mhurhangee/ep-ind-claims huggingface dataset:
A shading system (15, 20) configured to be mounted on the roof of a glazed space such as a greenhouse or veranda, or of a non-glazed space such as a pergola, the system comprising: a rotation shaft configured to be arranged at the apex of the roof, shade material (9, 10) which can be wound around the rotation shaft in a mounted position of the system and unwound onto the roof in a lowered position of the system, and at least one slide means (16, 21) configured to be mounted on the roof so that the shade material slides on the slide means when being moved between the two positions, characterized in that the slide means comprise a rounded piece mounted on the lower edge of the roof. a rotation shaft configured to be arranged at the apex of the roof, shade material (9, 10) which can be wound around the rotation shaft in a mounted position of the system and unwound onto the roof in a lowered position of the system, and at least one slide means (16, 21) configured to be mounted on the roof so that the shade material slides on the slide means when being moved between the two positions, characterized in that the slide means comprise a rounded piece mounted on the lower edge of the roof.
A cathode for a lithium-sulphur battery, said cathode comprising a particulate mixture deposited on a current collector, said particulate mixture comprising an admixture of (i) composite particles formed from a composite comprising electroactive sulphur material melt-bonded to electroconductive carbon material, and (ii) conductive carbon filler particles, wherein conductive carbon filler particles form 1 to 15 weight % of the total weight of the composite particles and conductive carbon filler particles, characterized in that the electroconductive carbon material is selected from carbon nanotubes and graphene, wherein the conductive carbon filler particles are particles of carbon black, and wherein the composite comprises 12 to 14 weight % electroconductive carbon material based on the total weight of the composite.
A water dispenser, comprising: a) a cabinet having upper and lower end portions and an interior; b) a reservoir contained within the cabinet, the reservoir being capable of holding water; c) an anti-spill annular housing that is attached to the cabinet above the reservoir, said housing having a central opening surrounded by a bottle support surface that is configured to support an inverted water supply bottle having a neck, and a probe that extends upwardly for connecting to a water supply bottle opening on the bottle, said housing having an interior, an upper section, and a lower section; d) at least one spigot in fluid communication with the reservoir for dispensing water from the reservoir; e) a diffuser contained within the reservoir for emitting bubbles into the reservoir; f) an ozone generator supported within said annular housing interior and being operably connected to transmit ozone to the diffuser during ozonation of water to be dispensed; g) a controller contained within the annular housing and connected to the ozone generator inside the annular housing wherein the controller includes a circuit board contained within said interior of said housing, said circuit board being shaped to extend at least partially around said central opening; and h) wherein the controller controls multiple functions of the water dispenser, including at least a beginning time of ozonation and a duration time of ozonation. a) a cabinet having upper and lower end portions and an interior; b) a reservoir contained within the cabinet, the reservoir being capable of holding water; c) an anti-spill annular housing that is attached to the cabinet above the reservoir, said housing having a central opening surrounded by a bottle support surface that is configured to support an inverted water supply bottle having a neck, and a probe that extends upwardly for connecting to a water supply bottle opening on the bottle, said housing having an interior, an upper section, and a lower section; d) at least one spigot in fluid communication with the reservoir for dispensing water from the reservoir; e) a diffuser contained within the reservoir for emitting bubbles into the reservoir; f) an ozone generator supported within said annular housing interior and being operably connected to transmit ozone to the diffuser during ozonation of water to be dispensed; g) a controller contained within the annular housing and connected to the ozone generator inside the annular housing wherein the controller includes a circuit board contained within said interior of said housing, said circuit board being shaped to extend at least partially around said central opening; and h) wherein the controller controls multiple functions of the water dispenser, including at least a beginning time of ozonation and a duration time of ozonation.
A method of automatically determining which type of treatment is appropriate for a cardiac arrest victim, the method comprising: measuring at least one physiological signal; determining at least two parameters related to the at least one physiological signal, the at least two parameters forming a parameter set; repeating the measurement and calculation at more than two points in time to create a sequence of parameter sets, wherein the sequence of parameter sets defines a trajectory; and analyzing the trajectory using estimation and prediction methods that comprise the use of a recursive filter. measuring at least one physiological signal; determining at least two parameters related to the at least one physiological signal, the at least two parameters forming a parameter set; repeating the measurement and calculation at more than two points in time to create a sequence of parameter sets, wherein the sequence of parameter sets defines a trajectory; and analyzing the trajectory using estimation and prediction methods that comprise the use of a recursive filter.
