mhurhangee/ep-ind-claims huggingface dataset:
A method implemented using a processor, the method comprising the steps of: detecting, by a public switched telephone network, PSTN, interface deployed in the switch network, at least one telephony attribute associated with a voice call directed from a voice communication device to a publicly switched telephone network number; identifying visual content that has been pre-associated with the at least one telephony attribute and a user profile, wherein the user profile associates the user of the voice communication device with at least one of the user's interactive display devices; initiating a request for the visual content in response to the detecting step; and receiving the visual content in response to the initiating step, wherein the visual content is received and displayed at the user interactive display device. detecting, by a public switched telephone network, PSTN, interface deployed in the switch network, at least one telephony attribute associated with a voice call directed from a voice communication device to a publicly switched telephone network number; identifying visual content that has been pre-associated with the at least one telephony attribute and a user profile, wherein the user profile associates the user of the voice communication device with at least one of the user's interactive display devices; initiating a request for the visual content in response to the detecting step; and receiving the visual content in response to the initiating step, wherein the visual content is received and displayed at the user interactive display device.
Fiber application head for the production of composite material parts by application of bands formed of several continuous fibers arranged edge to edge, comprising a compaction system comprising several independent compaction rollers (3a, 3b) and compaction cylinders (5a, 5b), and for each fiber, cutting means and rerouting means, - for each fiber, the head comprises a functional module (2a, 2b) including the cutting means, the rerouting means, and a compaction roller, each functional module is mounted so as to be movable in translation along a compaction direction on a support element of the head, - a compaction cylinder is associated with each functional module for the displacement in translation of the functional module, and - the rerouting means of each functional module comprise a drive roller driven by a motor and a counter-roller, said motor being embedded in said functional module, - said head comprising at least one first functional module and at least one second functional module arranged alternately side by side, each first functional module comprising guiding means able to guide a first fiber towards a compaction roller along a first guiding plane and each second functional module comprising guiding means able to guide a second fiber towards a compaction roller along a second guiding plane, so as to form at the level of the compaction rollers a fiber band formed by first and second fibers arranged alternately edge to edge. - for each fiber, the head comprises a functional module (2a, 2b) including the cutting means, the rerouting means, and a compaction roller, each functional module is mounted so as to be movable in translation along a compaction direction on a support element of the head, - a compaction cylinder is associated with each functional module for the displacement in translation of the functional module, and - the rerouting means of each functional module comprise a drive roller driven by a motor and a counter-roller, said motor being embedded in said functional module, - said head comprising at least one first functional module and at least one second functional module arranged alternately side by side, each first functional module comprising guiding means able to guide a first fiber towards a compaction roller along a first guiding plane and each second functional module comprising guiding means able to guide a second fiber towards a compaction roller along a second guiding plane, so as to form at the level of the compaction rollers a fiber band formed by first and second fibers arranged alternately edge to edge.
Multi-layered plastic polymeric container in a bottle form for the storage of a pharmaceutical composition comprising an inner polymeric layer and an outer polymeric layer that comprise a mixture of polymers in direct contact with the composition and the environment, respectively, a central gas barrier layer and two intermediate adhesive layers in between the central layer and the outer and inner polymeric layers, wherein the outer and inner layers further comprise at least one antioxidant, and the central gas barrier layer comprises ethylene vinyl alcohol.
A connector holding mechanism comprising: a biasing member provided in a through hole formed in a bottom plate of a storage body, at least a lower end of the biasing member being supported on a lower surface side of the bottom plate; a cover, that includes a connector insertion hole and an inclined surface which is fixed to the through hole at a position above the biasing member, the inclined surface being inclined with respect to a bottom surface of the bottom plate at a lower surface of the cover; and a connector loosely inserted into the connector insertion hole and having a housing on which a terminal is protruded above the bottom surface, characterized in that it further comprises a flange portion protruding from an outer periphery of the housing being biased to abut against the inclined surface by the biasing member, wherein in a state where the connector is waiting to be fitted to a stored object stored in the storage body, the connector is held in a posture in which the terminal is inclined due to abutting between the inclined surface and the flange portion by a predetermined angle with respect to a virtual line perpendicular to the bottom surface, and in a state where the connector is fitted to the stored object, the connector is held in a posture in which the terminal is vertical along the virtual line due to separation between the inclined surface and the flange portion. a biasing member provided in a through hole formed in a bottom plate of a storage body, at least a lower end of the biasing member being supported on a lower surface side of the bottom plate; a cover, that includes a connector insertion hole and an inclined surface which is fixed to the through hole at a position above the biasing member, the inclined surface being inclined with respect to a bottom surface of the bottom plate at a lower surface of the cover; and a connector loosely inserted into the connector insertion hole and having a housing on which a terminal is protruded above the bottom surface, characterized in that it further comprises a flange portion protruding from an outer periphery of the housing being biased to abut against the inclined surface by the biasing member, wherein in a state where the connector is waiting to be fitted to a stored object stored in the storage body, the connector is held in a posture in which the terminal is inclined due to abutting between the inclined surface and the flange portion by a predetermined angle with respect to a virtual line perpendicular to the bottom surface, and in a state where the connector is fitted to the stored object, the connector is held in a posture in which the terminal is vertical along the virtual line due to separation between the inclined surface and the flange portion.
