mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle suction system comprising: a compartment for storing a liquid (L); a suction line arranged for sucking liquid out of the compartment ; said suction line comprising at least one suction branch and the at least one suction branch being provided with at least two suction orifices (10a, 10b, 10c, lOd) positioned at different positions in the compartment ; at least one suction orifice of said at least two suction orifices (10a, 10b, 10c, lOd) being provided with a blocking means configured for blocking at least a part of said suction orifice when the suction orifice is not in the liquid and for allowing liquid to be sucked through the suction orifice when the suction orifice is in the liquid; characterized in that the liquid (L) is an aqueous liquid, and in that the vehicle suction system comprises a suction line heater configured and arranged for heating at least a portion of the suction line , and further comprises at least one thermal conductive bridge connected between the suction line heater and the suction line to facilitate the heat conduction therebetween. a compartment for storing a liquid (L); a suction line arranged for sucking liquid out of the compartment ; said suction line comprising at least one suction branch and the at least one suction branch being provided with at least two suction orifices (10a, 10b, 10c, lOd) positioned at different positions in the compartment ; at least one suction orifice of said at least two suction orifices (10a, 10b, 10c, lOd) being provided with a blocking means configured for blocking at least a part of said suction orifice when the suction orifice is not in the liquid and for allowing liquid to be sucked through the suction orifice when the suction orifice is in the liquid; characterized in that the liquid (L) is an aqueous liquid, and in that the vehicle suction system comprises a suction line heater configured and arranged for heating at least a portion of the suction line , and further comprises at least one thermal conductive bridge connected between the suction line heater and the suction line to facilitate the heat conduction therebetween. at least one suction orifice of said at least two suction orifices (10a, 10b, 10c, lOd) being provided with a blocking means configured for blocking at least a part of said suction orifice when the suction orifice is not in the liquid and for allowing liquid to be sucked through the suction orifice when the suction orifice is in the liquid; characterized in that the liquid (L) is an aqueous liquid, and in that the vehicle suction system comprises a suction line heater configured and arranged for heating at least a portion of the suction line , and further comprises at least one thermal conductive bridge connected between the suction line heater and the suction line to facilitate the heat conduction therebetween.
A pile installing system , comprising a pile including a cylindrical wall surrounding a hollow space , a central cutter which is located at a lower end of the pile for loosening soil below the hollow space upon installing the pile into the ground and which is displaceable within the pile in longitudinal direction thereof so as to remove the central cutter from the pile after installing the pile in the ground, characterized in that the pile installing system includes a peripheral cutter located at the lower end of the pile for loosening soil below the cylindrical wall, a soil passage for guiding loosened soil from below the cutters to the hollow space and a soil conveying member for transporting loosened soil upwardly through the hollow space , wherein the soil passage is located at at least one of the central and peripheral cutters at a radial distance from the cylindrical wall.
An apparatus comprising: a crane having a hoisting line ; and an anti-two-block sensing device installed about the hoisting line , the anti-two-block sensing device including: an upper chandelier ; a lower trigger assembly suspended from the upper chandelier , a detector positioned to detect movement of the lower trigger assembly with respect to the upper chandelier , characterized in that the lower trigger assembly includes two plates each having a hoisting line aperture and a slot that allows transverse installation of the plate about the hoisting line , wherein the two plates are positioned such that their slots are offset from one another and the two plates cooperate to fully surround the hoisting line . a crane having a hoisting line ; and an anti-two-block sensing device installed about the hoisting line , the anti-two-block sensing device including: an upper chandelier ; a lower trigger assembly suspended from the upper chandelier , an upper chandelier ; a lower trigger assembly suspended from the upper chandelier , a detector positioned to detect movement of the lower trigger assembly with respect to the upper chandelier , characterized in that the lower trigger assembly includes two plates each having a hoisting line aperture and a slot that allows transverse installation of the plate about the hoisting line , wherein the two plates are positioned such that their slots are offset from one another and the two plates cooperate to fully surround the hoisting line .
