mhurhangee/ep-ind-claims huggingface dataset:
A multi-mode antenna, characterized by comprising: a CDMA dual-polarized antenna consisting of a plurality of linearly arranged radiation elements and being adapted to receive and to transmit a radio frequency signal in a CDMA system; and two LTE MIMO dual-polarized antennas, each consisting of a plurality of linearly arranged radiation elements and being adapted to receive and to transmit a radio frequency signal in an LTE system, wherein one of the two LTE MIMO dual-polarized antennas is stacked in the vertical direction right above the centre radiation element of the CDMA dual-polarized antenna and the other of the two LTE MIMO dual-polarized antennas is stacked in the vertical direction right below the centre radiation element of the CDMA dual-polarized antenna; and some of the radiation elements in the two MIMO dual-polarized antennas are nested in the radiation elements of the CDMA dual-polarized antenna, and other radiation elements in the two LTE MIMO dual-polarized antennas are located between the radiation elements of the CDMA dual-polarized antenna; the distance (d) between the lowest radiation element in the LTE MIMO dual-polarized antenna right above the centre radiation element of the CDMA dual-polarized antenna and the top radiation element in the MIMO dual-polarized antenna right below the centre radiation element of the CDMA dual-polarized antenna is between 0.7λ1 to 1λ1, wherein, λ1 is the wavelength of a center frequency supported by the LTE MIMO dual-polarized antenna. a CDMA dual-polarized antenna consisting of a plurality of linearly arranged radiation elements and being adapted to receive and to transmit a radio frequency signal in a CDMA system; and two LTE MIMO dual-polarized antennas, each consisting of a plurality of linearly arranged radiation elements and being adapted to receive and to transmit a radio frequency signal in an LTE system, wherein one of the two LTE MIMO dual-polarized antennas is stacked in the vertical direction right above the centre radiation element of the CDMA dual-polarized antenna and the other of the two LTE MIMO dual-polarized antennas is stacked in the vertical direction right below the centre radiation element of the CDMA dual-polarized antenna; and some of the radiation elements in the two MIMO dual-polarized antennas are nested in the radiation elements of the CDMA dual-polarized antenna, and other radiation elements in the two LTE MIMO dual-polarized antennas are located between the radiation elements of the CDMA dual-polarized antenna; the distance (d) between the lowest radiation element in the LTE MIMO dual-polarized antenna right above the centre radiation element of the CDMA dual-polarized antenna and the top radiation element in the MIMO dual-polarized antenna right below the centre radiation element of the CDMA dual-polarized antenna is between 0.7λ1 to 1λ1, wherein, λ1 is the wavelength of a center frequency supported by the LTE MIMO dual-polarized antenna.
A blood sample container (1A; 1B) comprising: a container body section having an internal space for storing initial flow blood to be used for testing; a blood inflow port communicating with the internal space, that allows the initial flow blood to flow in; a blood outflow port communicating with the internal space, that allows the stored initial flow blood to flow out; and an exhaust section communicating with the internal space through a first end and being capable of discharging air at a second end and having a hydrophilic and bacteria-impermeable filter, that allows air in the internal space to be discharged, wherein the exhaust section is positioned at an upper end of the container body section when the blood sample container (1A; 1B) is used in a manner such that the blood outflow port faces in a vertical direction, and has a small-diameter tubular passage that allows the air in the internal space to be discharged by a predetermined amount of the initial flow blood that has flown into the tubular passage characterized in that the exhaust section has an anti-foaming filter arranged at the first end and has the hydrophilic and bacteria-impermeable filter arranged at the second end, and in that the small-diameter tubular passage is arranged between the first and second ends of the exhaust section. a container body section having an internal space for storing initial flow blood to be used for testing; a blood inflow port communicating with the internal space, that allows the initial flow blood to flow in; a blood outflow port communicating with the internal space, that allows the stored initial flow blood to flow out; and an exhaust section communicating with the internal space through a first end and being capable of discharging air at a second end and having a hydrophilic and bacteria-impermeable filter, that allows air in the internal space to be discharged, wherein the exhaust section is positioned at an upper end of the container body section when the blood sample container (1A; 1B) is used in a manner such that the blood outflow port faces in a vertical direction, and has a small-diameter tubular passage that allows the air in the internal space to be discharged by a predetermined amount of the initial flow blood that has flown into the tubular passage the exhaust section has an anti-foaming filter arranged at the first end and has the hydrophilic and bacteria-impermeable filter arranged at the second end, and in that the small-diameter tubular passage is arranged between the first and second ends of the exhaust section.
