mhurhangee/ep-ind-claims huggingface dataset:
A perforated structure mountable onto a seabed for establishing a deep-water port or an artificial island; said structure comprising: a plurality of prefabricated perforated modules integratable into said structure; wherein each prefabricated perforated module has a corner portion comprising a concave surface such that said corner portions being integrated together into said structure form a cavity to be filled with a concrete; characterised in that said structure comprises at least one connector interconnecting corner portions of said prefabricated perforated modules; and wherein said connector comprises a crosspiece having three arms (110, 120, 130) orthogonal to each other; each arm has a cross-like cross section; wherein said crosspiece has reinforcing members (150, 160, 170) distributed within said concrete. a plurality of prefabricated perforated modules integratable into said structure; wherein each prefabricated perforated module has a corner portion comprising a concave surface such that said corner portions being integrated together into said structure form a cavity to be filled with a concrete; characterised in that said structure comprises at least one connector interconnecting corner portions of said prefabricated perforated modules; and wherein said connector comprises a crosspiece having three arms (110, 120, 130) orthogonal to each other; each arm has a cross-like cross section; wherein said crosspiece has reinforcing members (150, 160, 170) distributed within said concrete.
Backpack comprising a main dorsal pocket, which is intended to receive a load, and carrying straps (4a, 4b) configured to position and maintain said main dorsal pocket on the shoulders of a user, said main dorsal pocket being formed by joining a first base panel of flexible material, intended to be in contact with the body of the user, and a second external panel, also of flexible material, said first base panel extending to the ends (6a, 6b) of said main dorsal pocket to form two closed lateral loops for the passage of the arms of said user, forming said carrying straps (4a, 4b), characterized in that the first base panel comprises an elastic portion at its juncture with a lower region of each anchorage of the carrying straps (4a, 4b) and a three-dimensional fabric outside the elastic portion, which is configured to evacuate perspiration.
An operating device having a rotational element which can rotate about a rotational axis and can be tilted substantially vertically to the rotational axis, and having a twist-proof cap element which is arranged above the rotational element and can be tilted substantially vertically to the rotational axis, wherein the rotational element is coupled to the cap element such that a tilting action of the cap element causes a tilting action of the rotational element, wherein the rotational element is configured to be pressable in a direction parallel to the rotational axis, and wherein the rotational element is coupled to the cap element such that a pressing action of the rotational element in a direction parallel to the rotational axis causes a pressing action of the cap element in a direction parallel to the rotational axis, characterised in that the cap element is configured to be twist-proof in respect of rotation about the rotational axis of the rotational element and thus cannot be rotated about the rotational axis of the rotational element.
A bio-information measuring apparatus, comprising: an optical module comprising a light source configured to emit light toward an object, and a detector configured to detect light reflected or scattered from the object; a pressure sensor configured to measure a pressure between the optical module and the object; and a processor configured to restore a spectrum based on the detected light reflected or scattered from the object, and to determine an event occurrence time based on changes of the pressure values continuously measured by the pressure sensor and in response to a difference between a pressure value at a reference time and a pressure value at a measured time exceeding a threshold value and to correct the restored spectrum at the event occurrence time based on a correction model. an optical module comprising a light source configured to emit light toward an object, and a detector configured to detect light reflected or scattered from the object; a pressure sensor configured to measure a pressure between the optical module and the object; and a processor configured to restore a spectrum based on the detected light reflected or scattered from the object, and to determine an event occurrence time based on changes of the pressure values continuously measured by the pressure sensor and in response to a difference between a pressure value at a reference time and a pressure value at a measured time exceeding a threshold value and to correct the restored spectrum at the event occurrence time based on a correction model.
A brush seal (15, 17) for a rotating machine, intended to be disposed between a first part and a second part of the rotating machine, the first and second parts (24, 26) being movable relative to each other about an axis, extending along an axial direction, the brush seal (15, 17) comprising a body intended be attached to the first part, and a brush attached to the body, intended to be in contact with the second part, wherein the brush comprises at least a first group of bristles and a second group of bristles, characterized in that the bristles of the first group of bristles are oleophobic and the bristles of the second group of bristles are oleophilic.
