mhurhangee/ep-ind-claims huggingface dataset:
A saddle riding type vehicle comprising: - a main body (2, 3, 4) extending along a longitudinal axis (L-L) and having a front part, a tail part and a central part comprised between the front part and the tail part, wherein the central part comprises a feet platform for supporting a driver's feet; - at least a front wheel and at least a rear wheel; - an engine operatively connected to at least one of said wheels (6, 7); - at least one headlight fixed to the front part; - at least one rear light fixed to the tail part; wherein said saddle riding type vehicle further comprises an auxiliary lighting device fixed to the main body (2, 3, 4) and adapted to be electrically controlled in order to be activated and deactivated, wherein the auxiliary lighting device is arranged and oriented so that, when activated, it lights said feet platform, wherein said vehicle comprises a fuel tank filler and/or an electrical recharge socket and wherein said auxiliary lighting device is adapted and configured to light said fuel tank filler and/or said electrical recharge socket; wherein the auxiliary lighting device is mounted on a front shield, being in a position substantially cantilevered with respect to the line of said front shield of the saddle riding type vehicle. - a main body (2, 3, 4) extending along a longitudinal axis (L-L) and having a front part, a tail part and a central part comprised between the front part and the tail part, wherein the central part comprises a feet platform for supporting a driver's feet; - at least a front wheel and at least a rear wheel; - an engine operatively connected to at least one of said wheels (6, 7); - at least one headlight fixed to the front part; - at least one rear light fixed to the tail part; wherein said saddle riding type vehicle further comprises an auxiliary lighting device fixed to the main body (2, 3, 4) and adapted to be electrically controlled in order to be activated and deactivated, wherein the auxiliary lighting device is arranged and oriented so that, when activated, it lights said feet platform, wherein said vehicle comprises a fuel tank filler and/or an electrical recharge socket and wherein said auxiliary lighting device is adapted and configured to light said fuel tank filler and/or said electrical recharge socket; wherein the auxiliary lighting device is mounted on a front shield, being in a position substantially cantilevered with respect to the line of said front shield of the saddle riding type vehicle.
A conjugate fiber in which a first component that contains 100 % by weight of an ethylene-α-olefin copolymer having an α-olefin content of 20 mol% or less and having a melting point of 70 to 100°C and a second component that contains at least 75% by weight of a crystalline polypropylene form a side-by side cross section, wherein, in a fiber cross section perpendicular to a fiber axis, the first component accounts for 55 to 90% of an outer periphery of the fiber, a borderline between the first component and the second component forms a curve bulging toward the first component, an area ratio between the first component and the second component (first component/second component) is in a range of 70/30 to 30/70, and wherein the ratio of the melt index of the first component to the melt mass flow rate of the second component is 1.5 to 3; whereas the melting point, MI, and MFR are measured according to methods specified in the description.
A filter device comprising a plurality of filter assemblies connected up and down and a collecting component, wherein each of the filter assemblies comprises: a sample tube, which is in a hollow tubular shape and has an upper end opening and a lower end opening, and a filter mesh, which is disposed in the upper end opening of the sample tube for filtering sample to be filtered when the sample to be filtered is placed on the filter mesh; and the filter mesh has a downwardly-protruding curved surface; each of the filter assemblies further comprises an upper connecting part disposed at the upper end opening of the sample tube and a lower connecting part disposed at the lower end opening of the sample tube, and the lower connecting part of the filter assembly arranged above is connected to the upper connecting part of the filter assembly arranged below; and the upper connecting part and the lower connecting part are parts independent of the respective sample tube; the collecting component comprises an upper connecting part which is same as the upper connecting part of the filter assembly, and the upper connecting part of the collecting component is connected to the lower connecting part of the filter assembly arranged at the bottom; and the collecting component is connected to the lower end opening of the sample tube of the filter assembly arranged at the bottom for collecting liquid filtered by the filter mesh into a testing container. a sample tube, which is in a hollow tubular shape and has an upper end opening and a lower end opening, and a filter mesh, which is disposed in the upper end opening of the sample tube for filtering sample to be filtered when the sample to be filtered is placed on the filter mesh; and the filter mesh has a downwardly-protruding curved surface; each of the filter assemblies further comprises an upper connecting part disposed at the upper end opening of the sample tube and a lower connecting part disposed at the lower end opening of the sample tube, and the lower connecting part of the filter assembly arranged above is connected to the upper connecting part of the filter assembly arranged below; and the upper connecting part and the lower connecting part are parts independent of the respective sample tube; the collecting component comprises an upper connecting part which is same as the upper connecting part of the filter assembly, and the upper connecting part of the collecting component is connected to the lower connecting part of the filter assembly arranged at the bottom; and the collecting component is connected to the lower end opening of the sample tube of the filter assembly arranged at the bottom for collecting liquid filtered by the filter mesh into a testing container.
