mhurhangee/ep-ind-claims huggingface dataset:
A method for performing Minimization of Drive-Tests, MDT, measurement configuration, comprising: after receiving a notification of change of subscription information of a user equipment, storing, by a Mobility Management Entity, MME, current user consent information used for indicating that the user equipment is allowed to perform MDT measurement and a Public Land Mobile Network, PLMN, list of the user equipment for performing the MDT measurement, which are carried in the notification; and after receiving a notification of activating the MDT measurement of the user equipment, finding out, by the MME, that the subscription information of the user equipment changes from performing no MDT measurement into being allowed to perform the MDT measurement, refusing to send a Trace Start message to a serving base station of the user equipment, or sending the Trace Start message carrying the PLMN list of the user equipment for performing the MDT measurement to the serving base station of the user equipment. after receiving a notification of change of subscription information of a user equipment, storing, by a Mobility Management Entity, MME, current user consent information used for indicating that the user equipment is allowed to perform MDT measurement and a Public Land Mobile Network, PLMN, list of the user equipment for performing the MDT measurement, which are carried in the notification; and after receiving a notification of activating the MDT measurement of the user equipment, finding out, by the MME, that the subscription information of the user equipment changes from performing no MDT measurement into being allowed to perform the MDT measurement, refusing to send a Trace Start message to a serving base station of the user equipment, or sending the Trace Start message carrying the PLMN list of the user equipment for performing the MDT measurement to the serving base station of the user equipment.
A method of a network node (120, 130, 360) of a cellular communication network, the method comprising: performing uplink signal strength measurements in relation to a wireless communication device operating in association with the cellular communication network, and characterized by compensating the uplink signal strength measurements based on an available downlink transmission power value of the network node; and transmitting a report comprising the compensated uplink signal strength measurements to another network node (110, 140, 310), wherein the compensated uplink signal strength measurements are for handover control by the another network node. performing uplink signal strength measurements in relation to a wireless communication device operating in association with the cellular communication network, and characterized by compensating the uplink signal strength measurements based on an available downlink transmission power value of the network node; and transmitting a report comprising the compensated uplink signal strength measurements to another network node (110, 140, 310), wherein the compensated uplink signal strength measurements are for handover control by the another network node.
A device for fluid contacting in a downflow vessel, comprising: a liquid collection tray, wherein at least a portion of the liquid collection tray is configured to collect thereon fluids travelling downwardly from a superior catalyst bed; an enclosed elongate mixing channel, wherein at least a portion of the mixing channel is substantially enclosed such that vapor is maintained within the mixing channel during mixing; a liquid inlet providing fluid communication between the liquid collection tray and the mixing channel, wherein the liquid inlet includes at least one opening in a wall of the mixing channel positioned at a bottom portion of the mixing channel, wherein the at least one opening is positioned at a bottom 50% of the height of the mixing channel; and a vapor inlet of the mixing channel, downstream of the liquid inlet, configured to pass vapor into the mixing channel, wherein the vapor inlet includes at least two openings of the mixing channel positioned at different heights above the liquid collection tray; a vapor chimney surrounding the vapor inlet, having a chimney wall extending up from the collection tray and having an upper chimney opening of the vapor chimney at a first height above the liquid collection tray. a liquid collection tray, wherein at least a portion of the liquid collection tray is configured to collect thereon fluids travelling downwardly from a superior catalyst bed; an enclosed elongate mixing channel, wherein at least a portion of the mixing channel is substantially enclosed such that vapor is maintained within the mixing channel during mixing; a liquid inlet providing fluid communication between the liquid collection tray and the mixing channel, wherein the liquid inlet includes at least one opening in a wall of the mixing channel positioned at a bottom portion of the mixing channel, wherein the at least one opening is positioned at a bottom 50% of the height of the mixing channel; and a vapor inlet of the mixing channel, downstream of the liquid inlet, configured to pass vapor into the mixing channel, wherein the vapor inlet includes at least two openings of the mixing channel positioned at different heights above the liquid collection tray; a vapor chimney surrounding the vapor inlet, having a chimney wall extending up from the collection tray and having an upper chimney opening of the vapor chimney at a first height above the liquid collection tray.
