mhurhangee/ep-ind-claims huggingface dataset:
A synthetic yarn splicer that performs a splicing operation between one yarn and the other yarn formed of synthetic fibers, comprising: a yarn splicing portion that includes a passage through which one yarn and the other yarn are insertable and an injection hole which opens to the passage and injects a fluid; and a pair of clamping mechanisms (20,30) that is located at a position interposing the passage of the yarn splicing portion and clamps each of one yarn and the other yarn inserted through the passage, wherein each of the pair of clamping mechanisms (20,30) includes a clamping portion (23,33) that clamps each of one yarn and the other yarn and a support portion (22,32) that supports the clamping portion (23,33), wherein the support portion (22,32) includes a first contact surface (27b,37b) and a second contact surface (27c,37c) which are disposed at a position interposing the clamping portion (23,33) in the facing direction of the pair of clamping mechanisms (20,30), and wherein the second contact surface (27c,37c) is disposed between the yarn splicing portion and the clamping portion (23,33), characterized in that the second contact surface (27c,37c) is located above the first contact surface (27b,37). a yarn splicing portion that includes a passage through which one yarn and the other yarn are insertable and an injection hole which opens to the passage and injects a fluid; and a pair of clamping mechanisms (20,30) that is located at a position interposing the passage of the yarn splicing portion and clamps each of one yarn and the other yarn inserted through the passage, wherein each of the pair of clamping mechanisms (20,30) includes a clamping portion (23,33) that clamps each of one yarn and the other yarn and a support portion (22,32) that supports the clamping portion (23,33), wherein the support portion (22,32) includes a first contact surface (27b,37b) and a second contact surface (27c,37c) which are disposed at a position interposing the clamping portion (23,33) in the facing direction of the pair of clamping mechanisms (20,30), and wherein the second contact surface (27c,37c) is disposed between the yarn splicing portion and the clamping portion (23,33), characterized in that the second contact surface (27c,37c) is located above the first contact surface (27b,37).
A computer implemented method for controlling legacy switch routing in one or more hybrid networks of interconnected computers and switches, comprising: generating a network underlay for the one or more hybrid networks by generating a minimum spanning tree MST and a forwarding graph FWG over a physical network topology of the one or more hybrid networks; determining an optimal path between hosts on the FWG by optimizing an initial path with a minimum cost mapping; and adjusting the initial path to enforce the optimal path by generating and installing special packets in one or more programmable switches to trigger installation of forwarding rules in one or more legacy switches, characterized in that the method further comprises: the MST includes a set of links for sending broadcast packets between switches in the one or more hybrid networks; wherein the FWG includes a set of links for sending both unicast and broadcast packets between switches in the one or more hybrid networks; and wherein the MST is a true subset of the FWG. generating a network underlay for the one or more hybrid networks by generating a minimum spanning tree MST and a forwarding graph FWG over a physical network topology of the one or more hybrid networks; determining an optimal path between hosts on the FWG by optimizing an initial path with a minimum cost mapping; and adjusting the initial path to enforce the optimal path by generating and installing special packets in one or more programmable switches to trigger installation of forwarding rules in one or more legacy switches, characterized in that the method further comprises: the MST includes a set of links for sending broadcast packets between switches in the one or more hybrid networks; wherein the FWG includes a set of links for sending both unicast and broadcast packets between switches in the one or more hybrid networks; and wherein the MST is a true subset of the FWG. the MST includes a set of links for sending broadcast packets between switches in the one or more hybrid networks; wherein the FWG includes a set of links for sending both unicast and broadcast packets between switches in the one or more hybrid networks; and wherein the MST is a true subset of the FWG.
A method for Sounding Reference Signal, SRS, transmission, comprising: negotiating, by a serving cell, a first configuration for positioning with a location server, the first configuration being configuration of a first SRS resource or configuration of a first SRS resource set, the first SRS resource is a semi-persistent or aperiodic SRS resource, and the first SRS resource set includes semi-persistent or aperiodic SRS resources; transmitting, by the serving cell, to a User Equipment, UE, the first configuration for positioning; receiving, by the serving cell, a first location information request from the location server, the first location information request being used for requesting the serving cell to measure the SRS transmission from the UE; transmitting, by the serving cell, schedule information to the location server, the schedule information being used for scheduling transmission of the first SRS resource or transmission of the first SRS resource set, wherein a second location information request, the first configuration and the schedule information are transmitted to a neighbor cell by the location server, the second location information request is used for requesting the neighbor cell to measure the SRS transmission from the UE, and the first configuration and the schedule information are used by the neighbor cell to measure the SRS transmission from the UE. negotiating, by a serving cell, a first configuration for positioning with a location server, the first configuration being configuration of a first SRS resource or configuration of a first SRS resource set, the first SRS resource is a semi-persistent or aperiodic SRS resource, and the first SRS resource set includes semi-persistent or aperiodic SRS resources; transmitting, by the serving cell, to a User Equipment, UE, the first configuration for positioning; receiving, by the serving cell, a first location information request from the location server, the first location information request being used for requesting the serving cell to measure the SRS transmission from the UE; transmitting, by the serving cell, schedule information to the location server, the schedule information being used for scheduling transmission of the first SRS resource or transmission of the first SRS resource set, wherein a second location information request, the first configuration and the schedule information are transmitted to a neighbor cell by the location server, the second location information request is used for requesting the neighbor cell to measure the SRS transmission from the UE, and the first configuration and the schedule information are used by the neighbor cell to measure the SRS transmission from the UE.
