mhurhangee/patent-ind-claim-en huggingface dataset:
A method of producing an abrasion-resistant wood-based panel having a top side and a bottom side, wherein at least one decorative layer, in particular in the form of a printed decoration, is provided on the top side, and wherein a protective layer of a not yet fully cured resin is applied to the decorative layer, comprising the steps: - applying at least one first resin layer to the at least one decorative layer on the top surface of the wood-based panel, wherein the wood-based panel provided with the protective layer and decorative layer is not heated in a dryer before the application of the first resin layer, - even scattering of abrasion-resistant particles onto the first resin layer on the top side of the wood-based panel; - wherein the first resin layer provided with the abrasion-resistant particles on the top side of the wood-based panel is not dried after application, and - applying at least a second resin layer to the first moist resin layer provided with the abrasion-resistant particles on the top side of the wood-based panel, - subsequent drying of the assembly of first resin layer and second resin layer on the top side of the wood-based panel in at least one drying device, - applying at least one further resin layer to the dried first and second resin layers provided with the abrasion-resistant particles on the top side of the wood-based panel, and then drying after the respective application, and - pressing of the layer structure following the final drying step in a short-cycle press. - applying at least one first resin layer to the at least one decorative layer on the top surface of the wood-based panel, wherein the wood-based panel provided with the protective layer and decorative layer is not heated in a dryer before the application of the first resin layer, - even scattering of abrasion-resistant particles onto the first resin layer on the top side of the wood-based panel; - wherein the first resin layer provided with the abrasion-resistant particles on the top side of the wood-based panel is not dried after application, and - applying at least a second resin layer to the first moist resin layer provided with the abrasion-resistant particles on the top side of the wood-based panel, - subsequent drying of the assembly of first resin layer and second resin layer on the top side of the wood-based panel in at least one drying device, - applying at least one further resin layer to the dried first and second resin layers provided with the abrasion-resistant particles on the top side of the wood-based panel, and then drying after the respective application, and - pressing of the layer structure following the final drying step in a short-cycle press.
An in vivo method for characterizing delivery vehicles for in vivo delivery of an agent comprising: (a). formulating multiple delivery vehicles having different chemical compositions, wherein each different delivery vehicle comprises a molecule that can generate a detectable signal by performing a biological activity when delivered to the cytoplasm of cells of the subject, and a chemical composition identifier that identifies the chemical composition of the delivery vehicle; (b). administering the multiple delivery vehicles to a non-human mammal; (c). sorting cells from multiple tissues of the non-human mammal that generate the detectable signal from cells that do not generate the detectable signal, wherein the cells that generate the detectable signal are also sorted based on the presence or absence of a cell surface protein that is indicative of tissue type or cell type; and (d). identifying the composition identifier in the sorted cells that generate the detectable signal to determine the chemical composition of the delivery vehicle in the sorted cells to correlate the chemical composition of the particles with the tissue or cell type containing the particles. (a). formulating multiple delivery vehicles having different chemical compositions, wherein each different delivery vehicle comprises a molecule that can generate a detectable signal by performing a biological activity when delivered to the cytoplasm of cells of the subject, and a chemical composition identifier that identifies the chemical composition of the delivery vehicle; (b). administering the multiple delivery vehicles to a non-human mammal; (c). sorting cells from multiple tissues of the non-human mammal that generate the detectable signal from cells that do not generate the detectable signal, wherein the cells that generate the detectable signal are also sorted based on the presence or absence of a cell surface protein that is indicative of tissue type or cell type; and (d). identifying the composition identifier in the sorted cells that generate the detectable signal to determine the chemical composition of the delivery vehicle in the sorted cells to correlate the chemical composition of the particles with the tissue or cell type containing the particles.
