mhurhangee/ep-ind-claims huggingface dataset:
Textile electrode for measuring an electrical signal from a body part, said electrode comprising, successively from the side to be applied on the body part to the outside: - a conductive textile contact adapted to be applied to said body part; - a textile support for supporting said textile contact; - a vapour barrier sheet material able to reduce, in use, evaporation of liquid from said textile electrode; - an absorbent material able to store a liquid or a gel, characterised in that said absorbent material is disposed between said conductive textile and said textile support. - a conductive textile contact adapted to be applied to said body part; - a textile support for supporting said textile contact; - a vapour barrier sheet material able to reduce, in use, evaporation of liquid from said textile electrode; - an absorbent material able to store a liquid or a gel, characterised in that said absorbent material is disposed between said conductive textile and said textile support.
An audio encoding system for producing, based on an audio signal, a gain profile (g) to be distributed with said audio signal, the gain profile comprising a time-variable voice activity gain (G VAD) and a time-variable and frequency-variable cleaning gain (G clean), wherein the audio encoding system comprises: a voice activity detector adapted to determine the voice activity gain by at least determining voice activity in the audio signal; and a noise estimator (46, 48, 90) adapted to determine the cleaning gain by at least estimating noise in said audio signal, wherein the cleaning gain is separable from the voice activity gain in the gain profile. a voice activity detector adapted to determine the voice activity gain by at least determining voice activity in the audio signal; and a noise estimator (46, 48, 90) adapted to determine the cleaning gain by at least estimating noise in said audio signal, wherein the cleaning gain is separable from the voice activity gain in the gain profile.
An axial fan comprising an essentially circular-cylindrical blower pipe having an internal diameter and wherein the blower pipe is configured with a fan rotor, which fan rotor has a rotor shaft which essentially coincides with the centre axis of the circular-cylindrical blower pipe; and wherein the fan rotor comprises a centrally arranged rotor hub which, via said rotor shaft, is connected to a motor drive, and a number of rotor blades, each of which extends completely or partially radially from the rotor hub and towards the circular-cylindrical blower pipe; and wherein each blade has a proximal end secured to the rotor hub, and a distal end at the outer diameter of the rotor which is slightly smaller than the internal diameter of the blower pipe, and wherein the rotor hub comprises an outer shell having on its outside a hub surface which is essentially rotational-symmetrical about the centre axis of the rotor hub; and wherein the rotor hub has a front end and a rear end and a diverging section there between, where the radius of the hub surface in the diverging section is increased by the distance to the front end on the hub; and wherein the rotor hub and the blades are made as separate metal parts; and wherein the rotor blades are securely mounted to the diverging section on the hub surface; and wherein the blades are welded or soldered to the hub surface, and wherein the hub further comprises a shaft part extending within the outer shell along the centre axis of the rotor hub, which shaft part comprises means for mounting of the rotor hub on a drive shaft and being connected to the outer shell at the front end thereof, characterised in that, for each individual blade on the fan rotor, there is configured a first reinforcement rib extending between the shaft part and the outer shell and supporting the outer shell underneath the blade relative to the shaft part.
