mhurhangee/ep-ind-claims huggingface dataset:
A rotary encoder comprising: - an encoder body, - shaft assemblies (3; 3a, 4) comprising a) a shaft main body (3; 3a) and b) a hollow outer cylinder (4; 4a), - bearings (6a, 6b) which are fixed to the encoder body and to the hollow outer cylinder (4; 4a) to rotatably support the shaft assemblies (3; 3a, 4), wherein the shaft main body (3; 3a) to which a coding plate is fixed comprises a) a displaceable structure which is housed in the outer cylinder (4; 4a), b) a front part (33; 33a; 33b) and c) a fixing part which is configured to be fixed to an object being measured to cause rotation of the coding plate for generating a measurement signal, wherein the displaceable structure is formed between the fixing part and the front part (33; 33a; 33b), the shaft main body (3; 3a) is housed inside the outer cylinder (4; 4a) and is partly fixed to the outer cylinder (4; 4a) at the front part (33; 33a; 33b) which is housed in the outer cylinder (4; 4a), a gap configured to enable displacement of the displaceable structure is provided at least between the displaceable structure and the outer cylinder (4; 4a), wherein the fixing part and the displaceable structure are hollow, wherein the inner diameters (D2; D1) of the fixing part and the displaceable structure are different. - an encoder body, - shaft assemblies (3; 3a, 4) comprising a) a shaft main body (3; 3a) and b) a hollow outer cylinder (4; 4a), a) a shaft main body (3; 3a) and b) a hollow outer cylinder (4; 4a), - bearings (6a, 6b) which are fixed to the encoder body and to the hollow outer cylinder (4; 4a) to rotatably support the shaft assemblies (3; 3a, 4), wherein a) a displaceable structure which is housed in the outer cylinder (4; 4a), b) a front part (33; 33a; 33b) and c) a fixing part which is configured to be fixed to an object being measured to cause rotation of the coding plate for generating a measurement signal, wherein
An inertial sensor including a piezoelectric plate in which is defined a vibrating member carrying excitation electrodes connected to an excitation circuit including conductive tracks carried by the piezoelectric plate, the excitation circuit including a disturbing circuit portion in which two conductive tracks extend alongside each other on either side of a median plane of a part (4, 6) of the plate undergoing deformation when the sensor is subjected to acceleration, characterized in that in the disturbing circuit portion the conductive tracks have a width of less than 50 μm.
A fluid ejection controller interface, comprising: input logic to receive control data packets and a first clock signal, each control data packet including a set of primitive data bits and a set of random bits, wherein the input logic removes the random bits in the received control data packets to create modified control data packets; a clock signal generator to generate a second clock signal that is faster than or equal to the first clock signal; and output logic to receive the modified control data packets, and output the modified control data packets to a fluid ejection controller of a fluid ejection device based on the second clock signal. input logic to receive control data packets and a first clock signal, each control data packet including a set of primitive data bits and a set of random bits, wherein the input logic removes the random bits in the received control data packets to create modified control data packets; a clock signal generator to generate a second clock signal that is faster than or equal to the first clock signal; and output logic to receive the modified control data packets, and output the modified control data packets to a fluid ejection controller of a fluid ejection device based on the second clock signal.
A method of stopping and restarting production in an undersea bottom-to-surface connection production pipe comprising a first pipe portion resting on the sea bottom from a well head to the bottom end of a second pipe portion going up to a ship or floating support on the surface, in which method, when production is stopped, at least said first pipe portion is filled with a depressurized production fluid, the method being characterized in that the following restarting steps are performed: e1) forming a gel from two reagents in a first gel-forming chamber on the sea bottom, said first chamber communicating with the end of the first pipe portion that is closest to the well head, said first chamber preferably being formed by a pipe segment in situ on the sea bottom, having its end leading to the proximity of the end of the first pipe portion resting on the sea bottom that is closest to the well head; and e2) sending a quantity of said gel into the first pipe portion from said first chamber forming a separator gel segment that pushes the cold fluid contained in the first pipe portion to the second pipe portion, prior to closing said first chamber; and then e3) starting production by sending said production fluid from the production fluid well into the first pipe portion behind said separator gel segment, said production fluid pushing said gel segment into said bottom-to-surface connection pipe towards its top, said gel forming a physical separation and also thermal isolation between firstly the production fluid behind said gel segment within the first pipe portion and secondly a fluid that has been at least partially degassed ahead of said gel segment within said first production pipe portion. e1) forming a gel from two reagents in a first gel-forming chamber on the sea bottom, said first chamber communicating with the end of the first pipe portion that is closest to the well head, said first chamber preferably being formed by a pipe segment in situ on the sea bottom, having its end leading to the proximity of the end of the first pipe portion resting on the sea bottom that is closest to the well head; and e2) sending a quantity of said gel into the first pipe portion from said first chamber forming a separator gel segment that pushes the cold fluid contained in the first pipe portion to the second pipe portion, prior to closing said first chamber; and then e3) starting production by sending said production fluid from the production fluid well into the first pipe portion behind said separator gel segment, said production fluid pushing said gel segment into said bottom-to-surface connection pipe towards its top, said gel forming a physical separation and also thermal isolation between firstly the production fluid behind said gel segment within the first pipe portion and secondly a fluid that has been at least partially degassed ahead of said gel segment within said first production pipe portion.
