mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: identifying, at a first node in a clos network, a preconfigured level of the first node in the clos network; receiving, at the first node from a second node in the clos network, a neighbor advertisement that comprises at least a preconfigured level of the second node in the clos network; the method being characterized by determining, at the first node, that a difference between the preconfigured level of the first node and the preconfigured level of the second node is equal to one; recording, at the first node based on determining that the difference is equal to one, an adjacency relationship between the first node and the second node; transmitting a first type of routing-protocol packet from the first node to the second node based at least in part on the adjacency relationship; and refraining from transmitting a second type of routing-protocol packet from the first node to the second node based at least in part on the adjacency relationship. identifying, at a first node in a clos network, a preconfigured level of the first node in the clos network; receiving, at the first node from a second node in the clos network, a neighbor advertisement that comprises at least a preconfigured level of the second node in the clos network; the method being characterized by determining, at the first node, that a difference between the preconfigured level of the first node and the preconfigured level of the second node is equal to one; recording, at the first node based on determining that the difference is equal to one, an adjacency relationship between the first node and the second node; transmitting a first type of routing-protocol packet from the first node to the second node based at least in part on the adjacency relationship; and refraining from transmitting a second type of routing-protocol packet from the first node to the second node based at least in part on the adjacency relationship.
Annular combustion chamber of a gas turbine having a machine axis, said combustion chamber comprising carriers and at least two zones (18, 19), whereby a first zone receives the fuel/air mixture of a plurality of burners, and a second zone guides the hot gases being produced by said burners from said first zone to an entrance of a turbine section of said gas turbine, whereby an annular transition liner comprising a plurality of liner segments is located at the transition between said first zone and second zone, the first zone including liner segments of said zone whereby each of the liner segments of the annular transition liner comprises with respect to the axial hot gas flow a leading edge, a trailing edge, and two sidewalls (35b, 35c), and that said liner segment is provided with axial mounting means (27, 31) at said leading and trailing edges (35a, 35d) such that said liner segment is configured to be installed in an axial direction, the axial direction essentially coinciding with the flow direction of the hot gas flow, and is axially fixed by respective segments of the neighboring first zone, characterized in that local spacer ribs are provided at the leading edge of said liner segment in order to establish a gap of minimum width between said liner segment and said liner segments of the neighboring first zone to maintain a required film cooling for the segments of the transition liner, wherein the axial mounting means comprises axially oriented hooks (27, 31) for axially hooking said liner segment in said respective carriers (24, 25) provided below said transition liner; and the liner segment of the transition liner is provided on its inner side with an impingement sheet with a plurality of impingement holes distributed in a predetermined pattern over the area of said impingement sheet, whereby said impingement sheet is mounted parallel to the inner wall of the body of said liner segment in a predetermined distance; a vertical bolting of the carriers (24,25) allows the gap of the two neighboring segments to remain unchanged in a radial direction.
A method for determining the sensitivity of microorganisms to antimicrobial substances, wherein said method does not involve a step of identifying the microorganisms, said method comprises taking biological material, incubating the biological material with all the microorganisms contained therein on a solid, rich nutrient medium, comprising an antimicrobial substance introduced into the medium prior to cultivation of the microorganisms in a concentration close to the maximum concentration achievable at the location where the biological material is taken and incubating the biological material with all the microorganisms contained therein on a control medium that is identical to the solid, rich nutrient medium but does not contain the antimicrobial substance; and subsequently assessing the sensitivity of the totality of microorganisms to the antimicrobial substance after the appearance of visible growth of microorganisms in a control culture within 4 to 6 hours from start of cultivation.
Robotic vacuum cleaner comprising at least one cleaning roller which extends transversely to a processing direction and has an elongate roller body, the cleaning roller being removable from the robotic vacuum cleaner for changing and/or cleaning and being reinsertable, the inserted cleaning roller in the robotic vacuum cleaner being rotatably driven on a first bearing side via a drive pin of the cleaning roller, the inserted cleaning roller in the robotic vacuum cleaner being mounted on a second bearing side via a floating bearing, characterised in that the floating bearing of the cleaning roller has a spring-loaded bearing bushing, the bearing bushing of the inserted cleaning roller being received in a bearing receptacle of the robotic vacuum cleaner, with a spring axially displacing the bearing bushing, by means of spring force on the roller body of the cleaning roller, against the bearing receptacle, the spring force of the spring axially displacing the drive pin of the inserted cleaning roller against a drive pin receptacle of the robotic vacuum cleaner.
