mhurhangee/ep-ind-claims huggingface dataset:
A method to obtain a radiation scattering surface finish on an object comprising the steps: a) providing the object with a top layer comprising aluminium or an aluminium alloy, the top layer comprising added discrete inclusions of a second material being different from aluminium and the first alloy, and b) subsequently anodising said top layer to form an anodic oxide layer and to generate from the inclusions discrete radiation scattering elements, wherein the difference between a refractive index of the discrete radiation scattering elements and a refractive index of the anodic oxide layer is in the range of 0.1 - 3.0, preferably in the range 1.0-3.0, wherein the particle size of the radiation scattering elements is in the range 1 nm-10 μm, and wherein the added discrete inclusions are selected from the group consisting of particles of metals and of metal oxides. a) providing the object with a top layer comprising aluminium or an aluminium alloy, the top layer comprising added discrete inclusions of a second material being different from aluminium and the first alloy, and b) subsequently anodising said top layer to form an anodic oxide layer and to generate from the inclusions discrete radiation scattering elements,
Method for monitoring the electrical power consumed by a domestic electric network comprising an electronic energy meter connected to an electrical power distribution grid, the method comprising the steps of: - periodically polling, according to a polling period Tq, the electronic energy meter on a communication channel by means of a device, in order to receive, at every polling instant, information comprising at least one parameter related to a power consumption measurement carried out by the electronic energy meter; - calculating on-board the device an estimate of said power consumption measurement or obtaining said power consumption measurement on-board the device; - comparing said estimate or said power consumption measurement with at least a first threshold value; - increasing the polling frequency if said power estimate or measurement is higher than, or equal to, said threshold value. - periodically polling, according to a polling period Tq, the electronic energy meter on a communication channel by means of a device, in order to receive, at every polling instant, information comprising at least one parameter related to a power consumption measurement carried out by the electronic energy meter; - calculating on-board the device an estimate of said power consumption measurement or obtaining said power consumption measurement on-board the device; - comparing said estimate or said power consumption measurement with at least a first threshold value; - increasing the polling frequency if said power estimate or measurement is higher than, or equal to, said threshold value.
A component for an X-ray detector device, comprising a layer tessellated in a plurality of different regions (Rj), the regions having respective periodic structures at a respective phase, characterized in that two neighboring regions have periodic structures at different phases.
A shower partition wall comprising a door having at least one door hinge, including: - a first fitment portion and a second fitment portion which are mounted pivotably relative to each other between a closed position and an open position, - at least one first hinged lever and at least one second hinged lever which are hingedly connected together by way of an axis of rotation and which hingedly connect together the first fitment portion and the second fitment portion, characterised in that the at least one door hinge has at least one first guide element arranged at the first hinged lever and a second guide element arranged at the second hinged lever, wherein the first guide element is mounted displaceably in or along a first guide arranged or provided at the first fitment portion and the second guide element is mounted displaceably in or along a second guide arranged or provided at the second fitment portion, wherein the first guide element is connected to the first fitment portion by at least one first force storage means and the second guide element is connected to the second fitment portion by at least one second force storage means. - a first fitment portion and a second fitment portion which are mounted pivotably relative to each other between a closed position and an open position, - at least one first hinged lever and at least one second hinged lever which are hingedly connected together by way of an axis of rotation and which hingedly connect together the first fitment portion and the second fitment portion, characterised in that the at least one door hinge has at least one first guide element arranged at the first hinged lever and a second guide element arranged at the second hinged lever, wherein the first guide element is mounted displaceably in or along a first guide arranged or provided at the first fitment portion and the second guide element is mounted displaceably in or along a second guide arranged or provided at the second fitment portion,
A torque sensor comprising: a cylindrical multipolar magnet that rotates integrally with one of a first shaft and a second shaft coaxially arranged; a pair of magnetic yokes (27, 28) arranged in a magnetic field from the multipolar magnet and rotating integrally with the other of the first shaft and the second shaft; a pair of magnetic collecting elements (29, 30) each including at least one magnetic collecting portion, wherein a set of the magnetic collection portions (29b, 29c, 30b, 30c) is formed of a pair of the magnetic collecting portions facing each other, and the magnetic collecting elements each magnetically coupled to corresponding one of the pair of magnetic yokes; and a magnetic flux detecting element including a circuit board with a cutout (40, 41) formed therein and a Hall IC (32, 33) that includes a Hall element arranged between the magnetic collecting portions (29b, 29c, 30b, 30c), the Hall IC mounted parallel to the circuit board so as to extend over the cutout, the magnetic flux detecting element detecting a magnetic flux between the magnetic collecting portions, characterized in that at least a part of one of the magnetic collecting portions (29b, 29c, 30b, 30c) is arranged in the cutout (40, 41). a cylindrical multipolar magnet that rotates integrally with one of a first shaft and a second shaft coaxially arranged; a pair of magnetic yokes (27, 28) arranged in a magnetic field from the multipolar magnet and rotating integrally with the other of the first shaft and the second shaft; a pair of magnetic collecting elements (29, 30) each including at least one magnetic collecting portion, wherein a set of the magnetic collection portions (29b, 29c, 30b, 30c) is formed of a pair of the magnetic collecting portions facing each other, and the magnetic collecting elements each magnetically coupled to corresponding one of the pair of magnetic yokes; and a magnetic flux detecting element including a circuit board with a cutout (40, 41) formed therein and a Hall IC (32, 33) that includes a Hall element arranged between the magnetic collecting portions (29b, 29c, 30b, 30c), the Hall IC mounted parallel to the circuit board so as to extend over the cutout, the magnetic flux detecting element detecting a magnetic flux between the magnetic collecting portions, characterized in that at least a part of one of the magnetic collecting portions (29b, 29c, 30b, 30c) is arranged in the cutout (40, 41).