A method for accelerating network selection by a wireless UE device , comprising: determining said wireless UE's location by using a satellite-based positioning system; determining that said wireless UE device's location is within an area defined by a plurality of corners, each corner being defined as a longitude coordinate and a latitude coordinate, by interrogating a location database stored on the device, wherein the location database is populated with a plurality of areas, each area being identified by a plurality of corners defined as a longitude coordinate and a latitude coordinate, wherein each area is associated with a corresponding frequency data item; and based on determining that said wireless UE device's location is within a particular area, downloading a particular frequency data item from a network node to said wireless UE device and applying said particular frequency data item for selective scanning by said wireless UE device , thereby avoiding a full band scan for locating a network. determining said wireless UE's location by using a satellite-based positioning system; determining that said wireless UE device's location is within an area defined by a plurality of corners, each corner being defined as a longitude coordinate and a latitude coordinate, by interrogating a location database stored on the device, wherein the location database is populated with a plurality of areas, each area being identified by a plurality of corners defined as a longitude coordinate and a latitude coordinate, wherein each area is associated with a corresponding frequency data item; and based on determining that said wireless UE device's location is within a particular area, downloading a particular frequency data item from a network node to said wireless UE device and applying said particular frequency data item for selective scanning by said wireless UE device , thereby avoiding a full band scan for locating a network.
Capillary-pumped heat pipe with re-entrant grooves, extending in a first longitudinal direction (X), comprising a sealed enclosure extending between a first longitudinal end intended to be heated by a hot source SC to form, within the enclosure, an evaporator and a second longitudinal end intended to be cooled by a cold source SF to form, within the enclosure, a condenser, the sealed enclosure delimiting an adiabatic zone between the evaporator and the condenser, the sealed enclosure comprising a stack of plates in a second direction (Z), orthogonal to the first direction (X), including two closing plates and at least a number n of modules on top of each other where n is an integer > 1, each module comprising at least one intermediate plate between the closing plates, the intermediate plate or plates comprising at least one first intermediate plate including at least one window, the edges of which partially delimit a vapour channel extending in the first direction (X) between the evaporator and the condenser, in which the vapour is intended to flow, and on at least one lateral side of the window in a third direction (Y) orthogonal to the first direction (X) and the second direction (Z), at least one structure with edges that partially delimit at least one liquid channel in the evaporator and the condenser, the heat pipe comprising, at least in the evaporator, at least one exchange zone defining a liquid-vapour interface that is delimited between the at least one intermediate plate and at least one other intermediate plate or a closing plate, connecting the vapour channel and the liquid channel(s), the heat pipe being characterized in that each exchange zone comprises a plurality of connecting through-channels which extend transversely to the first direction (X), preferably in the third direction (Y), two adjacent connecting channels being separated by a structure thickness.
A radiation protection clothing arrangement having a flexible coat which comprises radiation protection material and which, in a state of use, surrounds an interior space with a bottom edge , and having a weight-relieving device, characterized in that the weight-relieving device is embodied as a support skeleton that is connected to the coat and absorbs the weight of the coat in multiple locations distributed in the direction of gravity, wherein the coat is no longer suspended on the support skeleton solely in the shoulder region, but rather has multiple attachment points that are distributed in the direction of gravity wherein the support skeleton is connected to a support device (11; 46, 47) which can be set up on an underlying surface in a state of use and which is arranged within an extension of the interior space in the direction of gravity and does not protrude outwardly past the coat .
A refrigerant flow path switching device comprising a first header pipe connectable to a high and low-pressure gas connection pipe of a heat source unit in an air conditioner , a second header pipe connectable to a sucked gas connection pipe of the heat source unit , a third header pipe connectable to a liquid connection pipe of the heat source unit , a switching unit provided correspondingly to each of a plurality of utilization units in the air conditioner and including a plurality of valves (EV1, EV2, EV3) each configured to control a refrigerant flow, and a casing accommodating the first header pipe , the second header pipe , the third header pipe , and the switching unit , the refrigerant flow path switching device configured to switch among refrigerant flow paths between the heat source unit and the plurality of utilization units , characterised in that the first header pipe , the second header pipe , and the third header pipe have end parts projecting outward from the casing and aligned linearly in a first direction (Z), and the plurality of valves (EV1, EV2, EV3) in the switching unit is disposed apart from the end part of the first header pipe in a second direction (Y) perpendicular to the first direction (Z) and a direction (X) in which the end part extends. the first header pipe , the second header pipe , and the third header pipe have end parts projecting outward from the casing and aligned linearly in a first direction (Z), and the plurality of valves (EV1, EV2, EV3) in the switching unit is disposed apart from the end part of the first header pipe in a second direction (Y) perpendicular to the first direction (Z) and a direction (X) in which the end part extends.
