mhurhangee/ep-ind-claims huggingface dataset:
A method in a wireless device, comprising: sending a scheduling request to a network node; receiving, from the network node in response to the scheduling request, a grant of uplink resources; characterized by determining whether the granted uplink resources are at least equal to or larger than the resources required for transmission of both a buffer status report, BSR, and a sidelink BSR; and upon determining that the granted uplink resources are not at least equal to or larger than the resources required for transmission of both the BSR and the sidelink BSR, communicating the BSR and a truncated sidelink BSR to the network node in a single MAC PDU, communicating a truncated BSR and the sidelink BSR to the network node in a single MAC PDU, or communicating a truncated BSR and a truncated sidelink BSR to the network node in a single MAC PDU. sending a scheduling request to a network node; receiving, from the network node in response to the scheduling request, a grant of uplink resources; characterized by determining whether the granted uplink resources are at least equal to or larger than the resources required for transmission of both a buffer status report, BSR, and a sidelink BSR; and upon determining that the granted uplink resources are not at least equal to or larger than the resources required for transmission of both the BSR and the sidelink BSR, communicating the BSR and a truncated sidelink BSR to the network node in a single MAC PDU, communicating a truncated BSR and the sidelink BSR to the network node in a single MAC PDU, or communicating a truncated BSR and a truncated sidelink BSR to the network node in a single MAC PDU.
Method for trench shoring, in which a trench is excavated and a first shoring device is inserted into the trench and a second shoring device is inserted into the trench below the first shoring device, wherein • the first shoring device has at least two oppositely arranged first linear guides (13, 29) which are lowered into the trench, • the second shoring device has at least two oppositely arranged second linear guides (13', 29') which are arranged within the first linear guides (13, 29) and are lowered into the trench below the first linear guides (13, 29), • wherein each linear guide (13, 29, 13', 29') is connected or can be connected to at least one shoring plate (4, 5, 28, 4', 5', 28'), characterised in that • during the lowering of the first linear guides (13, 29) into the trench, one of the second linear guides (13', 29') is fastened on each of the first linear guides (13, 29) such that the lower ends of the second linear guides (13', 29') are located at a distance above the closest lower ends of the first linear guides (13, 29), wherein a spreading device (3, 3', 30') is inserted between the second linear guides (13', 29'), • after the lowering of the first linear guides (13, 29) into the trench, the second linear guides (13', 29') are detached from the first linear guides (13, 29) and are lowered down to the base of the trench, • during further excavation of the trench, the second linear guide pair is lowered and a spreading device (3, 30) is inserted between the first linear guide pair (13, 29). • the first shoring device has at least two oppositely arranged first linear guides (13, 29) which are lowered into the trench, • the second shoring device has at least two oppositely arranged second linear guides (13', 29') which are arranged within the first linear guides (13, 29) and are lowered into the trench below the first linear guides (13, 29), • wherein each linear guide (13, 29, 13', 29') is connected or can be connected to at least one shoring plate (4, 5, 28, 4', 5', 28'), • during the lowering of the first linear guides (13, 29) into the trench, one of the second linear guides (13', 29') is fastened on each of the first linear guides (13, 29) such that the lower ends of the second linear guides (13', 29') are located at a distance above the closest lower ends of the first linear guides (13, 29), wherein a spreading device (3, 3', 30') is inserted between the second linear guides (13', 29'), • after the lowering of the first linear guides (13, 29) into the trench, the second linear guides (13', 29') are detached from the first linear guides (13, 29) and are lowered down to the base of the trench, • during further excavation of the trench, the second linear guide pair is lowered and a spreading device (3, 30) is inserted between the first linear guide pair (13, 29).
An electronic device, comprising at least one first component, at least one second component, and a heat-dissipating base, comprising: a main body; at least one first protrusion disposed on the main body, wherein the at least one first protrusion has at least one first protrusion top surface for thermally contacting at least one first component above the main body; at least one second protrusion disposed on the main body, wherein the at least one second protrusion has at least one second protrusion side surface for thermally contacting at least one second component above the main body, an accommodating trough being formed by the second protrusion and the second protrusion side surface of the second protrusion thermally contacts the second component disposed in the accommodating trough; and a potting glue being provided in the accommodating through in a gap (G') between the at least one second component and the second protrusion side surface. a main body; at least one first protrusion disposed on the main body, wherein the at least one first protrusion has at least one first protrusion top surface for thermally contacting at least one first component above the main body; at least one second protrusion disposed on the main body, wherein the at least one second protrusion has at least one second protrusion side surface for thermally contacting at least one second component above the main body, an accommodating trough being formed by the second protrusion and the second protrusion side surface of the second protrusion thermally contacts the second component disposed in the accommodating trough; and a potting glue being provided in the accommodating through in a gap (G') between the at least one second component and the second protrusion side surface.
