mhurhangee/ep-ind-claims huggingface dataset:
A laundry dryer comprising a body; a drum which is disposed in the body and wherein the laundry to be dried is loaded; a condenser which is disposed in the body and which dehumidifies the drying air; at least one sump wherein the liquid formed in the condenser is collected; a tank which is connected to the sump by means of a discharge line and which receives the liquid in the sump; a discharge pump which is disposed on the discharge line and which is positioned in the sump; and at least one fluid inlet which opens into the drum so as to enable the fluid to be supplied into the drum, at least one delivery line one end of which is connected to the fluid inlet and which enables the liquid to be taken from the sump to be delivered to the fluid inlet, characterized by the laundry dryer further comprising: at least one supply pump which is disposed in the sump, and wherein the other end of the at least one delivery line is connected to the supply pump so that the liquid taken from the sump is delivered to the fluid inlet by means of the supply pump. at least one supply pump which is disposed in the sump, and wherein the other end of the at least one delivery line is connected to the supply pump so that the liquid taken from the sump is delivered to the fluid inlet by means of the supply pump.
A storage and transport element for storing or transporting goods, wherein the storage and transport element has a base area of at least 0.2 m 2 and has a first region and a second region along its thickness, wherein the first region forms an upper side of the storage and transport element and has a dimensionally stable force-absorbing region with a load-bearing capacity of the storage and transport element in a range of ≥ 250 kg for absorbing a functional force, wherein the functional force comprises the weight force of goods to be transported, and wherein the force-absorbing region comprises a storage and transport pallet and further comprises a contact surface for coming into direct contact with the goods to be stored or transported, wherein the second region comprises a dimensionally flexible compensating region, which has a bag-like compensating element with a granular filling to serve to adapt the compensating area to the shape of a surface in contact with the compensating area, and wherein the second area is designed as the lower area of the storage and transport element.
A non-threadable mooring compensator, equipped with a stretchable frame, CHARACTERIZED in that there are at least two parallel, manually bendable longitudinal end elements (2, 2A) mounted onto and extending from the frame, which end elements (2, 2A) are joined together with a thicker end stopper, whereby they are held together tightly by the end stopper, which end elements (2, 2A), when at rest, are meant to be manually opened into an opening for a boat rope loop, wherein when under longitudinal stress or when pulled, the end elements /2, 2A) lock tightly around the boat rope loop.
A method for inspecting an inspection object using ultrasonic waves, comprising: - a step (S004; S104; S204; S304) of creating a first flaw detection image from recorded ultrasonic waveforms; - a step (S005; S105; S205; S305) of detecting a significant reflected signal from the first flaw detection image; - a step (S008; S110; S208) of conducting a propagation analysis to obtain respective ultrasonic propagation times from the significant reflected signal to respective ultrasonic wave transmission positions; - a step of obtaining delay time information of the ultrasonic wave transmission positions from the propagation times; - a step (S009; S111; S209) of creating a time-reversal propagation analysis model for analyzing propagation of ultrasonic waves to the inspection object by using, as input, the delay times and waveforms obtained by time-reversing the recorded ultrasonic waveforms; and - a step (S011; S113; S211) of creating a second flaw detection image from a result obtained by conducting (S010; S112; S210) a time-reversal propagation analysis on the time-reversal propagation analysis model. - a step (S004; S104; S204; S304) of creating a first flaw detection image from recorded ultrasonic waveforms; - a step (S005; S105; S205; S305) of detecting a significant reflected signal from the first flaw detection image; - a step (S008; S110; S208) of conducting a propagation analysis to obtain respective ultrasonic propagation times from the significant reflected signal to respective ultrasonic wave transmission positions; - a step of obtaining delay time information of the ultrasonic wave transmission positions from the propagation times; - a step (S009; S111; S209) of creating a time-reversal propagation analysis model for analyzing propagation of ultrasonic waves to the inspection object by using, as input, the delay times and waveforms obtained by time-reversing the recorded ultrasonic waveforms; and - a step (S011; S113; S211) of creating a second flaw detection image from a result obtained by conducting (S010; S112; S210) a time-reversal propagation analysis on the time-reversal propagation analysis model.