A method for producing a cladding for elongated material, in particular a sheath for cable sets, according to which two adhesive tapes (3, 4), which are each equipped at least on one side with an adhesive coating, are joined to form a laminate (3, 4, 5) axially spaced apart from one another by means of a carrier tape and that, for this purpose, the two adhesive tapes (3, 4) are each joined on the adhesive coating side with the carrier tape in the longitudinal extension by defining a free region, which they define, and according to which the carrier tape is embodied so as to be free of adhesive coating, characterized in that the carrier tape is equipped with an adhesive coating at least partially in the free region only after production of the laminate (3, 4, 5).
A vehicle side door structure comprising: an outer panel that configures a portion at a vehicle width direction outer side of a side door and that extends along a vehicle up-down direction and a vehicle front-rear direction; an inner panel that configures a portion at a vehicle width direction inner side of the side door, that extends along the vehicle up-down direction and the vehicle front-rear direction, and that, together with the outer panel, forms an internal space; an impact beam having both length direction end portions fixed to the inner panel, that is configured in a straight tube shape extending along the vehicle front-rear direction, and that is disposed at an outer panel side in the internal space, characterised in that it further comprises a first acceleration sensor attached to a face at the vehicle width direction inner side of a pillar inner of a center pillar; and a sensing bracket including an attachment wall section attached to an outer surface of the impact beam, and a jutting out section that juts out from the impact beam toward the outer panel, and that, in cross-section as viewed from the vehicle front-rear direction, is open toward the vehicle width direction inner side and extending along the length direction of the impact beam. an outer panel that configures a portion at a vehicle width direction outer side of a side door and that extends along a vehicle up-down direction and a vehicle front-rear direction; an inner panel that configures a portion at a vehicle width direction inner side of the side door, that extends along the vehicle up-down direction and the vehicle front-rear direction, and that, together with the outer panel, forms an internal space; an impact beam having both length direction end portions fixed to the inner panel, that is configured in a straight tube shape extending along the vehicle front-rear direction, and that is disposed at an outer panel side in the internal space, characterised in that it further comprises a first acceleration sensor attached to a face at the vehicle width direction inner side of a pillar inner of a center pillar; and a sensing bracket including an attachment wall section attached to an outer surface of the impact beam, and a jutting out section that juts out from the impact beam toward the outer panel, and that, in cross-section as viewed from the vehicle front-rear direction, is open toward the vehicle width direction inner side and extending along the length direction of the impact beam.
Mounting device for mounting electronic components of an unmanned helicopter characterized by comprising: a substantially saddle-shaped base plate comprising a substantially horizontal part and two substantially vertical parts, each of said vertical parts provided at opposite sides of said horizontal part, and capable of being mounted on the tail section of the helicopter, said base plate having a circumferential outer edge, connecting means fixedly attached to said circumferential outer edge, electronic components mounted on only one side of the base plate, and a flexible cover sealing the electronic components and reversibly connected to said base plate by said connecting means. a substantially saddle-shaped base plate comprising a substantially horizontal part and two substantially vertical parts, each of said vertical parts provided at opposite sides of said horizontal part, and capable of being mounted on the tail section of the helicopter, said base plate having a circumferential outer edge, connecting means fixedly attached to said circumferential outer edge, electronic components mounted on only one side of the base plate, and a flexible cover sealing the electronic components and reversibly connected to said base plate by said connecting means.
A medicament delivery device for the delivery of medicament from a container through a cannula, the container having a stopper for containing the medicament within the container, the device comprising: a chassis; a carriage for retaining the container and the cannula; an insertion spring for biasing the carriage in an insertion direction with respect to the chassis such that, when released, the carriage is moved from a starting position in which the cannula is shrouded to an insertion position in which the cannula is extended; and a drive mechanism for driving the stopper along a container axis to expel medicament through the cannula upon activation of the drive mechanism; wherein the drive mechanism is carried by the carriage and comprises a drive member that is movable with respect to the carriage, a drive means for biasing the drive member such that, when released, the drive means applies a driving force to the drive member along a drive axis, and force transmission means for transmitting the driving force from the drive member to the stopper; and characterised in that the drive means is arranged around or alongside at least part of the force transmission means and comprises a tension spring, wherein in the initial state of the device, said tension spring is stretched along its length to store energy. a chassis; a carriage for retaining the container and the cannula; an insertion spring for biasing the carriage in an insertion direction with respect to the chassis such that, when released, the carriage is moved from a starting position in which the cannula is shrouded to an insertion position in which the cannula is extended; and a drive mechanism for driving the stopper along a container axis to expel medicament through the cannula upon activation of the drive mechanism; wherein the drive mechanism is carried by the carriage and comprises a drive member that is movable with respect to the carriage, a drive means for biasing the drive member such that, when released, the drive means applies a driving force to the drive member along a drive axis, and force transmission means for transmitting the driving force from the drive member to the stopper; and characterised in that the drive means is arranged around or alongside at least part of the force transmission means and comprises a tension spring, wherein in the initial state of the device, said tension spring is stretched along its length to store energy.
