mhurhangee/patent-ind-claim-en huggingface dataset:
An industrial two-layer fabric which includes one upper surface side fabric constituted by upper surface side warps and upper surface side wefts (1'U, 2'U, 3'U, 4'U, 5'U, 6'U, 7'U, 8'U), one lower surface side fabric constituted by lower surface side warps and lower surface side wefts (1'L, 2'L, 3'L, 4'L, 5'L, 6'L, 7'L, 8'L), and binding yarns cooperating with the upper surface side warp to form the surface structure on the upper surface side fabric and constituted by pairs of an upper surface side warp serving as a warp fabric yarn-contact binding yarn and a lower surface side warp serving as a warp fabric yarn-contact binding yarn, wherein the upper surface side warp serving as the warp fabric yarn-contact binding yarn is not woven into the upper surface side weft (5'U, 6'U) at one or more points of a complete structure into which an upper surface side warp would be woven, and extends toward the lower surface side instead and is woven into the lower surface side weft (5'L) at the lower surface side, and then, extends toward the upper surface side to be woven into other upper surface side weft (6'U), wherein the lower surface side warp is not woven into the lower surface side weft (5'L) at a point where the upper surface side warp serving as the warp fabric yarn-contact binding yarn is woven into the lower surface side weft (5'L) at the lower surface side, and extends toward the upper surface side instead to be woven into the upper surface side wefts (5'U, 6'U) into which the upper surface side warp is not woven, at the upper surface side, and then extends toward the lower surface side to be woven into other lower surface side weft, wherein the upper surface side warp forms a first joint loop (WSBL) and is turned back to be woven into the lower surface side weft (3'L, 7'L) on the lower surface side into which the lower surface side warp would be woven, and then, is woven into the lower surface side weft (3'L) on the lower surface side, wherein on the opposite end portion of the industrial two-layer fabric, the upper surface side warp forms a second joint loop (WSBL) and is turned back to be woven into the lower surface side wefts (3'L, 7'L) on the lower surface side into which the lower surface side warp would be woven, wherein the warps form knuckles and wherein each of the first joint loop (WSBL) and the second joint loop (WSBL) includes a warp opposite the upper surface side warp which is turned back to be woven into the lower surface side wefts (3'L, 7'L) on the lower surface side into which the lower surface side warp would be woven and wherein the upper surface side warp which is turned back and the warp opposite to it form a pair, wherein the number of knuckles in the longitudinal structure of one of the warps forming a pair, is the same as that of the other of the warps forming the pair, and distances between the knuckles of one of the warps forming a pair are the same as those distances between the knuckles of the other of the warps forming the pair.
Drug delivery device with a container defining a cavity for a drug and a stopper for proximally delimiting the cavity and displacing the drug from the cavity , the drug delivery device further comprising an arrangement for determining a position (x) of the stopper relative to the container , the arrangement comprising an acoustic source configured to emit an acoustic signal and an acoustic sensor configured to detect an acoustic signal, a processing unit for controlling the acoustic source and processing the detected acoustic signal for determining characteristics of the acoustic signal correlated with the position (x) of the stopper ; wherein the acoustic source is aligned to emit the acoustic signal into a resonance volume , which is defined in one spatial dimension by the position of the stopper , wherein the processing unit is configured to detect a harmonic (f 1 (x), f 2 (x), f 3 (x), f 4 (x)) of a resonance frequency f k characteristic for a resonance volume related to the position (x).