Mold for manufacturing a sole for shoe, said mold comprising a die consisting in a plate-shaped body made of aluminum alloy, said die comprises: - a cavity that reproduces the shape of the sole, the cavity of the die having a bottom wall, and - a plurality of blades that protrude from the bottom wall of the cavity of the die, characterized in that said blades are made of a harder material than the aluminum alloy used for the body of the die, said blades have a thickness lower than 2 mm, preferably 0.8 - 1.5 mm, and said blades have a height higher than 5 mm, preferably 6 - 11 mm. - a cavity that reproduces the shape of the sole, the cavity of the die having a bottom wall, and - a plurality of blades that protrude from the bottom wall of the cavity of the die,
A laser therapeutic system, comprising: a laser source configured to emit a therapeutic laser beam toward an eye; a laser control system in communication with said laser source, wherein said laser control system is configured to control one or more parameters of said therapeutic laser beam; an analyzer comprising: a light source configured to illuminate said eye; one or more detectors configured to receive reflected light off from said eye and to generate images of an iris of said eye; a memory comprising computer executable instructions; and a processor in communication with said laser control system, said one or more detectors and said memory, said processor configured to receive said images of said iris of said eye and to execute said computer executable instructions characterized in that said instructions comprise a global correlation algorithm capable of precisely determining an iris orientation based upon said images of said iris without the need for singling out particular points in said iris or in said eye, so as to generate a signal based on a correlation function that is defined for said images of said iris of said eye and said signal is able to rotate a coordinate system to correct orientation of said therapeutic laser beam relative so said eye, and wherein said signal is received by said laser control system, which is configured to use said signal to change orientation of said therapeutic laser beam relative to said eye. a laser source configured to emit a therapeutic laser beam toward an eye; a laser control system in communication with said laser source, wherein said laser control system is configured to control one or more parameters of said therapeutic laser beam; an analyzer comprising: a light source configured to illuminate said eye; one or more detectors configured to receive reflected light off from said eye and to generate images of an iris of said eye; a memory comprising computer executable instructions; and a processor in communication with said laser control system, said one or more detectors and said memory, said processor configured to receive said images of said iris of said eye and to execute said computer executable instructions characterized in that said instructions comprise a global correlation algorithm capable of precisely determining an iris orientation based upon said images of said iris without the need for singling out particular points in said iris or in said eye, so as to generate a signal based on a correlation function that is defined for said images of said iris of said eye and said signal is able to rotate a coordinate system to correct orientation of said therapeutic laser beam relative so said eye, and wherein said signal is received by said laser control system, which is configured to use said signal to change orientation of said therapeutic laser beam relative to said eye.
Electrical machine, in particular electrical radial flux machine, comprising a housing, the hollow-cylindrical housing casing of which has: a first casing segment with a plurality of cooling ducts which are separated from one another and which run from cooling duct openings on a first circumferential end face of the first casing segment, through the first casing segment, to cooling duct openings on a second circumferential end face of the first casing segment; characterized in that the housing casing has a second casing segment with a plurality of connecting ducts which each run from a connecting duct opening for this purpose on the first circumferential end face of the second casing segment, through the second casing segment, to a connecting duct opening on a second circumferential end face of the second casing segment; wherein the connecting duct openings in the end faces of the second casing segment are arranged such that in each case one connecting duct connects two cooling ducts, which are adjacent in the first casing segment, to one another such that the plurality of separated cooling ducts in the first casing segment form a continuous cooling duct of the housing casing together with the connecting ducts in the second casing segment. a first casing segment with a plurality of cooling ducts which are separated from one another and which run from cooling duct openings on a first circumferential end face of the first casing segment, through the first casing segment, to cooling duct openings on a second circumferential end face of the first casing segment; characterized in that the housing casing has a second casing segment with a plurality of connecting ducts which each run from a connecting duct opening for this purpose on the first circumferential end face of the second casing segment, through the second casing segment, to a connecting duct opening on a second circumferential end face of the second casing segment; wherein the connecting duct openings in the end faces of the second casing segment are arranged such that in each case one connecting duct connects two cooling ducts, which are adjacent in the first casing segment, to one another such that the plurality of separated cooling ducts in the first casing segment form a continuous cooling duct of the housing casing together with the connecting ducts in the second casing segment.
Apparatus for providing optical radiation, which apparatus comprises a laser diode, a pulse generator, and a modulator, wherein: • the pulse generator is configured to emit picosecond pulses; • the modulator is configured to emit nanosecond pulses; • the laser diode has a first terminal and a second terminal; • the pulse generator is connected to the first terminal; and • the modulator is configured to bias the laser diode below a lasing threshold of the laser diode, and the apparatus being characterized in that: • the modulator is connected to the second terminal; • the pulse generator comprises a semiconductor junction connected to a differentiator; • the semiconductor junction is such that electric current flowing through the semiconductor junction can be turned off more quickly than it can be turned on; and • the differentiator is such that a step change that occurs when the electric current flowing through the semiconductor junction is turned off is converted to an electrical pulse, thereby gain switching the laser diode such that it emits an optical pulse having an optical pulse width less than 1ns. • the pulse generator is configured to emit picosecond pulses; • the modulator is configured to emit nanosecond pulses; • the laser diode has a first terminal and a second terminal; • the pulse generator is connected to the first terminal; and • the modulator is configured to bias the laser diode below a lasing threshold of the laser diode, • the modulator is connected to the second terminal; • the pulse generator comprises a semiconductor junction connected to a differentiator; • the semiconductor junction is such that electric current flowing through the semiconductor junction can be turned off more quickly than it can be turned on; and • the differentiator is such that a step change that occurs when the electric current flowing through the semiconductor junction is turned off is converted to an electrical pulse, thereby gain switching the laser diode such that it emits an optical pulse having an optical pulse width less than 1ns.