An R-Fe-B base sintered magnet of a composition consisting essentially of 12 to 17 at% of R which is at least two of yttrium and rare earth elements and contains Nd and Pr, 0.1 to 3 at% of Mi which is at least two elements selected from the group consisting of Si, Al, Mn, Ni, Cu, Zn, Ga, Ge, Pd, Ag, Cd, In, Sn, Sb, Pt, Au, Hg, Pb, and Bi, 0.05 to 0.5 at% of M 2 which is at least one element selected from the group consisting of Ti, V, Cr, Zr, Nb, Mo, Hf, Ta, and W, 4.5+2×m to 5.9+2×m at% of boron wherein m is at% of M 2, up to 10 at% of Co, up to 0.5 at% of carbon, up to 1.5 at% of oxygen, up to 0.5 at% of nitrogen, and the balance of Fe, and containing an intermetallic compound R 2 (Fe,(Co)) 14 B as a main phase, wherein characterized in that the magnet contains an R-Fe(Co)-Mi phase consisting essentially of 25 to 35 at% of R, 2 to 8 at% of M 1, up to 8 at% of Co, and the balance of Fe as a grain boundary phase, the R-Fe(Co)-Mi phase contains an A phase which is crystalline with crystallites having a grain size of at least 10 nm formed at grain boundary triple junctions, and the R-Fe(Co)-Mi phase also contains a B phase which is amorphous and/or nanocrystalline with crystallites having a grain size of less than 10 nm formed at intergranular grain boundaries or intergranular grain boundaries and grain boundary triple junctions, the B phase having a different composition from the A phase.
A method of operating a node (12, 14) to enable adaptation of a carrier aggregation configuration of a wireless device in a cellular communications network, comprising: determining (102, 202) an amount of required uplink resources, Pr, for a wireless device; deciding (106, 204) whether adaptation of a carrier aggregation configuration of the wireless device should be performed based on a comparison of the amount of required uplink resources, Pr, for the wireless device and a maximum number of uplink resources, Pc, that can be allocated for the wireless device in a current carrier aggregation configuration of the wireless device; and taking (108, 206) an action to cause adaptation of the carrier aggregation configuration of the wireless device upon deciding that adaptation of the carrier aggregation configuration of the wireless device should be performed. determining (102, 202) an amount of required uplink resources, Pr, for a wireless device; deciding (106, 204) whether adaptation of a carrier aggregation configuration of the wireless device should be performed based on a comparison of the amount of required uplink resources, Pr, for the wireless device and a maximum number of uplink resources, Pc, that can be allocated for the wireless device in a current carrier aggregation configuration of the wireless device; and taking (108, 206) an action to cause adaptation of the carrier aggregation configuration of the wireless device upon deciding that adaptation of the carrier aggregation configuration of the wireless device should be performed.
Method for manufacturing a secure document, said method comprising successively: - providing a first layer comprising a metallic holographic structure forming an arrangement of pixels, said holographic structure comprising a metal sublayer, each pixel comprising a plurality of subpixels of distinct colours; - partially destroying, via first laser radiation, the first layer so as to selectively remove at least portions of the metal sublayer to form demetallized zones in the arrangement of pixels; and - laminating the first layer with a polymer upper layer and a polymer lower layer such that the first layer is interposed between the upper and lower layers; and - personalizing the arrangement of pixels by forming in the first layer, by means of second laser radiation, perforations locally revealing, through the holographic structure, zones of colour shade in the subpixels, caused by underlying regions of the lower layer located facing said perforations, so as to form a personalized image from the arrangement of pixels combined with the zones of colour shades. - providing a first layer comprising a metallic holographic structure forming an arrangement of pixels, said holographic structure comprising a metal sublayer, each pixel comprising a plurality of subpixels of distinct colours; - partially destroying, via first laser radiation, the first layer so as to selectively remove at least portions of the metal sublayer to form demetallized zones in the arrangement of pixels; and - laminating the first layer with a polymer upper layer and a polymer lower layer such that the first layer is interposed between the upper and lower layers; and - personalizing the arrangement of pixels by forming in the first layer, by means of second laser radiation, perforations locally revealing, through the holographic structure, zones of colour shade in the subpixels, caused by underlying regions of the lower layer located facing said perforations, so as to form a personalized image from the arrangement of pixels combined with the zones of colour shades.
