mhurhangee/ep-ind-claims huggingface dataset:
An antenna system of a wireless electronic device, comprising: a first antenna ring extending around a perimeter of the wireless electronic device; a second antenna ring extending around the perimeter of the wireless electronic device spaced apart from the first antenna ring; a first connector portion (414, 418,540) electrically connecting the first antenna ring to the second antenna ring at the perimeter of the wireless electronic device; a ground plane in the wireless electronic device, wherein the first and second antenna rings are spaced apart from the ground plane; a first port at the ground plane configured to feed a first electrical signal to the first antenna ring; and a first ground element electrically connecting the first antenna ring to the ground plane, characterised in that: a portion of the first antenna ring between the first port and the first ground element and a portion of the ground plane between the first ground element and the first port form a first conductive pattern for the first electrical signal around a first slot, wherein the first slot is a first nonconductive space. a first antenna ring extending around a perimeter of the wireless electronic device; a second antenna ring extending around the perimeter of the wireless electronic device spaced apart from the first antenna ring; a first connector portion (414, 418,540) electrically connecting the first antenna ring to the second antenna ring at the perimeter of the wireless electronic device; a ground plane in the wireless electronic device, wherein the first and second antenna rings are spaced apart from the ground plane; a first port at the ground plane configured to feed a first electrical signal to the first antenna ring; and a first ground element electrically connecting the first antenna ring to the ground plane, characterised in that: a portion of the first antenna ring between the first port and the first ground element and a portion of the ground plane between the first ground element and the first port form a first conductive pattern for the first electrical signal around a first slot, wherein the first slot is a first nonconductive space.
A decoding apparatus comprising: an obtaining unit configured to obtain, as encoding results, a lower frequency envelope of an audio signal, a lower frequency spectrum normalized by using the lower frequency envelope, a higher frequency envelope of the audio signal, and a degree of concentration of a higher frequency spectrum of the audio signal, wherein the degree of concentration represents a ratio of a maximum in a higher frequency spectrum of the audio signal to an average of a higher frequency spectrum of the audio signal; a generating unit configured to generate a higher frequency spectrum by using the normalized lower frequency spectrum and the higher frequency envelope of the encoding results obtained by the obtaining unit; a randomizing unit configured to randomize a phase of the higher frequency spectrum, based on the degree of concentration, the higher frequency spectrum being generated by the generating unit; and a combining unit configured to denormalize the lower frequency spectrum by using the lower frequency envelope and combine the higher frequency spectrum randomized by the randomizing unit or the higher frequency spectrum generated by the generating unit with the denormalized lower frequency spectrum, a result of the combination being used as a spectrum of an entire band. an obtaining unit configured to obtain, as encoding results, a lower frequency envelope of an audio signal, a lower frequency spectrum normalized by using the lower frequency envelope, a higher frequency envelope of the audio signal, and a degree of concentration of a higher frequency spectrum of the audio signal, wherein the degree of concentration represents a ratio of a maximum in a higher frequency spectrum of the audio signal to an average of a higher frequency spectrum of the audio signal; a generating unit configured to generate a higher frequency spectrum by using the normalized lower frequency spectrum and the higher frequency envelope of the encoding results obtained by the obtaining unit; a randomizing unit configured to randomize a phase of the higher frequency spectrum, based on the degree of concentration, the higher frequency spectrum being generated by the generating unit; and a combining unit configured to denormalize the lower frequency spectrum by using the lower frequency envelope and combine the higher frequency spectrum randomized by the randomizing unit or the higher frequency spectrum generated by the generating unit with the denormalized lower frequency spectrum, a result of the combination being used as a spectrum of an entire band.
Method for creating bumps, wherein the method comprises: providing a first component having a first metallic surface area, creating bumps at the first component, wherein the bumps project beyond an infinite geometric plane which is spanned by the first metallic surface area, providing a conical tool or a number of conical tools, wherein each bump is created by pressing a conical tool or one of the conical tools against the first component in a respective surface region of the first component, characterized in that the first component is an injector cup, wherein the first metallic surface area is located at an outside of a face wall of the injector cup and extends around a first via hole which is provided in the face wall, or that the first component is a fuel rail which has a flat plane interface extending around a second via hole, wherein the second metallic surface area is located at a surface of the flat plane interface and extends around the second via hole. providing a first component having a first metallic surface area, creating bumps at the first component, wherein the bumps project beyond an infinite geometric plane which is spanned by the first metallic surface area, providing a conical tool or a number of conical tools, wherein each bump is created by pressing a conical tool or one of the conical tools against the first component in a respective surface region of the first component, characterized in that the first component is an injector cup, wherein the first metallic surface area is located at an outside of a face wall of the injector cup and extends around a first via hole which is provided in the face wall, or that the first component is a fuel rail which has a flat plane interface extending around a second via hole, wherein the second metallic surface area is located at a surface of the flat plane interface and extends around the second via hole.