A system for blur-calibration of an imaging sensor, the imaging sensor having an optical system and a plurality of pixels, wherein the system for blur-calibration has an optical axis in a focus direction and comprises: a target having a known target pattern; a projection element to project at least a portion of the target pattern within a field-of-view of the imaging sensor; a controller configured to move the target pattern across the FOV; and digital circuity or analog media to capture frames of images of the moving target pattern as seen in the FOV of the imaging sensor to sample point-like objects at different focus positions, thereby to acquire multi-focal image data, wherein the controller is configured to cause the target pattern to move across the FOV to present the target pattern across different frames at different sub-pixel fractional positions, wherein the multi-focal image data acquired by said digital circuitry or analog media is subsequently processed to generate coefficients at different focus positions from high-resolution composite images generated from the captured frames, wherein an ambiguity in the absolute sign of the coefficients is removed by comparing the coefficients at different focus positions, thereby to generate blur-calibration data, characterised in that the target pattern comprises a plurality of point-like objects with fixed relative positions, at least one said point-like object having a different focus position of a test system comprising the blur-calibration system and the imaging sensor in the focus direction along the optical axis. a target having a known target pattern; a projection element to project at least a portion of the target pattern within a field-of-view of the imaging sensor; a controller configured to move the target pattern across the FOV; and digital circuity or analog media to capture frames of images of the moving target pattern as seen in the FOV of the imaging sensor to sample point-like objects at different focus positions, thereby to acquire multi-focal image data,
A control method of a flotation machine that is used in metallurgical processes, the flotation machine foaming hydrophobic particles from an aqueous slurry that contains these particles, and the flotation machine including a flotation cell and a rotor, which is inside the flotation cell and in which the rotor is rotated at a mixing power that maintains a suspension in the slurry and mixing of air with the slurry to form foam, and the mixing power is controlled by adjusting the rotation speed of the rotor, characterized in that the amount of solid matter accumulated on the bottom of the cell is determined, and the rotation speed of the rotor is adjusted on the basis of the determined amount of solid matter; and wherein - the rotor is rotated at the lowest possible first rotation speed which, in terms of metallurgy, is selected so as to have an adequate mixing power to maintain a suspension and form foam and, at the same time, to be small enough to allow the accumulation of solid matter on the bottom of the cell; - the rotation speed of the rotor is periodically increased from the first rotation speed to a higher second rotation speed to remove the solid matter accumulated on the bottom of the cell; and - the second rotation speed is maintained for a predetermined period of time, after which the rotation speed of the rotor is reduced to the said first rotation speed. - the rotor is rotated at the lowest possible first rotation speed which, in terms of metallurgy, is selected so as to have an adequate mixing power to maintain a suspension and form foam and, at the same time, to be small enough to allow the accumulation of solid matter on the bottom of the cell; - the rotation speed of the rotor is periodically increased from the first rotation speed to a higher second rotation speed to remove the solid matter accumulated on the bottom of the cell; and - the second rotation speed is maintained for a predetermined period of time, after which the rotation speed of the rotor is reduced to the said first rotation speed.
Sound-proofing component for a rigid structural member, comprising a mass/spring system which comprises at least one layer of heavy mass and a layer which forms a spring, and an acoustic absorption system having two layers which have differing levels of resistance to air passage, the rigid structural member being a metal sheet, the mass/spring system being arranged at one side of the rigid structural member, the acoustic absorption system being arranged at the other side of the rigid structural member, and the opposing surfaces of the rigid structural member which are covered by the mass/spring system on the one side and the acoustic absorption system on the other side being opposite each other and of the same size, wherein a first of the two layers of the acoustic absorption system has an adjustable level of resistance to air passage, characterised in that the first of the two layers of the acoustic absorption system is formed by a non-woven material, the non-woven material presenting a resistance to air passage comprised between 300 N.s/m 3 and 2500 N.s/m 3 and its mass surface density being comprised between 20 g/m 2 and 200 g/m 2.