A driveline for an electric or hybrid-electric vehicle, the driveline comprising: an electric motor including an insulated magnet wire having an insulation coating thereon with a thermal rating of about 190°C to about 210°C; a lubricating and cooling fluid in contact with the insulation coating of the insulated magnet wire of the electric motor; and wherein the lubricating and cooling fluid includes a detergent system providing at least about 50 ppm metal selected from calcium and magnesium to the fluid and a base oil system including a first base oil of lubricating viscosity blended with an ester base oil, wherein the base oil system includes at least about 20 weight percent of the ester base oil, and a ratio of the metal provided by the detergent system in ppm to weight percent of ester groups in the base oil system of the lubricating and cooling fluid of about 70 or less, wherein the thermal rating is determined as disclosed in the description. an electric motor including an insulated magnet wire having an insulation coating thereon with a thermal rating of about 190°C to about 210°C; a lubricating and cooling fluid in contact with the insulation coating of the insulated magnet wire of the electric motor; and wherein the lubricating and cooling fluid includes a detergent system providing at least about 50 ppm metal selected from calcium and magnesium to the fluid and a base oil system including a first base oil of lubricating viscosity blended with an ester base oil, wherein the base oil system includes at least about 20 weight percent of the ester base oil, and a ratio of the metal provided by the detergent system in ppm to weight percent of ester groups in the base oil system of the lubricating and cooling fluid of about 70 or less, wherein the thermal rating is determined as disclosed in the description.
An audio processor comprising: a Fourier transform unit configured to transform an audio signal from a time-domain signal into a frequency-domain signal; a filtering unit configured to perform a filtering process on the audio signal that has been transformed into the frequency-domain signal by the Fourier transform unit, using a second filter coefficient; an inverse Fourier transform unit configured to transform the audio signal subjected to the filtering process by the filtering unit, from the frequency-domain signal into a time-domain signal; a band gain setting unit configured to set first gains for respective bands used to perform the filtering process on the audio signal; a volume setting unit configured to set a second gain for increasing or reducing a volume of the audio signal; a first filter coefficient calculator configured to calculate a first filter coefficient that can increase or reduce gains for respective bands, so as to correspond to the first gains for the respective bands set by the band gain setting unit; and a second filter coefficient calculator configured to compare each value of gains for respective bands of the first filter coefficient with an absolute value of the second gain set by the volume setting unit, and to, if the value of the gains for the respective bands of the first filter coefficient is greater than the absolute value of the second gain, calculate the second filter coefficient by limiting the values of the gains for the respective bands of the first filter coefficient to the absolute value of the second gain. a Fourier transform unit configured to transform an audio signal from a time-domain signal into a frequency-domain signal; a filtering unit configured to perform a filtering process on the audio signal that has been transformed into the frequency-domain signal by the Fourier transform unit, using a second filter coefficient; an inverse Fourier transform unit configured to transform the audio signal subjected to the filtering process by the filtering unit, from the frequency-domain signal into a time-domain signal; a band gain setting unit configured to set first gains for respective bands used to perform the filtering process on the audio signal; a volume setting unit configured to set a second gain for increasing or reducing a volume of the audio signal; a first filter coefficient calculator configured to calculate a first filter coefficient that can increase or reduce gains for respective bands, so as to correspond to the first gains for the respective bands set by the band gain setting unit; and a second filter coefficient calculator configured to compare each value of gains for respective bands of the first filter coefficient with an absolute value of the second gain set by the volume setting unit, and to, if the value of the gains for the respective bands of the first filter coefficient is greater than the absolute value of the second gain, calculate the second filter coefficient by limiting the values of the gains for the respective bands of the first filter coefficient to the absolute value of the second gain.
