mhurhangee/ep-ind-claims huggingface dataset:
A communication method for dual connectivity, comprising: sending, by a first node (MN, SN), first indication information to a second node (SN, MN), wherein the first indication information is used for indicating a first actual limit value, wherein the first actual limit value is an actual maximum quantity of reporting criteria for measurement on a second cell configurable by the second node (SN, MN), and the first node (MN, SN) and the second node (SN, MN) are respectively nodes of the first cell and the second cell under a dual connectivity network in which a terminal device is located, and requesting, by the first node (MN, SN), the second node (SN, MN) to send second indication information, wherein the first indication information is carried in an inter-node Radio Resource Control, RRC, message between the first node (MN, SN) and the second node (SN, MN), and wherein the second indication information is used for indicating a second quantity, wherein the second quantity is a quantity of reporting criteria for measurement on the second cell configured by the second node (SN, MN). sending, by a first node (MN, SN), first indication information to a second node (SN, MN), wherein the first indication information is used for indicating a first actual limit value, wherein the first actual limit value is an actual maximum quantity of reporting criteria for measurement on a second cell configurable by the second node (SN, MN), and the first node (MN, SN) and the second node (SN, MN) are respectively nodes of the first cell and the second cell under a dual connectivity network in which a terminal device is located, and requesting, by the first node (MN, SN), the second node (SN, MN) to send second indication information, wherein the first indication information is carried in an inter-node Radio Resource Control, RRC, message between the first node (MN, SN) and the second node (SN, MN), and wherein the second indication information is used for indicating a second quantity, wherein the second quantity is a quantity of reporting criteria for measurement on the second cell configured by the second node (SN, MN).
An aqueous polarizing dye dispersion comprising a plurality of polarizing dye molecules and a non-ionic surfactant material, characterized in that said non-ionic surfactant material comprises a plurality of surfactant molecules represented by the following general formula: wherein: the average of the number n of all the surfactant molecules ranges from 9 to 200; m is 1 or 2; R, identical or different for each surfactant molecule and each occurrence, independently is an alkyl; at least one R on each surfactant molecule is a C6-C12 straight-chain or branched alkyl; and X, identical or different for each surfactant molecule, independently is an H or a C1-C4 alkyl; said plurality of surfactant molecules being divided into the following two groups and:, having a total number of molecules MA, wherein the average of the number n of all the molecules ranges from 5 to 20; and, having a total number of molecules MB, wherein the average of the number n of all the molecules ranges from 30 to 200; wherein the ratio MA/MB ranges from 1/10 to 10/1. the average of the number n of all the surfactant molecules ranges from 9 to 200; m is 1 or 2; R, identical or different for each surfactant molecule and each occurrence, independently is an alkyl; at least one R on each surfactant molecule is a C6-C12 straight-chain or branched alkyl; and X, identical or different for each surfactant molecule, independently is an H or a C1-C4 alkyl; said plurality of surfactant molecules being divided into the following two groups and:, having a total number of molecules MA, wherein the average of the number n of all the molecules ranges from 5 to 20; and, having a total number of molecules MB, wherein the average of the number n of all the molecules ranges from 30 to 200; wherein the ratio MA/MB ranges from 1/10 to 10/1., having a total number of molecules MA, wherein the average of the number n of all the molecules ranges from 5 to 20; and, having a total number of molecules MB, wherein the average of the number n of all the molecules ranges from 30 to 200; wherein the ratio MA/MB ranges from 1/10 to 10/1.
Device for the mechanical lysis of biological species contained in a fluid, comprising a first wall (21, 71) and a second wall mounted movable relative to one another between an initial position in which the first and second walls are drawn apart and a lysis position in which the first wall presses against the second wall, the first and second walls also being mounted movable under shear relative to one another in the lysis position, characterized in that at least one of the first and second walls has a rough bearing surface against the other wall and has an average surface roughness parameter Ra of between 0.2 μm and 10 μm, preferably between 0.2 μm and 3 μm.
A resin-made container_ comprising: a container body that is made of resin having a tubular portion formed in a tubular shape and configured to allow a label to be wrapped therearound, and a bottom portion closing one end of the tubular portion in a direction of an axis of the tubular portion, wherein the tubular portion includes a flat area in an area covered by the label, wherein the tubular portion includes a rib-shaped portion formed around the entire periphery with the axis of the tubular portion as a center, and a pair of bulging portions formed closer to both end sides in the direction of the axis than the rib-shaped portion and further bulging to an outer side of the container body than the rib-shaped portion, and the flat area is formed between at least one of the bulging portions and the rib-shaped portion, the resin-made container characterized in that: it includes at least one recess formed so as to enclose a certain area in the flat area, and the flat area is formed along the axis of the tubular portion, without being curved to the outer side of the container body. it includes at least one recess formed so as to enclose a certain area in the flat area, and the flat area is formed along the axis of the tubular portion, without being curved to the outer side of the container body.
