mhurhangee/ep-ind-claims huggingface dataset:
A convex shell for use in a base plate of an ostomy appliance, the convex shell comprises an annular ring defined by an outer edge and an inner edge defining a through-going hole, said ring further comprises at least four transition sections extending transversely across the annular ring, dividing the annular ring into at least a first, second, third and fourth segment, wherein the transition sections are provided as grooves (10, 11, 12, 13), and wherein the grooves (10, 11, 12, 13) do not extend all the way across the annular ring, and characterized in that the first and third segment is formed of a different material than the second and fourth segment. wherein the transition sections are provided as grooves (10, 11, 12, 13), and wherein the grooves (10, 11, 12, 13) do not extend all the way across the annular ring, and characterized in that the first and third segment is formed of a different material than the second and fourth segment.
A method for managing wireless transmissions from multiple transmitters, the method comprising: upon establishing a first service and a second service, performing an authorization procedure of a first device for the first service and of a second device for the second service; and upon successful authorization of the first device and the second device, registering the first device with the first service and registering the second device with the second service; indicating, by a network entity to the first device providing the first service, a first grant, the first grant including a first resource for transmitting for the first service and a second resource for retransmitting for the first service; indicating, by the network entity to the second device providing the second service, a second grant, the second grant including the first resource for transmitting for the second service and a third resource for retransmitting for the second service, wherein the first grant is indicated to the first device and the second grant is indicated to the second device to transmit without scheduling transmissions for the first service and the second service, wherein the first resource, the second resource, and the third resource are sub-transmission time intervals, sub-TTIs, or selected symbols within a TTI; and indicating, by the network entity to a third device providing a third service, a third grant, the third grant including the first resource for transmitting for the third service, wherein the first service and the second service have higher transmission reliability requirements than the third service. upon establishing a first service and a second service, performing an authorization procedure of a first device for the first service and of a second device for the second service; and upon successful authorization of the first device and the second device, registering the first device with the first service and registering the second device with the second service; indicating, by a network entity to the first device providing the first service, a first grant, the first grant including a first resource for transmitting for the first service and a second resource for retransmitting for the first service; indicating, by the network entity to the second device providing the second service, a second grant, the second grant including the first resource for transmitting for the second service and a third resource for retransmitting for the second service, wherein the first grant is indicated to the first device and the second grant is indicated to the second device to transmit without scheduling transmissions for the first service and the second service, wherein the first resource, the second resource, and the third resource are sub-transmission time intervals, sub-TTIs, or selected symbols within a TTI; and indicating, by the network entity to a third device providing a third service, a third grant, the third grant including the first resource for transmitting for the third service, wherein the first service and the second service have higher transmission reliability requirements than the third service.
A system comprising: a sensor (16, 19, 23) for obtaining information about objects (33, 34) in an environment; and one or more processing devices configured to use the information in generating or updating a map of the environment, the map comprising i. the objects (33, 34), ii. boundaries (29, 60) or landmarks (32, 61) in the environment, iii. a static score associated with each of the objects, each static score representing a likelihood that an associated of the objects will remain immobile within the environment, the likelihood being between certain immobility and certain mobility, and iv. weights on routes or on segments of routes through the map containing respective of the objects, wherein each weight represents a level of difficulty associated with traversing a respective of the routes or the segments of the routes, wherein the weights are assigned based, at least in part, on the static score of the objects on the respective route; and use the map to select a route through the environment using the weights that are assigned based, at least in part, on the static scores. a sensor (16, 19, 23) for obtaining information about objects (33, 34) in an environment; and one or more processing devices configured to use the information in generating or updating a map of the environment, the map comprising i. the objects (33, 34), ii. boundaries (29, 60) or landmarks (32, 61) in the environment, iii. a static score associated with each of the objects, each static score representing a likelihood that an associated of the objects will remain immobile within the environment, the likelihood being between certain immobility and certain mobility, and iv. weights on routes or on segments of routes through the map containing respective of the objects, wherein each weight represents a level of difficulty associated with traversing a