A signal processing method, comprising: receiving, by a first base station, a first measurement report from a terminal device, wherein the first measurement report comprises measurement information of one or more cells; and sending, by the first base station, the first measurement report to a second base station; characterized by further comprising: sending, by the first base station, uplink resource configuration information to the second base station, wherein the uplink resource configuration information comprises at least one of resource block, RB location information, a modulation and coding scheme, MCS, and a frequency hopping indication; wherein the first base station is a serving base station of the terminal device and the second base station is a neighboring base station of the first base station. receiving, by a first base station, a first measurement report from a terminal device, wherein the first measurement report comprises measurement information of one or more cells; and sending, by the first base station, the first measurement report to a second base station; characterized by further comprising: sending, by the first base station, uplink resource configuration information to the second base station, wherein the uplink resource configuration information comprises at least one of resource block, RB location information, a modulation and coding scheme, MCS, and a frequency hopping indication; wherein the first base station is a serving base station of the terminal device and the second base station is a neighboring base station of the first base station. sending, by the first base station, uplink resource configuration information to the second base station, wherein the uplink resource configuration information comprises at least one of resource block, RB location information, a modulation and coding scheme, MCS, and a frequency hopping indication; wherein the first base station is a serving base station of the terminal device and the second base station is a neighboring base station of the first base station.
An apparatus comprising: a switch assembly comprising packet switches, circuit switches and port connectors selectively coupled to the packet switches, each of the port connectors being adapted to attach to a cable to couple the port connectors to a hardware resource; and a controller adapted to program the circuit switches of the switch assembly to selectively couple the packet switches to the port connectors, characterised in that the circuit switches couple ports of the packet switches together to provide crosslink connections between the packet switches. a switch assembly comprising packet switches, circuit switches and port connectors selectively coupled to the packet switches, each of the port connectors being adapted to attach to a cable to couple the port connectors to a hardware resource; and a controller adapted to program the circuit switches of the switch assembly to selectively couple the packet switches to the port connectors, characterised in that the circuit switches couple ports of the packet switches together to provide crosslink connections between the packet switches.
A soldering apparatus comprising an adjusting member for a substrate flexibility prevention mechanism, the adjusting member being changed to match a width of a substrate to be conveyed and including: a screw shaft (5, 50) which revolves; a nut having a flange portion for connection, a screwed position of the nut with regards to the screw shaft (5, 50) being movable forward or backward along the screw shaft (5, 50) by a revolution of the screw shaft (5, 50); and a substrate-supporting portion for supporting the substrate and preventing the flexibility of the substrate, the substrate-supporting portion being fixed to the nut through the flange portion for connection, characterized in that the nut contains a screw portion (16, 17) from a forward end, located opposite the flange portion, to a rear end, located at the flange portion, and includes at least one non-meshing part that does not mesh with the screw shaft (5, 50), along the whole length of the nut, and when the screw shaft (5, 50) revolves to change a fixed position of the substrate-supporting portion from a state where the nut is stopped at the screwed position, adhered matter adhered and solidified to the screw shaft (5, 50) is removed by an edge of the non-meshing part on a side of a movement direction of the nut accompanied by the revolution of the screw shaft (5, 50), thus the scraped adhered matter is accumulated in the non-meshing part, wherein the non-meshing part includes a first exhaust port at the forward end of the nut and a second exhaust port at the rear end of the nut, and the removed adhered matter is exhausted from the first or second exhaust port (12a, 12b). a screw shaft (5, 50) which revolves; a nut having a flange portion for connection, a screwed position of the nut with regards to the screw shaft (5, 50) being movable forward or backward along the screw shaft (5, 50) by a revolution of the screw shaft (5, 50); and a substrate-supporting portion for supporting the substrate and preventing the flexibility of the substrate, the substrate-supporting portion being fixed to the nut through the flange portion for connection, characterized in that the nut contains a screw portion (16, 17) from a forward end, located opposite the flange portion, to a rear end, located at the flange portion, and includes at least one non-meshing part that does not mesh with the screw shaft (5, 50), along the whole length of the nut, and when the screw shaft (5, 50) revolves to change a fixed position of the substrate-supporting portion from a state where the nut is stopped at the screwed position, adhered matter adhered and solidified to the screw shaft (5, 50) is removed by an edge of the non-meshing part on a side of a movement direction of the nut accompanied by the revolution of the screw shaft (5, 50), thus the scraped adhered matter is accumulated in the non-meshing part, wherein the non-meshing part includes a first exhaust port at the forward end of the nut and a second exhaust port at the rear end of the nut, and the removed adhered matter is exhausted from the first or second exhaust port (12a, 12b).