A disposable wearable absorbent article comprising: a chassis extending in a longitudinal direction and having a front region, a rear region and a central region disposed in the longitudinal direction between the front region and the rear region, the central region comprising an absorbent core; a first side panel connected to the chassis and extending transversally outwards in a first lateral direction towards a first outer edge; a second side panel connected to the chassis and extending transversally outwards in a second lateral direction towards a second outer edge; wherein each of the first and second side panels (20, 22) comprises a mechanical fastening material affixed to a free end portion adjacent the outer edge (20a, 22a) of the panel, whereby, in use, the first and second side panels can extend around a user's waist to couple the first and second side panels to the front region of the chassis, and wherein each of the first and second panels (20, 22) is gathered in a longitudinal direction to form at least one pleat extending in a transverse direction, and wherein each of the first and second panels (20, 22) comprises a binding material affixed to the panel (20, 22), the binding material being configured to maintain each of the first and second side panels (20, 22) in a gathered configuration. a chassis extending in a longitudinal direction and having a front region, a rear region and a central region disposed in the longitudinal direction between the front region and the rear region, the central region comprising an absorbent core; a first side panel connected to the chassis and extending transversally outwards in a first lateral direction towards a first outer edge; a second side panel connected to the chassis and extending transversally outwards in a second lateral direction towards a second outer edge; wherein each of the first and second side panels (20, 22) comprises a mechanical fastening material affixed to a free end portion adjacent the outer edge (20a, 22a) of the panel, whereby, in use, the first and second side panels can extend around a user's waist to couple the first and second side panels to the front region of the chassis, and wherein each of the first and second panels (20, 22) is gathered in a longitudinal direction to form at least one pleat extending in a transverse direction, and wherein each of the first and second panels (20, 22) comprises a binding material affixed to the panel (20, 22), the binding material being configured to maintain each of the first and second side panels (20, 22) in a gathered configuration.
An evolved Node B, eNodeB (220, 500), for mitigating interference caused by a downlink signal transmitted by a neighboring eNodeB (270, 500), the eNodeB (220, 500) comprising: a transceiver arranged to receive through a backhaul channel (212, 230) a reference signal from the neighboring eNodeB (270, 500), and to receive, via an air interface, an uplink signal from a user equipment, UE (132, 232), wherein the reference signal is the downlink signal transmitted from said neighboring eNodeB (270, 500), and the uplink signal includes an uplink signal component from the UE (132, 232), a composite interference signal resulting from the downlink signal transmitted from said neighboring eNodeB (270, 500), and channel noise; a processing unit arranged to: obtain an estimate of a channel response of a static wireless channel from the neighboring eNodeB (270, 500) to the eNodeB (220, 500) using the reference signal; combine the reference signal from the neighboring eNodeB (270, 500) and the estimate of the channel response to form the composite interference signal; and subtract the composite interference signal from the uplink signal to detect the UE's (132, 232) uplink signal component in the received uplink signal. a transceiver arranged to receive through a backhaul channel (212, 230) a reference signal from the neighboring eNodeB (270, 500), and to receive, via an air interface, an uplink signal from a user equipment, UE (132, 232), wherein the reference signal is the downlink signal transmitted from said neighboring eNodeB (270, 500), and the uplink signal includes an uplink signal component from the UE (132, 232), a composite interference signal resulting from the downlink signal transmitted from said neighboring eNodeB (270, 500), and channel noise; a processing unit arranged to: obtain an estimate of a channel response of a static wireless channel from the neighboring eNodeB (270, 500) to the eNodeB (220, 500) using the reference signal; combine the reference signal from the neighboring eNodeB (270, 500) and the estimate of the channel response to form the composite interference signal; and subtract the composite interference signal from the uplink signal to detect the UE's (132, 232) uplink signal component in the received uplink signal. obtain an estimate of a channel response of a static wireless channel from the neighboring eNodeB (270, 500) to the eNodeB (220, 500) using the reference signal; combine the reference signal from the neighboring eNodeB (270, 500) and the estimate of the channel response to form the composite interference signal; and subtract the composite interference signal from the uplink signal to detect the UE's (132, 232) uplink signal component in the received uplink signal.