Pneumatic vehicle tyre for utility vehicles, having a carcass, having a belt constructed radially outside the carcass and having a profiled tread which is constructed on the belt radially above the belt, wherein the belt is formed from at least three belt plies (13, 14, 15) which are arranged from radially inside to radially outside, in particular so as to lie one on top of the other, the radially inner and the radially outer of which belt plies are in the form of working plies with parallel strength members (23, 25) which are composed of steel and embedded in rubber, wherein the strength members of the radially inner working ply, in their orientation, enclose an angle α with the circumferential direction U, where 10° ≤ α ≤ 45°, and the strength members of the radially outer working ply, in their orientation, enclose an angle γ with the circumferential direction U, where 10° ≤ γ ≤ 45°, and wherein, as viewed in the circumferential direction U of the vehicle tyre, the strength members of the radially inner working ply have an axial direction of inclination opposite to that of the strength members of the radially outer working ply, wherein the belt ply arranged radially between said two working plies (13, 15) is in three parts as viewed in the axial direction A of the pneumatic vehicle tyre, namely two axially outer marginal ply sections (18, 19) and a central ply section arranged between said marginal ply sections, wherein the two marginal ply sections (18, 19) are in the form of zero-degree plies with parallel - in particular filiform - strength members (28, 29) which are embedded in rubber and which, in their orientation, enclose an angle β with the circumferential direction U, where 0° ≤ β ≤ 5°, and wherein the central ply section is formed with strength members which are embedded in rubber and which, in their orientation, enclose an angle η with the circumferential direction U, where 5° < η ≤ 90°, characterized in that, radially within the radially outer working ply, between the outer working ply and the belt ply, there is formed a further belt ply which is in three parts as viewed in the axial direction A of the pneumatic vehicle tyre, namely two axially outer marginal ply sections (32, 33) and a central ply section arranged axially between said marginal ply sections, in that the two marginal ply sections (32, 33) are formed with strength members (35, 36) which are embedded in rubber and which, in their orientation, enclose an angle ζ with the circumferential direction U, where 5° < ζ ≤ 90°, and in that the central ply section is in the form of a zero-degree ply with parallel strength members which are embedded in rubber and which, in their orientation, enclose an angle θ with the circumferential direction U, where 0° ≤ θ ≤ 5°.
A sintered sliding body having a composition comprising, by mass%, 10% to 35% of Ni, 5% to 12% of Sn, 0% to 0.9% of P, and 4.1% to 9% of C, with a remainder of Cu and inevitable impurities, wherein the sintered sliding body is a sintered body of a plurality of Cu-Ni alloy grains containing Sn and C, the sintered sliding body has a structure in which pores are dispersedly formed in grain boundaries of the plurality of alloy grains and free graphite is distributed in the pores, an amount of C in a metal matrix including the alloy grains is, by mass%, 0.001% to 0.07%, a porosity of the sintered body is 8% to 21%, and the porosity is measured in accordance with the open porosity test method JPMA M 02-1992 of sintered metal material published by the Japan Powder Metallurgy Association. wherein the sintered sliding body is a sintered body of a plurality of Cu-Ni alloy grains containing Sn and C, the sintered sliding body has a structure in which pores are dispersedly formed in grain boundaries of the plurality of alloy grains and free graphite is distributed in the pores, an amount of C in a metal matrix including the alloy grains is, by mass%, 0.001% to 0.07%, a porosity of the sintered body is 8% to 21%, and the porosity is measured in accordance with the open porosity test method JPMA M 02-1992 of sintered metal material published by the Japan Powder Metallurgy Association.
A method performed by a base station, comprising: determining a demodulation reference signal, DMRS, resource for each of at least one antenna port for a user equipment, UE, respectively; determining a number of symbols for carrying the DMRS resource in time domain; indicating the DMRS resource of each of the at least one antenna port to the UE; and indicating the number of symbols for carrying the DMRS resource to the UE via RRC signaling or downlink control information, DCI, wherein the DMRS resource is selected from a DMRS mapping table, and the DMRS mapping table is generated by a plurality of domain resources combined in at least one predefined priority order. determining a demodulation reference signal, DMRS, resource for each of at least one antenna port for a user equipment, UE, respectively; determining a number of symbols for carrying the DMRS resource in time domain; indicating the DMRS resource of each of the at least one antenna port to the UE; and indicating the number of symbols for carrying the DMRS resource to the UE via RRC signaling or downlink control information, DCI, wherein the DMRS resource is selected from a DMRS mapping table, and the DMRS mapping table is generated by a plurality of domain resources combined in at least one predefined priority order.