A wound care device having a substrate which is a fabric, at least a portion of said substrate being coated with a non-electrically conductive finish, wherein said finish comprises at least one silver ion-releasing compound and at least one binding agent, and wherein said silver ion-releasing compound is present in an amount that is at least 35% more than the amount of said binding agent, wherein said fabric is a circular knit fabric comprised of polyester and nylon, such that said knit fabric has a polyester side and a nylon side. wherein said finish comprises at least one silver ion-releasing compound and at least one binding agent, and wherein said silver ion-releasing compound is present in an amount that is at least 35% more than the amount of said binding agent, wherein said fabric is a circular knit fabric comprised of polyester and nylon, such that said knit fabric has a polyester side and a nylon side.
A high strength, high formability and low cost aluminum-lithium alloy comprising: from 3.6 to 4.5 wt. % Cu, from 0.8 to 1.6 wt. % Li, from 0.9 to 1.5 wt. % Mg, less than 0.2 wt. % Ag, from 0.03 to 0.6 wt. % of at least one grain structure control element selected from the group consisting of Zr, Sc, Cr, V, Hf, and other rare earth elements, optionally up to 0.5 wt. % Zn, optionally up to 1.0 wt. % Mn, up to 0.15 wt. % Ti, up to 0.12 wt. % Si, up to 0.15 wt. % Fe, with the balance being aluminum and unavoidable impurities. from 3.6 to 4.5 wt. % Cu, from 0.8 to 1.6 wt. % Li, from 0.9 to 1.5 wt. % Mg, less than 0.2 wt. % Ag, from 0.03 to 0.6 wt. % of at least one grain structure control element selected from the group consisting of Zr, Sc, Cr, V, Hf, and other rare earth elements, optionally up to 0.5 wt. % Zn, optionally up to 1.0 wt. % Mn, up to 0.15 wt. % Ti, up to 0.12 wt. % Si, up to 0.15 wt. % Fe, with the balance being aluminum and unavoidable impurities.
A combustor, comprising: an annularly shaped liner at least partially defining a hot gas path of the combustor; a flow sleeve circumferentially surrounding at least a portion of the liner, wherein the flow sleeve is radially spaced from the liner to form a cooling flow annulus therebetween; a bluff body extending radially between the flow sleeve and the liner through the cooling flow annulus; and at least one guide vane disposed within the cooling flow annulus and extending between the flow sleeve and the liner proximate to the bluff body; characterized in that the at least one guide vane extends radially through the flow sleeve into the cooling flow annulus. an annularly shaped liner at least partially defining a hot gas path of the combustor; a flow sleeve circumferentially surrounding at least a portion of the liner, wherein the flow sleeve is radially spaced from the liner to form a cooling flow annulus therebetween; a bluff body extending radially between the flow sleeve and the liner through the cooling flow annulus; and at least one guide vane disposed within the cooling flow annulus and extending between the flow sleeve and the liner proximate to the bluff body; characterized in that the at least one guide vane extends radially through the flow sleeve into the cooling flow annulus.