A rotary feed-through for mounting a rotating substrate tube in a lathe and providing a flow of process gas into the tube, said feed-through comprising: - a process gas supply line for providing a process gas into said substrate tube; - a rotatable holder arranged for receiving and holding said substrate tube for rotating said substrate tube with respect to said process gas supply line; - a rotary union provided between said rotatable holder and said process gas supply line for rotatably connecting said rotatable holder to said process gas supply line; - a stationary housing connected to said process gas supply line and to said rotatable holder, therewith forming a closed cavity surrounding said rotary union, wherein said stationary housing further comprises an auxiliary gas supply line for providing said closed cavity with an auxiliary gas. - a further rotary union provided between said rotatable holder and said stationary housing for rotatably connecting said rotatable holder to said stationary housing for providing a seal between said closed cavity and an outer environment of said rotary feed through such that said closed cavity can be pressurized by said auxiliary gas. - a process gas supply line for providing a process gas into said substrate tube; - a rotatable holder arranged for receiving and holding said substrate tube for rotating said substrate tube with respect to said process gas supply line; - a rotary union provided between said rotatable holder and said process gas supply line for rotatably connecting said rotatable holder to said process gas supply line; - a stationary housing connected to said process gas supply line and to said rotatable holder, therewith forming a closed cavity surrounding said rotary union, wherein said stationary housing further comprises an auxiliary gas supply line for providing said closed cavity with an auxiliary gas. - a further rotary union provided between said rotatable holder and said stationary housing for rotatably connecting said rotatable holder to said stationary housing for providing a seal between said closed cavity and an outer environment of said rotary feed through such that said closed cavity can be pressurized by said auxiliary gas.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: transmitting, to a base station, a radio resource control, RRC, connection setup request message; receiving, from the base station, an RRC connection setup message in response to the RRC connection setup request message; transmitting, to the base station in response to the RRC connection setup message, an RRC connection setup complete message including a service type requested by the UE, wherein the RRC connection setup complete message further includes a measurement result of surrounding cells obtained by the UE; performing a communication associated with the service type with the base station or receiving a redirect message, from the base station, including information for accessing a destination base station supporting the service type requested by the UE; and in response to receiving the redirect message, performing a handover with the destination base station based on the redirect message. transmitting, to a base station, a radio resource control, RRC, connection setup request message; receiving, from the base station, an RRC connection setup message in response to the RRC connection setup request message; transmitting, to the base station in response to the RRC connection setup message, an RRC connection setup complete message including a service type requested by the UE, wherein the RRC connection setup complete message further includes a measurement result of surrounding cells obtained by the UE; performing a communication associated with the service type with the base station or receiving a redirect message, from the base station, including information for accessing a destination base station supporting the service type requested by the UE; and in response to receiving the redirect message, performing a handover with the destination base station based on the redirect message.
A flow battery (20;120) comprising: at least one cell including a first electrode, a second electrode spaced apart from the first electrode, and an electrolyte separator layer arranged between the first electrode and the second electrode; a storage portion fluidly connected with the at least one cell; at least one liquid electrolyte (22,26) including an electrochemically active specie, the at least one liquid electrolyte (22,26) being selectively deliverable to the at least one cell; and an electric circuit electrically coupled with the first electrode and the second electrode, the electric circuit including a voltage-limiting device (50;150) configured to limit a voltage potential across the first electrode and the second electrode in response to a transition of the at least one cell to or from an inactive, shut-down mode with respect to an active, charge/discharge mode; characterised in that the voltage-limiting device has a plurality of resistors, and each of the plurality of resistors is individually controllable between ON/OFF conditions. at least one cell including a first electrode, a second electrode spaced apart from the first electrode, and an electrolyte separator layer arranged between the first electrode and the second electrode; a storage portion fluidly connected with the at least one cell; at least one liquid electrolyte (22,26) including an electrochemically active specie, the at least one liquid electrolyte (22,26) being selectively deliverable to the at least one cell; and an electric circuit electrically coupled with the first electrode and the second electrode, the electric circuit including a voltage-limiting device (50;150) configured to limit a voltage potential across the first electrode and the second electrode in response to a transition of the at least one cell to or from an inactive, shut-down mode with respect to an active, charge/discharge mode; characterised in that the voltage-limiting device has a plurality of resistors, and each of the plurality of resistors is individually controllable between ON/OFF conditions.
