mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication performed by a user equipment, UE, comprising: detecting, at a media access control layer of the UE, a trigger to transmit a physical random access channel, PRACH, transmission on a primary cell of a master cell group or primary secondary cell of a secondary cell group; determining the type of the trigger at the media access control layer and providing, by the media access control layer to a physical layer of the UE, information identifying the type of the trigger; allocating, by the physical layer, a transmit power for the PRACH transmission, based at least in part on a type of the trigger; and transmitting the PRACH transmission using the transmit power on the primary cell of the master cell group when the trigger is a trigger to transmit the PRACH transmission on the primary cell of the master cell group; or transmitting the PRACH transmission using the transmit power on the primary secondary cell of the secondary cell group when the trigger is a trigger to transmit the PRACH transmission on the primary secondary cell of the secondary cell group; wherein the transmit power allocated by the physical layer exceeds a maximum transmit power associated with the cell group on which the PRACH is transmitted. detecting, at a media access control layer of the UE, a trigger to transmit a physical random access channel, PRACH, transmission on a primary cell of a master cell group or primary secondary cell of a secondary cell group; determining the type of the trigger at the media access control layer and providing, by the media access control layer to a physical layer of the UE, information identifying the type of the trigger; allocating, by the physical layer, a transmit power for the PRACH transmission, based at least in part on a type of the trigger; and transmitting the PRACH transmission using the transmit power on the primary cell of the master cell group when the trigger is a trigger to transmit the PRACH transmission on the primary cell of the master cell group; or transmitting the PRACH transmission using the transmit power on the primary secondary cell of the secondary cell group when the trigger is a trigger to transmit the PRACH transmission on the primary secondary cell of the secondary cell group; wherein the transmit power allocated by the physical layer exceeds a maximum transmit power associated with the cell group on which the PRACH is transmitted.
A composition comprising a first composition, comprising at least one ethylene-based polymer; wherein the first composition further comprises a second ethylene-based polymer; wherein the first composition comprises a MWCDI value greater than 1.2, and a melt index ratio (I10/I2) that meets the following equation: I10/I2 ≥ 7.0 - 1.2 x log; wherein the first composition has a melt index ratio I10/I2 less than, or equal to, 9.2; and wherein MWCDI is determined as described in the description; and the melt indices I2 and I10 are measured in accordance with ASTM D-1238 (method B) at 190°C at 2.16 kg and 10kg load, respectively.
Method of providing a boron doped region (8, 8a, 8b) in a silicon substrate, comprising: (a) depositing a boron doping source over a first surface of the substrate; (b) annealing the substrate for diffusing boron from the boron doping source into the first surface, thereby yielding a boron doped region; (c) removing the boron doping source from at least part of the first surface; (d) depositing undoped silicon oxide over the first surface; (e) annealing the substrate for lowering a peak concentration of boron in the boron doped region (8, 8a) through boron absorption by the undoped silicon oxide. (a) depositing a boron doping source over a first surface of the substrate; (b) annealing the substrate for diffusing boron from the boron doping source into the first surface, thereby yielding a boron doped region; (c) removing the boron doping source from at least part of the first surface; (d) depositing undoped silicon oxide over the first surface; (e) annealing the substrate for lowering a peak concentration of boron in the boron doped region (8, 8a) through boron absorption by the undoped silicon oxide.
A surgical table comprising: a base for standing on a floor; a column extending from the base; a tabletop providing a patient support surface; a mechanism coupling the tabletop to the column and for enabling rotational movement of the tabletop relative to the column about two orthogonal axes, wherein one of the two orthogonal axes is parallel to the longitudinal direction of the tabletop and the other of the two orthogonal axes is parallel to the transverse direction of the tabletop, the mechanism comprising a first frame connected to the tabletop and a second frame connected to the column and rotatably mounted on the first frame about an axis that is orthogonal to both longitudinal and transverse directions of the tabletop; and first and second actuators (101, 102), each actuator being connected to a respective one of the frames for moving the respective frame about a respective one of the two orthogonal axes, wherein the first frame is connected to the column via the first actuator, and the second frame is connected to the column via the second actuator. a base for standing on a floor; a column extending from the base; a tabletop providing a patient support surface; a mechanism coupling the tabletop to the column and for enabling rotational movement of the tabletop relative to the column about two orthogonal axes, wherein one of the two orthogonal axes is parallel to the longitudinal direction of the tabletop and the other of the two orthogonal axes is parallel to the transverse direction of the tabletop, the mechanism comprising a first frame connected to the tabletop and a second frame connected to the column and rotatably mounted on the first frame about an axis that is orthogonal to both longitudinal and transverse directions of the tabletop; and first and second actuators (101, 102), each actuator being connected to a respective one of the frames for moving the respective frame about a respective one of the two orthogonal axes, wherein the first frame is connected to the column via the first actuator, and the second frame is connected to the column via the second actuator.