A bushing (10; 110; 210), comprising: a body extending axially along a longitudinal axis between opposite ends (16, 18; 116, 118) and radially from an outer surface to an inner surface, said body including a first material and a second material different from said first material, and said first material is an iron-based material including 10 to 30 wt% Cr, 0 to 21 wt% Ni, 0 to 10 wt% Mo, 0 to 5 wt% W, 0 to 3 wt% C, 0 to 4 wt% V, 0 to 20 wt% Co, and Fe, based on the total weight of said first material characterised in that said second material is a cobalt based material. a body extending axially along a longitudinal axis between opposite ends (16, 18; 116, 118) and radially from an outer surface to an inner surface, said body including a first material and a second material different from said first material, and said first material is an iron-based material including 10 to 30 wt% Cr, 0 to 21 wt% Ni, 0 to 10 wt% Mo, 0 to 5 wt% W, 0 to 3 wt% C, 0 to 4 wt% V, 0 to 20 wt% Co, and Fe, based on the total weight of said first material characterised in that said second material is a cobalt based material.
A Coffee machine for household use comprising: A) a machine body; B) a pump group comprising a vibration pump and a hollow shaft which extends along a shaft axis (X-X) between a suction end and a delivery end, wherein the vibration pump is mounted on the hollow shaft fluidly disposed between said suction and delivery ends; C) a pair of pump supports axially spaced along the shaft axis (X-X), wherein each support engages one between the suction end and the delivery end in a manner to support the pump group, and wherein each support comprises: i) a base portion engaged to the machine body; ii) a support portion which extends substantially perpendicular to the shaft axis (X-X) on a support plane, in which a shaft engagement hole is made in which the hollow shaft is housed; and iii) a connecting portion which engages the base portion and the support portion, characterized in that the connecting portion comprises a damping region which extends on a junction plane inclined and incident to the support plane or arcuate in shape. A) a machine body; B) a pump group comprising a vibration pump and a hollow shaft which extends along a shaft axis (X-X) between a suction end and a delivery end, wherein the vibration pump is mounted on the hollow shaft fluidly disposed between said suction and delivery ends; C) a pair of pump supports axially spaced along the shaft axis (X-X), wherein each support engages one between the suction end and the delivery end in a manner to support the pump group, and wherein each support comprises: i) a base portion engaged to the machine body; ii) a support portion which extends substantially perpendicular to the shaft axis (X-X) on a support plane, in which a shaft engagement hole is made in which the hollow shaft is housed; and iii) a connecting portion which engages the base portion and the support portion, characterized in that the connecting portion comprises a damping region which extends on a junction plane inclined and incident to the support plane or arcuate in shape. i) a base portion engaged to the machine body; ii) a support portion which extends substantially perpendicular to the shaft axis (X-X) on a support plane, in which a shaft engagement hole is made in which the hollow shaft is housed; and iii) a connecting portion which engages the base portion and the support portion, characterized in that the connecting portion comprises a damping region which extends on a junction plane inclined and incident to the support plane or arcuate in shape.