A method of commissioning and mapping a lighting system including a plurality of lighting devices, the method comprising: - generating a set of patterns with at least as many different patterns as the number of lighting devices in the plurality thereof, - detecting the plurality of lighting devices, - assigning each pattern of the set to a unique lighting device of the plurality thereof, - activating each lighting device in accordance with its assigned pattern, the pattern comprising a sequence of powering pulses, - sensing modulation of light generated by a lighting device, - assigning an identifier of the localization of the lighting device to the lighting device of which the modulation of light is sensed, - storing the assigned identifier as a localization identification of the lighting device of which the modulation of light is sensed, - repeating the steps of sensing, assigning and storing for each lighting device, further comprising linking each lighting device with at least one of a plurality of peripheral interfaces (203, 207) in an electrical network, by: - replicating the pattern of a particular lighting device by actuating a peripheral interface (203, 207) to be linked with that particular lighting device, and - upon detecting actuation of the peripheral interface (203, 207) in accordance with a pattern of the set of patterns, linking the actuated peripheral interface (203, 207) with the lighting device which has that pattern assigned. - generating a set of patterns with at least as many different patterns as the number of lighting devices in the plurality thereof, - detecting the plurality of lighting devices, - assigning each pattern of the set to a unique lighting device of the plurality thereof, - activating each lighting device in accordance with its assigned pattern, the pattern comprising a sequence of powering pulses, - sensing modulation of light generated by a lighting device, - assigning an identifier of the localization of the lighting device to the lighting device of which the modulation of light is sensed, - storing the assigned identifier as a localization identification of the lighting device of which the modulation of light is sensed, - repeating the steps of sensing, assigning and storing for each lighting device, further comprising linking each lighting device with at least one of a plurality of peripheral interfaces (203, 207) in an electrical network, by: - replicating the pattern of a particular lighting device by actuating a peripheral interface (203, 207) to be linked with that particular lighting device, and - upon detecting actuation of the peripheral interface (203, 207) in accordance with a pattern of the set of patterns, linking the actuated peripheral interface (203, 207) with the lighting device which has that pattern assigned.
A method for producing customized absorbent products in series with the manufacture of absorbent products having non-customized graphics comprising the steps of: printing a repeating series of graphics (136, Gn) on a fourth substrate; receiving a first order for disposable absorbent articles having custom graphics; printing a first series of custom graphics onto a first substrate, wherein the first series of custom graphics includes the custom graphics from the first order; advancing a second substrate to a converting operation; splicing the first substrate to the second substrate; advancing the first substrate to the converting operation; detecting the first series of custom graphics on the first substrate; combining the first substrate with the fourth substrate such that the custom graphics on the first substrate are visible through the fourth substrate; converting the first substrate into a first set of custom disposable absorbent articles, wherein the first set of custom disposable absorbent articles includes the first series of custom graphics; labelling a first package with a first package identity graphic, wherein the first package identity graphic identifies the first series of custom graphics; synchronizing the placement of the first set of absorbent articles into the package labelled with the first package identity graphic; splicing a third substrate to the first substrate; and advancing the third substrate to the converting operation. printing a repeating series of graphics (136, Gn) on a fourth substrate; receiving a first order for disposable absorbent articles having custom graphics; printing a first series of custom graphics onto a first substrate, wherein the first series of custom graphics includes the custom graphics from the first order; advancing a second substrate to a converting operation; splicing the first substrate to the second substrate; advancing the first substrate to the converting operation; detecting the first series of custom graphics on the first substrate; combining the first substrate with the fourth substrate such that the custom graphics on the first substrate are visible through the fourth substrate; converting the first substrate into a first set of custom disposable absorbent articles, wherein the first set of custom disposable absorbent articles includes the first series of custom graphics; labelling a first package with a first package identity graphic, wherein the first package identity graphic identifies the first series of custom graphics; synchronizing the placement of the first set of absorbent articles into the package labelled with the first package identity graphic; splicing a third substrate to the first substrate; and advancing the third substrate to the converting operation.