A radio terminal comprising: at least one transceiver; and at least one processor configured to control the at least one transceiver in one or more cells of a first radio access network, RAN, and in one or more cells of a second RAN, the first RAN supporting a first Radio Access Technology, RAT, and having an interface with a first core network, CN,, the second RAN supporting a second RAT, wherein the at least one processor is configured to control state transitions of the radio terminal among an RRC_CONNECTED state of the first RAT, an RRC_INACTIVE state of the first RAT, and an RRC_IDLE state of the first RAT, the at least one processor is configured to control state transitions of the radio terminal between an RRC_CONNECTED state of the second RAT and an RRC_IDLE state of the second RAT, the at least one processor is configured to, when the radio terminal in the RRC_INACTIVE state of the first RAT in the first RAN and having a Non-Access Stratum, NAS connection with the first CN moves to a cell of the second RAN, alter (601, 602) an RRC state transition operation of the radio terminal depending on whether the second RAN supports interworking with at least one of the first CN and the first RAN, and the radio terminal is characterized in that the at least one processor is configured to, if the second RAN supports interworking with at least one of the first CN and the first RAN, transition the radio terminal to the RRC CONNECTED state of the second RAT directly from the RRC INACTIVE state of the first RAT. at least one transceiver; and at least one processor configured to control the at least one transceiver in one or more cells of a first radio access network, RAN, and in one or more cells of a second RAN, the first RAN supporting a first Radio Access Technology, RAT, and having an interface with a first core network, CN,, the second RAN supporting a second RAT, wherein the at least one processor is configured to control state transitions of the radio terminal among an RRC_CONNECTED state of the first RAT, an RRC_INACTIVE state of the first RAT, and an RRC_IDLE state of the first RAT, the at least one processor is configured to control state transitions of the radio terminal between an RRC_CONNECTED state of the second RAT and an RRC_IDLE state of the second RAT, the at least one processor is configured to, when the radio terminal in the RRC_INACTIVE state of the first RAT in the first RAN and having a Non-Access Stratum, NAS connection with the first CN moves to a cell of the second RAN, alter (601, 602) an RRC state transition operation of the radio terminal depending on whether the second RAN supports interworking with at least one of the first CN and the first RAN, and the radio terminal is characterized in that the at least one processor is configured to, if the second RAN supports interworking with at least one of the first CN and the first RAN, transition the radio terminal to the RRC CONNECTED state of the second RAT directly from the RRC INACTIVE state of the first RAT.
Method, carried out by a router, wherein the router is at least one of an autonomous system border router, an area border router, and a route reflector, the router is also a Border Gateway Protocol, hereinafter abbreviated as "BGP", speaker; and the router stores filtering information to limit the propagation of network layer reachability information, hereinafter abbreviated as "NLRI"; the method comprising: receiving, from another BGP speaker, a BGP update message comprising NLRI specific to a virtual private network, said NLRI being hereinafter referred to as "VPN-NLRI", and path information comprising an address of a next hop for said VPN-NLRI; determining that there is no route to the next hop; modifying the filtering information so as to permit propagation of NLRI comprising the address of the next hop; and sending the modified filtering information to BGP neighbours of the router. the router is at least one of an autonomous system border router, an area border router, and a route reflector, the router is also a Border Gateway Protocol, hereinafter abbreviated as "BGP", speaker; and the router stores filtering information to limit the propagation of network layer reachability information, hereinafter abbreviated as "NLRI"; receiving, from another BGP speaker, a BGP update message comprising NLRI specific to a virtual private network, said NLRI being hereinafter referred to as "VPN-NLRI", and path information comprising an address of a next hop for said VPN-NLRI; NLRI specific to a virtual private network, said NLRI being hereinafter referred to as "VPN-NLRI", and path information comprising an address of a next hop for said VPN-NLRI; determining that there is no route to the next hop; modifying the filtering information so as to permit propagation of NLRI comprising the address of the next hop; and sending the modified filtering information to BGP neighbours of the router.