Decoration cabinet with a device for washing said decoration cabinet , and associated with a line (L) for the decoration of ceramic tiles and provided with: a box-shaped protective structure , with two opposite openings , respectively for the entry and exit of a conveyor (T) on which said ceramic tiles are advanced; nozzles for spraying ceramic glaze on said ceramic tiles, with said nozzles arranged in a battery inside the aforementioned box-shaped protective structure ; at least one collecting tank of the excess enamel, arranged in the bottom of said box-like structure , characterized in that said device comprises: • at least one movable arm , mounted in said box-like structure and operable between a rest position, which does not interfere with the activity of said nozzles , and operating washing positions inside the said decoration cabinet ; • at least one swivelling washing head , associated with the lower end of a related movable arm and equipped with at least one spray nozzle , suitable for dispensing water or detergent liquid; First actuator organs , for moving said movable arm according to a predefined program and with predetermined speed, for moving said orientable washing head inside the aforementioned box-like protective structure ; • second actuator organs , for moving said orientable washing head , according to at least one rotation axis, in a suitable phase relationship with said movable arm movement ; • a system for supplying water and / or detergent liquid under pressure to the aforementioned at least one sprayer nozzle of the orientable washing head , with the jet coming out of said at least one sprayer nozzle intended to clean the organs inside said decoration cabinet as well as the internal walls of said box-like protective structure , with the resulting liquid destined to be conveyed towards the outside of the aforementioned decoration cabinet . • at least one movable arm , mounted in said box-like structure and operable between a rest position, which does not interfere with the activity of said nozzles , and operating washing positions inside the said decoration cabinet ; • at least one swivelling washing head , associated with the lower end of a related movable arm and equipped with at least one spray nozzle , suitable for dispensing water or detergent liquid; • second actuator organs , for moving said orientable washing head , according to at least one rotation axis, in a suitable phase relationship with said movable arm movement ; • a system for supplying water and / or detergent liquid under pressure to the aforementioned at least one sprayer nozzle of the orientable washing head , with the jet coming out of said at least one sprayer nozzle intended to clean the organs inside said decoration cabinet as well as the internal walls of said box-like protective structure , with the resulting liquid destined to be conveyed towards the outside of the aforementioned decoration cabinet .
A method for measuring the own thermal resistance of a magnetic device in the form of a choking-coil and the mutual thermal resistance between the core and winding of the choking-coil, where the winding resistance, whose thermometric characteristics slope describes the temperature coefficient of copper resistivity changes ρ Cu , is measured as a thermally sensitive parameter, the measurement being carried out in three stages, including in turn measurements and calculations based on analytical formulae, characterized in that at the first stage of measurement the winding resistance R 3 is measured at a low value of the current I 3 and the core temperature T a is measured using a radiometric pyrometer, at the second stage measurements are made, in a thermal steady state, of the winding resistance R 4 and, with a radiometric pyrometer, the choking-coil core temperature T r at a high value of the choking-coil current I 4 , and at the third stage the value of the winding thermal resistance R thu and the mutual thermal resistance between the choking-coil core and the winding, R thur , are calculated from formulae: R thu = R 4 − R 3 R 3 ⋅ ρ Cu ⋅ I 4 2 ⋅ R 4 R thur = T r − T a I 4 2 ⋅ R 4 where the respective symbols denote: R 3 - choking-coil resistance at the first stage of measurement, R 4 - choking-coil resistance at the second stage of measurement, I 4 - choking-coil current at the second stage of measurement, T a - core temperature at the first stage of measurement, T r - core temperature at the second stage of measurement, R thu - thermal resistance of the choking-coil winding, R thur - mutual thermal resistance between the choking-coil winding and core. R 3 - choking-coil resistance at the first stage of measurement, R 4 - choking-coil resistance at the second stage of measurement, I 4 - choking-coil current at the second stage of measurement, T a - core temperature at the first stage of measurement, T r - core temperature at the second stage of measurement, R thu - thermal resistance of the choking-coil winding, R thur - mutual thermal resistance between the choking-coil winding and core.
Use of a kit in the form of a capsule or a foil pouch having a plurality of compartments, especially two compartments, of which one compartment includes a synthetic resin component comprising free-radical-polymerisable synthetic resin and the other compartment includes a stabilised free-radical initiator in a hardener component, wherein the free-radical initiator has been stabilised by a dicyclohexyl-phthalate-free plasticiser, being at least partly coated therewith, and wherein the plasticiser has a melting temperature in the range of from 40 to 90°C, the free-radical initiator is in solid form at room temperature and the stabilised free-radical initiator is in particulate form at room temperature and is implemented as a free-flowing powder, for fixing an anchoring element in a hole (especially a drilled hole) in a building substrate; wherein the plasticiser is ethylene glycol dibenzoate and wherein the stabilised free-radical initiator has a particle size distribution d 50 in the range 180-300 μm which has been determined by screen analysis.
A copolymer having crystalline and amorphous parts, wherein the crystalline parts refer to parts corresponding to the component obtained after ozonolysis of the copolymer and the amorphous parts refer to parts other than the crystalline parts, and comprising conjugated diene units, non-conjugated olefin units and aromatic vinyl units, wherein aromatic vinyl units exist in the crystalline parts and in the amorphous parts of the copolymer, wherein: the ratio R is less than 50%, wherein: ratio R = aromatic vinyl units existing in the amorphous parts of the copolymer / aromatics vinyl units in the copolymer × 100 % , the conjugated diene units are 1,3-butadiene units, the non-conjugated olefin units are ethylene units, and the aromatic vinyl units are styrene units. the ratio R is less than 50%, wherein: ratio R = aromatic vinyl units existing in the amorphous parts of the copolymer / aromatics vinyl units in the copolymer × 100 % , the conjugated diene units are 1,3-butadiene units, the non-conjugated olefin units are ethylene units, and the aromatic vinyl units are styrene units.