A base station device comprising: a first generating unit configured to generate a data channel transmitted in each of a plurality of time units; a second generating unit configured to generate a control channel including allocation information on the data channel and group identifying information for identifying a group to which each time unit belongs, wherein acknowledgements related to the data channel in time units belonging to a same group are collectively fed back; a judging unit configured to judge whether a frequency band for which a license is not needed to use in wireless communication is being used by another device; and a transmitting unit configured to transmit, when it is judged, by the judging unit, that the frequency band is not being used, the data channel and the control channel by using the frequency band, wherein the control channel includes a feedback timing information which is not applied for the data channel when an acknowledgement for the data channel is collectively fed back with an acknowledgement for an other data channel that belongs to a same group as the data channel, the other data channel being transmitted after transmitting the data channel. a first generating unit configured to generate a data channel transmitted in each of a plurality of time units; a second generating unit configured to generate a control channel including allocation information on the data channel and group identifying information for identifying a group to which each time unit belongs, wherein acknowledgements related to the data channel in time units belonging to a same group are collectively fed back; a judging unit configured to judge whether a frequency band for which a license is not needed to use in wireless communication is being used by another device; and a transmitting unit configured to transmit, when it is judged, by the judging unit, that the frequency band is not being used, the data channel and the control channel by using the frequency band, wherein the control channel includes a feedback timing information which is not applied for the data channel when an acknowledgement for the data channel is collectively fed back with an acknowledgement for an other data channel that belongs to a same group as the data channel, the other data channel being transmitted after transmitting the data channel.
An electric kettle, comprising a heating plate assembly arranged on a bottom of the electric kettle and comprising: a chassis, a heat conducting plate, welded on a bottom of the chassis, and a heating tube, connected to a bottom of the heat conducting plate, wherein, the chassis has an annular heat collecting area formed at a position corresponding to the heating tube and is provided with a plurality of continuously distributed convex ribs in the heat collecting area; the convex ribs extend along the heat collecting area and define a plurality of concave cavities between the chassis and the heat conducting plate; the convex ribs protrude upward relative to a surface of the chassis, and the heat conducting plate is provided with grooves arranged on a surface of the heat conducting plate and communicated with the concave cavities, wherein, the heat conducting plate is provided with a locating hole in a middle of the heat conducting plate, and the grooves are distributed radially outward from a circumference of the locating hole, wherein, the convex ribs are distributed all over the heat collecting area, wherein, the heat collecting area has a width ranging from 12 mm to 30 mm, the convex ribs have a width L1 ranging from 2 mm to 5mm, and the convex ribs have a height ranging from 0.1 mm to 2 mm, wherein, the concave cavities are located inside the convex ribs, and the concave cavities have bottom ends not lower than a bottom surface of the chassis. a chassis, a heat conducting plate, welded on a bottom of the chassis, and a heating tube, connected to a bottom of the heat conducting plate, wherein, the chassis has an annular heat collecting area formed at a position corresponding to the heating tube and is provided with a plurality of continuously distributed convex ribs in the heat collecting area; the convex ribs extend along the heat collecting area and define a plurality of concave cavities between the chassis and the heat conducting plate; the convex ribs protrude upward relative to a surface of the chassis, and the heat conducting plate is provided with grooves arranged on a surface of the heat conducting plate and communicated with the concave cavities, wherein, the heat conducting plate is provided with a locating hole in a middle of the heat conducting plate, and the grooves are distributed radially outward from a circumference of the locating hole, wherein, the convex ribs are distributed all over the heat collecting area, wherein, the heat collecting area has a width ranging from 12 mm to 30 mm, the convex ribs have a width L1 ranging from 2 mm to 5mm, and the convex ribs have a height ranging from 0.1 mm to 2 mm, wherein, the concave cavities are located inside the convex ribs, and the concave cavities have bottom ends not lower than a bottom surface of the chassis.
A planographic printing plate precursor which includes a polymer layer on a surface of a support, comprising a back coat layer having an arithmetic average height Sa, measured according to the method defined in ISO 25178, of ≥ 0.5 μm due to a surface roughness structure in which thin film portions and thick film portions are continuously formed on a rear surface of the support.
Support structure for an offshore wind turbine comprising a lattice, formed around a central axis, of corner piles and stiffening ribs, and, provided on an underside of the support structure, suction buckets configured to be suctioned into an underwater bottom and thus anchor the support structure to the underwater bottom, and further, provided on an upper side of the support structure, a connecting flange for a wind turbine tower, wherein the upper side also comprises a ballast holder in which mass is received, this in a manner such that the centre of gravity of the mass lies eccentrically relative to the central axis, wherein the support structure comprises on the upper side a platform, the centre of gravity of which lies eccentrically relative to the central axis, and wherein the joint centre of gravity of the mass and the platform lies on the central axis.