A shift range switching device (V,V2,V3) for a vehicle, comprising: an output gear which becomes a driving source of shift range switching, an electric motor and an eccentric shaft which is arranged in an output shaft of the electric motor, an external-toothed gear which is rotatably supported on the eccentric shaft, characterized by a ring-shaped double-toothed gear which is arranged on an outer circumference of the external-toothed gear, internal teeth which are defined on an inner circumference of the double-toothed gear and engaged with external teeth of the external-toothed gear, external teeth which are defined on an outer circumference of the double-toothed gear and engaged with the output gear, a fixing member which is arranged adjacent to the external-toothed gear, a restriction portion (31,15c) which is arranged on one of the external-toothed gear and the fixing member, and a restricted portion (15b,34) which is arranged on the other of the external-toothed gear and the fixing member and engaged with the restriction portion (31,15c), wherein the restriction portion (31,15c) and the restricted portion (15b,34) restrict rotation of the external-toothed gear with the external teeth of the external-toothed gear engaged with the internal teeth of the double-toothed gear, and wherein the external teeth of the external-toothed gear and the internal teeth of the double-toothed gear have different teeth numbers from each other in response to a reduction ratio. an output gear which becomes a driving source of shift range switching, an electric motor and an eccentric shaft which is arranged in an output shaft of the electric motor, an external-toothed gear which is rotatably supported on the eccentric shaft, characterized by a ring-shaped double-toothed gear which is arranged on an outer circumference of the external-toothed gear, internal teeth which are defined on an inner circumference of the double-toothed gear and engaged with external teeth of the external-toothed gear, external teeth which are defined on an outer circumference of the double-toothed gear and engaged with the output gear, a fixing member which is arranged adjacent to the external-toothed gear, a restriction portion (31,15c) which is arranged on one of the external-toothed gear and the fixing member, and a restricted portion (15b,34) which is arranged on the other of the external-toothed gear and the fixing member and engaged with the restriction portion (31,15c), wherein the restriction portion (31,15c) and the restricted portion (15b,34) restrict rotation of the external-toothed gear with the external teeth of the external-toothed gear engaged with the internal teeth of the double-toothed gear, and wherein the external teeth of the external-toothed gear and the internal teeth of the double-toothed gear have different teeth numbers from each other in response to a reduction ratio.
A method of configuring reference signal channel characteristics, comprising: determining, by a first communication node, a radio resource control, RRC, signaling that carries information that describes a first set of transmission configuration indication, TCI, states, wherein each TCI state in the first set of TCI states comprises one or more index elements that identify one or more reference signals; sending, by the first communication node, the RRC signaling to a second communication node; determining, by the first communication node, a medium access control-control element, MAC-CE, signaling that carries information that indicates that a second set of TCI states are activated; wherein the second set of TCI states include at least one TCI state that is activated from the first set of TCI states; wherein the second set of TCI states are activated based on a bitmap associated with the first set of TCI states, wherein each TCI state from the first set of TCI states corresponds to a respective bit in the bitmap, wherein a specific value in a bit position indicates whether a TCI state associated with the bit position is activated; and sending, by the first communication node, the MAC-CE signaling to the second communication node. determining, by a first communication node, a radio resource control, RRC, signaling that carries information that describes a first set of transmission configuration indication, TCI, states, wherein each TCI state in the first set of TCI states comprises one or more index elements that identify one or more reference signals; sending, by the first communication node, the RRC signaling to a second communication node; determining, by the first communication node, a medium access control-control element, MAC-CE, signaling that carries information that indicates that a second set of TCI states are activated; wherein the second set of TCI states include at least one TCI state that is activated from the first set of TCI states; wherein the second set of TCI states are activated based on a bitmap associated with the first set of TCI states, wherein each TCI state from the first set of TCI states corresponds to a respective bit in the bitmap, wherein a specific value in a bit position indicates whether a TCI state associated with the bit position is activated; and wherein the second set of TCI states include at least one TCI state that is activated from the first set of TCI states; wherein the second set of TCI states are activated based on a bitmap associated with the first set of TCI states, wherein each TCI state from the first set of TCI states corresponds to a respective bit in the bitmap, wherein a specific value in a bit position indicates whether a TCI state associated with the bit position is activated; and sending, by the first communication node, the MAC-CE signaling to the second communication node.