A control apparatus of a direct injection gasoline engine in which an exhaust valve is provided with a variable valve mechanism, the control apparatus comprising operation state determining means for determining operation state of a vehicle, wherein, when it is determined by the operation state determining means that the operation state of the vehicle is changed from constant speed operation or deceleration operation to acceleration operation, valve closing timing of the exhaust valve is advanced and fuel injection pressure is increased, wherein a range of increase in the fuel injection pressure is determined on the basis of the valve closing time of the exhaust valve, and the range of increase in the fuel injection pressure is reduced as the valve closing timing of the exhaust valve is advanced.
Apparatus (20; 40) comprising: an inverter comprising: a controllable energy source configured to output an electric quantity; and a control unit configured to control the controllable energy source such that the controllable energy source outputs the electric quantity such that, before a first slope (22; 22a-b; 36a-b) describing a change between a first level (L 1 -L 3) and a second level (L 1 -L 3) in a progression of the electric quantity, an impulse (24; 24a-b; 38a-b) comprising a second (26; 26a-b; 42a-b) and a third slope (28; 28a-b; 44a-b) of the progression is output; wherein the apparatus further includes a filter; wherein the control unit is configured to control the controllable energy source such that the impulse (24; 24a-b; 38a-b) comprises a temporal distance to the first slope (22; 22a-b; 36a-b) and such that a filter response (52a, 52b) of the filter to the impulse (24; 24a-b; 38a-b) at least partially compensates oscillations of the filter which are based on the first slope (22; 22a-b; 36a-b); wherein the control unit is configured to determine the threshold frequency of the filter and to set the temporal distance between the impulse (24; 24a-b; 38a-b) and the first slope (22; 22a-b; 36a-b) and/or a temporal duration of the impulse (24; 24a-b; 38a-b) based on the determined threshold frequency. an inverter comprising: a controllable energy source configured to output an electric quantity; and a control unit configured to control the controllable energy source such that the controllable energy source outputs the electric quantity such that, before a first slope (22; 22a-b; 36a-b) describing a change between a first level (L 1 -L 3) and a second level (L 1 -L 3) in a progression of the electric quantity, an impulse (24; 24a-b; 38a-b) comprising a second (26; 26a-b; 42a-b) and a third slope (28; 28a-b; 44a-b) of the progression is output; a controllable energy source configured to output an electric quantity; and a control unit configured to control the controllable energy source such that the controllable energy source outputs the electric quantity such that, before a first slope (22; 22a-b; 36a-b) describing a change between a first level (L 1 -L 3) and a second level (L 1 -L 3) in a progression of the electric quantity, an impulse (24; 24a-b; 38a-b) comprising a second (26; 26a-b; 42a-b) and a third slope (28; 28a-b; 44a-b) of the progression is output; wherein the apparatus further includes a filter; wherein the control unit is configured to control the controllable energy source such that the impulse (24; 24a-b; 38a-b) comprises a temporal distance to the first slope (22; 22a-b; 36a-b) and such that a filter response (52a, 52b) of the filter to the impulse (24; 24a-b; 38a-b) at least partially compensates oscillations of the filter which are based on the first slope (22; 22a-b; 36a-b); wherein the control unit is configured to determine the threshold frequency of the filter and to set the temporal distance between the impulse (24; 24a-b; 38a-b) and the first slope (22; 22a-b; 36a-b) and/or a temporal duration of the impulse (24; 24a-b; 38a-b) based on the determined threshold frequency.