Method for preparing a supply of preforms in a storage device, which is especially used for feeding preforms into a separating and sorting device for preforms and which comprises a storage container (401, 502) for preforms and a lifting and tilting device for filling the storage container (401, 502) with preforms fed in bundles in transport units, wherein the lifting and tilting device is adapted to receive at least one transport unit, to lift this transport unit and to empty the contents of the transport unit into the storage container (401, 502) by tilting, wherein the method is characterised in that before the contents of the transport unit are emptied, a movable chute is positioned such that the preforms are emptied from the transport unit onto a higher region of the chute, slide in a sliding direction on the chute and then fall into the storage container (401, 502) from a lower chute end of the chute, especially wherein the chute is moved when the transport unit is being emptied, especially moved in its tilt angle and/or in the sliding direction and/or vertically, especially in such a way that the chute end substantially remains at the same level.
An uplink switching method, wherein the method comprises: sending, by a terminal, terminal capability information to an access network device, wherein the terminal capability information comprises supplementary uplink, SUL frequency band combination information, a quantity of multiple-input multiple-output, MIMO layers supported by a SUL, and a quantity of MIMO layers supported by a normal uplink, NUL, and switching time period information, wherein the quantity of MIMO layers supported by the SUL is 1, and the quantity of MIMO layers supported by the NUL is 2, the switching time period information indicates a switching time period for switching between the SUL and the NUL and the switching time period for the switching between the SUL and the NUL is longer than 0 microseconds; performing, by the terminal, transmission with the access network device on a first uplink carrier, and the first uplink carrier is one of the NUL and the SUL; switching, by the terminal, from the first uplink carrier to a second uplink carrier, the second uplink carrier is another one of the NUL and the SUL; and performing, by the terminal, transmission with the access network device on the second uplink carrier. sending, by a terminal, terminal capability information to an access network device, wherein the terminal capability information comprises supplementary uplink, SUL frequency band combination information, a quantity of multiple-input multiple-output, MIMO layers supported by a SUL, and a quantity of MIMO layers supported by a normal uplink, NUL, and switching time period information, wherein the quantity of MIMO layers supported by the SUL is 1, and the quantity of MIMO layers supported by the NUL is 2, the switching time period information indicates a switching time period for switching between the SUL and the NUL and the switching time period for the switching between the SUL and the NUL is longer than 0 microseconds; performing, by the terminal, transmission with the access network device on a first uplink carrier, and the first uplink carrier is one of the NUL and the SUL; switching, by the terminal, from the first uplink carrier to a second uplink carrier, the second uplink carrier is another one of the NUL and the SUL; and performing, by the terminal, transmission with the access network device on the second uplink carrier.
An infilling element for formwork for the building sector, having a dome-like shape so as to form arc-like openings which can be arranged between the perimetric walls that delimit the crawl space and legs supported by tubular elements which are arranged vertically on the ground, said infilling element having a flat base proximate to the longitudinal ends (9a, 9b) of which there protrude upward a first tab, which is shaped complementarily to said opening and is provided with a lip for engaging the first perimetric edge of said opening, and at least one second tab, which acts as a gasket in case of resting against said walls, said longitudinal ends (9a, 9b) of said flat base having an arc-like shape, characterized in that said flat base is longer than the dimension of the base diameter of said opening, the longitudinal ends (9a, 9b) thereof being shaped complementarily to the lateral surface of said tubular element, at said longitudinal ends (9a, 9b) there being means for temporary engagement with the upper end of each one of said tubular elements, said means being constituted by a fork which is shaped like an inverted letter C between the wings (12a, 12b) of which it is possible to insert said upper end of each one of said tubular elements.