A process for the preparation of Si metal comprising: combining silicon dioxide and calcium oxide in a vessel at a temperature at which both compounds form a molten calcium silicate slag; adding silicon metal to the vessel to refine the calcium silicate slag; separating the silicon metal and calcium silicate slag; introducing a source of aluminum metal to the calcium silicate slag to reduce the calcium silicate slag to Si metal and to form a calcium aluminate slag; separating the Si metal from the calcium aluminate slag; and optionally further purifying the Si metal, e.g. by solidification refining. combining silicon dioxide and calcium oxide in a vessel at a temperature at which both compounds form a molten calcium silicate slag; adding silicon metal to the vessel to refine the calcium silicate slag; separating the silicon metal and calcium silicate slag; introducing a source of aluminum metal to the calcium silicate slag to reduce the calcium silicate slag to Si metal and to form a calcium aluminate slag; separating the Si metal from the calcium aluminate slag; and optionally further purifying the Si metal, e.g. by solidification refining.
A method for receiving processed information at a remote device comprising: transmitting from the remote device a verbal request to a first information provider; receiving a digital message from the first information provider in response to the transmitted verbal request, the digital message comprising: an application identifier instructing the remote device to launch an application when received at the remote device, wherein the application was selected based on content of the verbal request; a symbolic representation indicator associated with a symbolic representation of the verbal request, wherein the symbolic representation indicator comprises the symbolic representation; and a partial set of search results for display on the remote device, the partial set of search results based on processing by the first information provider of the symbolic representation of the verbal request, and transmitting, using the launched application, the symbolic representation indicator to a second information provider for generating search results to be displayed on the remote device. transmitting from the remote device a verbal request to a first information provider; receiving a digital message from the first information provider in response to the transmitted verbal request, the digital message comprising: an application identifier instructing the remote device to launch an application when received at the remote device, wherein the application was selected based on content of the verbal request; a symbolic representation indicator associated with a symbolic representation of the verbal request, wherein the symbolic representation indicator comprises the symbolic representation; and a partial set of search results for display on the remote device, the partial set of search results based on processing by the first information provider of the symbolic representation of the verbal request, and an application identifier instructing the remote device to launch an application when received at the remote device, wherein the application was selected based on content of the verbal request; a symbolic representation indicator associated with a symbolic representation of the verbal request, wherein the symbolic representation indicator comprises the symbolic representation; and a partial set of search results for display on the remote device, the partial set of search results based on processing by the first information provider of the symbolic representation of the verbal request, and transmitting, using the launched application, the symbolic representation indicator to a second information provider for generating search results to be displayed on the remote device.
Method of detecting a pulsed THz beam, the method comprising: - Emitting, by a THz emitter, THz radiation comprising a time series of THz pulses having an outgoing pulse shape, so that the THz radiation travels along a first path from the THz emitter to a target body to be inspected, interacts with the target body, and travels along a second path from the target body to a THz detector; - Detecting, by the THz detector, the incoming THz radiation being a time series of incoming THz pulses, and outputting, by the THz detector, a raw detector data being a time series of data relating to an incoming pulse shape of the incoming THz pulses; and - Determining, by a pulse shape reconstruction module, a reconstructed incoming pulse shape of the incoming THz radiation based on the raw detector data, characterized by - Measuring, by a sensor, a time-of-flight quantity (d) affecting the time of flight of the THz radiation along at least one of the first path and the second path, the time-of-flight quantity (d) being measured in a time-dependent manner while the THz radiation is emitted by the THz emitter; and - Adjusting operation of at least one of the THz emitter, the THz detector and the pulse shape reconstruction module using the time-of-flight quantity (d), for correcting for a variation in the time of flight of the THz radiation. - Emitting, by a THz emitter, THz radiation comprising a time series of THz pulses having an outgoing pulse shape, so that the THz radiation travels along a first path from the THz emitter to a target body to be inspected, interacts with the target body, and travels along a second path from the target body to a THz detector; - Detecting, by the THz detector, the incoming THz radiation being a time series of incoming THz pulses, and outputting, by the THz detector, a raw detector data being a time series of data relating to an incoming pulse shape of the incoming THz pulses; and - Determining, by a pulse shape reconstruction module, a reconstructed incoming pulse shape of the incoming THz radiation based on the raw detector data, characterized by - Measuring, by a sensor, a time-of-flight quantity (d) affecting the time of flight of the THz radiation along at least one of the first path and the second path, the time-of-flight quantity (d) being measured in a time-dependent manner while the THz radiation is emitted by the THz emitter; and - Adjusting operation of at least one of the THz emitter, the THz detector and the pulse shape reconstruction module using the time-of-flight quantity (d), for correcting for a variation in the time of flight of the THz radiation.