A plug connector (2a, 2b) with shielding, comprising signal contacts (21, 22) which are arranged in a contact pattern of differential pairs and form a contact group together with a shielding contact which surrounds them, wherein - each signal contact (21, 22) comprises a signal contact element (211, 221) and a blade element (212, 222); - each shielding contact comprises a shielding element and at least one shielding contact element (231, 241a, 241b); - the contact groups are arranged in rows (R1... R6) and columns (S1... S14); - all shielding contact elements (231, 241a, 241b) lie within a row (R1... R6) on a common straight line, and - the signal contact elements (211, 221) of each differential pair respectively lie on a straight line which forms an angle of 45° with the common straight line of the shielding contact elements (231, 241a, 241b) within the row (R1... R6), wherein in each row (R 1... R 6) and in each column (S 1... S 14), a distance between the centre point of the two signal contact elements (211, 221) of a differential pair and the centre point of the signal contact elements (211, 221) of an adjacent differential pair correspond to a distance between two adjacent shielding contact elements (231, 241a, 241b), and wherein one shielding element is arranged in a C-shaped manner in each column (S 1... S 14) characterized in that all further shielding elements in said column (S 1... S 14) are arranged in an L-shaped manner, and that a distance between the two signal contact elements (211, 221) of each differential pair corresponds to a distance between the two blade elements (212, 222) of the differential pair. - each signal contact (21, 22) comprises a signal contact element (211, 221) and a blade element (212, 222); - each shielding contact comprises a shielding element and at least one shielding contact element (231, 241a, 241b); - the contact groups are arranged in rows (R1... R6) and columns (S1... S14); - all shielding contact elements (231, 241a, 241b) lie within a row (R1... R6) on a common straight line, and - the signal contact elements (211, 221) of each differential pair respectively lie on a straight line which forms an angle of 45° with the common straight line of the shielding contact elements (231, 241a, 241b) within the row (R1... R6),
A method of processing a screen on a first device, performed by a head-mounted display HMD, the method comprising: obtaining, at the HMD, an actual display screen displayed on the first device and information related to the actual display screen according to a screen display request regarding the first device (operation 210); determining, at the HMD, an additional screen to be displayed based on the actual display screen on the first device and the information related to the actual display screen (operation 220); displaying the additional screen as a virtual image viewed near the actual display screen on the first device (operation 230); detecting an input performed on the additional screen (operation 520); and transmitting the detected input from the HMD to the first device so that the first device processes a content of the additional screen and outputs an updated display screen on the first device (operation 515), the updated display screen corresponding to the detected input. obtaining, at the HMD, an actual display screen displayed on the first device and information related to the actual display screen according to a screen display request regarding the first device (operation 210); determining, at the HMD, an additional screen to be displayed based on the actual display screen on the first device and the information related to the actual display screen (operation 220); displaying the additional screen as a virtual image viewed near the actual display screen on the first device (operation 230); detecting an input performed on the additional screen (operation 520); and transmitting the detected input from the HMD to the first device so that the first device processes a content of the additional screen and outputs an updated display screen on the first device (operation 515), the updated display screen corresponding to the detected input.
A single-stranded RNA molecule comprising only one expression inhibitory sequence that inhibits expression of a target gene, wherein: - the molecule comprises, in sequence from a 5' side to a 3' side: a 5' side region (Xc); an inner region which comprises the expression inhibitory sequence and which is composed of an inner 5' side region and an inner 3' side region that are linked to each other; and a 3' side region (Yc); - the 5' side region (Xc) is complementary to the inner 5' side region; - the 3' side region (Yc) is complementary to the inner 3' side region; - the 5' side region (Xc) and the inner 5' side region are linked to each other via a linker region (Lx) which does not self-anneal inside itself; - the 3' side region (Yc) and the inner 3' side region are linked to each other via a linker region (Ly) which does not self-anneal inside itself; - the number of bases in the inner region, the number of bases in the inner 5' side region, the number of bases in the inner 3' side region, the number of bases (Xc) in the 5' side region (Xc) and the number of bases (Yc) in the 3' side region (Yc) satisfy the following conditions: Z = X + Y; Z ≥ Xc + Yc; Z = 19 to 30; Xc = 1 to 7 or Yc = 1 to 9; and Z - Xc + Yc = 0 or 1 to 10; and - the number of bases in each of the linker regions (Lx) and (Ly) is from 3 to 50. - the molecule comprises, in sequence from a 5' side to a 3' side: a 5' side region (Xc); an inner region which comprises the expression inhibitory sequence and which is composed of an inner 5' side region and an inner 3' side region that are linked to each other; and a 3' side region (Yc); - the 5' side region (Xc) is complementary to the inner 5' side region; - the 3' side region (Yc) is complementary to the inner 3' side region; - the 5' side region (Xc) and the inner 5' side region are linked to each other via a linker region (Lx) which does not self-anneal inside itself; - the 3' side region (Yc) and the inner 3' side region are linked to each other via a linker region (Ly) which does not self-anneal inside itself; - the number of bases in the inner region, the number of bases in the inner 5' side region, the number of bases in the inner 3' side region, the number of bases (Xc) in the 5' side region (Xc) and the number of bases (Yc) in the 3' side region (Yc) satisfy the following conditions: Z = X + Y; Z ≥ Xc + Yc; Z = 19 to 30; Xc = 1 to 7 or Yc = 1 to 9; and Z - Xc + Yc = 0 or 1 to 10; and - the number of bases in each of the linker regions (Lx) and (Ly) is from 3 to 50.
