mhurhangee/ep-ind-claims huggingface dataset:
A mobile radio communications device for communication with a mobile radio communications network device, the mobile radio communications device being arranged: to send non-access stratum or access stratum signalling to the network device including a preference indication of a preference of the mobile radio communications device to use a plurality of possible power saving modes; receive a confirmation, returned by the network device, of a selected power saving mode of the plurality of power saving modes indicated by the preference indication to be employed by the mobile radio communications device; and to initiate operation of the confirmed power-saving mode; wherein the preference indication is arranged to rank the plurality of power saving modes in order of preference. to send non-access stratum or access stratum signalling to the network device including a preference indication of a preference of the mobile radio communications device to use a plurality of possible power saving modes; receive a confirmation, returned by the network device, of a selected power saving mode of the plurality of power saving modes indicated by the preference indication to be employed by the mobile radio communications device; and to initiate operation of the confirmed power-saving mode; wherein the preference indication is arranged to rank the plurality of power saving modes in order of preference.
Compositions comprising A) 50 to 90% by weight of at least one polymer selected from the group consisting of aromatic polycarbonate, aromatic polyestercarbonate and aromatic polyester, B) 5 to 40% by weight of rubber-based graft polymer or a mixture of rubber-based graft polymer and rubber-free vinyl (co)polymer, C) 3 to 25% by weight of at least one polyether-based copolymer selected from the group consisting of polyether block polymers and polyether-based polyurethanes, D) 0.8 to 9% by weight of at least one pigment based on titanium dioxide, E) 0 to 20% by weight of one or more further additives. A) 50 to 90% by weight of at least one polymer selected from the group consisting of aromatic polycarbonate, aromatic polyestercarbonate and aromatic polyester, B) 5 to 40% by weight of rubber-based graft polymer or a mixture of rubber-based graft polymer and rubber-free vinyl (co)polymer, C) 3 to 25% by weight of at least one polyether-based copolymer selected from the group consisting of polyether block polymers and polyether-based polyurethanes, D) 0.8 to 9% by weight of at least one pigment based on titanium dioxide, E) 0 to 20% by weight of one or more further additives.
A device for machining materials by milling and/or drilling, in particular for removing rock, concrete, minerals or coal, comprising: a tool drum mounted on a drum carrier (2A, 2B), the tool drum being rotatable about a drum axis and having a plurality of rotatable drivable tool shafts mounted therein, the tool shafts bearing machining tools at their ends projecting from the tool drum, at least two of the tool shafts being drivable by a common gear drive having output drive gears rotationally fixedly arranged on the tool shafts and a common drive element interacting with the output drive gears, the drive element and the tool drum being rotatable relative to each other; a movement device (6, 7) configured to move the drum carrier (2A, 2B) relative to the material to be machined; a control device configured to control the relative speed of the relative movement between the drum carrier (2A, 2B) and the material to be machined, and the rotational speed of the tool drum; and at least one measuring sensor configured to measure the translational vibrations of the device and/or at least one measuring sensor (32; 34) for measuring the rotational vibrations of the tool drum, wherein the control device comprises at least one vibration analysis module configured to determine, in a vibration analysis for the measured vibrations, a vibration spectrum, and at least one controller module configured to control the rotational speed and/or the relative speed as a function of the vibration spectrum determined by the analysis module. a tool drum mounted on a drum carrier (2A, 2B), the tool drum being rotatable about a drum axis and having a plurality of rotatable drivable tool shafts mounted therein, the tool shafts bearing machining tools at their ends projecting from the tool drum, at least two of the tool shafts being drivable by a common gear drive having output drive gears rotationally fixedly arranged on the tool shafts and a common drive element interacting with the output drive gears, the drive element and the tool drum being rotatable relative to each other; a movement device (6, 7) configured to move the drum carrier (2A, 2B) relative to the material to be machined; a control device configured to control the relative speed of the relative movement between the drum carrier (2A, 2B) and the material to be machined, and the rotational speed of the tool drum; and at least one measuring sensor configured to measure the translational vibrations of the device and/or at least one measuring sensor (32; 34) for measuring the rotational vibrations of the tool drum, wherein the control device comprises at least one vibration analysis module configured to determine, in a vibration analysis for the measured vibrations, a vibration spectrum, and at least one controller module configured to control the rotational speed and/or the relative speed as a function of the vibration spectrum determined by the analysis module.
