mhurhangee/ep-ind-claims huggingface dataset:
Base part for an electrical installation device, such as a light switch or plug socket for example, comprising a base lower part and also at least one expanding claw arrangement which is arranged on the periphery of the said base lower part and has an expanding claw and an expanding screw which runs through an opening in the expanding claw and is screwed into the base lower part, wherein the expanding claw, by way of its bearing web, is connected to the expanding screw in such a way that an expanding position of the expanding claw, which expanding position projects peripherally in relation to the base lower part, can be set by screwing the expanding screw into the base lower part and a peripherally recessed mounting position of the expanding claw can be set by unscrewing the expanding screw, and wherein the expanding claw is secured against falling out of the base lower part in both positions, wherein the bearing web is guided between an end-side screw head of the expanding screw and a driver part, which is mounted on the screw shaft, wherein the driver part is fastened to the screw shaft, characterized in that the opening in the bearing web is in the form of an elongate hole of which the longitudinal axis runs perpendicular in relation to the longitudinal axis of the bearing web, and the driver part is in the form of an O-ring which is composed of an elastically deformable material and of which the inside diameter is smaller than the thread outside diameter of the expanding screw, and the fastening is such that the O-ring is seated in a force-fitting manner at the periphery and in an interlocking manner on the screw shaft in the axial direction owing to the thread of the expanding screw, wherein the expanding screw is in the form of a thread-forming screw.
An optical device (111, 112) for filtering and amplifying a multiple of Wavelength Division Multiplexed, WDM, signals in an optical transmission link in a communications network, each WDM signal comprises a respective optical carrier and a respective modulation signal, characterized in that the optical device (111, 112) comprises: an optical input and output device comprising a first input port to input the WDM signals from the optical transmission link into the optical device (111, 112), and further comprising a second input port, a first output port and a second output port, wherein the first input port is coupled to the first output port, and the second input port is coupled to the second output port; an optical filtering device comprising an input port coupled to the first output port comprised in the optical input and output device to input the WDM signals, and an output port coupled to the second input port comprised in the optical input and output device; and an optical amplifying device comprising an input port coupled to the second output port comprised in the optical input and output device, wherein the optical filtering device comprises a multiple of cascaded phase shifted Bragg gratings (244, 245, 246), each Bragg grating (244, 245, 246) being adapted to filter an associated respective optical carrier, from the respective WDM signal to produce a respective output signal to the optical amplifying device, for which respective output signal the respective optical carrier is suppressed relative to the respective modulation signal. an optical input and output device comprising a first input port to input the WDM signals from the optical transmission link into the optical device (111, 112), and further comprising a second input port, a first output port and a second output port, wherein the first input port is coupled to the first output port, and the second input port is coupled to the second output port; an optical filtering device comprising an input port coupled to the first output port comprised in the optical input and output device to input the WDM signals, and an output port coupled to the second input port comprised in the optical input and output device; and an optical amplifying device comprising an input port coupled to the second output port comprised in the optical input and output device, wherein the optical filtering device comprises a multiple of cascaded phase shifted Bragg gratings (244, 245, 246), each Bragg grating (244, 245, 246) being adapted to filter an associated respective optical carrier, from the respective WDM signal to produce a respective output signal to the optical amplifying device, for which respective output signal the respective optical carrier is suppressed relative to the respective modulation signal.
Method for continuously purifying a flow of domestic or industrial waters, wherein the flow is subjected to treatment in a biological reactor (4, 69, 82) by injecting an oxidizing gas into said reactor and obtaining a first separation between the liquid part, which is discharged, and an organic sludge, which is decanted in the bottom part of the reactor or of an adjacent separator/settler, such that said sludge comprises between 4 and 12 g/l of Dry Matter, characterized in that said sludge is used to supply, through a first restriction (13, 37, 83) directly, or through a chamber termed first chamber, a following chamber termed second chamber (14, 40, 63, 82) in continuous flow at a rate q, by injecting air into said second chamber at a rate Q ≥ q, to give an emulsion of droplets of sludge in air, a predetermined pressure drop is created in the emulsion (15, 43, 87) by a second restriction (16, 51, 74, 91) for supplying a following chamber termed third chamber (17, 52, 73, 92), a liquid flocculant (18, 54, 75, 102) is injected into said third chamber, said emulsion is degassed, the emulsion thus degassed is recovered in a recovery tank situated downstream of the degassing means, in such a way that the flocculated and aerated sludge obtained from said emulsion thus degassed then floats in the top part of the tank, such that the liquid centrate which remains, recovered in the bottom part of the tank, has a Dry Matter load of less than 100 mg/l and has a positive redox potential of at least 50 mV which is increased by a value of at least 100 mV relative to that of the first sludge entering the first chamber, after which said flocculated sludge is continuously or semicontinuously discharged, and the liquid centrate is reinjected upstream of or into the biological reactor (4, 69, 82). a predetermined pressure drop is created in the emulsion (15, 43, 87) by a second restriction (16, 51, 74, 91) for supplying a following chamber termed third chamber (17, 52, 73, 92), a liquid flocculant (18, 54, 75, 102) is injected into said third chamber, said emulsion is degassed, the emulsion thus degassed is recovered in a recovery tank situated downstream of the degassing means, in such a way that the flocculated and aerated sludge obtained from said emulsion thus degassed then floats in the top part of the tank, such that the liquid centrate which remains, recovered in the bottom part of the tank, has a Dry Matter load of less than 100 mg/l and has a positive redox potential of at least 50 mV which is increased by a value of at least 100 mV relative to that of the first sludge entering the first chamber, after which said flocculated sludge is continuously or semicontinuously discharged, and the liquid centrate is reinjected upstream of or into the biological reactor (4, 69, 82).