A film comprising: a core layer consisting of biaxially oriented linear low-density polyethylene and optionally additives, wherein the core layer has a first side and a second side; a first sealant layer consisting of biaxially oriented linear low-density polyethylene, and optionally additives, on the first side; and a second sealant layer consisting of biaxially oriented linear low-density polyethylene, and optionally additives, on the second side, wherein the film is 30 μm or less in thickness, has a water-vapor transmission rate of ≤ 1 g/m 2 /d at 38°C and 90% relative humidity, and has an oxygen transmission rate of ≤ 100 cm 3 /m 2 /d at 23°C and 0% relative humidity, and wherein the linear low-density polyethylene in the core layer, the first sealant layer, the second sealant layer, or combinations thereof is one or more grades of maleic-anhydride-grafted polyethylenes, acrylic-acid copolymers, or combinations thereof. a core layer consisting of biaxially oriented linear low-density polyethylene and optionally additives, wherein the core layer has a first side and a second side; a first sealant layer consisting of biaxially oriented linear low-density polyethylene, and optionally additives, on the first side; and a second sealant layer consisting of biaxially oriented linear low-density polyethylene, and optionally additives, on the second side, wherein the film is 30 μm or less in thickness, has a water-vapor transmission rate of ≤ 1 g/m 2 /d at 38°C and 90% relative humidity, and has an oxygen transmission rate of ≤ 100 cm 3 /m 2 /d at 23°C and 0% relative humidity, and wherein the linear low-density polyethylene in the core layer, the first sealant layer, the second sealant layer, or combinations thereof is one or more grades of maleic-anhydride-grafted polyethylenes, acrylic-acid copolymers, or combinations thereof.
A shredder device for foodstuffs comprising a feed hopper , a screw conveyor running at least in sections through the feed hopper and a shredder module following the screw conveyor in an axial direction (x), wherein the screw conveyor comprises a screw conveyor shaft driven by a screw conveyor motor unit and having a screw conveyor flight integrally formed thereon in sections, and the shredder module comprises a cutting drum having cutting openings formed therein, and a main screw rotatably arranged in the shredder module having a main screw shaft , which is driven by a main screw motor unit , and a main screw flight , which is formed thereon and passes over the cutting openings , wherein the main screw shaft is coaxially enclosed by the screw conveyor shaft inside the feed hopper up to the shredder module , and wherein the feed hopper has a first and second passage opening on opposite sides through which the screw conveyor shaft and the main screw shaft are passed, characterized in that a centering insert is inserted into the second passage opening , in which the screw conveyor shaft is rotatably supported by means of a second screw conveyor bearing and the main screw shaft is rotatably supported by means of a second main screw bearing .
Method for managing a light pattern provided by an automotive lighting device , the method comprising the steps of: - projecting an original light pattern; - providing a reach distance which is a distance between a retroreflective object and the automotive lighting device ; the method being characterized in that it further comprises the steps of: - estimating a reach time 2. which is a time before the automotive lighting device reaches the retroreflective object ; - deciding whether or not to activate a light pattern management functionality depending on the reach time value, - activating or not the light pattern management depending on the decision, and, if the light pattern management functionality is activated, executing the following steps of: - using an image provided by an image sensor in real time to decide the location of a mask , wherein the mask is a zone of the projected lighting pattern that shall cover the position of the retroreflective object ; calculating an optimum light pattern for the mask and - modifying the original light pattern including the mask with the optimum light pattern. - projecting an original light pattern; - providing a reach distance which is a distance between a retroreflective object and the automotive lighting device ; the method being characterized in that it further comprises the steps of: - estimating a reach time 2. which is a time before the automotive lighting device reaches the retroreflective object ; - deciding whether or not to activate a light pattern management functionality depending on the reach time value, - activating or not the light pattern management depending on the decision, - estimating a reach time 2. which is a time before the automotive lighting device reaches the retroreflective object ; - deciding whether or not to activate a light pattern management functionality depending on the reach time value, - activating or not the light pattern management depending on the decision, and, if the light pattern management functionality is activated, executing the following steps of: - using an image - using an image provided by an image sensor in real time to decide the location of a mask , wherein the mask is a zone of the projected lighting pattern that shall cover the position of the retroreflective object ; calculating an optimum light pattern for the mask and - modifying the original light pattern including the mask with the optimum light pattern. - modifying the original light pattern including the mask with the optimum light pattern.