Agricultural baler, comprising: - a plunger for compressing harvested material to a bale in a chamber; - a crank mechanism connected to the plunger for the purpose of driving the plunger, the crank mechanism comprises: at least one first crank and at least one second crank and a drive mechanism for driving the first crank and the second crank; characterised in that the drive mechanism is configured such that, when the first and second crank are driven, the first crank and the second crank rotate in opposite directions. - a plunger for compressing harvested material to a bale in a chamber; - a crank mechanism connected to the plunger for the purpose of driving the plunger, the crank mechanism comprises: at least one first crank and at least one second crank and a drive mechanism for driving the first crank and the second crank;
A method of using a photonic link, the method comprising: transmitting light using an optical emitter; splitting, using an input coupler, the light into a first path and a second path, the first path being provided to a modulator that modulates the light transmitted along the first path based on a radio frequency signal, and the second path being provided to a phase shifter; combining, using an output coupler, an output of the modulator and an output of the phase shifter; monitoring, using a controller, an output of a photodetector coupled to an output of the output coupler; identifying, using the controller, based on the output of the photodetector, a modulator phase angle that reduces a third order distortion at an output of the output coupler; applying, using the controller, a first bias voltage to the modulator to maintain the identified modulator phase angle; applying, using the controller, based on the output of the photodetector, a control signal to the phase shifter to maintain a phase difference between the output of the modulator and the output of the phase shifter; and generating, using the controller, a radio frequency output of the photonic link. transmitting light using an optical emitter; splitting, using an input coupler, the light into a first path and a second path, the first path being provided to a modulator that modulates the light transmitted along the first path based on a radio frequency signal, and the second path being provided to a phase shifter; combining, using an output coupler, an output of the modulator and an output of the phase shifter; monitoring, using a controller, an output of a photodetector coupled to an output of the output coupler; identifying, using the controller, based on the output of the photodetector, a modulator phase angle that reduces a third order distortion at an output of the output coupler; applying, using the controller, a first bias voltage to the modulator to maintain the identified modulator phase angle; applying, using the controller, based on the output of the photodetector, a control signal to the phase shifter to maintain a phase difference between the output of the modulator and the output of the phase shifter; and generating, using the controller, a radio frequency output of the photonic link.
A clamping mechanism comprising: a drive; a shaft connected to the drive; an eccentric hub; a fixed support structure that supports the eccentric hub such that the eccentric hub can rotate; and a moving pillow block that is connected to the eccentric hub at a pillow bearing such that the moving pillow block is driven substantially linearly based on rotational motion of the eccentric hub and serves to clamp an object between the moving pillow block and a fixed structure adjacent to the moving pillow block, the clamping mechanism creating a mechanically locked condition when an axis of the shaft, an axis of the pillow bearing and an axis of the eccentric hub are substantially aligned normal to the direction of movement of the moving pillow block, the clamping mechanism comprising no other lock element, characterized in that the eccentric hub is driven to rotate back and forth about an angle less than approximately 130° by the shaft. a drive; a shaft connected to the drive; an eccentric hub; a fixed support structure that supports the eccentric hub such that the eccentric hub can rotate; and a moving pillow block that is connected to the eccentric hub at a pillow bearing such that the moving pillow block is driven substantially linearly based on rotational motion of the eccentric hub and serves to clamp an object between the moving pillow block and a fixed structure adjacent to the moving pillow block, the clamping mechanism creating a mechanically locked condition when an axis of the shaft, an axis of the pillow bearing and an axis of the eccentric hub are substantially aligned normal to the direction of movement of the moving pillow block, the clamping mechanism comprising no other lock element, characterized in that the eccentric hub is driven to rotate back and forth about an angle less than approximately 130° by the shaft.
A method of making an electrical stimulation lead, the method comprising: individually disposing a plurality of segmented electrodes on a plurality of pins disposed on an interior surface within a mold, wherein each of the segmented electrodes has at least one opening formed in the exterior surface of the segmented electrode to receive at least one of the pins so that the segmented electrodes can be positioned in a predetermined arrangement within the mold with the segmented electrodes spaced apart from each other; attaching a conductor wire to each of the segmented electrodes; molding a lead body (110; 310) between the segmented electrodes disposed in the mold; and removing the lead body (110; 310), segmented electrodes, and conductors from the mold. individually disposing a plurality of segmented electrodes on a plurality of pins disposed on an interior surface within a mold, wherein each of the segmented electrodes has at least one opening formed in the exterior surface of the segmented electrode to receive at least one of the pins so that the segmented electrodes can be positioned in a predetermined arrangement within the mold with the segmented electrodes spaced apart from each other; attaching a conductor wire to each of the segmented electrodes; molding a lead body (110; 310) between the segmented electrodes disposed in the mold; and removing the lead body (110; 310), segmented electrodes, and conductors from the mold.