Cytotoxic modular antibody with a molecular weight of up to 60kD, which comprises a CH2 domain and a CH3 domain of a human IgG1 heavy chain and specifically binds to a human receptor of the erbB class with a binding affinity of Kd <10 -8 M, wherein the antibody contains a binding site for the receptor of the erbB class within a structural loop region of the CH3 domain of the antibody, and wherein the cytotoxic modular antibody binds to human Fc receptor CD64, FcRn and/or Protein A.
A flexible tube suitable for use in an endoscope having a cylindrical flexible tube base that has flexibility and a resin layer that coats the flexible tube base, wherein the resin layer is configured by at least two layers of a first layer and a second layer, the first layer includes one or more elastomers or chain-extended forms thereof selected from a group consisting of polyester elastomers, polyurethane elastomers, and polyamide elastomers, and the second layer includes chain-extended forms of two or more elastomers selected from a group consisting of polyester elastomers, polyurethane elastomers, and polyamide elastomers. wherein the resin layer is configured by at least two layers of a first layer and a second layer, the first layer includes one or more elastomers or chain-extended forms thereof selected from a group consisting of polyester elastomers, polyurethane elastomers, and polyamide elastomers, and the second layer includes chain-extended forms of two or more elastomers selected from a group consisting of polyester elastomers, polyurethane elastomers, and polyamide elastomers.
A mixer base assembly comprising: (a) a body having: (i) an upper end including a mating face for mixing vessel connection; (ii) a lower end including a cavity; (iii) a plurality of side walls (551A, 551B, 551C, SS1D); (iv) an inlet port arranged in a side wall; (v) an outlet port arranged in a side wall, and (vi) a fluid mixing chamber including a baffle, the fluid mixing chamber having a bottom wall; (b) an impeller seat arranged in the cavity in the lower end of the body; and, (c) a levitating magnetic impeller arranged in the impeller seat, the impeller comprising a magnet, a base, and at least two blades, wherein the at least two blades (651A, 651B, 651C, 651D) extend above the bottom wall of the fluid mixing chamber into the fluid mixing chamber, characterized in that the body has: (vii) a sampling port arranged in a side wall; and (viii) at least one probe port (518; 519) arranged in a side wall. (a) a body having: (i) an upper end including a mating face for mixing vessel connection; (ii) a lower end including a cavity; (iii) a plurality of side walls (551A, 551B, 551C, SS1D); (iv) an inlet port arranged in a side wall; (v) an outlet port arranged in a side wall, and (vi) a fluid mixing chamber including a baffle, the fluid mixing chamber having a bottom wall; (i) an upper end including a mating face for mixing vessel connection; (ii) a lower end including a cavity; (iii) a plurality of side walls (551A, 551B, 551C, SS1D); (iv) an inlet port arranged in a side wall; (v) an outlet port arranged in a side wall, and (vi) a fluid mixing chamber including a baffle, the fluid mixing chamber having a bottom wall; (b) an impeller seat arranged in the cavity in the lower end of the body; and, (c) a levitating magnetic impeller arranged in the impeller seat, the impeller comprising a magnet, a base, and at least two blades, wherein the at least two blades (651A, 651B, 651C, 651D) extend above the bottom wall of the fluid mixing chamber into the fluid mixing chamber, (vii) a sampling port arranged in a side wall; and (viii) at least one probe port (518; 519) arranged in a side wall.