A method for identification of air leaks in a compressed air system, comprising: receiving system data including current samples of air compressors of the compressed air system from at least one self-powered power sensor; aggregating the system data; characterised by dividing the aggregated system data into a plurality of clusters; merging overlapping clusters to reduce the number of clusters to two clusters, wherein a first cluster represents a baseload current and a second cluster represents a full-load current; determining the baseload current to full-load current ratio and comparing the ratio to a predetermined standard; and determining if an air leak is present if the ratio is below the predetermined standard. receiving system data including current samples of air compressors of the compressed air system from at least one self-powered power sensor; aggregating the system data; characterised by dividing the aggregated system data into a plurality of clusters; merging overlapping clusters to reduce the number of clusters to two clusters, wherein a first cluster represents a baseload current and a second cluster represents a full-load current; determining the baseload current to full-load current ratio and comparing the ratio to a predetermined standard; and determining if an air leak is present if the ratio is below the predetermined standard.
A fusion protein comprising a structure as follows: 5a-L 1 -5b-L 2 -5c, wherein is a first region comprising methanol dehydrogenase, is a second region comprising 3-hexulose-6-phosphate dehydrogenase; and is a third region comprising 6-phospho-3-hexuloisomerase; wherein L 1 is a linker amino acid sequence comprising one or more amino acids selected from the group consisting of glycine, alanine, serine, and threonine and having a length in the range of 1-50 amino acid residues, and L 2 is a covalent bond or a linker amino acid sequence.
A polylactic acid formed body comprising a polylactic acid base material and a hydrocarbon film vapor-deposited on the surface of the base material by the plasma CVD method, wherein said polylactic acid base material exhibits a sharp X-ray diffraction peak in which a half-width of peak appearing in the 10° - 25° wide angle X-ray measurement is not more than 1.22 °, and said hydrocarbon film is vapor-deposited on the surface of the polylactic acid base material, and includes two layers of a high CH 2 layer having a ratio of CH 2 per the total of CH, CH 2 and CH 3 of not less than 40% and a low CH 2 layer formed on said high CH 2 layer and having a ratio of CH 2 per the total of CH, CH 2 and CH 3 of not more than 35%.
An in vitro method of inhibiting a Cav3.2 channel comprising contacting said channel in situ with an inhibitor of USP5, wherein said inhibitor is a peptide or polypeptide competitor of USP5 binding to Cav3.2, or is an inhibitory RNA molecule that targets USP5.
A method for calculating a spatial coordinate point of a region of interest, the method comprising the steps of: acquiring information on an in-image coordinate point of a region of interest contained in each of a plurality of images respectively photographed by a plurality of image modules; specifying, with reference to information on a position where at least one of the plurality of image modules is installed and information on an in-image coordinate point of a target region of interest contained in an image photographed by the at least one image module, a candidate figure containing a position where the target region of interest is located in a reference space; and specifying the position where the target region of interest is located in the reference space, with reference to a positional relationship between a first candidate figure of the target region of interest corresponding to a first image module and a second candidate figure of the target region of interest corresponding to a second image module, characterized in that the first and second candidate figures are specified as a spatial figure and a vector when the first image module and the second image module are a three-dimensional image module and a two-dimensional image module, respectively. acquiring information on an in-image coordinate point of a region of interest contained in each of a plurality of images respectively photographed by a plurality of image modules; specifying, with reference to information on a position where at least one of the plurality of image modules is installed and information on an in-image coordinate point of a target region of interest contained in an image photographed by the at least one image module, a candidate figure containing a position where the target region of interest is located in a reference space; and specifying the position where the target region of interest is located in the reference space, with reference to a positional relationship between a first candidate figure of the target region of interest corresponding to a first image module and a second candidate figure of the target region of interest corresponding to a second image module, characterized in that the first and second candidate figures are specified as a spatial figure and a vector when the first image module and the second image module are a three-dimensional image module and a two-dimensional image module, respectively.