respective of the routes or the segments of the routes, wherein the weights are assigned based, at least in part, on the static score of the objects on the respective route; and use the map to select a route through the environment using the weights that are assigned based, at least in part, on the static scores. i. the objects (33, 34), ii. boundaries (29, 60) or landmarks (32, 61) in the environment, iii. a static score associated with each of the objects, each static score representing a likelihood that an associated of the objects will remain immobile within the environment, the likelihood being between certain immobility and certain mobility, and iv. weights on routes or on segments of routes through the map containing respective of the objects, wherein each weight represents a level of difficulty associated with traversing a respective of the routes or the segments of the routes, wherein the weights are assigned based, at least in part, on the static score of the objects on the respective route; and
Scissor-type securing element, comprising two hooks pivotably connected together (2, 3) by a rotary shaft, a distal part being defined in each hook (2, 3) on one side of the shaft and a proximal part being defined on the other side of the shaft, the distal parts being intended to be introduced in a case embedded in a structure, each distal part being provided with a tooth (21, 31) and each proximal part being provided with a penetrating slot (22, 23), in which an insertion configuration is defined, in which the hooks (2, 3) are superposed and a securing configuration in which the teeth (21, 31) are in a more separated position and the hooks (2, 3) project so as to remain retained in an inner support surface of the case, the slots (22, 32) being arranged so that in the insertion configuration the ends of the slots (22, 32) closest to the shaft overlap and in the securing configuration the ends of the slots (22, 32) furthest from the shaft overlap, in which the securing element comprises a shackle, the shackle being provided with a ring for supporting the load, characterised in that said shackle further comprises two ring ends (62, 63) and a key supported by the two ends (62, 63) and inserted into the slots (22, 32), and in that the ends (41, 42) of the shaft project laterally and the ring ends (62, 63) are provided with a housing having a form complementary to the ends (41, 42) of the shaft, such that in the insertion configuration, each of the ends (41, 42) of the shaft is inserted into the housing.
Assembly for a vehicle wheel comprising a rim comprising a flange connecting a hub to an external contour, having openings, and a system for lateral protection against damage, in particular scratches on the surface coating of the rim or against impacts on the rim, said protection system coming on the front face of this rim turned towards the outside of the vehicle, the protection system comprising several protectors each having a rear part fitting into an opening, having on its rear part means for hooking around this opening, and a front face projecting forward of the transverse surface more advance of the rim, the fastening means comprising a clipping system around the opening, characterized in that the locking clips comprise studs protruding from the rear side, allowing an operator to grasp them in order to move them away from the contour of the opening.
A rolling apparatus for a flat-rolled metal material, the rolling apparatus having at least a pair of upper and lower work rolls (1, 2) and a pair of upper and lower backup rolls (3, 4), the rolling apparatus comprising: a pair of work roll chocks (5, 6) configured to hold the respective work rolls (1, 2); housings or project blocks (11, 12) configured to hold the work roll chocks (5, 6); and one or more load detection devices (21, 22, 23, 24) each detecting a load acting on one of the work roll chocks (5, 6) on at least one of an entry side in a rolling direction and an exit side in the rolling direction, the rolling apparatus characterised in that said one ore more load detecting devices are provided in one of the work roll chocks (5, 6) in a manner that the one or more load detection devices (21, 22, 23, 24) face one of the housings or one of the project blocks (11, 12), and in that each of the work roll chocks (5, 6) has at least one of the load detection devices (21, 22, 23, 24) disposed in a manner that a point of effort of each of the work rolls (1, 2) in a rolling direction force is included within a range defined by one or more load detection devices (21, 22, 23, 24) such that a rotation moment generated on each of the work roll chocks (5, 6) caused by the rolling direction force is equal to a counter rotation moment generated by counterforce against the rotation moment. a pair of work roll chocks (5, 6) configured to hold the respective work rolls (1, 2); housings or project blocks (11, 12) configured to hold the work roll chocks (5, 6); and one or more load detection devices (21, 22, 23, 24) each detecting a load acting on one of the work roll chocks (5, 6) on at least one of an entry side in a rolling direction and an exit side in the rolling direction, the rolling apparatus characterised in that said one ore more load detecting devices are provided in one of the work roll chocks (5, 6) in a manner that the one or more load detection devices (21, 22, 23, 24) face one of the housings or one of the project blocks (11, 12), and in that each of the work roll chocks (5, 6) has at least one of the load detection devices (21, 22, 23, 24) disposed in a manner that a point of effort of each of the work rolls (1, 2) in a rolling direction force is included within a range defined by one or more load detection devices (21, 22, 23, 24) such that a rotation moment generated on each of the work roll chocks (5, 6) caused by the rolling direction force is equal to a counter rotation moment generated by counterforce against the rotation moment.