A polymeric composition comprising: a. about 1% to about 5% by weight of sodium alginate; b. about 5% to about 40% by weight of chitosan; and c. about 50% to about 90% by weight of a solvent, wherein the solvent is water, wherein the sodium alginate is dissolved in the water to form a solution; and wherein the polymeric composition is a colloidal gel with chitosan solid particles dispersed in the solution. a. about 1% to about 5% by weight of sodium alginate; b. about 5% to about 40% by weight of chitosan; and c. about 50% to about 90% by weight of a solvent, wherein the solvent is water,
Facade assembly for a building , comprising at least one facade element which can be fastened to a wall or to an inter-story ceiling of the building , and comprising at least one fire protection element which can be mounted between the facade element and the wall or the inter-story ceiling , the fire protection element comprising an insulation layer and at least one angle profile having two flanges arranged at an angle with respect to one another, one of the flanges of the angle profile being fastened to the facade element and the other flange of the angle profile abutting the insulation layer , characterized in that the angle profile is formed from an intumescent material or coated with an intumescent material at least in part.
A control device for a lifting magnet, the control device comprising: a control circuit for controlling power supply from a power source to the lifting magnet ; a current detector for detecting output current to the lifting magnet ; and a controller for receiving a signal from the current detector and outputting a command to the control circuit , characterized in that when at least one of a value of the detected output current and a magnet load defined by the following formula is equal to or larger than a first threshold value (A) predetermined for the value of the detected output current or a second threshold value (B) predetermined for the magnet load, the controller outputs, to the control circuit , a command to decrease voltage applied to the lifting magnet from next attracting operation. Magnet load = excitation ratio × I × V Excitation ratio: excitation time/(excitation time + non-excitation time) I: value of the output current V: voltage applied to the lifting magnet a control circuit for controlling power supply from a power source to the lifting magnet ; a current detector for detecting output current to the lifting magnet ; and a controller for receiving a signal from the current detector and outputting a command to the control circuit , characterized in that when at least one of a value of the detected output current and a magnet load defined by the following formula is equal to or larger than a first threshold value (A) predetermined for the value of the detected output current or a second threshold value (B) predetermined for the magnet load, the controller outputs, to the control circuit , a command to decrease voltage applied to the lifting magnet from next attracting operation. Magnet load = excitation ratio × I × V Excitation ratio: excitation time/(excitation time + non-excitation time) I: value of the output current V: voltage applied to the lifting magnet Excitation ratio: excitation time/(excitation time + non-excitation time) I: value of the output current V: voltage applied to the lifting magnet
A user terminal (100-1) in a mobile communication system that supports D2D communication that is direct device-to-device communication, comprising: a receiver configured to receive, from a network apparatus , D2D terminal information on another user terminal (100-2) located around the user terminal (100-1), the network apparatus managing a location of the another user terminal (100-2) that distributes information by the D2D communication; and a controller configured to perform control for discovering the another user terminal (100-2), on the basis of the D2D terminal information, characterized in that the D2D terminal information includes an identifier of an application. a receiver configured to receive, from a network apparatus , D2D terminal information on another user terminal (100-2) located around the user terminal (100-1), the network apparatus managing a location of the another user terminal (100-2) that distributes information by the D2D communication; and a controller configured to perform control for discovering the another user terminal (100-2), on the basis of the D2D terminal information, characterized in that the D2D terminal information includes an identifier of an application.
A method, executed in circuitry, of operating a robotic lawnmower to cut grass on a parcel, comprising: receiving information indicative of an encounter between the robotic lawn mower and an object responsive to communication received from a sensor of the robotic lawn mower while the robotic lawn mower transits a parcel ; determining a location of the robotic lawn mower at a time corresponding to occurrence of the encounter; determining whether the location corresponds to a location associated with a known object associated with the parcel ; classifying the object as an unknown object based on the location not corresponding to the location associated with the known object ; characterised in that the method further comprises: i n response to having classified the object as an unknown object , storing the location in association with the encounter and reporting the presence of the object to an operator; and i n response to operator input, classifying a previously unknown object as a fixed object . receiving information indicative of an encounter between the robotic lawn mower and an object responsive to communication received from a sensor of the robotic lawn mower while the robotic lawn mower transits a parcel ; determining a location of the robotic lawn mower at a time corresponding to occurrence of the encounter; determining whether the location corresponds to a location associated with a known object associated with the parcel ; classifying the object as an unknown object based on the location not corresponding to the location associated with the known object ; characterised in that the method further comprises: i n response to having classified the object as an unknown object , storing the location in association with the encounter and reporting the presence of the object to an operator; and i n response to operator input, classifying a previously unknown object as a fixed object . i n response to having classified the object as an unknown object , storing the location in association with the encounter and reporting the presence of the object to an operator; and i n response to operator input, classifying a previously unknown object as a fixed object .