A vehicle pillar member (10, 100; 200; 300; 400; 500) having a length, comprising: a plurality of steel sheets (120A-E; 220A-E; 320A-D; 420A-D; 520A-D) welded along at least one joint line (110a-d; 210a-d; 310a-c; 410a-c; 510a-c) transverse to a longitudinal direction of the vehicle pillar member; for each joint line, the strengths of the steel sheets just above and below the joint line being different; and the joint lines including one or more first joint lines (110a, c; 210a, c; 310a; 410b; 510a, c) inclined with respect to a direction perpendicular to the longitudinal direction of the vehicle pillar member, characterized in that: the one or more joint lines include a second joint line (110b, d; 210b, d; 310b, c; 410a, c; 510b) in at least one of upper and lower ends of the vehicle pillar member, the second joint line being oriented substantially perpendicular to the longitudinal direction, and the strength of the steel sheets (120A, E; 220A, E; 320C, D; 420B, D; 520C) outside the second joint line are smaller than the steel sheet (120B, D; 220B, D; 320A, B; 420A, C; 520B) just inside the second joint line. a plurality of steel sheets (120A-E; 220A-E; 320A-D; 420A-D; 520A-D) welded along at least one joint line (110a-d; 210a-d; 310a-c; 410a-c; 510a-c) transverse to a longitudinal direction of the vehicle pillar member; for each joint line, the strengths of the steel sheets just above and below the joint line being different; and the joint lines including one or more first joint lines (110a, c; 210a, c; 310a; 410b; 510a, c) inclined with respect to a direction perpendicular to the longitudinal direction of the vehicle pillar member, characterized in that: the one or more joint lines include a second joint line (110b, d; 210b, d; 310b, c; 410a, c; 510b) in at least one of upper and lower ends of the vehicle pillar member, the second joint line being oriented substantially perpendicular to the longitudinal direction, and the strength of the steel sheets (120A, E; 220A, E; 320C, D; 420B, D; 520C) outside the second joint line are smaller than the steel sheet (120B, D; 220B, D; 320A, B; 420A, C; 520B) just inside the second joint line.
A power tool comprising: an electric motor having a stator; an armature mounted on a shaft having a longitudinal axis, bout which axis the armature rotates with respect to the stator; and a fan rotatably attached to the armature, the fan also rotatable about the armature axis, adjacent the stator, the fan comprising a plurality of blades each blade of the plurality of blades having a first and a second axial side edge (528, 530), wherein said first side edge is arranged at an angle away from the stator in the direction of the end of the outer edge of the blade, wherein the angled axial side edge of each blade of the plurality of blades provides that each blade is dimensioned such that a longitudinal length of each blade is smaller at an outer periphery of the fan than at an inner edge of the fan blade near the armature shaft, the fan characterized by: each blade of the plurality of blades being arranged between an inner support ring and an outer support ring, the outer support ring having an angled surface with respect to the longitudinal axis, in the direction of the outer edge of the blade; and a tool housing arranged to house the electric motor, the housing including a first and a second annular rib (534, 536) disposed around a periphery of the housing adjacent the fan, the annular ribs each having an angled surface substantially parallel to the angled surfaces of the outer ring and the first side edge respectively, to constrain airflow generated by the fan centrifugally in a radial direction with respect to the shaft about which the fan rotates. an electric motor having a stator; an armature mounted on a shaft having a longitudinal axis, bout which axis the armature rotates with respect to the stator; and a fan rotatably attached to the armature, the fan also rotatable about the armature axis, adjacent the stator, the fan comprising a plurality of blades each blade of the plurality of blades having a first and a second axial side edge (528, 530), wherein said first side edge is arranged at an angle away from the stator in the direction of the end of the outer edge of the blade, wherein the angled axial side edge of each blade of the plurality of blades provides that each blade is dimensioned such that a longitudinal length of each blade is smaller at an outer periphery of the fan than at an inner edge of the fan blade near the armature shaft, the fan characterized by: each blade of the plurality of blades being arranged between an inner support ring and an outer support ring, the outer support ring having an angled surface with respect to the longitudinal axis, in the direction of the outer edge of the blade; and a tool housing arranged to house the electric motor, the housing including a first and a second annular rib (534, 536) disposed around a periphery of the housing adjacent the fan, the annular ribs each having an angled surface substantially parallel to the angled surfaces of the outer ring and the first side edge respectively, to constrain airflow generated by the fan centrifugally in a radial direction with respect to the shaft about which the fan rotates.
