mhurhangee/ep-ind-claims huggingface dataset:
A method for processing data by a reception device, the method comprising: receiving (1j-05) a radio link control, RLC, packet data unit, PDU, from a lower layer; determining (1j-10) a sequence number of the RLC PDU by analyzing an RLC header of the RLC PDU; identifying (1j-10) whether an RLC service data unit, SDU, obtained from the RLC PDU is a complete RLC SDU or a segment of complete SDU based on a segmentation related RLC header field in an RLC header of the RLC PDU; transferring (1j-15) a first RLC SDU obtained from the RLC PDU from an RLC layer to a packet data convergence protocol, PDCP, layer regardless of an order of the sequence number of the RLC PDU in case that the first RLC SDU is identified as the complete RLC SDU and the first RLC SDU is associated with an ultra reliable low latency communication, URLLC, service; and deciphering (1j-20) the first RLC SDU regardless of a sequence number of a PDCP PDU acquired from the first RLC SDU in case that the first RLC SDU is associated with the URLLC service, wherein a second RLC SDU obtained from the RLC PDU is not transferred from the RLC layer to the PDCP layer regardless of the sequence number of the RLC PDU in case that the second RLC SDU is identified as a segment of complete RLC SDU, and wherein in case that the second RLC SDU is the segment of complete RLC SDU, the second RLC SDU is not transferred to the PDCP layer until the second RLC SDU is combined for the complete RLC SDU. receiving (1j-05) a radio link control, RLC, packet data unit, PDU, from a lower layer; determining (1j-10) a sequence number of the RLC PDU by analyzing an RLC header of the RLC PDU; identifying (1j-10) whether an RLC service data unit, SDU, obtained from the RLC PDU is a complete RLC SDU or a segment of complete SDU based on a segmentation related RLC header field in an RLC header of the RLC PDU; transferring (1j-15) a first RLC SDU obtained from the RLC PDU from an RLC layer to a packet data convergence protocol, PDCP, layer regardless of an order of the sequence number of the RLC PDU in case that the first RLC SDU is identified as the complete RLC SDU and the first RLC SDU is associated with an ultra reliable low latency communication, URLLC, service; and deciphering (1j-20) the first RLC SDU regardless of a sequence number of a PDCP PDU acquired from the first RLC SDU in case that the first RLC SDU is associated with the URLLC service,
A gate valve apparatus, comprising: a housing defining a flow path; a first valve seat located within the housing around a periphery of the flow path and comprising a first peripheral seal surface; and a gate valve member which is moveable laterally across the flow path between a first position in which the flow path is open and a second position in which the flow path is closed; a first cutter provided on an edge region of a first surface of the gate valve member to be moveable across the flow path with the gate valve member along a first cutting plane; and a first seal pocket defined by a depression in the first surface of the gate valve member, wherein a second peripheral seal surface is provided within the first seal pocket, wherein the first valve seat and the gate valve member are axially moveable relative to each other to permit a portion of the first valve seat to become received into the first seal pocket of the gate valve member when said gate valve member is located within its second position to provide sealing engagement between the first and second peripheral seal surfaces (30, 44). a housing defining a flow path; a first valve seat located within the housing around a periphery of the flow path and comprising a first peripheral seal surface; and a gate valve member which is moveable laterally across the flow path between a first position in which the flow path is open and a second position in which the flow path is closed; a first cutter provided on an edge region of a first surface of the gate valve member to be moveable across the flow path with the gate valve member along a first cutting plane; and a first seal pocket defined by a depression in the first surface of the gate valve member, wherein a second peripheral seal surface is provided within the first seal pocket, wherein the first valve seat and the gate valve member are axially moveable relative to each other to permit a portion of the first valve seat to become received into the first seal pocket of the gate valve member when said gate valve member is located within its second position to provide sealing engagement between the first and second peripheral seal surfaces (30, 44).