An alumina powder which has (i) an α-phase content of at most 30% as measured by the following method, (ii) an average circularity of at least 0.95 in each of the particle size range of from 45 to 200 μm and the particle size range of less than 45 μm, and (iii) an average particle size of 10 to 100 μm: [method for measuring α-phase content] Powders prepared by mixing α-phase alumina powder and θ-phase alumina powder in mass ratios of 0:10, 5:5 and 10:0, respectively, are subjected to X-ray diffraction measurements, whereupon the integrated intensity of a peak of α-phase detected in the vicinity of 2θ=43o is calculated, and a calibration line of the integrated intensity plotted against the mixing ratio is made; and then, a sample of the alumina powder is subjected to an X-ray diffraction measurement, whereupon the integrated intensity of a peak in the vicinity of 2θ=43o is calculated, and the α-phase content is obtained from the calibration line. (i) an α-phase content of at most 30% as measured by the following method, (ii) an average circularity of at least 0.95 in each of the particle size range of from 45 to 200 μm and the particle size range of less than 45 μm, and (iii) an average particle size of 10 to 100 μm: [method for measuring α-phase content] Powders prepared by mixing α-phase alumina powder and θ-phase alumina powder in mass ratios of 0:10, 5:5 and 10:0, respectively, are subjected to X-ray diffraction measurements, whereupon the integrated intensity of a peak of α-phase detected in the vicinity of 2θ=43o is calculated, and a calibration line of the integrated intensity plotted against the mixing ratio is made; and then, a sample of the alumina powder is subjected to an X-ray diffraction measurement, whereupon the integrated intensity of a peak in the vicinity of 2θ=43o is calculated, and the α-phase content is obtained from the calibration line. [method for measuring α-phase content] Powders prepared by mixing α-phase alumina powder and θ-phase alumina powder in mass ratios of 0:10, 5:5 and 10:0, respectively, are subjected to X-ray diffraction measurements, whereupon the integrated intensity of a peak of α-phase detected in the vicinity of 2θ=43o is calculated, and a calibration line of the integrated intensity plotted against the mixing ratio is made; and then, a sample of the alumina powder is subjected to an X-ray diffraction measurement, whereupon the integrated intensity of a peak in the vicinity of 2θ=43o is calculated, and the α-phase content is obtained from the calibration line.
A method of encryption implemented by a terminal comprising an operating system accessible by a plurality of users and a module for encrypting data to be sent to another terminal, the method comprising steps of: • detecting a user opening access to the operating system, • in response to the detecting of opening, setting the encryption module with a user-specific encryption key to encrypt data to be sent to the other terminal, wherein the encryption key is generated by the terminal, or is stored in a memory (16, 22) of the terminal prior to the access opening detection, the method further comprising the following steps of: • generating or loading from a terminal memory (16, 22) of a decryption key adapted to decrypt payload data encrypted by means of the encryption key, • sending the decryption key to a control server, • sending (103, 107), to the control server, information (S1, S2) indicative of the opening and/or closing of access to the operating system by the user, the control server being adapted to control the use of the decryption key by another terminal as a function of the last indicative information sent. • detecting a user opening access to the operating system, • in response to the detecting of opening, setting the encryption module with a user-specific encryption key to encrypt data to be sent to the other terminal, • generating or loading from a terminal memory (16, 22) of a decryption key adapted to decrypt payload data encrypted by means of the encryption key, • sending the decryption key to a control server, • sending (103, 107), to the control server, information (S1, S2) indicative of the opening and/or closing of access to the operating system by the user, the control server being adapted to control the use of the decryption key by another terminal as a function of the last indicative information sent.