A power generator (74, 75), comprising: an adaptive controller (96, 97) configured to generate a control signal based on an input setpoint for the power generator (74, 75) to generate a power signal, a measured representation of the power signal, and a modeled representation of the power signal, wherein the control signal includes a feedback component and a feedforward component; and a power amplifier configured to generate the power signal communicated to a non-linear load in accordance with the control signal. an adaptive controller (96, 97) configured to generate a control signal based on an input setpoint for the power generator (74, 75) to generate a power signal, a measured representation of the power signal, and a modeled representation of the power signal, wherein the control signal includes a feedback component and a feedforward component; and a power amplifier configured to generate the power signal communicated to a non-linear load in accordance with the control signal.
An illumination device comprising: - a group of first light sources arranged on a first circuit board, - a plurality of optical lenses, - a plurality of beam generating elements wherein each of the beam generating elements is configured to collect the light of at least one first light source, to generate a light beam of the collected light, and to pass the generated light beam to one of the optical lenses, - a group of second light sources arranged on a second circuit board, - a plurality of shielding elements (420, 421), characterized by a zoom motor configured to vary the distance between the group of first light sources and the plurality of optical lenses, wherein the plurality of shielding elements comprise first shielding elements and second shielding elements, wherein the first and second shielding elements are arranged between at least one of the second light sources and one of the plurality of optical lenses in such a way that said at least one of the second light source illuminates only one of the plurality of optical lenses, wherein each first shielding element is attached to the second circuit board and encloses at least one second light source and limits the light emitted by the at least one second light source within one shielding element to only illuminate one optical lens, wherein the second shielding elements are attached to a lower surface of the plurality of optical lenses. - a group of first light sources arranged on a first circuit board, - a plurality of optical lenses, - a plurality of beam generating elements wherein each of the beam generating elements is configured to collect the light of at least one first light source, to generate a light beam of the collected light, and to pass the generated light beam to one of the optical lenses, - a group of second light sources arranged on a second circuit board, - a plurality of shielding elements (420, 421), characterized by a zoom motor configured to vary the distance between the group of first light sources and the plurality of optical lenses, wherein the plurality of shielding elements comprise first shielding elements and second shielding elements, wherein the first and second shielding elements are arranged between at least one of the second light sources and one of the plurality of optical lenses in such a way that said at least one of the second light source illuminates only one of the plurality of optical lenses, wherein each first shielding element is attached to the second circuit board and encloses at least one second light source and limits the light emitted by the at least one second light source within one shielding element to only illuminate one optical lens, wherein the second shielding elements are attached to a lower surface of the plurality of optical lenses.