A route processing method, and the method comprises: receiving, by a first provider edge, PE, device, a first virtual private network, VPN, route sent by a second PE device, wherein the first VPN route comprises a second internet protocol version 6 segment routing-based virtual private network segment identifier, SRv6 VPN SID, and a third SRv6 VPN SID, wherein a second customer edge, CE, device is multi-homed to the first PE device and the second PE device, the first PE device is configured with a first SRv6 VPN SID used to identify a VPN to which the second CE device belongs or an outgoing interface through which the first PE is connected to the second CE device, the second PE device is configured with the second SRv6 VPN SID and the third SRv6 VPN SID, both the second SRv6 VPN SID and the third SRv6 VPN SID are used to identify the VPN to which the second CE device belongs or an outgoing interface through which the second PE device is connected to the second CE device, the second SRv6 VPN SID is the same as the first SRv6 VPN SID; and establishing, by the first PE device, a second path from the first PE device to the second PE device based on the third SRv6 VPN SID, wherein when a first path on which the first PE device is directly connected to the second CE device is faulty, the second path is used by the first PE device to forward a packet to the second CE device. receiving, by a first provider edge, PE, device, a first virtual private network, VPN, route sent by a second PE device, wherein the first VPN route comprises a second internet protocol version 6 segment routing-based virtual private network segment identifier, SRv6 VPN SID, and a third SRv6 VPN SID, wherein a second customer edge, CE, device is multi-homed to the first PE device and the second PE device, the first PE device is configured with a first SRv6 VPN SID used to identify a VPN to which the second CE device belongs or an outgoing interface through which the first PE is connected to the second CE device, the second PE device is configured with the second SRv6 VPN SID and the third SRv6 VPN SID, both the second SRv6 VPN SID and the third SRv6 VPN SID are used to identify the VPN to which the second CE device belongs or an outgoing interface through which the second PE device is connected to the second CE device, the second SRv6 VPN SID is the same as the first SRv6 VPN SID; and establishing, by the first PE device, a second path from the first PE device to the second PE device based on the third SRv6 VPN SID, wherein when a first path on which the first PE device is directly connected to the second CE device is faulty, the second path is used by the first PE device to forward a packet to the second CE device.
A method for bonding a structural component to a rail, the rail including a bottom surface, a first sidewall extending from the bottom surface, and a second sidewall extending from the bottom surface to thereby define a channel, the method comprising: positioning a bonding agent in a plurality of blind holes defined in the bottom surface of the rail; positioning a plurality of spacers in the plurality of blind holes such that each of the plurality of blind holes receives one of the plurality of spacers, wherein each of the plurality of spacers has a stem and a top portion extending substantially perpendicular to the stem, and wherein the stem of each of the plurality of spacers is positioned in each of the plurality of blind holes such that a longitudinal axis of the top portion of each of the plurality of spacers is parallel to a longitudinal axis of the channel; positioning the structural component at least partially into the channel such that the structural component rests on each of the plurality of spacers, wherein a first gap is defined between the structural component and the bottom surface of the rail, wherein a second gap is defined between the structural component and the first sidewall of the rail, and wherein a third gap is defined between the structural component and the second sidewall of the rail; and injecting the bonding agent into the channel such that each of the first gap, the second gap, and the third gap includes the bonding agent to thereby bond the structural component to the rail. positioning a bonding agent in a plurality of blind holes defined in the bottom surface of the rail; positioning a plurality of spacers in the plurality of blind holes such that each of the plurality of blind holes receives one of the plurality of spacers, wherein each of the plurality of spacers has a stem and a top portion extending substantially perpendicular to the stem, and wherein the stem of each of the plurality of spacers is positioned in each of the plurality of blind holes such that a longitudinal axis of the top portion of each of the plurality of spacers is parallel to a longitudinal axis of the channel; positioning the structural component at least partially into the channel such that the structural component rests on each of the plurality of spacers, wherein a first gap is defined between the structural component and the bottom surface of the rail, wherein a second gap is defined between the structural component and the first sidewall of the rail, and wherein a third gap is defined between the structural component and the second sidewall of the rail; and injecting the bonding agent into the channel such that each of the first gap, the second gap, and the third gap includes the bonding agent to thereby bond the structural component to the rail.
Process for the surface treatment of a metal part made of steel, comprising: exposing a surface of the metal part to a stream of substantially spherical particles, so that any portion of said surface receives said particles along several primary incidences, the primary incidences of the particles on a portion of the surface being essentially distributed in a cone or a conical film which has an outer half apex angle (α, α+β, α-β) between 10° and 45°, until a surface layer of nanostructures is obtained, the particles having a diameter of less than 2 mm and greater than 0.1 mm and being projected at a speed between 40 m/s and 100 m/s, and exposing the surface of the metal part to thermochemical conditions that lead to the diffusion of a substance into the metal structure of the part in order to modify the chemical composition of the metal part over at least one part of its thickness starting from the surface, the thermochemical conditions being low-pressure carbonitriding conditions at a temperature between 750°C and 1100°C that lead to a recrystallization of the surface layer of nanostructures and a diffusion of nitrogen into the grain boundaries of the steel of the recrystallized surface layer, the process producing the formation of carbonitride particles finely dispersed in the recrystallized surface layer. exposing a surface of the metal part to a stream of substantially spherical particles, so that any portion of said surface receives said particles along several primary incidences, the primary incidences of the particles on a portion of the surface being essentially distributed in a cone or a conical film which has an outer half apex angle (α, α+β, α-β) between 10° and 45°, until a surface layer of nanostructures is obtained, the particles having a diameter of less than 2 mm and greater than 0.1 mm and being projected at a speed between 40 m/s and 100 m/s, and exposing the surface of the metal part to thermochemical conditions that lead to the diffusion of a substance into the metal structure of the part in order to modify the chemical composition of the metal part over at least one part of its thickness starting from the surface, the thermochemical conditions being low-pressure carbonitriding conditions at a temperature between 750°C and 1100°C that lead to a recrystallization of the surface layer of nanostructures and a diffusion of nitrogen into the grain boundaries of the steel of the recrystallized surface layer, the process producing the formation of carbonitride particles finely dispersed in the recrystallized surface layer.