Device for generating bubbles or droplets comprising - a cavity comprising a first pressurised phase ; - at least one input capillary of a second phase ; - an output capillary coaxially aligned with the at least one input capillary , the opening of the tip of the at least one input capillary having an internal diameter of less than half the internal diameter of the output capillary , the output capillary having a hydraulic diameter smaller than 500μm, and wherein the cross section of the cavity is selected so that, in use, the average speed field in said cavity is quasi-static characterised in that all dimensions of the cavity are larger than 3mm. - a cavity comprising a first pressurised phase ; - at least one input capillary of a second phase ; - an output capillary coaxially aligned with the at least one input capillary , the opening of the tip of the at least one input capillary having an internal diameter of less than half the internal diameter of the output capillary , the output capillary having a hydraulic diameter smaller than 500μm, and wherein the cross section of the cavity is selected so that, in use, the average speed field in said cavity is quasi-static characterised in that all dimensions of the cavity are larger than 3mm.
A user equipment comprising: a reception unit configured to receive service support information in a first cell from a base station; and a control unit configured to execute cell selection or cell reselection to a second cell that supports a predetermined service when detecting that the predetermined service is not supported in the first cell based on the service support information, wherein if the service support information does not include information whether the predetermined service is supported in the first cell, it is determined that connection to the first cell is not permitted. a reception unit configured to receive service support information in a first cell from a base station; and a control unit configured to execute cell selection or cell reselection to a second cell that supports a predetermined service when detecting that the predetermined service is not supported in the first cell based on the service support information, wherein if the service support information does not include information whether the predetermined service is supported in the first cell, it is determined that connection to the first cell is not permitted.
An apparatus for a single-track or multi-track providing of web-like interleaving sheet material at a cutting zone in which products supplied on one track or on multiple tracks are cut into slices and interleaving sheets are introduced that are cut off from the provided interleaving sheet material in the cutting zone , the apparatus having a removal device which is configured for a removal of the material web from a material store and having a loop store in which the material web forms a loop having a loop portion at the incoming side and a loop portion at the outgoing side, characterized in that the loop store provides a reception space for the loop whose one side forms a support for the one loop portion and whose side opposite the support forms a boundary for the other loop portion, wherein the reception space has an opening at least for the outlet of the loop portion at the outgoing side and an end disposed lower than the opening ; and wherein a plane extending through the opening and the end extends at an inclination with respect to the horizontal, wherein the loop portion at the outgoing side extends over the support , in particular wherein the plane has an angle with the horizontal in the range from 15° to 75°, preferably from 30° to 60°, and in particular preferably from 40° to 50°. the apparatus having a removal device which is configured for a removal of the material web from a material store and having a loop store in which the material web forms a loop having a loop portion at the incoming side and a loop portion at the outgoing side, characterized in that the loop store provides a reception space for the loop whose one side forms a support for the one loop portion and whose side opposite the support forms a boundary for the other loop portion, wherein the reception space has an opening at least for the outlet of the loop portion at the outgoing side and an end disposed lower than the opening ; and wherein a plane extending through the opening and the end extends at an inclination with respect to the horizontal, wherein the loop portion at the outgoing side extends over the support , in particular wherein the plane has an angle with the horizontal in the range from 15° to 75°, preferably from 30° to 60°, and in particular preferably from 40° to 50°.
A method for wireless communications, comprising: generating a frame comprising a first portion for transmission on separate channels and a second portion for transmission using channel bonding, the second portion having a training field , including first complementary sequences, and a first channel estimation field, CEF, including second complementary sequences, wherein the first complementary sequences of the training field and the second complementary sequences of the first CEF comprise Golay code sequences; wherein a last of the first complementary sequences of the training field and a subset of the second complementary sequences of the first CEF represent a second CEF , wherein the last of the first complementary sequences of the training field is a same as a last of the second complementary sequences of the first CEF , both forming a cyclic pattern, so that the second CEF corresponds to a circular shift of the first CEF ; and outputting the frame for transmission. generating a frame comprising a first portion for transmission on separate channels and a second portion for transmission using channel bonding, the second portion having a training field , including first complementary sequences, and a first channel estimation field, CEF, including second complementary sequences, wherein the first complementary sequences of the training field and the second complementary sequences of the first CEF comprise Golay code sequences; wherein a last of the first complementary sequences of the training field and a subset of the second complementary sequences of the first CEF represent a second CEF , wherein the last of the first complementary sequences of the training field is a same as a last of the second complementary sequences of the first CEF , both forming a cyclic pattern, so that the second CEF corresponds to a circular shift of the first CEF ; and outputting the frame for transmission.