A non-transitory computer readable storage medium to tangibly store instructions, which are adapted, when executed by a computer, to cause the computer to perform operations comprising: at a computing device, determining base frequency, f 0, for a speech signal (100, 500), wherein the speech signal (100, 500) is considered as a flat curve, wherein the speech signal (100, 500) comprises extrema points (502, 504, 506, 508) where the speech signal (100, 500) changes direction resulting in a curvature at each extrema point; wherein the speech signal (100, 500) is represented as a value of air pressure over a period of time, t and a phoneme that is part of the speech signal (100, 500) is represented by a phoneme function p(t) which represents this air pressure over time; calculating the curvatures at the extrema points (502, 504, 506, 508) of the speech signal (100, 500) based on a normalized phoneme function, φ(t), wherein the normalized phoneme function φ(t) is a function of a time period T = 1/f 0 of the phoneme function p(t) and a value max(|p min |p max |) of the phoneme function p(t) by: φ t = p T 2 π t max p min p max; wherein the value max(|p min |,|p max |) of the phoneme function p(t) is the larger of an absolute value of maximum value p max of the phoneme function p(t); and an absolute value of minimum value p min of the phoneme function p(t); wherein the calculating of the curvatures at the extrema points (502, 504, 506, 508) is performed by: η t = d 2 φ d t 2 1 + dφ dt 2 3; comparing the calculated curvatures with reference curvatures of phonemes; when a sequence of the calculated curvatures matches a sequence of the reference curvatures, identifying a corresponding phoneme. at a computing device, determining base frequency, f 0, for a speech signal (100, 500), wherein the speech signal (100, 500) is considered as a flat curve, wherein the speech signal (100, 500) comprises extrema points (502, 504, 506, 508) where the speech signal (100, 500) changes direction resulting in a curvature at each extrema point; wherein the speech signal (100, 500) is represented as a value of air pressure over a period of time, t and a phoneme that is part of the speech signal (100, 500) is represented by a phoneme function p(t) which represents this air pressure over time; calculating the curvatures at the extrema points (502, 504, 506, 508) of the speech signal (100, 500) based on a normalized phoneme function, φ(t), wherein the normalized phoneme function φ(t) is a function of a time period T = 1/f 0 of the phoneme function p(t) and a value max(|p min |p max |) of the phoneme function p(t) by: φ t = p T 2 π t max p min p max; wherein the value max(|p min |,|p max |) of the phoneme function p(t) is the larger of an absolute value of maximum value p max of the phoneme function p(t); and an absolute value of minimum value p min of the phoneme function p(t); comparing the calculated curvatures with reference curvatures of phonemes; when a sequence of the calculated curvatures matches a sequence of the reference curvatures, identifying a corresponding phoneme.
An apparatus for scraping, cutting or grating food products, comprising: - a tray configured to receive the food product; and - a blade, preferably removable, mounted so as to rotate about an axis of rotation passing through the centre of the food product so as to cooperate with an upper face of the food product placed on the tray, which blade is provided with a knob that is rotatably mounted on an offset axle of the blade, which offset axle is substantially parallel to the axis of rotation of the blade, characterized in that the knob is mounted on the offset axle by means of a coupling element (30; 30*) inserted inside a recess formed in the knob, in that the coupling element (30; 30*) exhibits an internal recess (300A; 300A*) dimensioned to receive one end of the offset shaft and to provide rotational mounting of the knob on the offset axle, and in that the coupling element (30; 30*) is configured so as to allow the knob to be repeatedly mounted on and removed from the offset axle. - a tray configured to receive the food product; and - a blade, preferably removable, mounted so as to rotate about an axis of rotation passing through the centre of the food product so as to cooperate with an upper face of the food product placed on the tray, which blade is provided with a knob that is rotatably mounted on an offset axle of the blade, which offset axle is substantially parallel to the axis of rotation of the blade, characterized in that the knob is mounted on the offset axle by means of a coupling element (30; 30*) inserted inside a recess formed in the knob, in that the coupling element (30; 30*) exhibits an internal recess (300A; 300A*) dimensioned to receive one end of the offset shaft and to provide rotational mounting of the knob on the offset axle, and in that the coupling element (30; 30*) is configured so as to allow the knob to be repeatedly mounted on and removed from the offset axle. characterized in that the knob is mounted on the offset axle by means of a coupling element (30; 30*) inserted inside a recess formed in the knob, in that the coupling element (30; 30*) exhibits an internal recess (300A; 300A*) dimensioned to receive one end of the offset shaft and to provide rotational mounting of the knob on the offset axle, and in that the coupling element (30; 30*) is configured so as to allow the knob to be repeatedly mounted on and removed from the offset axle.