A device for turning, mixing, and transporting material to be dried, partially dried material or dried material in a drying facility, in which the material is placed on a floor and spread out for drying, wherein the device has a rotatable axis oriented substantially parallel to the floor, trough-like scoops being arranged around and along the axis such that the scoops are moved around the axis in a circle during rotation of the axis, wherein the device is arranged above the floor so as to be displaceable in opposite movement directions (13, 19) such that, during displacement above the floor, the axis is moved substantially parallel to the floor and in one of the movement directions (13, 19) perpendicular to the axis, wherein the device comprises a drive device for rotating the axis having the scoops at an adjustable speed of rotation in one direction of rotation, wherein the scoops each have an opening bordered by opposing edges, wherein the two edges are formed by a wall, which extends from one of the edges to the other of the edges, or are each formed by a wall connected to a base of the scoop, wherein, for each of the scoops, in a cross section extending perpendicular to the axis and parallel to the movement directions (13, 19), it is possible to draw two straight lines, each of which extends radially from the axis, and which enclose an angle γ of 72° at the most, wherein, on opposite sides of the scoop and independently of one another, each of the straight lines either overlaps, in one section, with the wall or one of the walls, is tangent to the wall or one of the walls on an outer side of the scoop, intersects the wall or one of the walls, wherein an angle β between the straight line and the wall or one of the walls is less than 15°, or intersects the wall or one of the walls at an inflection point of a curvature of the wall or one of the walls, wherein the straight line and another straight line enclose an angle α at a part of the wall located at the rear in the direction of rotation or at the wall located at the rear in the direction of rotation, wherein the other straight line extends from one point, at which the straight line is tangent to or intersects the wall or at which the section ends at a side of the section located closer to the edge, wherein this point does not coincide with the edge, to the edge located closest to this point, wherein 0° < α ≤ 60°.
Tray-sealing machine with a sealing device which seals a film onto a tray, the sealing device comprising a sealing tool upper part and a sealing tool bottom part, characterized in that a control unit is present and a matrix monitoring device is provided which comprises a first and a second monitoring means (14, 15), the first monitoring means being provided at a transverse side of the sealing device, and the second monitoring means being provided at a longitudinal side of the sealing device, and the matrix monitoring device is configured to detect a misalignment of the tray in the sealing tool bottom part and/or the presence of foreign matter between the sealing tool bottom part and the sealing tool upper part and distinguish it from product projecting upwards from the tray.
A compound having a structure of Formula I: wherein R A, R B, and R C are each independently 5 or 6 membered aryl or heteroaryl rings; wherein R 1, R 2, and R 3 each independently represent no substitutions or up to the maximum available substitutions; wherein R 1, R 2, and R 3 are each independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphine, a substituent of Formula I, and combinations thereof; wherein any adjacent R 1, R 2, and R 3 are optionally joined or fused to form a ring; wherein A is selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphine, a substituent of Formula I, and combinations thereof; wherein A is optionally bonded to at least one benzo or azabenzo ring to form fused rings; wherein X 1 to X 6 are C; and wherein X 7 is C or N. wherein R A, R B, and R C are each independently 5 or 6 membered aryl or heteroaryl rings; wherein R 1, R 2, and R 3 each independently represent no substitutions or up to the maximum available substitutions; wherein R 1, R 2, and R 3 are each independently selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphine, a substituent of Formula I, and combinations thereof; wherein any adjacent R 1, R 2, and R 3 are optionally joined or fused to form a ring; wherein A is selected from the group consisting of hydrogen, deuterium, halide, alkyl, cycloalkyl, heteroalkyl, arylalkyl, alkoxy, aryloxy, amino, silyl, alkenyl, cycloalkenyl, heteroalkenyl, alkynyl, aryl, heteroaryl, acyl, carbonyl, carboxylic acids, ester, nitrile, isonitrile, sulfanyl, sulfinyl, sulfonyl, phosphine, a substituent of Formula I, and combinations thereof; wherein A is optionally bonded to at least one benzo or azabenzo ring to form fused rings; wherein X 1 to X 6 are C; and wherein X 7 is C or N.
A lithium aluminosilicate glass ceramic article, in particular a glass ceramic panel, including at least 0.005, preferably at least 0.01 percent by weight, more preferably up to 0.05 percent by weight of vanadium oxide as a colour-imparting component, wherein a content of tin oxide is less than 0.5 percent by weight, and wherein the glass ceramic includes, as a further component, iron oxide in a proportion of more than 0,1 percent by weight as a decolouring agent, wherein the iron oxide content is at least the same or greater than the vanadium oxide content; wherein light transmittance of the glass ceramic article in the visible spectral range when illuminated perpendicular to the surface of the glass ceramic article is greater than 2.5 %, and wherein in the composition of the glass ceramic article the contents of tin oxide, titanium oxide, and iron oxide meet the relationship (M(SnO 2) + 0.1 * M(TiO 2)) / (M(Fe 2 O 3) + M(CeO 2)) < 3, wherein M is the respective proportion, in percent by weight, of the component in the following brackets.