A washing machine , comprising: an outer barrel having a cylindrical shape and oriented substantially horizontally; a drum present inside the outer barrel , having a cylindrical shape, and configured to receive laundry ; cleaning fluid present in the outer barrel and the drum ; a rotary shaft connected to a side surface of the drum and configured to rotate the drum; and a partition plate that is fixed to an inner circumferential surface of the drum in such a manner as to be in close contact with the inner circumferential surface and that divides an internal space of the drum into a first washing compartment and a second washing compartment, wherein the washing machine is configured to rotate the rotary shaft in such a manner as to rotate the partition plate alternately in a first direction and a second direction opposite to the first direction to beat-wash the laundry after the laundry becomes immersed in the cleaning fluid , and the partition plate is configured to be rotated in the first direction to an angle that allows a first wash as a portion of the laundry in the first washing compartment to be scooped up from the cleaning fluid with use of a first end of the partition plate and slip down along the partition plate and then in the second direction to an angle that allows the first wash to be scooped up from the cleaning fluid with use of a second end of the partition plate and slip down along the partition plate. an outer barrel having a cylindrical shape and oriented substantially horizontally; a drum present inside the outer barrel , having a cylindrical shape, and configured to receive laundry ; cleaning fluid present in the outer barrel and the drum ; a rotary shaft connected to a side surface of the drum and configured to rotate the drum; and a partition plate that is fixed to an inner circumferential surface of the drum in such a manner as to be in close contact with the inner circumferential surface and that divides an internal space of the drum into a first washing compartment and a second washing compartment, wherein the washing machine is configured to rotate the rotary shaft in such a manner as to rotate the partition plate alternately in a first direction and a second direction opposite to the first direction to beat-wash the laundry after the laundry becomes immersed in the cleaning fluid , and the partition plate is configured to be rotated in the first direction to an angle that allows a first wash as a portion of the laundry in the first washing compartment to be scooped up from the cleaning fluid with use of a first end of the partition plate and slip down along the partition plate and then in the second direction to an angle that allows the first wash to be scooped up from the cleaning fluid with use of a second end of the partition plate and slip down along the partition plate.
A method for synchronous signal transmission performed by a transmitting device , wherein the method comprises: transmitting (S210), by the transmitting device , a synchronization signal block on a first frequency domain position, wherein the first frequency domain position is located on the frequency domain candidate position of a synchronization signal, and each 20 MHz subband comprises one frequency domain candidate position of the synchronization signal, wherein the first frequency domain position is the center frequency point position of the synchronization signal block; and determining, by the transmitting device , the frequency domain candidate position of the synchronous signal according to the formula fc = f1+(g ∗ 20) + f2, wherein, fc is the candidate position in frequency domain of synchronous signal, f1 is the center frequency point position of the first 20MHz subband of the unlicensed frequency band, f1+(g ∗ 20) is the center frequency point position of the (g+1)th 20MHz subband of the unlicensed frequency band, and g is an integer, f2 is the offset of the candidate position of the center frequency point of the synchronous signal within a 20MHz subband. transmitting (S210), by the transmitting device , a synchronization signal block on a first frequency domain position, wherein the first frequency domain position is located on the frequency domain candidate position of a synchronization signal, and each 20 MHz subband comprises one frequency domain candidate position of the synchronization signal, wherein the first frequency domain position is the center frequency point position of the synchronization signal block; and determining, by the transmitting device , the frequency domain candidate position of the synchronous signal according to the formula fc = f1+(g ∗ 20) + f2, wherein, fc is the candidate position in frequency domain of synchronous signal, f1 is the center frequency point position of the first 20MHz subband of the unlicensed frequency band, f1+(g ∗ 20) is the center frequency point position of the (g+1)th 20MHz subband of the unlicensed frequency band, and g is an integer, f2 is the offset of the candidate position of the center frequency point of the synchronous signal within a 20MHz subband.