Pneumatic vehicle tyre having a tread with at least one profile rib or at least one row of profile blocks having profile blocks or structured in the manner of profile blocks and also with channels made to the intended profile depth, wherein at least one profile rib or the profile blocks in a row of profile blocks is or are provided with transverse grooves, which run at an angle of ≤ 45° in relation to the axial direction and have at the periphery of the tread a width of 2.0 mm to 5.0 mm and a depth (t 1) of at most 60% of the profile depth, wherein each transverse groove is made up of portions (4a, 4b, 4c), which run in an angled fashion with respect to one another, wherein, over the extent of the transverse groove, its bottom or its radially inner end is adjoined by a sipe, which has a width of 0.3 mm to 1.2 mm and reaches in the radial direction to a depth (t 2), which corresponds at most to the profile depth, wherein the sipe follows the path of the angled portions (4a, 4b, 4c) of the transverse groove, characterized in that the profile rib or the profile blocks of the row of blocks is or are crossed by sipes extending substantially parallel to one another and parallel to the transverse grooves and having a width of 0.3 mm to 1.2 mm, wherein sipes are provided such that between them in each case one of the transverse grooves extending parallel to the sipes is provided, wherein the sipe that follows the path of the angled portions (4a, 4b, 4c) of the transverse groove has sipe portions (5a, 5b, 5c) which in the successive portions (4a, 4b, 4c) of the transverse groove alternately adjoin with a sipe wall one and the other groove flank of the transverse groove. wherein each transverse groove is made up of portions (4a, 4b, 4c), which run in an angled fashion with respect to one another, wherein, over the extent of the transverse groove, its bottom or its radially inner end is adjoined by a sipe, which has a width of 0.3 mm to 1.2 mm and reaches in the radial direction to a depth (t 2), which corresponds at most to the profile depth, wherein the sipe follows the path of the angled portions (4a, 4b, 4c) of the transverse groove, characterized in that the profile rib or the profile blocks of the row of blocks is or are crossed by sipes extending substantially parallel to one another and parallel to the transverse grooves and having a width of 0.3 mm to 1.2 mm, wherein sipes are provided such that between them in each case one of the transverse grooves extending parallel to the sipes is provided, wherein the sipe that follows the path of the angled portions (4a, 4b, 4c) of the transverse groove has sipe portions (5a, 5b, 5c) which in the successive portions (4a, 4b, 4c) of the transverse groove alternately adjoin with a sipe wall one and the other groove flank of the transverse groove.
A method of producing a bifacial photovoltaic cell, the method comprising: a) forming a boron-containing layer on a second surface of a semiconductor substrate by sputtering boron and/or by boron ion implantation; and b) forming a cap layer above said boron-containing layer; c) forming an n-dopant-containing layer on a first surface of the semiconductor substrate; d) effecting diffusion of said n-dopant and diffusion of said boron into the semiconductor substrate after forming the cap layer above the boron-containing layer, to thereby dope said first surface with said n-dopant so as to form a n-doped layer and said second surface with said boron; e) removing the n-doped layer on said first surface by texturizing; f) forming a passivating and/or antireflective coating on said second surface; and g) subsequently doping said first surface with an n-dopant; and h) forming a passivating and/or antireflective coating on said first surface. a) forming a boron-containing layer on a second surface of a semiconductor substrate by sputtering boron and/or by boron ion implantation; and b) forming a cap layer above said boron-containing layer; c) forming an n-dopant-containing layer on a first surface of the semiconductor substrate; d) effecting diffusion of said n-dopant and diffusion of said boron into the semiconductor substrate after forming the cap layer above the boron-containing layer, to thereby dope said first surface with said n-dopant so as to form a n-doped layer and said second surface with said boron; e) removing the n-doped layer on said first surface by texturizing; f) forming a passivating and/or antireflective coating on said second surface; and g) subsequently doping said first surface with an n-dopant; and h) forming a passivating and/or antireflective coating on said first surface.
Process for making a partially coated electrode active material wherein said process comprises the following steps: (a) Providing an electrode active material according to general formula Li 1+x TM 1-x O 2, wherein TM is a combination of Ni, Co and, optionally, Mn, and, optionally, at least one metal selected from Al, Ti, Mo, W, and Zr, and x is in the range of from zero to 0.2, wherein at least 60 mole-% of the transition metal of TM is Ni, and wherein said electrode active material has a residual moisture content in the range of from 50 to 1,000 ppm, (b) treating said electrode active material with a metal alkoxide or metal halide or metal amide or alkyl metal compound, (c) treating the material obtained in step (b) with moisture, (d) repeating the sequence of steps (b) and (c) twice to 4 times, wherein in the last sequence of steps (b) and (c), moisture is at least partially substituted by ozone. (a) Providing an electrode active material according to general formula Li 1+x TM 1-x O 2, wherein TM is a combination of Ni, Co and, optionally, Mn, and, optionally, at least one metal selected from Al, Ti, Mo, W, and Zr, and x is in the range of from zero to 0.2, wherein at least 60 mole-% of the transition metal of TM is Ni, and wherein said electrode active material has a residual moisture content in the range of from 50 to 1,000 ppm, (b) treating said electrode active material with a metal alkoxide or metal halide or metal amide or alkyl metal compound, (c) treating the material obtained in step (b) with moisture, (d) repeating the sequence of steps (b) and (c) twice to 4 times, wherein in the last sequence of steps (b) and (c), moisture is at least partially substituted by ozone.