A lengthy body having a length dimension being much greater than the transverse dimensions of width and thickness comprising: i) high-performance polyethylene (HPPE) fibers comprising a hard component, the hard component having a Mohs hardness of at least 2.5; wherein the HPPE fibers comprising the hard component have a tenacity of at least 0.5 N/tex and ii) a polymeric resin, wherein the polymeric resin is a homopolymer of ethylene or propylene or is a copolymer of ethylene and/or propylene, wherein the polymeric resin has a density as measured according to ISO1183-2004 in the range from 860 to 970 kg/m 3, a melting temperature in the range from 40 to 140°C and a heat of fusion of at least 5 J/g; wherein iii) the polymeric resin is a coating on the surface of the HPPE fibers comprising the hard component. i) high-performance polyethylene (HPPE) fibers comprising a hard component, the hard component having a Mohs hardness of at least 2.5; wherein the HPPE fibers comprising the hard component have a tenacity of at least 0.5 N/tex and ii) a polymeric resin, wherein the polymeric resin is a homopolymer of ethylene or propylene or is a copolymer of ethylene and/or propylene, wherein the polymeric resin has a density as measured according to ISO1183-2004 in the range from 860 to 970 kg/m 3, a melting temperature in the range from 40 to 140°C and a heat of fusion of at least 5 J/g; wherein iii) the polymeric resin is a coating on the surface of the HPPE fibers comprising the hard component.
A method, comprising: determining, by an Evolved NodeB, eNB, for one or more user equipments, UEs, a set of listen before talk, LBT, parameters associated with an unlicensed frequency band, wherein the set of LBT parameters comprises a common carrier sensing duration for the one or more UEs and a common backoff duration for the one or more UEs; and determining, by the eNB, at least one uplink grant in the unlicensed frequency band for at least one of the one or more UEs, said uplink grant associated with resources comprising one or more resource blocks, wherein the at least one uplink grant schedules at most one of the one or more UEs to each of the one or more resource blocks; transmitting, by the eNB, the set of LBT parameters and the at least one uplink grant: performing, by each of the UEs, carrier sensing and a backoff process based in the LBT parameters before any transmissions; and receiving, by the eNB, transmissions over said resources associated with the at least one uplink grant. determining, by an Evolved NodeB, eNB, for one or more user equipments, UEs, a set of listen before talk, LBT, parameters associated with an unlicensed frequency band, wherein the set of LBT parameters comprises a common carrier sensing duration for the one or more UEs and a common backoff duration for the one or more UEs; and determining, by the eNB, at least one uplink grant in the unlicensed frequency band for at least one of the one or more UEs, said uplink grant associated with resources comprising one or more resource blocks, wherein the at least one uplink grant schedules at most one of the one or more UEs to each of the one or more resource blocks; transmitting, by the eNB, the set of LBT parameters and the at least one uplink grant: performing, by each of the UEs, carrier sensing and a backoff process based in the LBT parameters before any transmissions; and receiving, by the eNB, transmissions over said resources associated with the at least one uplink grant. performing, by each of the UEs, carrier sensing and a backoff process based in the LBT parameters before any transmissions; and receiving, by the eNB, transmissions over said resources associated with the at least one uplink grant.
A method for producing a sorbent material, comprising: a) providing a porous silica substrate optionally having a bimodal distribution of pore sizes, wherein said substrate comprises a plurality of silanol groups on a surface thereof; b) reacting said silanol groups with i) a silicon compound of formula R n Si(OR') 4-n, where R is an alkyl group and n is 0 or 1, optionally wherein the silicon compound is a tetraalkoxysilane; or ii) an aminoalkyl silane of formula R" m R n Si(OR') 4-n-m having at least two hydrolysable groups attached to silicon, where R is an alkyl group, R" is an aminoalkyl group, m is 1 or 2 and n is 0 or 1; or, iii) a compound of formula M(OR') 4; or iv) a mixture of any two or more of i) to iii); c) hydrolysing the product of b) to generate hydroxyl groups; d) reacting the hydroxyl groups generated in step c) with one or more reagents, wherein each reagent is independently selected from the group consisting of an aminoalkyl silane having at least two hydrolysable groups attached to the silicon and a compound of formula M(OR') 4; and e) hydrolysing the product of d); wherein steps b) and d) are optionally conducted in a hydrophobic solvent and steps d) and e) are optionally repeated between 1 and 10 times; and wherein each OR' is a hydrolysable group, optionally an alkoxy group, and wherein each R' may be the same or may be different, and each M is, independently, Zr, Ti, Hf, Sn, Th, Pb or Ge. a) providing a porous silica substrate optionally having a bimodal distribution of pore sizes, wherein said substrate comprises a plurality of silanol groups on a surface thereof; b) reacting said silanol groups with i) a silicon compound of formula R n Si(OR') 4-n, where R is an alkyl group and n is 0 or 1, optionally wherein the silicon compound is a tetraalkoxysilane; or ii) an aminoalkyl silane of formula R" m R n