A computer-implemented method for applying effects, comprising: receiving a text run, the text run comprising at least two adjacent characters; creating a merged text path for the text run, the creating the merged text path comprising receiving a text path for each character in the text run, the text path for each character comprising a description of the outline of the character, the merged text path being a single path representing the outline for the union of all characters within the text run, wherein any redundant pieces of characters within the text run due to overlap between characters within the text run are removed; generating a shape from the merged text path; and applying an effect to the shape. receiving a text run, the text run comprising at least two adjacent characters; creating a merged text path for the text run, the creating the merged text path comprising receiving a text path for each character in the text run, the text path for each character comprising a description of the outline of the character, the merged text path being a single path representing the outline for the union of all characters within the text run, wherein any redundant pieces of characters within the text run due to overlap between characters within the text run are removed; generating a shape from the merged text path; and applying an effect to the shape.
Tool (1, 52, 54, 56, 58, 90) for cleaning and/or drying a cavity accessible through an opening, for instance a recess in a workpiece (2, 78, 92), e.g. a bore, in particular a threaded bore, comprising a workpiece adapter (3, 94) which has a workpiece contact surface and a connection (15, 100) through which medium for cleaning and/or drying can be supplied, e.g. cleaning liquid or drying air or hot air, and which has an opening through which dirt particles and medium for cleaning and/or drying containing liquid or vapor particles can be discharged, wherein a nozzle (7, 95) with a nozzle chamber (9, 96) arranged in a housing is formed in the workpiece adapter (3, 94), which nozzle has a side wall and has an axis (11, 106), wherein the connection (15, 100) is guided through the housing of the nozzle chamber (9, 96) with a lateral offset in relation to the axis and issues into the side wall of the nozzle chamber (9, 96) with a portion of the wall which merges tangentially into the wall of the nozzle chamber (9, 96), and wherein an outflow channel (20, 99) is formed in the nozzle chamber (9, 96), said outflow channel transporting medium for cleaning and/or drying which is mixed with dirt particles to the opening (41, 112) in the workpiece adapter (3, 94), characterized in that the outflow channel (20, 99) has an axis which is aligned with the axis (11, 106) of the nozzle (7, 95).
A method for managing a terminal's uplink power, the method comprising: dividing, at a gateway, a beam coverage area into sub-beams (SB1-SB11) and each of the sub-beams into one or more frequency bins (304.1, 304.2, 304.3, 314.1, 314.2); associating a sub-beam (SB1-SB11) of the sub-beams with terminals located within the sub-beam; determining Transmit Power "TP" values comprising a confidence metric and a transmit power or attenuation for each of the one or more frequency bins (304.1, 304.2, 304.3, 314.1, 314.2) of the sub-beam (SB1-SB11); sending, from the gateway, the TP values of the sub-beam (SB1-SB11) to the terminals via a forward link (108, 108'); and receiving, at the gateway, a burst transmitted using a terminal transmit power calculated from the TP values of the sub-beam (SB1-SB11). dividing, at a gateway, a beam coverage area into sub-beams (SB1-SB11) and each of the sub-beams into one or more frequency bins (304.1, 304.2, 304.3, 314.1, 314.2); associating a sub-beam (SB1-SB11) of the sub-beams with terminals located within the sub-beam; determining Transmit Power "TP" values comprising a confidence metric and a transmit power or attenuation for each of the one or more frequency bins (304.1, 304.2, 304.3, 314.1, 314.2) of the sub-beam (SB1-SB11); sending, from the gateway, the TP values of the sub-beam (SB1-SB11) to the terminals via a forward link (108, 108'); and receiving, at the gateway, a burst transmitted using a terminal transmit power calculated from the TP values of the sub-beam (SB1-SB11).