A tympanic membrane transducer, comprising: a chassis; a perimeter platform connected to the chassis; a microactuator connected to the chassis through at least one bias spring positioned at a proximal end of the microactuator; a damper attached to the at least one bias spring to dampen the motion of the at least one bias spring; and an umbo platform attached to a distal end of the microactuator. a chassis; a perimeter platform connected to the chassis; a microactuator connected to the chassis through at least one bias spring positioned at a proximal end of the microactuator; a damper attached to the at least one bias spring to dampen the motion of the at least one bias spring; and an umbo platform attached to a distal end of the microactuator.
Method for estimating a position of a throttle valve for controlling an internal combustion engine, characterized in that it comprises the following steps: - a step of measuring a position of the throttle valve (Ppap_mes), - a step of reading a position instruction of the throttle valve (Ppap_cons) and - a step of prediction, over a given calculation time horizon, of the position of the throttle valve (Ppap_pred) as a function of the position of the throttle valve measured (Ppap_mes) and of a position gradient (Grad_pos_pap) between a current position and a previous position, the calculation of the position gradient (Grad_pos_pap) being chosen between: - the implementation of a first calculation strategy based on a calculation of the gradient of the position setpoint of the throttle valve (Grad_cons_pap), - the implementation of a second calculation strategy based on a calculation of the gradient of the measurement of the position of the throttle valve (Grad_mes_pap), and - the implementation of a combination of the first and second abovementioned calculation strategy, the choice being a function of the comparison of the value of the given calculation horizon with at least one physical parameter of the throttle valve. - a step of measuring a position of the throttle valve (Ppap_mes), - a step of reading a position instruction of the throttle valve (Ppap_cons) and - a step of prediction, over a given calculation time horizon, of the position of the throttle valve (Ppap_pred) as a function of the position of the throttle valve measured (Ppap_mes) and of a position gradient (Grad_pos_pap) between a current position and a previous position, the calculation of the position gradient (Grad_pos_pap) being chosen between: - the implementation of a first calculation strategy based on a calculation of the gradient of the position setpoint of the throttle valve (Grad_cons_pap), - the implementation of a second calculation strategy based on a calculation of the gradient of the measurement of the position of the throttle valve (Grad_mes_pap), and - the implementation of a combination of the first and second abovementioned calculation strategy,
A composition comprising: (i) an elastomer, (ii) from 1 to 5 volume % of fibrous pulp, the pulp having a specific surface area of from 7 to 11 sq.m./g and the fiber having a fiber length of from 0.5 to 1.1 mm, a tensile modulus of from 2.5 to 130 GPa, and a tensile strength of from 1 to 3 GPa, and (iii) from 5 to 14 volume % of yield-strain promoter in the form of fibers, needles, powder or platelets, wherein the composition has a yield strain of at least 70%, an elongation at break of at least 200%, and a yield stress of at least 4 MPa; wherein the mechanical properties of the composition are measured according to ASTM D412-06A; characterized in that the yield-strain promoter is clay selected from sepiolite and attapulgite. (i) an elastomer, (ii) from 1 to 5 volume % of fibrous pulp, the pulp having a specific surface area of from 7 to 11 sq.m./g and the fiber having a fiber length of from 0.5 to 1.1 mm, a tensile modulus of from 2.5 to 130 GPa, and a tensile strength of from 1 to 3 GPa, and (iii) from 5 to 14 volume % of yield-strain promoter in the form of fibers, needles, powder or platelets,
A sprocket support structure comprising: a main body including an outer surface with a plurality of parallel extending sprocket attachment splines defining a plurality of sprocket engaging grooves between the sprocket attachment splines; a plurality of projections extending radially outward farther than the sprocket attachment splines with respect to a rotation axis of the main body, each of the projections including a first surface facing in a first axial direction of the main body, and a second surface facing a second axial direction; and an abutment ring being disposed on the main body as a separate member from the main body and adjacent to the second surface of the projections, the abutment ring including a third surface facing in the first axial direction and axially spaced from the first surfaces of the projections with respect to the rotation axis, and the abutment ring including the third surface including surface portions that are exposed within the sprocket engaging grooves between the sprocket attachment splines; characterized in that the third surface of the abutment ring is exposed between the projections as viewed along the sprocket engaging grooves; the third surface is configured to abut a first sprocket support member of a sprocket cassette; and the first surface is configured to abut another first sprocket support member (110', 110") of another sprocket cassette (40', 40") which is different from the sprocket cassette. a main body including an outer surface with a plurality of parallel extending sprocket attachment splines defining a plurality of sprocket engaging grooves between the sprocket attachment splines; a plurality of projections extending radially outward farther than the sprocket attachment splines with respect to a rotation axis of the main body, each of the projections including a first surface facing in a first axial direction of the main body, and a second surface facing a second axial direction; and an abutment ring being disposed on the main body as a separate member from the main body and adjacent to the second surface of the projections, the abutment ring including a third surface facing in the first axial direction and axially spaced from the first surfaces of the projections with respect to the rotation axis, and the abutment ring including the third surface including surface portions that are exposed within the sprocket engaging grooves between the sprocket attachment splines; characterized in that the third surface of the abutment ring is exposed between the projections as viewed along the sprocket engaging grooves; the third surface is configured to abut a first sprocket support member of a sprocket cassette; and the first surface is configured to abut another first sprocket support member (110', 110") of another sprocket cassette (40', 40") which is different from the sprocket cassette.