A furniture panel, in particular a furniture front, wherein the panel has a support panel and a cover, wherein the cover has a space in which the support panel is received, with the space and the support panel being dimensioned such that the cover can be placed onto the support panel and is fixed on the support panel in its placed on position by force fit and/or by form fit, wherein the support panel has one or more through-holes so that the cover can be pressed away from the support panel through one or more through-holes, and wherein the support plate has one or more fittings that are located on the side of the furniture panel remote from the cover, characterized in that the fitting or fittings are arranged in said through-hole or through-holes.
A light emitting panel assembly (10, 100) comprising: a housing (12, 112); a generally planar light guide (14, 114) and an opposing generally planar light guide (14, 114) within the housing, the opposing light guide positioned in lateral opposition to the light guide, the light guide and the opposing light guide defining lateral boundaries of a cavity (13, 113) therebetween, the light guide and the opposing light guide each comprising: a first major surface comprising a plurality of extraction elements (30, 130), a second major surface, a lower end surface (29, 129), an upper end surface, a light source and an opposing light source adjacent to the corresponding one of the lower end surfaces of the light guides and adjacent to lowermost portions of the housing; an upper guide reflector (18, 118) and an opposing upper guide reflector each comprising a diffuse reflective surface adjacent to and facing the corresponding one of the upper end surfaces of the light guides; and, an upper reflector (22, 122) defining an upper boundary of the cavity, wherein light from the light source and the opposing light source travelling through the light guide and the opposing light guide toward the respective upper guide reflector and opposing upper guide reflector spreads within the light guide and the opposing light guide, and whereby the upper guide reflector and the opposing upper guide reflector homogenize the light before the light is redirected to the light guide and the opposing light guide. a housing (12, 112); a generally planar light guide (14, 114) and an opposing generally planar light guide (14, 114) within the housing, the opposing light guide positioned in lateral opposition to the light guide, the light guide and the opposing light guide defining lateral boundaries of a cavity (13, 113) therebetween, the light guide and the opposing light guide each comprising: a first major surface comprising a plurality of extraction elements (30, 130), a second major surface, a lower end surface (29, 129), an upper end surface, a first major surface comprising a plurality of extraction elements (30, 130), a second major surface, a lower end surface (29, 129), an upper end surface, a light source and an opposing light source adjacent to the corresponding one of the lower end surfaces of the light guides and adjacent to lowermost portions of the housing; an upper guide reflector (18, 118) and an opposing upper guide reflector each comprising a diffuse reflective surface adjacent to and facing the corresponding one of the upper end surfaces of the light guides; and, an upper reflector (22, 122) defining an upper boundary of the cavity, wherein light from the light source and the opposing light source travelling through the light guide and the opposing light guide toward the respective upper guide reflector and opposing upper guide reflector spreads within the light guide and the opposing light guide, and whereby the upper guide reflector and the opposing upper guide reflector homogenize the light before the light is redirected to the light guide and the opposing light guide.
A trace gas leak detector comprising: a test port to receive a sample containing a trace gas, the test port connected to a test line; a mass spectrometer to detect the trace gas, the mass spectrometer having an inlet; a high vacuum pump having an inlet port coupled to the inlet of the mass spectrometer, the high vacuum pump having an exhaust port; and a forepump having a main inlet, an intermediate inlet (60, 66) and an exhaust port, the main inlet coupled to the exhaust port of the high vacuum pump, the intermediate inlet (60, 66) controllably connected to the test line, characterised by at least one further intermediate inlet controllably connected to the test line, and in that: the intermediate inlets (60, 66) are connected to different locations in a working volume of the forepump; the forepump is selected from the group consisting of a scroll vacuum pump and a screw vacuum pump and is a type that permits locations of the intermediate inlets (60, 66) at a range of positions between the main inlet and the exhaust port; and one of the intermediate inlets (60, 66) is selectable according to an expected test line pressure in a particular application. a test port to receive a sample containing a trace gas, the test port connected to a test line; a mass spectrometer to detect the trace gas, the mass spectrometer having an inlet; a high vacuum pump having an inlet port coupled to the inlet of the mass spectrometer, the high vacuum pump having an exhaust port; and a forepump having a main inlet, an intermediate inlet (60, 66) and an exhaust port, the main inlet coupled to the exhaust port of the high vacuum pump, the intermediate inlet (60, 66) controllably connected to the test line, characterised by at least one further intermediate inlet controllably connected to the test line, and in that: the intermediate inlets (60, 66) are connected to different locations in a working volume of the forepump; the forepump is selected from the group consisting of a scroll vacuum pump and a screw vacuum pump and is a type that permits locations of the intermediate inlets (60, 66) at a range of positions between the main inlet and the exhaust port; and one of the intermediate inlets (60, 66) is selectable according to an expected test line pressure in a particular application. the intermediate inlets (60, 66) are connected to different locations in a working volume of the forepump; the forepump is selected from the group consisting of a scroll vacuum pump and a screw vacuum pump and is a type that permits locations of the intermediate inlets (60, 66) at a range of positions between the main inlet and the exhaust port; and one of the intermediate inlets (60, 66) is selectable according to an expected test line pressure in a particular application.