A system (200; 300; 400; 500) for obtaining methanol from foul condensate of a pulping process, the system (200; 300; 400; 500) comprising: a primary stripper arranged to strip the foul condensate from pollutants, whereby a first methanol-containing condensate is obtained from the polluted stripper off gases (SOGs) of the primary stripper by condensing the polluted gases in a primary SOG condenser, wherein the system (200; 300; 400; 500) is characterized by further comprising: a first acidification unit arranged to acidify the first methanol-containing condensate, a secondary stripper arranged to strip the acidified first methanol-containing condensate in order to remove the pollutants together with the SOGs to obtain a second methanol-containing condensate as the remaining condensate in the secondary stripper, and a distillation column arranged to distil the second methanol-containing condensate from the secondary stripper so as to obtain the methanol. a primary stripper arranged to strip the foul condensate from pollutants, whereby a first methanol-containing condensate is obtained from the polluted stripper off gases (SOGs) of the primary stripper by condensing the polluted gases in a primary SOG condenser, wherein the system (200; 300; 400; 500) is characterized by further comprising: a first acidification unit arranged to acidify the first methanol-containing condensate, a secondary stripper arranged to strip the acidified first methanol-containing condensate in order to remove the pollutants together with the SOGs to obtain a second methanol-containing condensate as the remaining condensate in the secondary stripper, and a distillation column arranged to distil the second methanol-containing condensate from the secondary stripper so as to obtain the methanol. a first acidification unit arranged to acidify the first methanol-containing condensate, a secondary stripper arranged to strip the acidified first methanol-containing condensate in order to remove the pollutants together with the SOGs to obtain a second methanol-containing condensate as the remaining condensate in the secondary stripper, and a distillation column arranged to distil the second methanol-containing condensate from the secondary stripper so as to obtain the methanol.
A method for classifying sleep stages of a subject, the method comprising using a processor to: access one or more detected signals related to respiration movements of the subject; analyze at least a portion of the detected signals to calculate respiration variability, the respiration variability comprising one or more of variability of respiration rate and variability of respiration amplitude, the analysis further including: • setting a respiration stability threshold value depending on a comparison of the variability of the respiration rate with a rate threshold value and/or depending on a comparison of the variability of the respiration amplitude with an amplitude threshold value, and • calculating a respiration rate range for each of a number of epochs, based on minimum and maximum values of the respiration rates of each of the respective epochs; comparing the calculated respiration rate range with the stability threshold value for the epoch; and classifying a sleep stage for the epoch as deep sleep if the calculated respiration range is smaller than the stability threshold, or otherwise classifying the sleep stage for the epoch as light sleep (307, 308). access one or more detected signals related to respiration movements of the subject; analyze at least a portion of the detected signals to calculate respiration variability, the respiration variability comprising one or more of variability of respiration rate and variability of respiration amplitude, the analysis further including: • setting a respiration stability threshold value depending on a comparison of the variability of the respiration rate with a rate threshold value and/or depending on a comparison of the variability of the respiration amplitude with an amplitude threshold value, and • calculating a respiration rate range for each of a number of epochs, based on minimum and maximum values of the respiration rates of each of the respective epochs; • setting a respiration stability threshold value depending on a comparison of the variability of the respiration rate with a rate threshold value and/or depending on a comparison of the variability of the respiration amplitude with an amplitude threshold value, and • calculating a respiration rate range for each of a number of epochs, based on minimum and maximum values of the respiration rates of each of the respective epochs; comparing the calculated respiration rate range with the stability threshold value for the epoch; and classifying a sleep stage for the epoch as deep sleep if the calculated respiration range is smaller than the stability threshold, or otherwise classifying the sleep stage for the epoch as light sleep (307, 308).