An absorbent article comprising: a topsheet; a backsheet; an absorbent core disposed between the topsheet and the backsheet; and a pair of barrier cuffs extending longitudinally along sides of the absorbent article; wherein a component of the absorbent article comprises a nonwoven web comprising: a first plurality of filaments having a diameter between 8 μm and 50 μm according to the Filament Size Test, wherein the first plurality of filaments comprises a first pigment and wherein the first pigment is a black pigment; a second plurality of filaments having a diameter between 0.3 μm and 5 μm according to the Filament Size Test; wherein the first plurality of filaments and/or the second plurality of filaments comprise crimped filaments; wherein the nonwoven web comprises a first side and an opposing second side, wherein the first plurality of filaments forms a portion of the first side and wherein the first plurality of filaments forms a portion of the second side; and wherein the nonwoven web has an L* value of between 0 and 25 as measured from either the first side or the second side, according to the CIE L*a*b* Test. a topsheet; a backsheet; an absorbent core disposed between the topsheet and the backsheet; and a pair of barrier cuffs extending longitudinally along sides of the absorbent article; wherein a component of the absorbent article comprises a nonwoven web comprising: a first plurality of filaments having a diameter between 8 μm and 50 μm according to the Filament Size Test, wherein the first plurality of filaments comprises a first pigment and wherein the first pigment is a black pigment; a second plurality of filaments having a diameter between 0.3 μm and 5 μm according to the Filament Size Test; wherein the first plurality of filaments and/or the second plurality of filaments comprise crimped filaments; wherein the nonwoven web comprises a first side and an opposing second side, wherein the first plurality of filaments forms a portion of the first side and wherein the first plurality of filaments forms a portion of the second side; and wherein the nonwoven web has an L* value of between 0 and 25 as measured from either the first side or the second side, according to the CIE L*a*b* Test. a first plurality of filaments having a diameter between 8 μm and 50 μm according to the Filament Size Test, wherein the first plurality of filaments comprises a first pigment and wherein the first pigment is a black pigment; a second plurality of filaments having a diameter between 0.3 μm and 5 μm according to the Filament Size Test; wherein the first plurality of filaments and/or the second plurality of filaments comprise crimped filaments; wherein the nonwoven web comprises a first side and an opposing second side, wherein the first plurality of filaments forms a portion of the first side and wherein the first plurality of filaments forms a portion of the second side; and wherein the nonwoven web has an L* value of between 0 and 25 as measured from either the first side or the second side, according to the CIE L*a*b* Test.
A method of preparing a monodisperse oligo (ethylene glycol), said method comprising: (i) reacting a bromo-terminated oligo (ethylene glycol) having (m) monomer subunits and a methoxy end-capping group with a first hydroxyl-terminated oligo (ethylene glycol) having (n) monomer subunits, wherein the first hydroxyl-terminated oligo (ethylene glycol) is HO-(CH 2 CH 2 O)n-H, under conditions effective to displace said bromo group to thereby form an oligo (ethylene glycol) having (m) + (n) monomer subunits (OEG m+n), where the OEG m+n has a terminal hydroxyl group; (ii) purifying the OEG m+n to provide a purified unimolecular OEG m+n; (iii) converting the terminal hydroxyl group of the purified unimolecular OEG m+n into a bromo group, -Br, to form OEG m+n -Br; (iv) reacting OEG m+n -Br with a second hydroxyl-terminated oligo (ethylene glycol) having (n) monomer subunits, where the second hydroxyl-terminated oligo (ethylene glycol) is HO-(CH 2 CH 2 O) n -H, under conditions effective to displace said bromo group to thereby form an oligo(ethylene glycol) having (m) + 2(n) monomer subunits (OEG m+2n); and (v) purifying the OEG m+2n to provide a purified unimolecular OEG m+2n having a MW/Mn value of 1.0005 or less; where (m) and each (n) is independently from 1-10; where OEG m+2n is CH 3 O(CH 2 CH 2 O) m+2n H; and where the yield of each reacting step to produce, respectively, OEG m+n and OEG m+2n, is from 25% to 75%. (i) reacting a bromo-terminated oligo (ethylene glycol) having (m) monomer subunits and a methoxy end-capping group with a first hydroxyl-terminated oligo (ethylene glycol) having (n) monomer subunits, wherein the first hydroxyl-terminated oligo (ethylene glycol) is HO-(CH 2 CH 2 O)n-H, under conditions effective to displace said bromo group to thereby form an oligo (ethylene glycol) having (m) + (n) monomer subunits (OEG m+n), where the OEG m+n has a terminal hydroxyl group; (ii) purifying the OEG m+n to provide a purified unimolecular OEG m+n; (iii) converting the terminal hydroxyl group of the purified unimolecular OEG m+n into a bromo group, -Br, to form OEG m+n -Br; (iv) reacting OEG m+n -Br with a second hydroxyl-terminated oligo (ethylene glycol) having (n) monomer subunits, where the second hydroxyl-terminated oligo (ethylene glycol) is HO-(CH 2 CH 2 O) n -H, under conditions effective to displace said bromo group to thereby form an oligo(ethylene glycol) having (m) + 2(n) monomer subunits (OEG m+2n); and (v) purifying the OEG m+2n to provide a purified unimolecular OEG m+2n having a MW/Mn value of 1.0005 or less;