Mirror mount for a Head-Up Display, the mirror mount comprising two substantially coaxial bores for being pivotably suspended in a housing about an axis by means of bearing pins, characterised in that each bore of the mirror mount is provided with a bushing in the respective bore, wherein the mirror mount comprises two radially acting springs for spring-loading each bushing against the mirror mount in a radial direction and an axially acting spring for spring-loading at least one of the bearing pins with respect to the mirror mount in an axial direction. characterised in that each bore of the mirror mount is provided with a bushing in the respective bore, wherein the mirror mount comprises two radially acting springs for spring-loading each bushing against the mirror mount in a radial direction and an axially acting spring for spring-loading at least one of the bearing pins with respect to the mirror mount in an axial direction.
A system for controlling emissions of VOC's by combustion of said VOC's in an internal combustion engine, the system comprising a primary internal combustion engine that is connected to a source of VOC's and comprises a crankshaft, characterized in that the system comprises a secondary internal combustion engine that also comprises a crankshaft, wherein the crankshafts of the primary and secondary internal combustion engines (1, 2) are coupled together to impose a resistive force in a counter rotative manner to the output of the primary internal combustion engine.
A system for filtering mechanically-induced signal noise from a speed sensor comprising: a rotating member having at least one target group radially oriented about a center of the rotating member; an inductive speed sensor configured to sense the at least one target group and having first and second output lines; two diode pairs (104, 106) each having a first diode (104a, 106a) and a second diode (104b, 106b) connected in parallel to each other and having opposite current flow with respect to each other, wherein the two diode pairs are operatively connected to the inductive speed sensor and configured to receive a signal having the mechanically-induced signal noise, the two diode pairs including exactly two diode pairs with a first diode pair having first and second ends and a second diode pair having first and second ends, wherein the first end of the first diode pair is connected to the first sensor output line and the first end of the second diode pair is connected to the second sensor output line; a resistor connecting the second end of the first diode pair to the second end of the second diode pair; and a processor connected in parallel with the resistor and configured to receive, via the diode pairs, a signal from the inductive speed sensor which has reduced signal noise, the processor being further configured to: determine a rotational speed of the rotating member based on the signal having reduced signal noise. a rotating member having at least one target group radially oriented about a center of the rotating member; an inductive speed sensor configured to sense the at least one target group and having first and second output lines; two diode pairs (104, 106) each having a first diode (104a, 106a) and a second diode (104b, 106b) connected in parallel to each other and having opposite current flow with respect to each other, wherein the two diode pairs are operatively connected to the inductive speed sensor and configured to receive a signal having the mechanically-induced signal noise, the two diode pairs including exactly two diode pairs with a first diode pair having first and second ends and a second diode pair having first and second ends, wherein the first end of the first diode pair is connected to the first sensor output line and the first end of the second diode pair is connected to the second sensor output line; a resistor connecting the second end of the first diode pair to the second end of the second diode pair; and a processor connected in parallel with the resistor and configured to receive, via the diode pairs, a signal from the inductive speed sensor which has reduced signal noise, the processor being further configured to: determine a rotational speed of the rotating member based on the signal having reduced signal noise.
Method for producing a fibre body, which comprises building up the fibre body layer by layer by alternately applying a fibre matrix material to a respective layer base and fusing a respectively applied layer of the fibre matrix material onto the layer base, wherein the fibre body has a plurality of structures which are crosslinked with one another, and wherein the fibre matrix material contains a matrix material and a plurality of short fibres and/or fibre particles.
Process for producing a motor vehicle interior trim material comprising or at least essentially consisting of a needlefelt which includes a fibre blend comprising 25-35 wt% of polyamide fibres and 65-75 wt% polyester fibres, preferably without other, bonding fibres, and is consolidated mechanically by needling and via adhesive bonding, characterized in that a batt laid from the fibre blend passes in succession through three needling machines (3, 4, 5) which each have or execute a needling motion in the vertical direction, wherein first in a first needling machine a fore- or pre-needling of the batt is effected at a stitch density between 35 and 150 stitches/cm 2, in particular 76 stitches/cm 2, thereafter a backneedling is effected in a second needling machine at a stitch density between 50 and 300 stitches/cm 2, in particular 110 stitches/cm 2, and finally a needlefelt is produced in a third or finishing type needling machine at a stitch density between 500 and 1000 stitches/cm 2, in particular 860-900 stitches/cm 2, more preferably 880 stitches/cm 2, and in that the needlefelt thus produced is shorn on its pile side and an aqueous binder to the shorn needlefelt is provided on the side remote from the shorn pile side to bring about adhesive bonding.