A mount for supporting a suspension on a chassis, comprising a first part including a first core, a first sleeve and a resilient first body, a second part including a second core, a second sleeve and a resilient second body, wherein the first core includes a first core protrusion extending radially outward from the first core, wherein the first sleeve includes a first sleeve protrusion extending radially inward from the first sleeve, wherein a radially most inward part of the first sleeve protrusion is positioned closer to the first core than a radially most outward part of the first core protrusion, wherein the first body is fixed to the first core protrusion and to the first sleeve protrusion for providing a spring in an axial direction of the mount, wherein the second body is fixed to the second core and to the second sleeve, and wherein the second sleeve is, preferably completely, inserted into the first sleeve such that an outer surface of the second sleeve is in contact with an inner surface of the first sleeve characterized in that the second core includes a second core protrusion extending radially outward from the second core, wherein the second sleeve includes a second sleeve protrusion extending radially inward from the second sleeve, wherein a radially most inward part of the second sleeve protrusion is positioned closer to the second core than a radially most outward part of the second core protrusion, and wherein preferably a radially most inward part of the first sleeve protrusion is positioned closer to the first core than a radially most outward part of the second core protrusion. a first part including a first core, a first sleeve and a resilient first body, a second part including a second core, a second sleeve and a resilient second body, wherein the first core includes a first core protrusion extending radially outward from the first core, wherein the first sleeve includes a first sleeve protrusion extending radially inward from the first sleeve, wherein a radially most inward part of the first sleeve protrusion is positioned closer to the first core than a radially most outward part of the first core protrusion, wherein the first body is fixed to the first core protrusion and to the first sleeve protrusion for providing a spring in an axial direction of the mount, wherein the second body is fixed to the second core and to the second sleeve, and wherein the second sleeve is, preferably completely, inserted into the first sleeve such that an outer surface of the second sleeve is in contact with an inner surface of the first sleeve characterized in that the second core includes a second core protrusion extending radially outward from the second core, wherein the second sleeve includes a second sleeve protrusion extending radially inward from the second sleeve, wherein a radially most inward part of the second sleeve protrusion is positioned closer to the second core than a radially most outward part of the second core protrusion, and wherein preferably a radially most inward part of the first sleeve protrusion is positioned closer to the first core than a radially most outward part of the second core protrusion.
A fluid-filled vibration damping device (10, 98, 114) including: a first mounting member; a second mounting member; a main rubber elastic body elastically connecting the first and second mounting members (12, 14); a partition plate (50, 106, 124) supported by the second mounting member; a pressure-receiving chamber disposed on one side of the partition plate (50, 106, 124) and filled with a non-compressible fluid; an equilibrium chamber disposed on another side of the partition plate (50, 106, 124) and filled with the non-compressible fluid; a first orifice passage which connects the pressure-receiving chamber and the equilibrium chamber; a moveable film (54, 110, 128) arranged to either a pressure-receiving chamber side or an equilibrium chamber side of the partition plate (50, 106, 124) and being spaced a prescribed distance away therefrom to define an intermediate chamber situated between opposed faces of the partition plate (50, 106, 124) and the moveable film (54, 110, 128) such that the moveable film (54, 110, 128) is elastically deformable while being held at an outer peripheral edge thereof; a second orifice passage which connects the intermediate chamber and one of the pressure-receiving chamber and the equilibrium chamber which are separated from the intermediate chamber by the partition plate (50,106, 124), the second orifice passage being tuned to higher frequency than the first orifice passage; and the fluid-filled vibration damping device (10,98,114) being characterised by comprising: a flow straightening plate (42, 43, 74, 103, 104, 130) wherein the flow straightening plate (42, 43, 74, 103, 104, 130) being positioned on the opposite side of the moveable film (54, 110, 128) to the intermediate chamber so that the equilibrium chamber and the intermediate chamber are partitioned by the flow straightening plate (42, 43, 74, 103, 104, 130), the flow straightening plate (42, 43, 74, 103, 104, 130) having a plurality of flow straightening apertures formed therein opening towards the moveable film (54, 110, 128) and being furnished with flow limiting means (78, 86) adapted to limit fluid flow level through the flow straightening apertures.