Si(OR') 4-n-m having at least two hydrolysable groups attached to silicon, where R is an alkyl group, R" is an aminoalkyl group, m is 1 or 2 and n is 0 or 1; or, iii) a compound of formula M(OR') 4; or iv) a mixture of any two or more of i) to iii); i) a silicon compound of formula R n Si(OR') 4-n, where R is an alkyl group and n is 0 or 1, optionally wherein the silicon compound is a tetraalkoxysilane; or ii) an aminoalkyl silane of formula R" m R n Si(OR') 4-n-m having at least two hydrolysable groups attached to silicon, where R is an alkyl group, R" is an aminoalkyl group, m is 1 or 2 and n is 0 or 1; or, iii) a compound of formula M(OR') 4; or iv) a mixture of any two or more of i) to iii); c) hydrolysing the product of b) to generate hydroxyl groups; d) reacting the hydroxyl groups generated in step c) with one or more reagents, wherein each reagent is independently selected from the group consisting of an aminoalkyl silane having at least two hydrolysable groups attached to the silicon and a compound of formula M(OR') 4; and e) hydrolysing the product of d);
Sports ball comprising a. a surface layer comprising a plurality of panels; b. a lattice structure (100; 20; 300; 40; 50; 60; 70; 1100) extending below the surface layer, wherein the lattice structure (100; 200; 300; 40; 50, 60; 70; 1100) comprises a plurality of lattice cells comprising radially extending elements (130; 230; 330; 630; 730; 1130); c. wherein the plurality of lattice cells comprises a predetermined order; d. wherein at least the lattice cells which are adjacent to the surface layer have at least one dimension which is smaller than an average diameter of the panels. a. a surface layer comprising a plurality of panels; b. a lattice structure (100; 20; 300; 40; 50; 60; 70; 1100) extending below the surface layer, wherein the lattice structure (100; 200; 300; 40; 50, 60; 70; 1100) comprises a plurality of lattice cells comprising radially extending elements (130; 230; 330; 630; 730; 1130); c. wherein the plurality of lattice cells comprises a predetermined order; d. wherein at least the lattice cells which are adjacent to the surface layer have at least one dimension which is smaller than an average diameter of the panels.
A ventilation device configured to be connected to a mouth of a ventilation duct between the ventilation duct and an outside space, wherein the ventilation device comprises an airflow opening for passage of an airflow between the ventilation device and the outside space, wherein the ventilation device comprises an outer body and a front cover, wherein the airflow opening is formed between a first edge of the outer body and a first side of the front cover, an air-permeable material is attached to the first side of the front cover and is arranged in said airflow opening such that at least a portion of the airflow passes through the air-permeable material at passage between the ventilation device and the outside space, characterized in that the air-permeable material has a cross-sectional profile, taken over a cross section of the airflow opening, which is broadest closest to the first side of the front cover and is tapered towards the first edge of the outer body, wherein the air-permeable material has a shape such that at airflow through the airflow opening the airflow has a velocity profile, taken over a cross section of the air-permeable material in the airflow opening, such that the airflow velocity is lowest closest to the first side of the front cover and highest in the portion of the air-permeable material located furthest from the first side of the front cover.
A robot cleaner, comprising: a driving unit configured to move the robot cleaner; a control unit configured to perform a cleaning operation with respect to a designated region, according to a cleaning command; and a cleaning unit configured to suck dust or foreign materials within the cleaning region or the designated region, according to the cleaning command, a region setting module configured to set the designated region within a cleaning region; wherein the region setting module is configured to set the designated region by operating the driving unit according to a designated region setting command, which is received from an external terminal, characterized in that the region setting module is configured to set the designated region based on a running path after receiving the designated region setting command, and wherein, if a user presses a directional button of the external terminal, the running path is generated and the robot cleaner is configured to move using the driving unit. a driving unit configured to move the robot cleaner; a control unit configured to perform a cleaning operation with respect to a designated region, according to a cleaning command; and a cleaning unit configured to suck dust or foreign materials within the cleaning region or the designated region, according to the cleaning command, a region setting module configured to set the designated region within a cleaning region; wherein the region setting module is configured to set the designated region by operating the driving unit according to a designated region setting command, which is received from an external terminal, characterized in that the region setting module is configured to set the designated region based on a running path after receiving the designated region setting command, and wherein, if a user presses a directional button of the external terminal, the running path is generated and the robot cleaner is configured to move using the driving unit.