A silicon carbide member for a plasma processing apparatus, consisting of a sintered body of an α-silicon carbide containing metal impurities in an amount of 20 ppm or less, and an oxide-based sintering aid, wherein the oxide-based sintering aid comprises Al 2 O 3 and Y 2 O 3, wherein a total amount of the Al 2 O 3 and the Y 2 O 3 is in the range of 3 to 15 weight parts, and an amount of the Y 2 O 3 is one to two times an amount of the Al 2 O 3, and wherein Al 12 Y 4 O 9 exists in a grain boundary of the α-silicon carbide crystal grain.
A laminate comprising: a porous substrate impregnated with a composition having a low dielectric constant and a low dielectric loss factor, wherein the composition comprises: a first resin derived from a cyanate ester, wherein the first resin forms a triazine structure upon curing, a second resin comprising a polyphenylene oxide, a substantially halogen-free, phosphorus-containing flame retardant having an atomic phosphorus content in the range of about 1-20 weight percent, based on the total weight of the resin components, and a halogen content of no more than 1000ppm, and a quantity of a particulate filler, the particulate filler being present in a range of about 50 to about 400 parts by weight based on 100 parts by weight of the first resin and the second resin. a first resin derived from a cyanate ester, wherein the first resin forms a triazine structure upon curing, a second resin comprising a polyphenylene oxide, a substantially halogen-free, phosphorus-containing flame retardant having an atomic phosphorus content in the range of about 1-20 weight percent, based on the total weight of the resin components, and a halogen content of no more than 1000ppm, and a quantity of a particulate filler, the particulate filler being present in a range of about 50 to about 400 parts by weight based on 100 parts by weight of the first resin and the second resin.
A system comprising: I) a touch sensitive interface (114, 218) comprising a surface; II) a first actuator configured to receive a first haptic signal and output a first haptic effect based at least in part on the first haptic signal; III) a second actuator configured to receive a second haptic signal and output a second haptic effect based at least in part on the second haptic signal; and IV) a processor configured to: i) determine the first haptic effect and the second haptic effect, the first haptic effect configured to comprise a first vibration, the second haptic effect configured to comprise a second vibration, the first and second haptic effects configured when combined to output a texture, such that the first and second haptic effects combine to form harmonics that simulate the texture on the surface; and ii) transmit the first haptic signal to the first actuator and transmit the second haptic signal to the second actuator, characterised in that: the first actuator and the second actuator comprise different types of actuators and the first haptic effect and the second haptic effect comprise different haptic effects, such that the first actuator comprises an eccentric rotating mass actuator configured to output a low-frequency haptic effect and the second actuator comprises a linear resonant actuator configured to output a high-frequency haptic effect. I) a touch sensitive interface (114, 218) comprising a surface; II) a first actuator configured to receive a first haptic signal and output a first haptic effect based at least in part on the first haptic signal; III) a second actuator configured to receive a second haptic signal and output a second haptic effect based at least in part on the second haptic signal; and IV) a processor configured to: i) determine the first haptic effect and the second haptic effect, the first haptic effect configured to comprise a first vibration, the second haptic effect configured to comprise a second vibration, the first and second haptic effects configured when combined to output a texture, such that the first and second haptic effects combine to form harmonics that simulate the texture on the surface; and ii) transmit the first haptic signal to the first actuator and transmit the second haptic signal to the second actuator, i) determine the first haptic effect and the second haptic effect, the first haptic effect configured to comprise a first vibration, the second haptic effect configured to comprise a second vibration, the first and second haptic effects configured when combined to output a texture, such that the first and second haptic effects combine to form harmonics that simulate the texture on the surface; and ii) transmit the first haptic signal to the first actuator and transmit the second haptic signal to the second actuator,
A propeller pitch change hydraulic actuation system, comprising: a double-acting dual chamber hydraulic pitch change actuator comprising: a first pressure circuit having first fluid supply lines (14a; 14b) and a first hydraulic chamber; a second pressure circuit having second fluid supply lines (13a; 13b) and a second hydraulic chamber; a piston separating the first and second chambers; at least one pressure sensor for obtaining pressure measurements from which a load differential applied to the piston by the circuits can be calculated; and a closed loop controller arranged to control the fluid supplied to the first and second pressure circuits, wherein the closed loop controller includes an actuator position loop arranged to utilise feedback on the actuator position to control the actuator position; wherein the closed loop controller further includes, within the actuator position loop, an inner load loop created utilising the load differential calculated from the pressure measurements obtained by the at least one pressure sensor, the load loop being configured to feed a current correction to the actuator position loop. a first pressure circuit having first fluid supply lines (14a; 14b) and a first hydraulic chamber; a second pressure circuit having second fluid supply lines (13a; 13b) and a second hydraulic chamber; a piston separating the first and second chambers; at least one pressure sensor for obtaining pressure measurements from which a load differential applied to the piston by the circuits can be calculated; and