A fluid inlet device suitable for introducing a mixture of liquid and gas into a vessel, which fluid inlet device comprises a guide member, wherein the guide member is a splash plate having a surface on which surface a liquid film is present during normal operation, and having a main direction of gas flow along the surface, and wherein the splash plate is provided with a substantially triangular end part, the inclined rim of which is provided with a liquid catcher channel extending from an upstream position with respect to the guide member, at the upper corner of the splash plate to a downstream position with respect to the main direction of gas flow, and wherein a virtual line along the splash plate rim between the upstream position and the downstream position deviates from the main direction of gas flow.
An identity authentication method, applied to a network function virtualization, NFV, system, wherein the NFV system comprises a virtual network function, VNF, and the VNF comprises a first virtual network function component, VNFC, and a second VNFC, characterized in that the method comprises: generating a first public key and a first private key of the first VNFC and a second public key and a second private key of the second VNFC; writing or sending the first private key of the first VNFC and the second public key of the second VNFC to the first VNFC; and writing or sending the first public key of the first VNFC and the second private key of the second VNFC to the second VNFC, wherein the first public key and the first private key of the first VNFC and the second public key and the second private key of the second VNFC are used for identity authentication of the first VNFC and the second VNFC. generating a first public key and a first private key of the first VNFC and a second public key and a second private key of the second VNFC; writing or sending the first private key of the first VNFC and the second public key of the second VNFC to the first VNFC; and writing or sending the first public key of the first VNFC and the second private key of the second VNFC to the second VNFC, wherein the first public key and the first private key of the first VNFC and the second public key and the second private key of the second VNFC are used for identity authentication of the first VNFC and the second VNFC.
Strapping device, in particular a mobile strapping device, for strapping packaged goods with a strapping band, having a tensioning unit for applying band tensioning to a loop of a strapping band, which tensioning unit has a rotatingly drivable tensioning wheel and a tensioning compensator which is pivotable in relation to the tensioning wheel and interacts with the tensioning wheel, wherein a tensioning plate for bearing a strapping band is disposed on the tensioning compensator, and spacing between the tensioning plate and the tensioning wheel for applying a tensioning force on the band is modifiable, and having a connection unlit, in particular a welding unit, such as a friction-welding unit, for creating a connection on two regions of the loop of the strapping band which lie on top of one another, characterized by means by which, in addition to the pivotability of the tensioning compensator, modifiability of the relative position of the tensioning plate in relation to the tensioning wheel by way of a floating mounting of the tensioning plate on the tensioning compensator is creatable.
An optical fiber comprising: a multimode glass fiber, the multimode glass fiber including a core region with a radius r 1 in the range from 17.5 μm to 32.5 μm and a cladding region with a radius r 4 greater than or equal to 60.0 μm; a primary coating with a radius r 5 surrounding and directly adjacent to the cladding region, the primary coating having a thickness r 5 - r 4 less than 30.0 μm; and a secondary coating with a radius re less than or equal to 110.0 μm surrounding and directly adjacent to the primary coating; the secondary coating having a thickness r 6 - r 5 less than or equal to 30.0 μm; wherein the optical fiber has a minimum effective modal bandwidth, minEMB, greater than 2000 MHz-km at one or more wavelengths selected from the group consisting of 850 nm, 980 nm, and 1060 nm, characterized in that the primary coating has an in situ modulus less than 0.30 MPa and in that the secondary coating has a normalized puncture load greater than 3.6 x 10 -3 g/μm 2. a multimode glass fiber, the multimode glass fiber including a core region with a radius r 1 in the range from 17.5 μm to 32.5 μm and a cladding region with a radius r 4 greater than or equal to 60.0 μm; a primary coating with a radius r 5 surrounding and directly adjacent to the cladding region, the primary coating having a thickness r 5 - r 4 less than 30.0 μm; and a secondary coating with a radius re less than or equal to 110.0 μm surrounding and directly adjacent to the primary coating; the secondary coating having a thickness r 6 - r 5 less than or equal to 30.0 μm; wherein the optical fiber has a minimum effective modal bandwidth, minEMB, greater than 2000 MHz-km at one or more wavelengths selected from the group consisting of 850 nm, 980 nm, and 1060 nm, characterized in that the primary coating has an in situ modulus less than 0.30 MPa and in that the secondary coating has a normalized puncture load greater than 3.6 x 10 -3 g/μm 2.