An aircraft comprising a wing and a winglet at the end of the wing, the winglet comprising: a root ; a tip ; a transition region extending away from the root; and a wing-like region extending from the distal end of the transition region to the tip, wherein the wing-like region comprises a planar portion extending into the winglet tip, and characterised in that when the aircraft wing is under the worst-case static loading, the worst-case static loading being the highest static loading the aircraft wing would be expected to encounter during normal use, when the aircraft is stationary on the ground and with a full fuel load: the tip of the winglet is located at the maximum spanwise extent of the winglet; the planar portion extends vertically downward from the winglet tip such that it lies along the maximum spanwise extent of the winglet; and the winglet extends substantially vertically along an airport gate compatibility limit span (S max ), but when the aircraft wing is under the no-load condition, the wing and winglet being in their jig shape in that no-load condition, the wing-like region is canted inboard such that the tip of the winglet is located inboard of the maximum spanwise extent of the winglet and the planar portion is canted inboard beyond the vertical. when the aircraft wing is under the worst-case static loading, the worst-case static loading being the highest static loading the aircraft wing would be expected to encounter during normal use, when the aircraft is stationary on the ground and with a full fuel load: the tip of the winglet is located at the maximum spanwise extent of the winglet; the planar portion extends vertically downward from the winglet tip such that it lies along the maximum spanwise extent of the winglet; and the winglet extends substantially vertically along an airport gate compatibility limit span (S max ), but when the aircraft wing is under the no-load condition, the wing and winglet being in their jig shape in that no-load condition, the wing-like region is canted inboard such that the tip of the winglet is located inboard of the maximum spanwise extent of the winglet and the planar portion is canted inboard beyond the vertical.
A method performed by a Narrowband Internet of Things, NB-IoT, device , the method comprising: determining that a Time Division Duplex, TDD, special subframe including a Downlink Pilot Time Slot, DwPTS, is configured for receiving a signal of a downlink physical channel from an NB-IoT cell; said method being characterized by : based on the determination, receiving, from the NB-IoT cell, the signal of the downlink physical channel in the TDD special subframe including the DwPTS, wherein the DwPTS in the TDD special subframe is used for receiving the signal of the downlink physical channel, based on a size of the DwPTS and an operation mode of the NB-IoT cell, wherein the operation mode includes one or more of stand-alone, in-band, and guard-band modes, and wherein based on i) the signal of the downlink physical channel is received repeatedly over a plurality of subframes including the TDD special subframe, and ii) one or more resource element, REs, within the TDD special subframe are available for a Narrowband reference signal, NRS, the signal of the downlink physical channel is punctured on the corresponding RE. based on the determination, receiving, from the NB-IoT cell, the signal of the downlink physical channel in the TDD special subframe including the DwPTS, wherein the DwPTS in the TDD special subframe is used for receiving the signal of the downlink physical channel, based on a size of the DwPTS and an operation mode of the NB-IoT cell, wherein the operation mode includes one or more of stand-alone, in-band, and guard-band modes, and wherein based on i) the signal of the downlink physical channel is received repeatedly over a plurality of subframes including the TDD special subframe, and ii) one or more resource element, REs, within the TDD special subframe are available for a Narrowband reference signal, NRS, the signal of the downlink physical channel is punctured on the corresponding RE.