Pipe connection arrangement for a high-pressure fluid line system of a dual fuel engine, comprising a first pipe element having an outer sealing cone and having a conical shoulder adjoining said cone, comprising a further pipe element having an inner sealing cone and an external thread, comprising a screw nut element having a clamping sleeve region that has an inner clamping cone and having a threaded sleeve region that has an internal thread, in which the outer sealing cone of the first pipe element is arranged at least partially in the inner sealing cone of the further pipe element and in which the internal thread of the screw nut element is screwed on the external thread of the further pipe element, with the result that the inner clamping cone of the screw nut element is pulled against the conical shoulder of the first pipe element in such a way that the outer sealing cone and the inner sealing cone are clamped to one another in a sealing manner, wherein the threaded sleeve region of the screw nut element is of conical configuration.
A magnetic resolver comprising: a stator portion having a plurality of cores, a coil portion disposed around each of the cores; and an annular rotor which has an outer periphery having a sinusoidal profile line, configured to rotate in a plane that is parallel to top faces of the cores, wherein an area by which a top face of the cores and the annular rotor overlap when viewed from above, varies as a rotation angle of the annular rotor relative to the stator portion varies, the annular rotor having a profile-varying region, which is a part of the annular rotor within a range of variation of the radius of the annular rotor, characterized in that the stator portion includes an annular plate having, on a side thereof, the plurality of cores, the annular rotor is configured to rotate around a rotation axis that passes through the center of the annular plate, the cores are columnar cores, each having a radius (r); the amplitude of the sinusoidal profile line is substantially equal to the radius r of the cores, and a middle position of the profile-varying region is offset inward, in the radial direction, with respect to the central axis of the columnar cores on the annular plate. a stator portion having a plurality of cores, a coil portion disposed around each of the cores; and an annular rotor which has an outer periphery having a sinusoidal profile line, configured to rotate in a plane that is parallel to top faces of the cores, wherein an area by which a top face of the cores and the annular rotor overlap when viewed from above, varies as a rotation angle of the annular rotor relative to the stator portion varies, the annular rotor having a profile-varying region, which is a part of the annular rotor within a range of variation of the radius of the annular rotor, characterized in that the stator portion includes an annular plate having, on a side thereof, the plurality of cores, the annular rotor is configured to rotate around a rotation axis that passes through the center of the annular plate, the cores are columnar cores, each having a radius (r); the amplitude of the sinusoidal profile line is substantially equal to the radius r of the cores, and a middle position of the profile-varying region is offset inward, in the radial direction, with respect to the central axis of the columnar cores on the annular plate.
A method of removing at least one impurity selected from the group consisting of arsenic, phosphorus and sulfur compounds from a gas or liquid stream wherein said gas or liquid stream is contacted with a copper oxide sorbent, wherein said copper oxide sorbent is produced by a method comprising combining an inorganic halide with a basic copper carbonate to produce a mixture and then calcinating said mixture for a sufficient period of time to decompose the basic copper carbonate and to produce the copper oxide sorbent.
A heat-dissipating member in the form of a sheet having a thickness of 0.1 to 0.5 mm and comprising a resin composition, wherein the resin composition contains 60 to 70% by volume of a thermally conductive filler including an agglomerated powder of hexagonal boron nitride having an average particle size of 10 to 20 μm and an orientation index defined below of 2 to 20, and an aluminum oxide powder having an average particle size of 3 to 7 μm, the average particle size and the orientation index are measured according to the description, and 30 to 40% by volume of a silicone resin, wherein the orientation index is a ratio (I002/I100) of an intensity 1002 of a diffraction line on a plane to an intensity I100 of a diffraction line on a plane according to X-ray powder diffraction, and a blending ratio between the agglomerated powder of the hexagonal boron nitride and the aluminum oxide powder in the thermally conductive filler is in the range of 4:1 to 1:1 in terms of a volume ratio. the resin composition contains 60 to 70% by volume of a thermally conductive filler including an agglomerated powder of hexagonal boron nitride having an average particle size of 10 to 20 μm and an orientation index defined below of 2 to 20, and an aluminum oxide powder having an average particle size of 3 to 7 μm, the average particle size and the orientation index are measured according to the description, and 30 to 40% by volume of a silicone resin, 60 to 70% by volume of a thermally conductive filler including an agglomerated powder of hexagonal boron nitride having an average particle size of 10 to 20 μm and an orientation index defined below of 2 to 20, and an aluminum oxide powder having an average particle size of 3 to 7 μm, the average particle size and the orientation index are measured according to the description, and 30 to 40% by volume of a silicone resin, wherein the orientation index is a ratio (I002/I100) of an intensity 1002 of a diffraction line on a plane to an intensity I100 of a diffraction line on a plane according to X-ray powder diffraction, and a blending ratio between the agglomerated powder of the hexagonal boron nitride and the aluminum oxide powder in the thermally conductive filler is in the range of 4:1 to 1:1 in terms of a volume ratio.