A heating radiator element, comprising a base hollow body, comprising a substantially tubular main portion extending longitudinally along a principal axis, and at least one front or rear heat-exchange plate (6, 7), which extends longitudinally along an axis and has a pair of opposite longitudinal lateral edges and a pair of opposite faces (13, 14); the plate (6, 7) being connected to the main portion by a central longitudinal rib., which is arranged basically in a centre plane of the element, extends radially from the main portion and is substantially orthogonal to the plate (6, 7); characterized in that the plate (6, 7) has at least one series of three or more elongated cuts formed orthogonally between the opposite faces (13,14) of the plate (6,7) and substantially transverse to the axis and set in succession along the axis and axially spaced apart along the axis, which delimit at least three plate portions arranged coplanar and aligned parallel to the axis and mechanically supported by the rib; each plate portion being delimited axially by a pair of consecutive cuts along the axis; wherein the longitudinal lateral edges of the plate (6, 7) are discontinuous, being interrupted by respective series of cuts set along the lateral edges, each of the lateral edges being interrupted in at least three or more longitudinal positions.
Cultivation floor system with a floor for cultivating plants, for example a cultivation process comprising plant containers placed on the floor, which cultivation floor system comprises: - a watertight basin with a watertight groundsheet, - a water-permeable structure in the basin, for example comprising one or more layers of granular material, - a permeable top sheet which lies substantially horizontally over the water-permeable structure and forms the top side of the floor, in which the watertight basin comprises a water-barrier structure which protrudes above the floor and delimits a water compartment of the cultivation floor system, characterized in that the water-barrier structure comprises: - a horizontal beam with a top side, - a water-barrier profile with a bottom side, - fastening means which fasten the water-barrier profile to the horizontal beam, in which the top side of the beam is substantially level with the top side of the floor formed by the permeable top sheet, in which a portion of the watertight groundsheet lies over the top side of the horizontal beam, in which the permeable top sheet lies over the top side of the horizontal beam and over said portion of the watertight groundsheet, and in which the bottom side of the water-barrier profile is pulled onto the top side of the horizontal beam by means of the fastening means while clamping the watertight groundsheet and the permeable top sheet between said bottom side and top side. - a watertight basin with a watertight groundsheet, - a water-permeable structure in the basin, for example comprising one or more layers of granular material, - a permeable top sheet which lies substantially horizontally over the water-permeable structure and forms the top side of the floor, - a horizontal beam with a top side, - a water-barrier profile with a bottom side, - fastening means which fasten the water-barrier profile to the horizontal beam,
A method of operating non-volatile storage, the method comprising: erasing a group of non-volatile storage elements; programming a set of the non-volatile storage elements in the group after erasing the group; determining an upper tail of an erase distribution of non-volatile storage elements in the set after the programming; and characterised by comprising: establishing an erase depth for erasing the group of non-volatile storage elements based on the upper tail; and erasing the group of non-volatile storage elements based on the established erase depth. erasing a group of non-volatile storage elements; programming a set of the non-volatile storage elements in the group after erasing the group; determining an upper tail of an erase distribution of non-volatile storage elements in the set after the programming; and characterised by comprising: establishing an erase depth for erasing the group of non-volatile storage elements based on the upper tail; and erasing the group of non-volatile storage elements based on the established erase depth. establishing an erase depth for erasing the group of non-volatile storage elements based on the upper tail; and erasing the group of non-volatile storage elements based on the established erase depth.