Apparatus for braking a vehicle, - with a main air reservoir line and a main air line, - with a brake control facility, - with a reserve pressure vessel of a supply compressed air facility (4; 4,6,19), which reserve pressure vessel is connected to the main air reservoir line via a non-return valve and to at least one brake actuator via the brake control facility, and - with a spring mechanism control facility with a pressure control means, - wherein the pressure control means is configured, in a towing operation mode, in which the vehicle can be towed as a car, to control a towing operation spring mechanism release pressure (pFSa) for at least one spring-loaded brake actuator of a spring-loaded brake of the vehicle as a function of the pressure (pHL) in the main air line of the vehicle, - wherein for the control of the towing operation spring mechanism release pressure (pFSa) that is dependent upon the pressure (pHL) in the main air line of the vehicle, a control facility of the pressure control means is configured to connect a first section of a towing operation compressed air path (L15, L16), as a function of the pressure (pHL) in the main air line, either to a supply path fed by the supply compressed air facility (4; 4,6,19) or to an outlet to the outside, and - wherein the pressure control means is configured to also control the towing operation spring mechanism release pressure (pFSa) as a function of a vehicle-related speed signal (Sv;Sn). - with a main air reservoir line and a main air line, - with a brake control facility, - with a reserve pressure vessel of a supply compressed air facility (4; 4,6,19), which reserve pressure vessel is connected to the main air reservoir line via a non-return valve and to at least one brake actuator via the brake control facility, and - with a spring mechanism control facility with a pressure control means, - wherein the pressure control means is configured, in a towing operation mode, in which the vehicle can be towed as a car, to control a towing operation spring mechanism release pressure (pFSa) for at least one spring-loaded brake actuator of a spring-loaded brake of the vehicle as a function of the pressure (pHL) in the main air line of the vehicle, - wherein for the control of the towing operation spring mechanism release pressure (pFSa) that is dependent upon the pressure (pHL) in the main air line of the vehicle, a control facility of the pressure control means is configured to connect a first section of a towing operation compressed air path (L15, L16), as a function of the pressure (pHL) in the main air line, either to a supply path fed by the supply compressed air facility (4; 4,6,19) or to an outlet to the outside, and - wherein the pressure control means is configured to also control the towing operation spring mechanism release pressure (pFSa) as a function of a vehicle-related speed signal (Sv;Sn).
A nebulizer, comprising: a host, comprising a main body, a control module disposed in the main body and a sensor electrically connected with the control module; and a nozzle tube, comprising a tube, a nozzle and a detecting structure disposed in the tube; wherein the tube comprises a chamber, the nozzle is arranged on one side of the tube and communicates with the chamber; the detecting structure comprises a shutter and a swinging member connected with the shutter, and the shutter is disposed corresponding to a position of the sensor; and air blown from the nozzle flows into the tube to blow the swinging member to drive the shutter to activate the sensor; characterized in that the detecting structure further comprises a positioning seat combined on the tube; wherein the swinging member comprises a rotating shaft and at least one blade connected to the rotating shaft; and the rotating shaft is rotatably disposed on the positioning seat, and the at least one blade protrudes from the positioning seat. a host, comprising a main body, a control module disposed in the main body and a sensor electrically connected with the control module; and a nozzle tube, comprising a tube, a nozzle and a detecting structure disposed in the tube; wherein the tube comprises a chamber, the nozzle is arranged on one side of the tube and communicates with the chamber; the detecting structure comprises a shutter and a swinging member connected with the shutter, and the shutter is disposed corresponding to a position of the sensor; and air blown from the nozzle flows into the tube to blow the swinging member to drive the shutter to activate the sensor; characterized in that the detecting structure further comprises a positioning seat combined on the tube; wherein the swinging member comprises a rotating shaft and at least one blade connected to the rotating shaft; and the rotating shaft is rotatably disposed on the positioning seat, and the at least one blade protrudes from the positioning seat.