A turning insert comprising a top surface, an opposite bottom surface, side surfaces (13, 13') connecting the top surface and the bottom surface, two opposite nose portions (15, 15'), each nose portion (15, 15') comprising a convex nose cutting edge (10, 10'), a reference plane located parallel to and between the top surface and the bottom surface, and a center axis extending perpendicular to the reference plane, wherein each nose portion (15, 15') comprises a first cutting edge (11, 11') and a second cutting edge (12, 12'), wherein the convex nose cutting edge (10, 10') connects the first (11, 11') and second (12, 12') cutting edges, wherein a bisector extends equidistantly from the first and second cutting edges, characterized in that in a top view the first and second cutting edges on the same nose portion form a nose angle (α) of 70-85° relative to each other, in that each nose portion (15, 15') comprises a third convex cutting edge adjacent to the first cutting edge and a fourth cutting edge adjacent to the third convex cutting edge, in that in a top view the fourth cutting edge forms an angle (β) of 0-34° relative to the bisector, and in that the distance from the fourth cutting edge to the reference plane is decreasing away from the nose cutting edge, wherein the turning insert comprises a fifth convex cutting edge adjacent to the second cutting edge and a sixth cutting edge adjacent to the fifth cutting edge, wherein the sixth cutting edge forms an angle of 0-34° relative to the bisector in a top view.
A lighting device comprising a light source configured to provide light source light having a blue light component and a light converter configured to convert at least part of the light source light into converter light, wherein the light converter comprises a polymeric matrix with a luminescent material, wherein the luminescent material comprises an organic luminescent molecule comprising a first group able to absorb at least part of the blue light component, and a second group able to emit luminescent molecule light having a red light component, wherein the first group is configured to transfer at least part of the energy acquired by the absorption of said at least part of the blue light component to the second group for generation of said luminescent molecule light having a red light component, and wherein the second group comprises a group based on: or a derivative thereof.
An apparatus (200, 300) comprising: means for applying a modulating signal to a first modulation path of a digital phase-locked loop, DPLL, supporting two-point modulation; means for applying the modulating signal to a second modulation path of the DPLL; means (220, 320) for adaptively adjusting delay of the first modulation path to match delay of the second modulation path, wherein the delay of the second modulation path is not adaptively adjusted; and means (210, 310) for adaptively scaling gain of one of the first modulation path and the second modulation path. means for applying a modulating signal to a first modulation path of a digital phase-locked loop, DPLL, supporting two-point modulation; means for applying the modulating signal to a second modulation path of the DPLL; means (220, 320) for adaptively adjusting delay of the first modulation path to match delay of the second modulation path, wherein the delay of the second modulation path is not adaptively adjusted; and means (210, 310) for adaptively scaling gain of one of the first modulation path and the second modulation path.
An antenna comprising a fastener body made of electrically insulating material and carrying an electrically conductive circuit having at least one signal input segment and a radiating segment, the fastener body comprising two positioning portions (2.1, 2.2) defining between them a passage of dimensions suitable for receiving an edge of a printed circuit support plate, the input segment being carried by one of the positioning portions (2.1) to extend facing a face (10.1) of said support plate, characterized in that the body includes clamping means for clamping the support plate against at least one of the positioning portions, the input segment is positioned to establish electromagnetic coupling with an electrically conductive track of the support plate.
Method of making a curable fluoropolymer comprising repeating units derived from vinylidenfluoride, tetrafluoroethene and a perfluorovinyl ether (PAVE), a perfluoroallylether (PAAVE) or a combination thereof wherein the curable polymer contains from 14 to 80 % wt of vinylidenefluoride comonomer and has a -CF 2 CH 2 I to -CF 2 CH 2 OH group ratio of at least 10, preferably at least 15 and a Mooney viscosity (ML 1+10 at 121°C) of from about 20 to about 80; said method comprising polymerizing the monomers in an aqueous medium in a radical reaction containing one or more reaction initiators, one or more chain transfer agent selected from alpha-omega diiodo alkanes, alpha-omega diiodo fluoroalkanes and alpha-omega diiodo perfluoroalkanes having from 1 to 12 carbon atoms, and one or more non-fluorinated aliphatic polyhydroxy emulsifier containing at least one polyhydroxy unit having at least two adjacent hydroxyl groups and at least one long chain unit containing from 4 to 40 carbon atoms and, wherein the polymerization is carried out without adding a fluorinated emulsifier.
An apparatus for rock drilling, wherein the apparatus comprises a rock drilling machine and a longitudinal drilling tool being connectable to the rock drilling machine; and the rock drilling machine comprises a turning device for moving the drilling tool around longitudinal axis of the drilling tool; and the apparatus comprises at least one alternating turning system for controlling the turning device to reverse direction of movement of the drilling tool repeatedly and thereby generating allowed predetermined turning movements in a first turning direction and correspondingly in a second turning direction; characterized in that the apparatus further comprises at least one separate safety system, which is configured to secure independently relative to the turning device that magnitude of the realized turning movements is always below 360 degrees whereby the drilling tool never performs one full revolution; and the at least one safety system comprises one or more sensing devices and processing means on its own and is operationally independent relative to the alternating turning system.