A lithium microbattery comprising a stack of active layers (18, 20, 22) containing lithium and a protective cover covering the stack of active layers (18, 20, 22), characterized in that the protective cover is fixed to the stack of active layers (18, 20, 22) by a layer of glue and in that it comprises a buffer structure comprising at least one alumina layer arranged between the stack of active layers and the layer of glue, the buffer structure being in contact with said stack of active layers (18, 20, 22).
A hair treatment device comprising a light-based detector for detecting a hair near a skin surface, the detector comprising: - a light source for generating a light beam with an incident polarization, - optical elements (14, 16, 17, 18) for focusing the light beam at the hair near the skin surface, and - a polarization-sensitive light sensor (12, 13) for detecting light interacted with the hair or the skin surface and having a predefined linear polarization, wherein the light source and/or the optical elements (14, 16, 17, 18) are arranged to cause the light beam to simultaneously have multiple spatially separated foci (51, 52, 53) at or near the hair or the skin surface, wherein different foci are arranged to coincide with a same hair, and wherein the light source and/or the optical elements (14, 16, 17, 18) are arranged to cause the light beam to have different orientations of incident polarization at the multiple foci (51, 52, 53). - a light source for generating a light beam with an incident polarization, - optical elements (14, 16, 17, 18) for focusing the light beam at the hair near the skin surface, and - a polarization-sensitive light sensor (12, 13) for detecting light interacted with the hair or the skin surface and having a predefined linear polarization,
A position indicator comprising: a case having a hollow housing portion and an opening at an end of the housing portion; a rod having a substantially bar-like body and an end, the rod being housed in the housing portion such that the end of the rod protrudes outside the case through the opening; and a sealing member attached to the opening at the end of the housing portion and having an aperture into which the rod is inserted such that a gap between the aperture and the rod is sealed, characterised in that the sealing member comprises an elastic member having a biasing portion which is configured to bias the rod toward outside the case while maintaining a tight contact with the rod. a case having a hollow housing portion and an opening at an end of the housing portion; a rod having a substantially bar-like body and an end, the rod being housed in the housing portion such that the end of the rod protrudes outside the case through the opening; and a sealing member attached to the opening at the end of the housing portion and having an aperture into which the rod is inserted such that a gap between the aperture and the rod is sealed, characterised in that the sealing member comprises an elastic member having a biasing portion which is configured to bias the rod toward outside the case while maintaining a tight contact with the rod.
Integrated banana bunch transportation system comprising: twelve autonomous baskets, wherein each basket is capable of holding a bunch of bananas and each basket has an upper portion comprising a "U" - shaped hanger (1, 2) and a lower portion comprising a base (3, 4, 5, 6), the base comprising two guide tubes, the dimensions of the ends of the hanger allowing their placement in the guide tubes of the base such that each basket is configured to be adjusted in height, such that each basket is configured to adjust to accommodate bunches of bananas of varying heights, a nail being attached in the middle of a horizontal part of the hanger, wherein the nail is capable of securing a stalk of the bunch of bananas and the base of each basket has at least an embossed area, wherein the embossed area prevents spinning or slipping of a lower part of the bunch of bananas on the base and a wagon comprising wheels, wherein the baskets are placed on the wagon.