Cleaning robot comprising: - a housing, - an electric motor which drives a first output, characterised in that the first output is connected movably relative to the housing of the cleaning robot by means of a fastening means, wherein in a first operating position of the fastening means, the first output is set up to connect a second output by means of a coupling unit; and in a second operating position of the fastening means, the first output is set up to disconnect the second output by means of the coupling unit, wherein the first output is a means of transport for moving the cleaning robot over a surface to be cleaned. - a housing, - an electric motor which drives a first output,
A coating composition comprising an organic solvent, metal oxide nanoparticles dispersed in this organic solvent, a high carbon polymer dissolved in this solvent, where the high carbon polymer comprises a repeat unit of structure, a hydroxybiphenyl repeat unit of structure and an moiety containing a fused aromatic moiety of structure wherein R 1 and R 2 are independently selected from the group consisting of hydrogen, an alkyl and a substituted alkyl, Ar is an unsubstituted or substituted fused aromatic ring and X 1 is an alkylene spacer, or a direct valence bond
An ink set comprising a yellow ink composition, a magenta ink composition, a cyan ink composition, a black ink composition, and a white ink composition; each ink composition comprising: Component: radically polymerizable compounds comprising an N-vinyl compound and a compound represented by formula (a-2) wherein R 1, R 2, and R 3 independently represent a hydrogen atom, a methyl group, or an ethyl group, and X 2 represents a single bond or a divalent linking group; and Component B: one or more radical polymerization initiators; wherein: (i) the content of radical polymerization initiator(s) in the magenta ink composition is at least 3 wt% but less than 12 wt%; and (ii) if the content of radical polymerization initiator(s) in the white ink composition is X and the content of the radical polymerization initiator(s) in the magenta ink composition is Y, then 0.1 ≤ Y/X < 1. Component: radically polymerizable compounds comprising an N-vinyl compound and a compound represented by formula (a-2) wherein R 1, R 2, and R 3 independently represent a hydrogen atom, a methyl group, or an ethyl group, and X 2 represents a single bond or a divalent linking group; and Component B: one or more radical polymerization initiators; (i) the content of radical polymerization initiator(s) in the magenta ink composition is at least 3 wt% but less than 12 wt%; and (ii) if the content of radical polymerization initiator(s) in the white ink composition is X and the content of the radical polymerization initiator(s) in the magenta ink composition is Y, then 0.1 ≤ Y/X < 1.
A method for detecting a mutation in a microsatellite sequence locus of a target fragment from a DNA sample, comprising a step of subjecting said DNA sample to a digital polymerase chain reaction (dPCR) in the presence of a PCR solution comprising: - a pair of primers suitable for amplifying said target fragment of the DNA sample including said microsatellite sequence; - a first MS oligonucleotide hydrolysis probe, labeled with a first fluorophore, wherein said first MS oligonucleotide probe is complementary to a wild-type sequence including the microsatellite sequence; - a second oligonucleotide reference hydrolysis probe, labeled with a second fluorophore, wherein said second oligonucleotide REF probe is complementary to a wild-type sequence of said target DNA fragment located outside of said microsatellite sequence, wherein said hydrolysis probes have a fluorophore covalently attached to their 5'-end of the oligonucleotide probe and a quencher. - a pair of primers suitable for amplifying said target fragment of the DNA sample including said microsatellite sequence; - a first MS oligonucleotide hydrolysis probe, labeled with a first fluorophore, wherein said first MS oligonucleotide probe is complementary to a wild-type sequence including the microsatellite sequence; - a second oligonucleotide reference hydrolysis probe, labeled with a second fluorophore, wherein said second oligonucleotide REF probe is complementary to a wild-type sequence of said target DNA fragment located outside of said microsatellite sequence, wherein said hydrolysis probes have a fluorophore covalently attached to their 5'-end of the oligonucleotide probe and a quencher.