An anaerobically curable composition, comprising: (a) a (meth)acrylate component; (b) an alpha-methylene-lactone; and (c) an anaerobic cure system, wherein the (meth)acrylate component is represented by the formula H 2 C=CGCO 2 R 1, wherein G is hydrogen, halogen or alkyl groups having from 1 to 4 carbon atoms, and R 1 is selected from alkyl, cycloalkyl, alkenyl, cycloalkenyl, alkaryl, aralkyl or aryl groups having from 1 to 16 carbon atoms, any of which may be optionally substituted or interrupted as the case may be with silane, silicon, oxygen, halogen, carbonyl, hydroxyl, ester, carboxylic acid, urea, urethane, carbonate, amine, amide, sulfur, sulfonate and sulfone. (a) a (meth)acrylate component; (b) an alpha-methylene-lactone; and (c) an anaerobic cure system,
A bracket assembly for securing a cable bundle to a ladder rung, the bracket assembly comprising: a metal bracket having a first member, side walls and second members, wherein the first member is parallel to the second members, and two interlocking protective grommets secured to the metal bracket, wherein each protective grommet has a base member, sleeves extending from the base member, a side member and a bottom member, the side member being parallel to the side walls and the bottom member being parallel to the first member, wherein the back side of each bottom member includes a locking feature and the back side of each base member includes a locking feature, whereby the locking features of the protective grommets are received in holes (64,70) in the first and second members of the metal bracket; whereby the assembled metal bracket and protective grommets are arranged to receive the ladder rung in a channel formed by the side members and bottom members of the protective grommets, and the sleeves of the protective grommets wrap around the cable bundle positioned on the ladder rung, wherein the sleeves overlap to secure the cable bundle parallel to the first member and the second members. a metal bracket having a first member, side walls and second members, wherein the first member is parallel to the second members, and two interlocking protective grommets secured to the metal bracket, wherein each protective grommet has a base member, sleeves extending from the base member, a side member and a bottom member, the side member being parallel to the side walls and the bottom member being parallel to the first member, wherein the back side of each bottom member includes a locking feature and the back side of each base member includes a locking feature, whereby the locking features of the protective grommets are received in holes (64,70) in the first and second members of the metal bracket;
A method, comprising acts, performed by a wireless LAN communication terminal, of: a) receiving first authentication information from a mobile communication terminal and communicating the received first authentication information comprising mobile subscriber information of the mobile communication terminal to a server, b) receiving second authentication information from the mobile communication terminal and communicating the received second authentication information comprising a Nonce used for authentication of a network to the server, c) further communicating with the server (S423,S435) and the mobile communication terminal (S429, S433) to perform an authentication procedure using the first and second authentication information to enable the wireless LAN communication terminal separate from the mobile communication terminal to connect to a network via wireless LAN communication with an access point separate from the mobile communication terminal. a) receiving first authentication information from a mobile communication terminal and communicating the received first authentication information comprising mobile subscriber information of the mobile communication terminal to a server, b) receiving second authentication information from the mobile communication terminal and communicating the received second authentication information comprising a Nonce used for authentication of a network to the server, c) further communicating with the server (S423,S435) and the mobile communication terminal (S429, S433) to perform an authentication procedure using the first and second authentication information to enable the wireless LAN communication terminal separate from the mobile communication terminal to connect to a network via wireless LAN communication with an access point separate from the mobile communication terminal.