Fluid connection device, comprising: - a male connector and a female connector, configured to be inserted into one another along an axis X, - an elastically-deformable pin with a generally U or C shape mounted on the female connector, said pin comprising at least one part (16a1, 16b1, 16c1) intersecting with the female connector and configured to cooperate by elastic snap-fitting with said male connector, and - a movable ring that is displaced axially on the female connector, from a pin release position to a locking position of the pin and of the connectors, characterised in that the female connector supports mobile elements displaced radially from a first radial position, preferably internal, whereby the ring is immobilised on the female connector, to a second radial position, preferably external, whereby the ring is released, said elements being configured to cooperate both with the male connector and said ring so as to release the ring when the pin is snap-fitted onto the male connector. - a male connector and a female connector, configured to be inserted into one another along an axis X, - an elastically-deformable pin with a generally U or C shape mounted on the female connector, said pin comprising at least one part (16a1, 16b1, 16c1) intersecting with the female connector and configured to cooperate by elastic snap-fitting with said male connector, and - a movable ring that is displaced axially on the female connector, from a pin release position to a locking position of the pin and of the connectors,
Method for producing a flat steel product having a yield strength of at least 700 MPa and having a structure which is up to at least 70 vol.% bainitic, comprising the work steps of: a) melting a steel melt which consists (in wt.%) of C: 0.05-0.08 %, Si: 0.015-0.500 %, Mn: 1.60-2.00 %, P: up to 0.025 %, S: up to 0.010 %, Al: 0.020-0.050 %, N: up to 0.006 %, Cr: up to 0.40 %, Nb: 0.060-0.070 %, B: 0.0005-0.0025 %, Ti: 0.090-0.130 %, and of technically unavoidable impurities, including up to 0.12 % Cu, up to 0.100 % Ni, up to 0.010 % V, up to 0.004 % Mo and up to 0.004 % Sb, and the remainder consisting of iron; b) casting the melt into a slab; c) reheating the slab to a reheating temperature of from 1200-1300 °C; d) pre-rolling the slab at a pre-rolling temperature of from 950-1250 °C and with a total pass reduction achieved by means of the pre-rolling of at least 50 %; e) finish-hot-rolling the pre-rolled slab, the finish-hot-rolling being terminated at a hot-rolling end temperature of from 800-880 °C; f) within at most 10 s after the finish-hot-rolling, starting the intensive cooling of the finish-hot-rolled flat steel product at a cooling speed of at least 40 K/s to a coiling temperature of from 550-620 °C; g) coiling the finish-hot-rolled flat steel product, wherein the elongation at break of the hot-rolled flat steel product obtained after the coiling is at least 12 %. a) melting a steel melt which consists (in wt.%) of C: 0.05-0.08 %, Si: 0.015-0.500 %, Mn: 1.60-2.00 %, P: up to 0.025 %, S: up to 0.010 %, Al: 0.020-0.050 %, N: up to 0.006 %, Cr: up to 0.40 %, Nb: 0.060-0.070 %, B: 0.0005-0.0025 %, Ti: 0.090-0.130 %, and of technically unavoidable impurities, including up to 0.12 % Cu, up to 0.100 % Ni, up to 0.010 % V, up to 0.004 % Mo and up to 0.004 % Sb, and the remainder consisting of iron; C: 0.05-0.08 %, Si: 0.015-0.500 %, Mn: 1.60-2.00 %, P: up to 0.025 %, S: up to 0.010 %, Al: 0.020-0.050 %, N: up to 0.006 %, Cr: up to 0.40 %, Nb: 0.060-0.070 %, B: 0.0005-0.0025 %, Ti: 0.090-0.130 %, and of technically unavoidable impurities, including up to 0.12 % Cu, up to 0.100 % Ni, up to 0.010 % V, up to 0.004 % Mo and up to 0.004 % Sb, and the remainder consisting of iron; b) casting the melt into a slab; c) reheating the slab to a reheating temperature of from 1200-1300 °C; d) pre-rolling the slab at a pre-rolling temperature of from 950-1250 °C and with a total pass reduction achieved by means of the pre-rolling of at least 50 %; e) finish-hot-rolling the pre-rolled slab, the finish-hot-rolling being terminated at a hot-rolling end temperature of from 800-880 °C; f) within at most 10 s after the finish-hot-rolling, starting the intensive cooling of the finish-hot-rolled flat steel product at a cooling speed of at least 40 K/s to a coiling temperature of from 550-620 °C; g) coiling the finish-hot-rolled flat steel product,
Method for removal of metal ions from an aqueous solution, which comprises contacting the aqueous solution with a phosphazene-formaldehyde resin represented by the following Formulas 1 to 3: wherein the number n of repeating units is from 1-100.