Video decoder apparatus for decoding a motion-compensated transform-coded video stream, the apparatus having: a first mode in which it is operable to decode the video stream at a first resolution, and wherein a motion-compensation step of the decoding is performed in the image-domain, whereby a reference frame for said motion-compensation step consists of pixel values in the image-domain; and a second mode in which it is operable to decode the video stream at a second resolution lower that the full resolution and wherein at least one motion-compensation step is performed in the transform-domain, whereby a reference frame for said at least one motion-compensation step consists of transform coefficients in the transform-domain, the decoder being adapted to switch between the two modes while decoding the video stream. a first mode in which it is operable to decode the video stream at a first resolution, and wherein a motion-compensation step of the decoding is performed in the image-domain, whereby a reference frame for said motion-compensation step consists of pixel values in the image-domain; and a second mode in which it is operable to decode the video stream at a second resolution lower that the full resolution and wherein at least one motion-compensation step is performed in the transform-domain, whereby a reference frame for said at least one motion-compensation step consists of transform coefficients in the transform-domain, the decoder being adapted to switch between the two modes while decoding the video stream.
An apparatus comprising: a tank (102; 202; 302) having an inlet and an outlet (114; 214; 314) and a flow path defined therebetween; and a shut-off valve (105; 205), characterized in that the shut-off valve comprises: a float (106; 206; 306) that occludes the tank outlet at a first fluid level and 1 G (F G) and unoccludes the tank outlet at a second fluid level and 1 G; and a negative G control component (108; 208; 308) operatively connected to the float to limit fluid flow from the tank outlet during negative G events; and in that: the negative G control component includes a biasing component (116; 216; 316); the biasing component is configured to apply a biasing force (F bias; F latch) to the float; the biasing force is greater than a pre-determined negative G event force (F -G) and less than the buoyancy force (F B) of the float at 1 G; in an unoccluded position the biasing force of the biasing component is less than the buoyancy force of the float at 1 G; and the flow path direction is in the same direction as the biasing force acting on the float. a tank (102; 202; 302) having an inlet and an outlet (114; 214; 314) and a flow path defined therebetween; and a shut-off valve (105; 205), characterized in that the shut-off valve comprises: a float (106; 206; 306) that occludes the tank outlet at a first fluid level and 1 G (F G) and unoccludes the tank outlet at a second fluid level and 1 G; and a negative G control component (108; 208; 308) operatively connected to the float to limit fluid flow from the tank outlet during negative G events; a float (106; 206; 306) that occludes the tank outlet at a first fluid level and 1 G (F G) and unoccludes the tank outlet at a second fluid level and 1 G; and a negative G control component (108; 208; 308) operatively connected to the float to limit fluid flow from the tank outlet during negative G events; and in that: the negative G control component includes a biasing component (116; 216; 316); the biasing component is configured to apply a biasing force (F bias; F latch) to the float; the biasing force is greater than a pre-determined negative G event force (F -G) and less than the buoyancy force (F B) of the float at 1 G; in an unoccluded position the biasing force of the biasing component is less than the buoyancy force of the float at 1 G; and the flow path direction is in the same direction as the biasing force acting on the float. the negative G control component includes a biasing component (116; 216; 316); the biasing component is configured to apply a biasing force (F bias; F latch) to the float; the biasing force is greater than a pre-determined negative G event force (F -G) and less than the buoyancy force (F B) of the float at 1 G; in an unoccluded position the biasing force of the biasing component is less than the buoyancy force of the float at 1 G; and the flow path direction is in the same direction as the biasing force acting on the float.