A method for manufacturing a liquid formulation for reaction injection molding for polymerizing a norbornene-based monomer in the presence of a metathesis polymerization catalyst comprising tungsten as a center metal, the liquid formulation comprising a norbornene-based monomer, an activator of the catalyst, and an ether compound represented by formula: wherein, each of R 1 and R 2 independently stands for a hydrogen atom or an alkyl group having from 1 to 6 carbon atoms; with proviso that at least one of R 1 and R 2 is an alkyl group having from 1 to 6 carbon atoms, the method comprising the step of mixing a liquid mixture comprising the ether compound and the activator with the norbornene-based monomer. wherein, each of R 1 and R 2 independently stands for a hydrogen atom or an alkyl group having from 1 to 6 carbon atoms; with proviso that at least one of R 1 and R 2 is an alkyl group having from 1 to 6 carbon atoms, the method comprising the step of mixing a liquid mixture comprising the ether compound and the activator with the norbornene-based monomer.
A braking arrangement for an electric motor, wherein the braking arrangement has - a brake lining carrier, - a shaft, - a magnet body, - a winding, - a housing part with braking face, - an armature disc and - a driving element, wherein the brake lining carrier and the armature disc are arranged axially between the housing part and the magnet body, wherein a seal element (40, 60) in a first axial region is connected to the housing part and in a second axial region is connected to the magnet body, wherein the seal element (40, 60) radially surrounds the armature disc and the brake lining carrier, in particular covers and/or seals off the spatial region accommodating the armature disc and the brake lining carrier from the surroundings, wherein a nose region protruding radially inwards which limits the armature disc in the axial direction is formed on the seal element (40, 60), characterised in that the driving element has an inner and an outer driving element part (41, 43) which are connected together by means of an intermediate layer, the brake lining carrier having internal gearing which is engaged with external gearing of the outer driving element part, so that the brake lining carrier is connected non-rotatably but axially displaceably to the driving element, the inner driving element part being connected non-rotatably, in particular by means of a feather-key connection, to the shaft, in particular being connected without play. wherein the braking arrangement has - a brake lining carrier, - a shaft, - a magnet body, - a winding, - a housing part with braking face, - an armature disc and - a driving element, - a brake lining carrier, - a shaft, - a magnet body, - a winding, - a housing part with braking face, - an armature disc and - a driving element, wherein the brake lining carrier and the armature disc are arranged axially between the housing part and the magnet body, wherein a seal element (40, 60) in a first axial region is connected to the housing part and in a second axial region is connected to the magnet body, wherein the seal element (40, 60) radially surrounds the armature disc and the brake lining carrier, in particular covers and/or seals off the spatial region accommodating the armature disc and the brake lining carrier from the surroundings, wherein a nose region protruding radially inwards which limits the armature disc in the axial direction is formed on the seal element (40, 60), characterised in that the driving element has an inner and an outer driving element part (41, 43) which are connected together by means of an intermediate layer, the brake lining carrier having internal gearing which is engaged with external gearing of the outer driving element part, so that the brake lining carrier is connected non-rotatably but axially displaceably to the driving element, the inner driving element part being connected non-rotatably, in particular by means of a feather-key connection, to the shaft, in particular being connected without play.
Transmucosal dental implant comprising a support adapted to be partially inserted into a maxilla or mandible bone and an element fixed to said support and adapted to receive a dental prosthesis, wherein said support has an elongated form and comprises: - in a first end area thereof, a first part adapted to be fixed into said bone, and - in a second end area thereof, a second part in the shape of a truncated cone, in contact with said element, and the cross-section of which reduces in the direction of said element; wherein said first part is adapted to be inserted into said bone, wherein said second part is adapted to be at least partially placed in an oral mucosa, wherein said second part is inclined by a second angle between 8° and 15°, wherein said support is in a single piece. - in a first end area thereof, a first part adapted to be fixed into said bone, and - in a second end area thereof, a second part in the shape of a truncated cone, in contact with said element, and the cross-section of which reduces in the direction of said element;