caused to flow only to the comparative resistance section, the gap opening being further provided in the element holder at a position which corresponds to the fluid flow passage of the flow rate detecting element. a flat substrate having a thin film layer (2, 11) consisting of a support film and a protective film both made of insulating material and laminated on one surface thereof; a heating resistance section and a comparative resistance section provided by disposing thermosensitive resistor in predetermined patterns between the support film and the protective film of the thin film layer (2, 11); recesses which are provided in at least such portions of the flat substrate that face the heating resistance section and the comparative resistance section, and penetrate the flat substrate in the direction of thickness thereof; and a fluid flow passage which communicates with the recess facing the comparative resistance section so as to flow the fluid to the recess facing the comparative recess section, wherein the flow rate detecting element is adapted to measure the flow rate or velocity of the fluid by means of the heating resistance section according to the report of fluid temperature sensed by the comparative resistance section, characterized in that the element holder has a cross section of airfoil shape having at least one gap opening (22, 26) provided in the holder surface in the upstream and the downstream portions in such a position as the fluid can be caused to flow only to the comparative resistance section, the gap opening being further provided in the element holder at a position which corresponds to the fluid flow passage of the flow rate detecting element.
A method for determining a radio frame bearing a multimedia broadcast multicast service notification message, comprising: a sending end configuring a Multicast Control Channel (MCCH) Modification Period (MCCHMP), a period coefficient (PeriodCoeff) and a notification message offset (NotificationOffset), and when a system frame number modulo a ratio of the MCCHMP to the PeriodCoeff is equal to the NotificationOffset, a radio frame corresponding to a value of said SFN is the radio frame of sending the Multimedia Broadcast Multicast Service (MBMS) notification message; wherein when a cell is only covered by one MBSFN area, a value of said MCCHMP is a value of the MCCH modification period of this MBSFN area; when a cell is in overlapped coverage of a plurality of MBSFNs, the value of said MCCHMP is the value of the MCCH modification period of the MBSFN area with a minimal MCCH modification period among a plurality of MBSFN areas; and said PeriodCoeff denotes a number of times of sending the MBMS notification message in one MCCH modification period. a sending end configuring a Multicast Control Channel (MCCH) Modification Period (MCCHMP), a period coefficient (PeriodCoeff) and a notification message offset (NotificationOffset), and when a system frame number modulo a ratio of the MCCHMP to the PeriodCoeff is equal to the NotificationOffset, a radio frame corresponding to a value of said SFN is the radio frame of sending the Multimedia Broadcast Multicast Service (MBMS) notification message; wherein when a cell is only covered by one MBSFN area, a value of said MCCHMP is a value of the MCCH modification period of this MBSFN area; when a cell is in overlapped coverage of a plurality of MBSFNs, the value of said MCCHMP is the value of the MCCH modification period of the MBSFN area with a minimal MCCH modification period among a plurality of MBSFN areas; and said PeriodCoeff denotes a number of times of sending the MBMS notification message in one MCCH modification period.
A process for making a mechanically reversible gel comprising hydrophilic chains comprising associative groups which can associate reversibly, whereby the gel is capable of being converted to a liquid by application of a mechanical shear force and the liquid is capable of being converted to the gel in the absence of said mechanical shear force, said process comprising the step of combining a silanol species comprising at least two silanol groups per molecule and a hydrophilic hydroxyl species comprising from 3 to 10 hydroxyl groups per molecule.
An airfoil comprising: an airfoil body having an internal passage for conveying a fluid flow, the internal passage including first and second passage sections (66, 68) and a turn section connecting the first and second passage sections (66, 68); and a baffle (72; 172; 272) in the second passage section and the turn section, the baffle (72; 172; 272) including a wedge region (76; 176; 276; 376) situated in at least the turn section and oriented to either divide or join the fluid flow through the turn section, characterised in that: the baffle (72; 172; 272) has a hollow interior that is fluidly closed with respect to the internal passage of the airfoil. an airfoil body having an internal passage for conveying a fluid flow, the internal passage including first and second passage sections (66, 68) and a turn section connecting the first and second passage sections (66, 68); and a baffle (72; 172; 272) in the second passage section and the turn section, the baffle (72; 172; 272) including a wedge region (76; 176; 276; 376) situated in at least the turn section and oriented to either divide or join the fluid flow through the turn section,