A steering device assembly for a motor vehicle, comprising a steering axis about which the steering device assembly can rotate in the installed condition, a first assembly element and a second assembly element, wherein the two assembly elements (12, 14) are connected to each other by a first joint, especially a first locking joint, and a second joint, especially a second locking joint, wherein the first joint comprises a resilient locking element which can be deflected in a direction transverse to the steering axis to undo the first joint, and wherein the second joint can be undone by an axial load acting on the assembly elements (12, 14) away from each other, characterized in that a wedge is provided which has a wedge length transverse to the steering axis and a variable wedge height in the direction of the steering axis, wherein the wedge length, the wedge height and an angle of inclination (α) of the wedge are matched to one another such that both the first joint and the second joint of the assembly elements (12, 14) can be undone by a linear movement of the wedge in the longitudinal direction of the wedge. a steering axis about which the steering device assembly can rotate in the installed condition, a first assembly element and a second assembly element, wherein the two assembly elements (12, 14) are connected to each other by a first joint, especially a first locking joint, and a second joint, especially a second locking joint, wherein the first joint comprises a resilient locking element which can be deflected in a direction transverse to the steering axis to undo the first joint, and wherein the second joint can be undone by an axial load acting on the assembly elements (12, 14) away from each other, characterized in that a wedge is provided which has a wedge length transverse to the steering axis and a variable wedge height in the direction of the steering axis, wherein the wedge length, the wedge height and an angle of inclination (α) of the wedge are matched to one another such that both the first joint and the second joint of the assembly elements (12, 14) can be undone by a linear movement of the wedge in the longitudinal direction of the wedge.
A method performed by a packet data network gateway, comprising: receiving, from a network entitiy, a create session request message to establish a packet data network, PDN, connection for a user equipment, UE, in an evolved packet system, EPS; retrieving, from a unified data management, UDM, a subscription for the UE; determining from the subscription that the packet data network gateway does not support a network slice for which the UE has a subscription; discovering another packet data network gateway that supports the network slice for which the UE has a subscription; and transmitting a session create response message to the network entity, the create session response message comprising an indication that there is a packet data network gateway mismatch with the network slice subscribed by the UE and an address of the another packet data network gateway that supports the network slice for which the UE has a subscription. receiving, from a network entitiy, a create session request message to establish a packet data network, PDN, connection for a user equipment, UE, in an evolved packet system, EPS; retrieving, from a unified data management, UDM, a subscription for the UE; determining from the subscription that the packet data network gateway does not support a network slice for which the UE has a subscription; discovering another packet data network gateway that supports the network slice for which the UE has a subscription; and transmitting a session create response message to the network entity, the create session response message comprising an indication that there is a packet data network gateway mismatch with the network slice subscribed by the UE and an address of the another packet data network gateway that supports the network slice for which the UE has a subscription.
A negative current collector, wherein the negative current collector comprises a support layer and a metal conductive layer that is disposed on at least one of two opposite surfaces of the support layer in a thickness direction of the support layer; a density of the support layer is less than a density of the metal conductive layer; the density of the metal conductive layer is 8.0g/cm 3 to 8.96g/cm 3; a thickness D 1 of the metal conductive layer is 300nm≤D 1 ≤2μm; and when a tensile strain of the negative current collector is 2.5%, a sheet resistance growth rate T of the metal conductive layer is T≤5% wherein the methods for measuring the density of the metal conductive layer, the tensile strain of the negative current collector and the sheet resistance growth rate T of the metal conductive layer is defined in the description. a density of the support layer is less than a density of the metal conductive layer; the density of the metal conductive layer is 8.0g/cm 3 to 8.96g/cm 3; a thickness D 1 of the metal conductive layer is 300nm≤D 1 ≤2μm; and when a tensile strain of the negative current collector is 2.5%, a sheet resistance growth rate T of the metal conductive layer is T≤5% wherein the methods for measuring the density of the metal conductive layer, the tensile strain of the negative current collector and the sheet resistance growth rate T of the metal conductive layer is defined in the description.
An ink jet black ink composition for sublimation transfer, comprising: water; a water-soluble organic solvent; and disperse dyes, wherein the disperse dyes consist of C.I. Disperse Blue 360; and two or more other disperse dyes that each individually achieve a reflectance of less than 0.1 at a wavelength of 380 nm or more and 520 nm or less on a dyed article. water; a water-soluble organic solvent; and disperse dyes, wherein the disperse dyes consist of C.I. Disperse Blue 360; and two or more other disperse dyes that each individually achieve a reflectance of less than 0.1 at a wavelength of 380 nm or more and 520 nm or less on a dyed article. C.I. Disperse Blue 360; and two or more other disperse dyes that each individually achieve a reflectance of less than 0.1 at a wavelength of 380 nm or more and 520 nm or less on a dyed article.