A prosthetic device for implanting at a native mitral or tricuspid valve region of the heart, the native valve region having a native valve annulus and native leaflets, the prosthetic device comprising: a main body (108, 208) configured for placement within the native valve annulus, the main body (108, 208) having a lumen extending between an atrial end (110, 210) and a ventricular end (112, 212); an atrial cap (114, 214) that extends radially outwardly from the atrial end (110, 210); and a plurality of ventricular anchors (116, 216) spaced angularly around a circumference of the main body (108, 208), each ventricular anchor (116, 216) having a proximal end portion (122, 222) connected to the main body (108, 208) proximate the ventricular end (112, 212) at only a single location on the main body (108, 208), an intermediate portion (124, 224) extending away from the atrial end (110, 210) and then back toward the atrial end (110, 210) so as to define a first bend, and a distal end portion (126, 226) extending from the intermediate portion (124, 224), the distal end portion (126, 226) comprising a first section, a second section, and a second bend between the first and the second section, the first section extending from the intermediate portion (124, 224) in a direction toward the atrial end (110, 210) and radially away from the main body (108, 208), characterized in that the distal end portion (126, 226) of each ventricular anchor (116, 216) comprises an atraumatic head portion (128, 228) that is wider in a circumferential direction of the main body (108, 208) than the intermediate portion (124, 224) of the respective ventricular anchor (116, 216). a main body (108, 208) configured for placement within the native valve annulus, the main body (108, 208) having a lumen extending between an atrial end (110, 210) and a ventricular end (112, 212); an atrial cap (114, 214) that extends radially outwardly from the atrial end (110, 210); and a plurality of ventricular anchors (116, 216) spaced angularly around a circumference of the main body (108, 208), each ventricular anchor (116, 216) having a proximal end portion (122, 222) connected to the main body (108, 208) proximate the ventricular end (112, 212) at only a single location on the main body (108, 208), an intermediate portion (124, 224) extending away from the atrial end (110, 210) and then back toward the atrial end (110, 210) so as to define a first bend, and a distal end portion (126, 226) extending from the intermediate portion (124, 224), the distal end portion (126, 226) comprising a first section, a second section, and a second bend between the first and the second section, the first section extending from the intermediate portion (124, 224) in a direction toward the atrial end (110, 210) and radially away from the main body (108, 208), characterized in that the distal end portion (126, 226) of each ventricular anchor (116, 216) comprises an atraumatic head portion (128, 228) that is wider in a circumferential direction of the main body (108, 208) than the intermediate portion (124, 224) of the respective ventricular anchor (116, 216).
Method for binding dissolved phosphorus for the purpose of supporting biological filter systems, in particular within swimming pools, ponds and biopools, characterised In that a) by means of controlled hydraulic pressure change and/or controlled pneumatic suction, flows are generated of the water to be treated, which result in the water to be treated flowing through a container comprising a housing in which gravel materials (4, 3) are introduced, and in that b) these water flows are guided through a water distribution in the container over the entire cross-section of the interior of the container, so that water flows through a granular form of a binder, and wherein the binder consists of chemical compounds of iron hydroxide and lanthanum, which bind the phosphorus dissolved in the water, and wherein the binder is arranged in layers over the entire cross-section of the interior between gravel materials (4, 3) of the filter system. a) by means of controlled hydraulic pressure change and/or controlled pneumatic suction, flows are generated of the water to be treated, which result in the water to be treated flowing through a container comprising a housing in which gravel materials (4, 3) are introduced, and in that b) these water flows are guided through a water distribution in the container over the entire cross-section of the interior of the container, so that water flows through a granular form of a binder, and wherein the binder consists of chemical compounds of iron hydroxide and lanthanum, which bind the phosphorus dissolved in the water, and wherein the binder is arranged in layers over the entire cross-section of the interior between gravel materials (4, 3) of the filter system.
A soluble Fibroblast Growth Factor Receptor 3 (sFGFR3) polypeptide: (i) consisting of amino acid residues 1-370 of the amino acid sequence of SEQ ID NO: 2, or a variant with at least 97% sequence identity thereto; or (ii) consisting of a variant of amino acid residues 1-370 of the amino acid sequence of SEQ ID NO: 2 with up to 5 changes thereto, wherein the up to 5 changes are amino acid exchanges, insertions, deletions, N-terminal truncations and/or C-terminal truncations; or (iii) consisting of amino acid residues 23-370 of the amino acid sequence of SEQ ID NO: 2; or (iv) wherein the sFGFR3 polypeptide is the secreted form of the sFGFR3 polypeptide of (i) or (ii); wherein the polypeptide binds to a fibroblast growth factor. (i) consisting of amino acid residues 1-370 of the amino acid sequence of SEQ ID NO: 2, or a variant with at least 97% sequence identity thereto; or (ii) consisting of a variant of amino acid residues 1-370 of the amino acid sequence of SEQ ID NO: 2 with up to 5 changes thereto, wherein the up to 5 changes are amino acid exchanges, insertions, deletions, N-terminal truncations and/or C-terminal truncations; or (iii) consisting of amino acid residues 23-370 of the amino acid sequence of SEQ ID NO: 2; or (iv) wherein the sFGFR3 polypeptide is the secreted form of the sFGFR3 polypeptide of (i) or (ii);