A separator for a secondary battery, the separator comprising a layer of tetrafluoroethylene polymer or copolymer that reacts with a dendrite of an alkali metal, the separator being hydrophilized by a hydrophilizing treatment material at a rate of not less than 10% and not more than 80% of the separator, wherein the rate of hydrophilization is the coverage of the surface of the separator by hydrophilizing treatment material and is determined by measuring the ratio of elements present on the separator surface before and after the hydrophilizing treatment using a composition analysis function of a Field Emission-Scanning Electron Microscope and determining the rate of hydrophilization from the ratio of F present on the surface before and after hydrophilizing treatment.
An illuminator control method, applied to an electronic device, wherein the electronic device comprises an image-shooting apparatus, and the method comprises: after obtaining an image-shooting start instruction, determining whether there is an available illuminator fitting, wherein the illuminator fitting comprises an illuminator; and after determining that there is the available illuminator fitting, starting the image-shooting apparatus, and controlling to turn on the illuminator, characterized in that a wireless charging component is disposed in each of the electronic device and the illuminator fitting; and after the determining that there is the available illuminator fitting, the method further comprises: controlling the wireless charging component in the electronic device to charge the wireless charging component in the illuminator fitting, wherein the wireless charging component in the illuminator fitting is configured to supply power to the illuminator. after obtaining an image-shooting start instruction, determining whether there is an available illuminator fitting, wherein the illuminator fitting comprises an illuminator; and after determining that there is the available illuminator fitting, starting the image-shooting apparatus, and controlling to turn on the illuminator, characterized in that a wireless charging component is disposed in each of the electronic device and the illuminator fitting; and after the determining that there is the available illuminator fitting, the method further comprises: controlling the wireless charging component in the electronic device to charge the wireless charging component in the illuminator fitting, wherein the wireless charging component in the illuminator fitting is configured to supply power to the illuminator.
An organosilicon modified photoinitiator represented by the general formula: wherein, R 1 and R 2 are each independently selected from the group consisting of C 1 -C 20 alkyl, C 2 -C 8 alkenyl, C 5 -C 8 cycloalkyl, aryl C 1 -C 3 alkyl; one of R 3, R 4, R 5, R 6, and R 7 is SIL1-X, and the others are each independently selected from the group consisting of hydrogen, C 1 -C 20 alkyl, C 2 -C 8 alkenyl, C 5 -C 8 cycloalkyl, aryl C 1 -C 3 alkyl, and halogen; X is a direct bond or C 1 -C 12 alkylene; and SIL1 and SIL2 are each independently represented by the formula -SiR 8 R 9 R 10 or (R'SiO 3/2) a (R" 2 SiO 2/2) b (R''' 3 SiO 1/2) c, wherein R 8, R 9 and R 10 are each independently selected from the group consisting of C 1 -C 20 alkyl, C 2 -C 8 alkenyl, C 5 -C 8 cycloalkyl, aryl, and aryl C 1 -C 3 alkyl, R', R" and R''' each independently selected from the group consisting of C 1 -C 20 alkyl, C 2 -C 8 alkenyl, C 5 -C 8 cycloalkyl, and phenyl C 1 -C 3 alkyl, and a, b, and c are numbers that satisfy a ≥ 0, b ≥ 0, c > 0, the ratio of a to c is from 0 to 100, and the ratio of b to c is from 0 to 10. R 1 and R 2 are each independently selected from the group consisting of C 1 -C 20 alkyl, C 2 -C 8 alkenyl, C 5 -C 8 cycloalkyl, aryl C 1 -C 3 alkyl; one of R 3, R 4, R 5, R 6, and R 7 is SIL1-X, and the others are each independently selected from the group consisting of hydrogen, C 1 -C 20 alkyl, C 2 -C 8 alkenyl, C 5 -C 8 cycloalkyl, aryl C 1 -C 3 