A device for curing pipeline inner lining with the use of a lining tube containing a resin-based means cured by means of electromagnetic radiation, equipped with a polyhedral metal body flat faces of which are equipped with LEDs generating such radiation by emitting waves with wavelengths 200-500 nm to cure the resin-based means, where the body is provided with ribbed radiators to dissipate heat generated by the diodes, faces of said radiators are covered with side shields equipped with a sensor to monitor temperature of the cured lining tube, vehicle assemblies distributed evenly on their circumferences, rope eyelets, monitoring cameras, and leads supplying power to the LEDs characterised in that it has a metal three-piece monolithic body both of the two extreme cylindrical portions (2 and 3) of which have a diameter (Ø) larger than the diameter (Ø') of its middle cylindrical portion, and both of the two extreme portions (2 and 3) on their outside surfaces with radius are provided with a dozen identical flat facets-chords distributed symmetrically on them over the whole of their length, and between each two neighbouring chords provided are slit grooves oriented radially and ended with circular ducts oriented longitudinally along the whole length of said slit grooves and distributed evenly around the monolithic core of the body in which power leads are guided supplying electric current to LEDs and to the front camera unit, whereas on both oblique walls of thus formed profiled figures provided are rectangular grooves oriented parallel to upper flat facets and separated from each other by ribs, with a broader trapezium profile formed between said oblique walls, while below it, rectangular grooves are also provided separated from each other by ribs widths of which decrease towards the circular ducts, whereas the middle portion of the body on its cylindrical outer surface with radius is also provided over the whole of its length with identical symmetrically distributed flat facets-chords with lengths close to the lengths of upper sides of trapezoidal profiles of both extreme portions (2 and 3) of the body, and between each two the neighbouring chords there are also slit grooves oriented radially and also ended with horizontally oriented circular grooves provided along the whole of its length, whereas on both side oblique walls of thus formed profiled figures on bases of these flat facets provided is a trapezoidal profile, and below it, between the two oblique walls of the profiled figures, provided are rectangular grooves separated from each other with ribs so that the profiled figures formed this way constitute radiators for the middle portion of the body with shapes identical to those of lower portions of radiators for the two extreme portions (2 and 3) of the body, the radiators being situated in line with each other and forming a common stretch of slit groves (15 and 15'), ribs (16 and 16'), and horizontally oriented circular ducts (8 and 8').
. A cable structure, applied to an electrical device, comprising: a power cord; an insulating shell arranged at an end part or a middle portion of the power cord; and an antenna arranged in the shell, a communication module arranged in the shell and connected with the antenna and a conducting wire, wherein one end of the conducting wire is connected with the communication module or the antenna, and the other end of the conducting wire is connected with the electrical device, characterized in that the shell is detachably mounted on the power cord and that the power cord comprises a first portion and a second portion separated from the first portion; the first portion is connected with the second portion by a connecting element; and the connecting element is arranged in the shell, and in that the outside of both the power cord and the conducting wire is coated with insulating layers. a power cord; an insulating shell arranged at an end part or a middle portion of the power cord; and an antenna arranged in the shell, a communication module arranged in the shell and connected with the antenna and a conducting wire, wherein one end of the conducting wire is connected with the communication module or the antenna, and the other end of the conducting wire is connected with the electrical device, characterized in that the shell is detachably mounted on the power cord and that the power cord comprises a first portion and a second portion separated from the first portion; the first portion is connected with the second portion by a connecting element; and the connecting element is arranged in the shell, and in that the outside of both the power cord and the conducting wire is coated with insulating layers.
A composition comprising 1,2-dimyristoyl-sn-glycero-3-phosphocholine or pharmaceutically acceptable salt thereof for use in ameliorating, inhibiting or treating obesity, wherein the composition is in the form of a pharmaceutical composition for topical administration or in the form of a cosmetic composition for applying to a skin, subcutaneous tissues, muscular tissues, or abdominal tissues.