A power tool comprising: a tool body having a housing, a motor received in the housing, a light array comprising a plurality of light sources mounted to the housing, and an output spindle extending through the light array and arranged to be rotationally driven by the motor; and a chuck having a chuck body, a plurality of jaws, and an outer sleeve, a rear end of the chuck body being fixedly mounted on the output spindle for common rotation with the output spindle about a rotational axis, the chuck body having a jaw aperture and a light hole, the jaw aperture and the light hole extending through a front surface of the chuck body, the outer sleeve being disposed about the jaws and the chuck body, arranged such that light emanating from the light array in use is transmitted through the light hole to illuminate a zone located in front of the chuck body; characterised in that the chuck body has a plurality of the jaw apertures and a plurality of the light holes, the jaw apertures and the light holes extending through the front surface of the chuck body, each of the jaws being received in a corresponding one of the jaw apertures, and wherein the light array has a first quantity of the light sources, wherein the chuck body has a second quantity (n) of the light holes, and wherein the first quantity is greater than the second quantity (n). a tool body having a housing, a motor received in the housing, a light array comprising a plurality of light sources mounted to the housing, and an output spindle extending through the light array and arranged to be rotationally driven by the motor; and a chuck having a chuck body, a plurality of jaws, and an outer sleeve, a rear end of the chuck body being fixedly mounted on the output spindle for common rotation with the output spindle about a rotational axis, the chuck body having a jaw aperture and a light hole, the jaw aperture and the light hole extending through a front surface of the chuck body, the outer sleeve being disposed about the jaws and the chuck body, arranged such that light emanating from the light array in use is transmitted through the light hole to illuminate a zone located in front of the chuck body; characterised in that the chuck body has a plurality of the jaw apertures and a plurality of the light holes, the jaw apertures and the light holes extending through the front surface of the chuck body, each of the jaws being received in a corresponding one of the jaw apertures, and wherein the light array has a first quantity of the light sources, wherein the chuck body has a second quantity (n) of the light holes, and wherein the first quantity is greater than the second quantity (n).
A de-aeration system for a fuel filter system, said filter system having a housing for containing a fuel filter element, a fuel inlet and a fuel outlet, said de-aeration system including: a de-aeration valve having: a valve inlet in a lower face of said valve for connection to said housing; a valve outlet in an upper face of said valve; and a ball having a relatively higher density than fuel in said filter system, wherein said ball is configured to lift between said lower face and said upper face in response to an air pressure differential acting on said ball for opening said valve to purge air trapped in said housing, and wherein said ball is further configured to close said valve by sealing against said valve outlet in said upper face in response to a pressure differential across said ball created by unfiltered fuel entering said valve. a de-aeration valve having: a valve inlet in a lower face of said valve for connection to said housing; a valve outlet in an upper face of said valve; and a ball having a relatively higher density than fuel in said filter system, wherein said ball is configured to lift between said lower face and said upper face in response to an air pressure differential acting on said ball for opening said valve to purge air trapped in said housing, and wherein said ball is further configured to close said valve by sealing against said valve outlet in said upper face in response to a pressure differential across said ball created by unfiltered fuel entering said valve. a valve inlet in a lower face of said valve for connection to said housing; a valve outlet in an upper face of said valve; and a ball having a relatively higher density than fuel in said filter system, wherein said ball is configured to lift between said lower face and said upper face in response to an air pressure differential acting on said ball for opening said valve to purge air trapped in said housing, and wherein said ball is further configured to close said valve by sealing against said valve outlet in said upper face in response to a pressure differential across said ball created by unfiltered fuel entering said valve.