An apparatus for driving an optical-reflector with a multi-axial structure, comprising: a support frame having a first groove rail formed therein; an optical-reflector disposed on the support frame to reflect light to a lens; a middle frame having a first guide rail corresponding to the first groove rail and a second groove rail formed therein; a base frame having a second guide rail formed corresponding to the second groove rail; a first driving unit configured to move the support frame in a first direction on the basis of the middle frame; and a second driving unit configured to move the middle frame in a second direction perpendicular to the first direction, on the basis of the base frame, wherein the first groove rail elongates in the first direction and guides rotation in the first direction and has a rounded shape, the second groove rail elongates in the second direction and guides rotation in the second direction and has a rounded shape, wherein the support frame rotates along a path corresponding to the first groove rail or the first guide rail and the middle frame rotates along a path corresponding to the second groove rail or the second guide rail. a support frame having a first groove rail formed therein; an optical-reflector disposed on the support frame to reflect light to a lens; a middle frame having a first guide rail corresponding to the first groove rail and a second groove rail formed therein; a base frame having a second guide rail formed corresponding to the second groove rail; a first driving unit configured to move the support frame in a first direction on the basis of the middle frame; and a second driving unit configured to move the middle frame in a second direction perpendicular to the first direction, on the basis of the base frame, wherein the first groove rail elongates in the first direction and guides rotation in the first direction and has a rounded shape, the second groove rail elongates in the second direction and guides rotation in the second direction and has a rounded shape, wherein the support frame rotates along a path corresponding to the first groove rail or the first guide rail and the middle frame rotates along a path corresponding to the second groove rail or the second guide rail.
Method in a base station for predicting interference contribution, when scheduling an uplink data packet transmission from a first user equipment being connected to the base station, the first user equipment being in the neighbourhood of a neighbouring cell served by a neighbouring base station, the method comprising the steps of: obtaining signal strength measurements regarding the first user equipment, which signal strength measurements are based on a downlink signal between the first user equipment and the neighbouring base station; receiving a resource scheduling request regarding the first user equipment for the uplink data packet transmission; scheduling uplink resources for the requested uplink data packet transmission, determining transmission power (P SUR) to be used for the scheduled uplink resources, and estimating an interference prediction contribution (I PC) contributed by the scheduled uplink data packet transmission based on the determined transmission power (P SUR,) and the obtained signal strength, the method being characterized by further comprising: sending the estimated interference prediction contribution (I PC) to the neighbouring base station that the first user equipment were receiving signal from before or at the same time as a scheduling grant is sent to the first user equipment, and wherein the estimated interference prediction contribution (I PC) will be used by neighbouring base station in scheduling, link adaptation or closed loop power control. obtaining signal strength measurements regarding the first user equipment, which signal strength measurements are based on a downlink signal between the first user equipment and the neighbouring base station; receiving a resource scheduling request regarding the first user equipment for the uplink data packet transmission; scheduling uplink resources for the requested uplink data packet transmission, determining transmission power (P SUR) to be used for the scheduled uplink resources, and estimating an interference prediction contribution (I PC) contributed by the scheduled uplink data packet transmission based on the determined transmission power (P SUR,) and the obtained signal strength, the method being characterized by further comprising: sending the estimated interference prediction contribution (I PC) to the neighbouring base station that the first user equipment were receiving signal from before or at the same time as a scheduling grant is sent to the first user equipment, and wherein the estimated interference prediction contribution (I PC) will be used by neighbouring base station in scheduling, link adaptation or closed loop power control. sending the estimated interference prediction contribution (I PC) to the neighbouring base station that the first user equipment were receiving signal from before or at the same time as a scheduling grant is sent to the first user equipment, and wherein the estimated interference prediction contribution (I PC) will be used by neighbouring base station in scheduling, link adaptation or closed loop power control.
A method for detecting a rotating stall adversely affecting a compressor of a turbojet engine, characterized in that it comprises: - a step of determining (E90,E100) a level of variation of a static pressure in a combustion chamber of the turbojet engine around an average value of said static pressure; - a step of comparing the level of variation of the static pressure relative to a first threshold; - a step of comparing a temperature measured at the outlet of a turbine of the turbojet engine relative to a second threshold; and - if the level of variation of the static pressure is greater than the first threshold and the temperature at the outlet of the turbine is greater than the second threshold, a step of detecting the presence of a rotating stall. - a step of determining (E90,E100) a level of variation of a static pressure in a combustion chamber of the turbojet engine around an average value of said static pressure; - a step of comparing the level of variation of the static pressure relative to a first threshold; - a step of comparing a temperature measured at the outlet of a turbine of the turbojet engine relative to a second threshold; and - if the level of variation of the static pressure is greater than the first threshold and the temperature at the outlet of the turbine is greater than the second threshold, a step of detecting the presence of a rotating stall.