Aircraft undercarriage having a leg (2; 102) provided with means for pivoting on a structure of the aircraft about a pivot axis (X1) between a deployed position and a retracted position, the undercarriage including a strut (3a, 3b; 103a, 103b) comprising two brace elements articulated to one another, one of which is articulated to the leg and the other of which is provided with means for articulating it to the structure of the aircraft, so that when the leg is in the deployed position, the two brace elements of the strut are locked in a substantially aligned position, the undercarriage also being provided with a rotary actuator (10; 110) having an output shaft acting on one of the brace elements of the strut in order to cause the leg to pivot between the two positions, the actuator being provided with means for pivoting on the structure of the aircraft about a rotation axis (X3) of the output shaft, characterized in that the actuator has a casing (12; 112) connected by a reaction rod (13; 113) to the leg in order to take up a torque developed by the actuator when manoeuvring the undercarriage.
- Method for estimating an injection profile in function of the depth of a well , said well being used for reaching a geological formation, the well extending between a first end of the well and a second end of the well, said first end being located towards the surface level, wherein said method comprises performing, the well being initially filled with an initial fluid: - a well closing phase wherein a first fluid is injected at the first end until said first fluid reaches the second end, such that a first interface between the initial fluid and the first fluid travels from the first end towards the second end, the well being completely filled with the first fluid and the initial fluid having been completely injected into the geological formation when the first interface reaches the second end, said first fluid having a higher viscosity than the initial fluid; - a well opening phase wherein a second fluid is injected at the first end until said second fluid reaches the second end, such that a second interface between the first fluid and the second fluid travels from the first end towards the second end, the well being completely filled with the second fluid and the first fluid having been completely injected into the geological formation when the second interface reaches the second end, said first fluid having a higher viscosity than the second fluid; wherein the method comprises measuring at least one temporal injection profile representative of the variation over time of at least one physical quantity measured at the first end during the well closing phase or the well opening phase and estimating the depth injection profile of the well based on the at least one temporal injection profile. - a well closing phase wherein a first fluid is injected at the first end until said first fluid reaches the second end, such that a first interface between the initial fluid and the first fluid travels from the first end towards the second end, the well being completely filled with the first fluid and the initial fluid having been completely injected into the geological formation when the first interface reaches the second end, said first fluid having a higher viscosity than the initial fluid; - a well opening phase wherein a second fluid is injected at the first end until said second fluid reaches the second end, such that a second interface between the first fluid and the second fluid travels from the first end towards the second end, the well being completely filled with the second fluid and the first fluid having been completely injected into the geological formation when the second interface reaches the second end, said first fluid having a higher viscosity than the second fluid;
Method for enhanced radio resource management in a public land mobile network comprising at least one user equipment , wherein the user equipment comprises a mobility detecting sensor module and a memory means , wherein the mobility detecting sensor module generates a previous motion information and a current motion information, the current motion information being indicative of a current horizontal scalar acceleration value and/or of a current horizontal scalar velocity of the user equipment related to a current point in time or a current time interval, the previous motion information being stored in the memory means and indicative of a previous horizontal scalar acceleration value and/or of a previous horizontal scalar velocity of the user equipment related to a previous point in time or a previous time interval, wherein the previous point in time is prior to the current point in time or wherein the previous time interval is prior to the current time interval, wherein a mobility status update information, indicative of the current motion information, is able to be transmitted by the user equipment to the public land mobile network , wherein the mobility status update information is transmitted, by the user equipment , to the public land mobile network at least in case of a discrepancy between the current motion information and the previous motion information, wherein the mobility status update information is transmitted at least in case of a discrepancy exceeding a predetermined threshold between the current motion information and the previous motion information, wherein the mobility status update information is transmitted at least once during a predetermined time interval, such that the mobility status update information is received at least regularly by the public land mobile network from the user equipment.