alkyl, and halogen; X is a direct bond or C 1 -C 12 alkylene; and SIL1 and SIL2 are each independently represented by the formula -SiR 8 R 9 R 10 or (R'SiO 3/2) a (R" 2 SiO 2/2) b (R''' 3 SiO 1/2) c, wherein R 8, R 9 and R 10 are each independently selected from the group consisting of C 1 -C 20 alkyl, C 2 -C 8 alkenyl, C 5 -C 8 cycloalkyl, aryl, and aryl C 1 -C 3 alkyl, R', R" and R''' each independently selected from the group consisting of C 1 -C 20 alkyl, C 2 -C 8 alkenyl, C 5 -C 8 cycloalkyl, and phenyl C 1 -C 3 alkyl, and a, b, and c are numbers that satisfy a ≥ 0, b ≥ 0, c > 0, the ratio of a to c is from 0 to 100, and the ratio of b to c is from 0 to 10.
A signal quality measuring apparatus for an optical disc, the signal quality measuring apparatus comprising: a binary signal generating unit to generate a binary signal from an input RF signal of the signal quality measuring apparatus; a level information extracting unit to extract level information from a relationship between the input signal and the binary signal; and a quality calculating unit to calculate a quality of the input signal based on the level information; characterized in that: the level information extracting unit extracts the level information using at least two window lengths, wherein the at least two window lengths are determined according to a maximum run-length and a minimum run-length of the input RF signal, wherein the level information extracting unit comprises sub-level information extracting units corresponding to the at least two window lengths. a binary signal generating unit to generate a binary signal from an input RF signal of the signal quality measuring apparatus; a level information extracting unit to extract level information from a relationship between the input signal and the binary signal; and a quality calculating unit to calculate a quality of the input signal based on the level information; the level information extracting unit extracts the level information using at least two window lengths, wherein the at least two window lengths are determined according to a maximum run-length and a minimum run-length of the input RF signal, wherein the level information extracting unit comprises sub-level information extracting units corresponding to the at least two window lengths.
A versatile flying lead termination head system, comprising: a. an underwater vehicle interface; b. an interface plate, comprising: i. an upper interface plate; and ii. a lower interface plate removably connected to the upper interface plate; c. a termination frame ((130 and 140) or 210), comprising: i. a connection end (141 or 201) connected to the underwater vehicle interface; ii. an interface end (132 or 202), the interface plate connected to the interface end (132 or 202); and d. an adjuster (131 or 231) disposed proximate the connection end, the adjuster configured to provide a configurable declination angle which sets a hang-off angle of a device connected to the interface plate with respect to the underwater vehicle interface. a. an underwater vehicle interface; b. an interface plate, comprising: i. an upper interface plate; and ii. a lower interface plate removably connected to the upper interface plate; i. an upper interface plate; and ii. a lower interface plate removably connected to the upper interface plate; c. a termination frame ((130 and 140) or 210), comprising: i. a connection end (141 or 201) connected to the underwater vehicle interface; ii. an interface end (132 or 202), the interface plate connected to the interface end (132 or 202); and i. a connection end (141 or 201) connected to the underwater vehicle interface; ii. an interface end (132 or 202), the interface plate connected to the interface end (132 or 202); and d. an adjuster (131 or 231) disposed proximate the connection end, the adjuster configured to provide a configurable declination angle which sets a hang-off angle of a device connected to the interface plate with respect to the underwater vehicle interface.