A rotary eddy current testing probe device for detecting flaws on an object being inspected, comprising: a rotating disc; and four 0-shaped eddy current testing probes (P11, P21, P12, P22) attached at approximately equal intervals in a circumferential direction around a rotation center of the rotating disc, wherein the four eddy current testing probes (P11, P21, P12, P22) are composed of two sets of the eddy current testing probes, wherein each one of the sets includes two eddy current testing probes located on opposite sides with respect to a rotation center, and the four eddy current testing probes have exciting coils (Ec11, Ec21, Ec12, Ec22) for exciting a current in the object being inspected, and detector coils (Dc11, Dc21, Dc12, Dc22) for detecting the current exited in the object being inspected, wherein each of the 0-shaped eddy current testing probes has an excitation coil and a detector coil which are arranged so that the respective coil planes are perpendicular to each other; coil planes of the exciting coils (Ec11, Ec21, Ec12, Ec22) are parallel with a rotation plane of the rotating disc; coil planes of the detector coils (Dc11, Dc21, Dc12, Dc22) are perpendicular to the rotation plane of the rotating disc; the coil planes of the detector coils (Dc11, Dc21, Dc12, Dc22) are parallel with each other, and incline at a predetermined angle (θ) relative to a line passing through the respective centers of two eddy current testing probes of one set of the two-set eddy current testing probes; and the two detector coils (Dc11, Dc12) of the one set of eddy current testing probes are cumulatively connected to each other, and the two detector coils (Dc21, Dc22) of the other set of eddy current testing probes are differentially connected to each other. a rotating disc; and four 0-shaped eddy current testing probes (P11, P21, P12, P22) attached at approximately equal intervals in a circumferential direction around a rotation center of the rotating disc, wherein
An Optical Emission Spectrometer comprising: a detector to which purge gas can be supplied; and a protection device (100, 100"); wherein the protection device comprises: a timer configured to measure a parameter indicative of a shut down time period following cessation of an application of purge gas to the detector; and a processor connected to the timer, wherein the processor is configured to determine a start-up time period during which purge gas is supplied to the detector prior to cooling of the detector, the start-up time period being based upon the parameter measured by the timer. a detector to which purge gas can be supplied; and a protection device (100, 100"); wherein the protection device comprises: a timer configured to measure a parameter indicative of a shut down time period following cessation of an application of purge gas to the detector; and a processor connected to the timer, wherein the processor is configured to determine a start-up time period during which purge gas is supplied to the detector prior to cooling of the detector, the start-up time period being based upon the parameter measured by the timer. a timer configured to measure a parameter indicative of a shut down time period following cessation of an application of purge gas to the detector; and a processor connected to the timer, wherein the processor is configured to determine a start-up time period during which purge gas is supplied to the detector prior to cooling of the detector, the start-up time period being based upon the parameter measured by the timer.
Transporting device for launching and hauling a boat, which device comprises a frame including a pair of longitudinal beams, parallel to each other and spaced apart from each other, each of said longitudinal beams carrying one or more supporting elements arranged to support said boat, wherein said transporting device is provided with at least two pairs of wheels (11, 13), each pair of wheels being formed by two wheels arranged aligned to each other on the opposite sides of said frame, each pair of wheels being formed by two wheels, which are made as steering wheels and are mounted aligned to each other on a respective longitudinal beam, wherein said transporting device is further provided with at least two tracks mounted on said frame, each of said tracks being mounted on a respective longitudinal beam characterized in that said tracks are arranged between said longitudinal beams, said wheels (11, 13) and said tracks being mounted on said longitudinal beams so as to be movable relative to said frame in a direction perpendicular to the plane of said frame, i.e. in vertical direction and in that said wheels (11, 13) and said tracks can be selectively brought into contact with the underlying ground or moved away from ground, so as to choose every time the configuration that is the most suitable depending on the kind of terrain on which the device is moving.
A method of peptide hydrolysis comprising the step in which the active form of LytM is contacted with peptide substrate, in aqueous environment of conductivity lower than 2 mS/cm, and wherein the active form of LytM is at least 95% homologous to fragment LytM 180-316 which corresponds to residues 180-316 of sequence SEQ ID NO:1 or to LytM 185-316 of sequence SEQ ID NO:2, preferably the active form of LytM is selected from fragment LytM 180-316 which corresponds to residues 180-316 of sequence SEQ ID NO:1 or LytM 185-316 of sequence SEQ ID NO:2; and wherein the active form of LytM has glycylglycine endopeptidase activity of the catalytic domain LytM 185-316 which corresponds to residues 185-316 of sequence SEQ ID NO:1 against substrate, which is built of at least four glycines in a row, and wherein preferably the contacting is conducted in a temperature range from about 0°C to about 37°C, preferably in temperature below 10°C.
A steam turbine control device, comprising: a first valve provided in a first steam supply path connected to a steam turbine; a second valve provided in a second steam supply path connected to a lower-pressure side of the steam turbine than the first steam supply path while bypassing the first valve from on the first steam supply path; a first valve control section configured to control an opening degree of the first valve based on flow rate information designating a flow rate of steam to be sent to the steam turbine; a second valve control section configured to control an opening degree of the second valve based on the flow rate information; and a valve control adjustment section configured to add adjustment to control of the opening degree of the second valve by the second valve control section so as to adjust a timing of start opening of the second valve with respect to a timing of full opening of the first valve. a first valve provided in a first steam supply path connected to a steam turbine; a second valve provided in a second steam supply path connected to a lower-pressure side of the steam turbine than the first steam supply path while bypassing the first valve from on the first steam supply path; a first valve control section configured to control an opening degree of the first valve based on flow rate information designating a flow rate of steam to be sent to the steam turbine; a second valve control section configured to control an opening degree of the second valve based on the flow rate information; and a valve control adjustment section configured to add adjustment to control of the opening degree of the second valve by the second valve control section so as to adjust a timing of start opening of the second valve with respect to a timing of full opening of the first valve.