A device for marking natural and artificial grass surfaces, which comprises a mowing drum linked to a chassis, wherein the mowing drum comprises at least a cutting element that rotates around a main shaft, characterised in that a perforated sheet is arranged between the mowing drum and the grass surface, with said perforated sheet comprising a succession of holes cut to an appropriate size so as to allow at least one blade of grass to pass through it, so that the at least one blade of grass becomes slightly bent in comparison to their initial, natural angle, in addition to an opening configured to facilitate the passage of said at least one blade of grass to be cut by the cutting element.
A measuring sensor for measuring a rotation speed and a rotation direction of a magnetic encoder in a vehicular wheel, the measuring sensor comprising: a first magnetic detector configured to detect a magnetic field induced from the magnetic encoder and output a strength value of the magnetic field as a first electrical signal; a second magnetic detector configured to detect a magnetic field induced from the magnetic encoder and output a strength value of the magnetic field as a second electrical signal; a first output signal generator configured to generate and output first rotation data including information indicating a rotation speed of the wheel on the basis of the first electrical signal; and a second output signal generator configured to generate second rotation data including information indicating a rotation speed of the wheel on the basis of the second electrical signal and at least one delayed second electrical signal by as much as a predetermined phase, wherein the information indicating the rotation speed of the wheel in the second rotation data has a resolution that is higher than that of the information indicating the rotation speed of the wheel in the first rotation data, wherein the second output signal generator is further configured to receive the first rotation data from the first output signal generator, determine whether a current rotation speed of the wheel is equal to or less than a predetermined value on the basis of the received first rotation data, and output the second rotation data when the current rotation speed of the wheel is determined as being equal to or less than the predetermined value. a first magnetic detector configured to detect a magnetic field induced from the magnetic encoder and output a strength value of the magnetic field as a first electrical signal; a second magnetic detector configured to detect a magnetic field induced from the magnetic encoder and output a strength value of the magnetic field as a second electrical signal; a first output signal generator configured to generate and output first rotation data including information indicating a rotation speed of the wheel on the basis of the first electrical signal; and a second output signal generator configured to generate second rotation data including information indicating a rotation speed of the wheel on the basis of the second electrical signal and at least one delayed second electrical signal by as much as a predetermined phase, wherein the information indicating the rotation speed of the wheel in the second rotation data has a resolution that is higher than that of the information indicating the rotation speed of the wheel in the first rotation data, wherein the second output signal generator is further configured to receive the first rotation data from the first output signal generator, determine whether a current rotation speed of the wheel is equal to or less than a predetermined value on the basis of the received first rotation data, and output the second rotation data when the current rotation speed of the wheel is determined as being equal to or less than the predetermined value.
A knee brace (100; 200; 800) comprising: a flexible fabric substrate (102; 202; 802) configured to encircle the knee of a wearer and to extend above and below the wearer's knee; a first elastomeric member (104; 204; 804) disposed on a first surface of the flexible fabric substrate, the elastomeric member being configured to reduce loads on the knee joint; a second elastomeric member (122; 222; 823) disposed on the first surface of the flexible fabric substrate, the second elastomeric member being spaced apart from the first elastomeric member, the second elastomeric member being disposed medially of the wearer's patella; characterized in that it further comprises a third elastomeric member (234a, 234b) disposed on a second surface of the flexible fabric substrate; the second surface facing an opposite direction from the first surface. a flexible fabric substrate (102; 202; 802) configured to encircle the knee of a wearer and to extend above and below the wearer's knee; a first elastomeric member (104; 204; 804) disposed on a first surface of the flexible fabric substrate, the elastomeric member being configured to reduce loads on the knee joint; a second elastomeric member (122; 222; 823) disposed on the first surface of the flexible fabric substrate, the second elastomeric member being spaced apart from the first elastomeric member, the second elastomeric member being disposed medially of the wearer's patella; characterized in that it further comprises a third elastomeric member (234a, 234b) disposed on a second surface of the flexible fabric substrate; the second surface facing an opposite direction from the first surface.