An enhanced parcel delivery system for delivering parcels via an unmanned aerial vehicle, UAV, 100 the system comprising: a UAV support mechanism comprising: a pair of opposing rails extending in a longitudinal direction, wherein the opposing rails are spaced apart from one another in a lateral direction that is transverse to the longitudinal direction, the opposing rails defining: a landing region; a takeoff region positioned opposite the landing region; a transport region positioned between the takeoff region and the landing region; and at least one UAV comprising: a UAV chassis comprising: an upper portion having an upper portion width evaluated in a lateral direction; a lower portion positioned below the upper portion in a vertical direction, the lower portion having a lower portion width evaluated in the lateral direction; and a reduced width portion positioned between the upper portion and the lower portion, the reduced width portion having a width evaluated in the lateral direction, wherein the width of the reduced width portion is less than the upper portion width and the lower portion width, and wherein the reduced width portion is configured to engage the pair of opposing rails of the UAV support mechanism. a pair of opposing rails extending in a longitudinal direction, wherein the opposing rails are spaced apart from one another in a lateral direction that is transverse to the longitudinal direction, the opposing rails defining: a landing region; a takeoff region positioned opposite the landing region; a transport region positioned between the takeoff region and the landing region; and a landing region; a takeoff region positioned opposite the landing region; a transport region positioned between the takeoff region and the landing region; and at least one UAV comprising: a UAV chassis comprising: an upper portion having an upper portion width evaluated in a lateral direction; a lower portion positioned below the upper portion in a vertical direction, the lower portion having a lower portion width evaluated in the lateral direction; and a reduced width portion positioned between the upper portion and the lower portion, the reduced width portion having a width evaluated in the lateral direction, wherein the width of the reduced width portion is less than the upper portion width and the lower portion width, and wherein the reduced width portion is configured to engage the pair of opposing rails of the UAV support mechanism. an upper portion having an upper portion width evaluated in a lateral direction; a lower portion positioned below the upper portion in a vertical direction, the lower portion having a lower portion width evaluated in the lateral direction; and a reduced width portion positioned between the upper portion and the lower portion, the reduced width portion having a width evaluated in the lateral direction, wherein the width of the reduced width portion is less than the upper portion width and the lower portion width, and wherein the reduced width portion is configured to engage the pair of opposing rails of the UAV support mechanism.
A flow rack having at least one flow passage for the transport of transport goods, wherein the at least one flow passage has at least two first and second roller conveyors (3, 4) arranged laterally spaced apart from one another, wherein each roller conveyor (3, 4) has at least one brake roller, characterized in that the first and second roller conveyors (3, 4) are supported in the flow passage in a resiliently yielding manner in the direction toward the lower side of the flow passage, with the flow passage having at least one third roller conveyor between the two roller conveyors (3, 4) that has at least one brake roller, with the third roller conveyor extending in the direction toward the lower side of the flow passage at a height spaced apart from the two first and second roller conveyors (3, 4), with the upper sides of the first and second roller conveyors (3, 4) being at the same height as the upper side of the third roller conveyor in the deflected state of the first and second roller conveyors (3, 4).
A method of recycling superabsorbent polymers derived from a used absorbent article, the method comprising: an inactivation step of inactivating the superabsorbent polymers with an inactivating agent, an ozone treatment step of treating the superabsorbent polymers inactivated with the inactivating agent with ozone water after inactivation; a reactivation step of reactivating the superabsorbent polymers treated with the ozone water with an alkaline aqueous solution; and a surface treatment step of adding hydrophilic fine particles to the superabsorbent polymers reactivated with the alkaline aqueous solution in a hydrophilic fine particle addition step and then drying the superabsorbent polymers in a drying step. an inactivation step of inactivating the superabsorbent polymers with an inactivating agent, an ozone treatment step of treating the superabsorbent polymers inactivated with the inactivating agent with ozone water after inactivation; a reactivation step of reactivating the superabsorbent polymers treated with the ozone water with an alkaline aqueous solution; and a surface treatment step of adding hydrophilic fine particles to the superabsorbent polymers reactivated with the alkaline aqueous solution in a hydrophilic fine particle addition step and then drying the superabsorbent polymers in a drying step.
A reaction system for multiphase reactions having at least three phases, said reaction system comprising: a stirred tank reaction vessel comprising a rotatable impeller shaft having thereon at least one impeller blade, said rotatable impeller shaft being rotatably affixed to a catalytic article, said catalytic article comprising a porous fibrillated polymer membrane that includes supported catalyst particles durably enmeshed within the porous fibrillated polymer membrane; wherein during use the reaction system comprises: a liquid phase comprising at least one liquid phase reactant; and a gas phase comprising at least one gas phase reactant, wherein the porous fibrillated polymer membrane is in the form of diced tape. a stirred tank reaction vessel comprising a rotatable impeller shaft having thereon at least one impeller blade, said rotatable impeller shaft being rotatably affixed to a catalytic article, said catalytic article comprising a porous fibrillated polymer membrane that includes supported catalyst particles durably enmeshed within the porous fibrillated polymer membrane; wherein during use the reaction system comprises: a liquid phase comprising at least one liquid phase reactant; and a gas phase comprising at least one gas phase reactant, wherein the porous fibrillated polymer membrane is in the form of diced tape. a liquid phase comprising at least one liquid phase reactant; and a gas phase comprising at least one gas phase reactant, wherein the porous fibrillated polymer membrane is in the form of diced tape.