A method of communicating with a cell by a user equipment, UE , the method comprising: receiving (S940) system information on the cell by performing (S920) a cell search process; determining (S950) a number of access requests to the cell by using one or more virtual UEs, VUEs, based on the system information on the cell, when it is determined that a plurality of access procedures are required due to lack of a number of transmission antennas of the UE required to support high rank transmission and multiple codeword transmission/reception, Tx/Rx, wherein each of the one or more VUEs is configured with a different combination of distributed antenna units of the UE; respectively performing (S960, S970, S980, S990) the number of the access requests to the cell, wherein each of the number of the access requests is performed by using different random access resources, wherein a first access request among the number of the access requests is considered to be performed by a substantive UE, SUE, requesting an initial connection, and wherein one or more second access requests after the first access request are considered to be performed by the one or more VUEs requesting additional connections; respectively receiving a different identifier for the each of the number of the access requests; and communicating with the cell via the initial connection and the additional connections. receiving (S940) system information on the cell by performing (S920) a cell search process; determining (S950) a number of access requests to the cell by using one or more virtual UEs, VUEs, based on the system information on the cell, when it is determined that a plurality of access procedures are required due to lack of a number of transmission antennas of the UE required to support high rank transmission and multiple codeword transmission/reception, Tx/Rx, wherein each of the one or more VUEs is configured with a different combination of distributed antenna units of the UE; respectively performing (S960, S970, S980, S990) the number of the access requests to the cell, wherein each of the number of the access requests is performed by using different random access resources, wherein a first access request among the number of the access requests is considered to be performed by a substantive UE, SUE, requesting an initial connection, and wherein one or more second access requests after the first access request are considered to be performed by the one or more VUEs requesting additional connections; respectively receiving a different identifier for the each of the number of the access requests; and communicating with the cell via the initial connection and the additional connections.
Retaining clip for fastening roof stones or tiles which are to be laid with overlap on a roof understructure wherein the retaining clip is designed so that it can engage round a part of a roof batten of the roof understructure and a first roof stone or tile in order to fasten the first roof stone or tile on the roof understructure , the retaining clip having a clip portion for engaging round the part of said roof batten of the roof understructure and the first roof stone or tile , said clip portion comprising a first arm for engaging the top side of the first roof stone or tile and a second arm for contacting the underneath side of the roof batten, said retaining clip comprising a supporting arm and a web portion connecting the first and second arm and the supporting arm, wherein said supporting arm is elevated, as viewed from the side, over a plane which is defined by the first arm, characterised in that said retaining clip has a recess with which a fastening pin which protrudes from the underneath of a second roof stone or tile can be brought into form-fitting engagement, in order to fasten the second roof stone or tile on the retaining clip , and in that said recess is formed in the supporting arm .
A process for unloading a bed of particulate material from a vessel , which comprises inserting an extraction pipe into the lower part of said bed, injecting a fluidization gas upwardly into the extraction pipe from the bottom part thereof, using injection means consisting of means for injecting a multiplicity of small jets of gas upwardly along the bottom length of the extraction pipe from its inlet located inside the vessel to its outlet located outside the vessel, and applying a positive pressure differential between the inlet and the outlet of said extraction pipe.
A display apparatus including a display panel , comprising: a front chassis provided in front of the display panel; an optical sheet disposed behind the display panel and supported by the front chassis; a light guide plate disposed behind the optical sheet; a light emitting diode, LED, substrate disposed beside the light guide plate and configured to emit light toward the light guide plate ; a plastic rear cover configured to form an exterior of the display panel , coupled to a rear side of the front chassis , and configured to press the light guide plate toward the front chassis ; a heat sink connected to the LED substrate to dissipate heat generated by the LED substrate and interposed between the light guide plate and the rear cover ; and a metallic reinforcing member coupled to the rear cover to reinforce strength of the rear cover , wherein the reinforcing member is in contact with the heat sink , wherein the rear cover includes a plurality of ribs (210 and characterized in that the plurality of ribs is in contact with the heat sink and is configured to press the heat sink into direct contact with the front chassis such that the heat sink is supported by the front chassis . a front chassis provided in front of the display panel; an optical sheet disposed behind the display panel and supported by the front chassis; a light guide plate disposed behind the optical sheet; a light emitting diode, LED, substrate disposed beside the light guide plate and configured to emit light toward the light guide plate ; a plastic rear cover configured to form an exterior of the display panel , coupled to a rear side of the front chassis , and configured to press the light guide plate toward the front chassis ; a heat sink connected to the LED substrate to dissipate heat generated by the LED substrate and interposed between the light guide plate and the rear cover ; and a metallic reinforcing member coupled to the rear cover to reinforce strength of the rear cover , wherein the reinforcing member is in contact with the heat sink , wherein the rear cover includes a plurality of ribs (210 and characterized in that the plurality of ribs is in contact with the heat sink and is configured to press the heat sink into direct contact with the front chassis such that the heat sink is supported by the front chassis .