A switchgear comprising two disconnecting units (3, 4) and a circuit breaker unit including a circuit breaker housing in which circuit breakers are arranged, the disconnecting units (3, 4) each comprising: - multiple switches to switch electrical paths by rotation of blades; and - a switch housing having a view port, and including the switches arranged therein, wherein planes of rotation of the blades and an arrangement direction of the switches intersect, and wherein the switches are arranged rearward from the view port, and open/close states of the blades of switches can be observed through the view port, and wherein the view port on the switch housing of each of the disconnecting units (3, 4) faces the front side of the circuit breaker unit, and wherein the switchgear has a double busbar structure, wherein one of the two disconnecting units is a first busbar disconnecting unit to switch a first busbar, wherein the other of the two disconnecting units is a second busbar disconnecting unit to switch a second busbar, and wherein both the first busbar disconnecting unit and the second busbar disconnecting unit are visible when observed from a front side and a rear side of the switchgear, and wherein viewed from above the switchgear, the first busbar disconnecting unit is disposed on a front right side of the circuit breaker unit, and the second busbar disconnecting unit is disposed on a rear left side of the circuit breaker unit, or the first busbar disconnecting unit is disposed on a front left side of the circuit breaker unit and the second busbar disconnecting unit is disposed on a rear right side of the circuit breaker unit, and wherein the first and second disconnecting units (3, 4) are disposed above the circuit breaker unit. - multiple switches to switch electrical paths by rotation of blades; and - a switch housing having a view port, and including the switches arranged therein,
A method for determining phosphorylation of a receptor tyrosine kinase ("RTK"), said method: (a) employing a cell comprising (i) a first expression construct expressing a fusion of an RTK fused at its C-terminus to a first enzyme fragment, and (ii) a second expression construct expressing a fusion of a phosphotyrosine binding peptide fused to a second enzyme fragment, wherein said first and second enzyme fragments are fragments of β-galactosidase that have low affinity for each other but when brought together by the binding of said RTK to said phosphotyrosine binding peptide form an active β-galactosidase, (b) with the proviso that when said RTK does not autophosphorylate, in the absence of an endogenous active cytosolic tyrosine kinase, a third expression construct is included expressing a cytosolic tyrosine kinase to phosphorylate said RTK; (c) incubating said cell for sufficient time (i) for any phosphorylation of said fusion of an RTK fused at its C terminus to a first enzyme fragment to occur to form a phosphorylated RTK and (ii) for any binding to said phosphorylated RTK by said phosphotyrosine binding peptide fused to a second enzyme fragment to occur; (d) adding a β-galactosidase substrate to said cell, wherein said substrate forms a detectable product; and (e) detecting said product as indicative of the phosphorylation of said RTK. (a) employing a cell comprising (i) a first expression construct expressing a fusion of an RTK fused at its C-terminus to a first enzyme fragment, and (ii) a second expression construct expressing a fusion of a phosphotyrosine binding peptide fused to a second enzyme fragment, wherein said first and second enzyme fragments are fragments of β-galactosidase that have low affinity for each other but when brought together by the binding of said RTK to said phosphotyrosine binding peptide form an active β-galactosidase, (i) a first expression construct expressing a fusion of an RTK fused at its C-terminus to a first enzyme fragment, and (ii) a second expression construct expressing a fusion of a phosphotyrosine binding peptide fused to a second enzyme fragment, wherein said first and second enzyme fragments are fragments of β-galactosidase that have low affinity for each other but when brought together by the binding of said RTK to said phosphotyrosine binding peptide form an active β-galactosidase, (b) with the proviso that when said RTK does not autophosphorylate, in the absence of an endogenous active cytosolic tyrosine kinase, a third expression construct is included expressing a cytosolic tyrosine kinase to phosphorylate said RTK; (c) incubating said cell for sufficient time (i) for any phosphorylation of said fusion of an RTK fused at its C terminus to a first enzyme fragment to occur to form a phosphorylated RTK and (ii) for any binding to said phosphorylated RTK by said phosphotyrosine binding peptide fused to a second enzyme fragment to occur; (d) adding a β-galactosidase substrate to said cell, wherein said substrate forms a detectable product; and (e) detecting said product as indicative of the phosphorylation of said RTK.
A segmented blade, comprising: a first blade segment having a first main spar, wherein the first blade segment is close to a blade root, the first main spar comprises a first body portion arranged in the first blade segment and a first clamping portion extending from an end of the first body portion toward a direction away from a blade root, and a height of the first clamping portion is gradually decreased in the direction away from the blade root; a second blade segment having a second main spar, wherein the second blade segment is close to a blade tip, the second main spar comprises a second body portion arranged in the second blade segment and a second clamping portion extending from an end of the second body portion toward a direction getting close to the blade root, a height of the second clamping portion is gradually increased in the direction getting close to the blade root, and the second clamping portion is clamp-fitted into the first clamping portion; and an outer shell configured to encase a clearance between the first blade segment and the second blade segment, characterized in that, the first clamping portion is formed by extending any three of two main spar caps and two shear webs of the first main spar in the direction away from the blade root and the second blade segment is inserted chordwise into the first blade segment. a first blade segment having a first main spar, wherein the first blade segment is close to a blade root, the first main spar comprises a first body portion arranged in the first blade segment and a first clamping portion extending from an end of the first body portion toward a direction away from a blade root, and a height of the first clamping portion is gradually decreased in the direction away from the blade root; a second blade segment having a second main spar, wherein the second blade segment is close to a blade tip, the second main spar comprises a second body portion arranged in the second blade segment and a second clamping portion extending from an end of the second body portion toward a direction getting close to the blade root, a height of the second clamping portion is gradually increased in the direction getting close to the blade root, and the second clamping portion is clamp-fitted into the first clamping portion; and an outer shell configured to encase a clearance between the first blade segment and the second blade segment, characterized in that, the first clamping portion is formed by extending any three of two main spar caps and two shear webs of the first main spar in the direction away from the blade root and the second blade segment is inserted chordwise into the first blade segment.