mhurhangee/ep-ind-claims huggingface dataset:
A method of determining a filling level of a product in a tank using a radar level gauge system including a transceiver, a signal propagation device and processing circuitry, the method comprising the steps of: performing, for each transmit pulse repetition frequency in a sequence of different transmit pulse repetition frequencies, a measurement operation including: generating and transmitting an electromagnetic transmit signal in the form of a pulse train of transmit pulses, the pulse train exhibiting the transmit pulse repetition frequency; propagating the transmit signal towards a surface of the product in the tank; returning an electromagnetic reflection signal resulting from reflection of the transmit signal at the surface back towards the transceiver; and receiving the reflection signal; and determining, for each measurement operation, a measure indicative of signal disturbance of the reflection signal received in the measurement operation; evaluating, for each measurement operation, the measure indicative of signal disturbance of the reflection signal in view of a predefined signal disturbance criterion; and determining the filling level based on at least one of the reflection signals fulfilling the signal disturbance criterion. performing, for each transmit pulse repetition frequency in a sequence of different transmit pulse repetition frequencies, a measurement operation including: generating and transmitting an electromagnetic transmit signal in the form of a pulse train of transmit pulses, the pulse train exhibiting the transmit pulse repetition frequency; propagating the transmit signal towards a surface of the product in the tank; returning an electromagnetic reflection signal resulting from reflection of the transmit signal at the surface back towards the transceiver; and receiving the reflection signal; and generating and transmitting an electromagnetic transmit signal in the form of a pulse train of transmit pulses, the pulse train exhibiting the transmit pulse repetition frequency; propagating the transmit signal towards a surface of the product in the tank; returning an electromagnetic reflection signal resulting from reflection of the transmit signal at the surface back towards the transceiver; and receiving the reflection signal; and determining, for each measurement operation, a measure indicative of signal disturbance of the reflection signal received in the measurement operation; evaluating, for each measurement operation, the measure indicative of signal disturbance of the reflection signal in view of a predefined signal disturbance criterion; and determining the filling level based on at least one of the reflection signals fulfilling the signal disturbance criterion.
A combustor comprising: a shell (60, 62) bounding at least a portion of a combustion chamber, the shell (60, 62) including a first wall having an orifice extending between a first side surface of the first wall and an opposed second side surface of the first wall and opening to the combustion chamber; a grommet (80; 180; 280; 380; 480; 580) including a body portion and a lip (86; 186; 386; 486; 586) projecting from the body portion, the body portion and the lip (86; 186; 386; 486; 586) carrying a surface (88; 188; 388; 488; 588) that extends around a passage (82; 182) through the grommet (80; 180; 280; 380; 480; 580), at least a portion of the lip (86; 186; 386; 486; 586) extending within the orifice of the wall (74, 76) of the shell (60, 62); and a radial gap between the lip (86; 186; 386; 486; 586) and the first wall of the shell (60, 62) with respect to a central axis (A G) of the passage (82; 182); characterised in that: the lip (86; 186; 386; 486; 586) extends beyond the orifice. a shell (60, 62) bounding at least a portion of a combustion chamber, the shell (60, 62) including a first wall having an orifice extending between a first side surface of the first wall and an opposed second side surface of the first wall and opening to the combustion chamber; a grommet (80; 180; 280; 380; 480; 580) including a body portion and a lip (86; 186; 386; 486; 586) projecting from the body portion, the body portion and the lip (86; 186; 386; 486; 586) carrying a surface (88; 188; 388; 488; 588) that extends around a passage (82; 182) through the grommet (80; 180; 280; 380; 480; 580), at least a portion of the lip (86; 186; 386; 486; 586) extending within the orifice of the wall (74, 76) of the shell (60, 62); and a radial gap between the lip (86; 186; 386; 486; 586) and the first wall of the shell (60, 62) with respect to a central axis (A G) of the passage (82; 182); characterised in that: the lip (86; 186; 386; 486; 586) extends beyond the orifice.
Pipeline system, comprising - at least one electrically-conducting pipeline, which is connected to the ground and which is isolated from the ground; - a cathode protection system; - a communication system with a number of communication devices, wherein data is able to be transmitted via the pipeline for communication between the communication devices; characterised in that the cathode protection system comprises a number of ground rods arranged in the ground, which are each connected electrically to the ground and are coupled electrically to the pipeline, wherein the communication devices comprise sensor units arranged along the pipeline, which are supplied with energy from the cathode protection system. - at least one electrically-conducting pipeline, which is connected to the ground and which is isolated from the ground; - a cathode protection system; - a communication system with a number of communication devices, wherein data is able to be transmitted via the pipeline for communication between the communication devices;
Wheel, in particular light-alloy wheel for motor vehicles, substantially consisting of a wheel spider and a wheel rim (20, 20'), wherein the wheel rim (20, 20') has a rim inner well (21,21') which merges into a rim inner flange (23, 23') on a wheel inner side, and wherein the wheel rim (20, 20') has a circumferential contour (25, 25') on the axially inner side, wherein the rim inner flange (23, 23') is formed having a radially inner wall (28, 28') and a radially outer wall (27, 27') which both run almost parallel, at least in sections, towards the axially inner side and end at least nearly on a common radial plane, and the rim inner flange (23, 23') is able to be sealed in the axial direction (a) by means of a cover, characterised in that the radially outer part of the cover is formed to nestle into the contour (25, 25') with a radially outer curvature such that it ends with a radially outer end which is aligned axially inwards towards the vehicle, the radially inner part of the cover has a radially inner end which is aligned axially inwards towards the vehicle, the cover is glued and/or welded in the wheel rim (20, 20'), said cover resting at least in sections in the contour (25, 25').
Magnetic outfit configured to be removably inserted in a cavity at one of the ends of a non-magnetic prismatic body of a level, wherein the prismatic body of the level has a plurality of sides (4, 5, 6, 7) defining the cavity, one of these sides acting as a level base and other of these sides opposes the level base, each of these sides having an inner face (4A, 5A, 6A, 7A) which faces towards said cavity and an outer face (4B, 5B, 6B, 7B) and comprising magnetic means (10, 12, 600) with a flat base which can be arranged inside this cavity in parallel and adhering to an inner face of the level base, said magnetic outfit comprising a non-magnetic deformable body for support of said magnetic means, said non magnetic deformable body being deformable in a direction (x) orthogonal to the level base and having deformable or bendable walls (31, 32) which can permit said deformation, characterised in that, in its first dimensional configuration, the magnetic outfit has a dimension in the direction of deformation which is smaller than the distance between inner faces (5A, 7A) of the level base and the side opposing the level base, the magnet outfit further comprises a deforming screw unit which connects said deformable or bendable walls (31, 32), manual actuation of which via an open end of the cavity deforms the non-magnetic deformable body in a second dimensional configuration when it is inside the cavity of the level, said deformation causing said magnetic outfit and the magnetic means (10, 12, 600) to be blocked against the inner faces (5A, 7A) of the level base and the side opposing the level base, said magnetic outfit also comprising a rigid ferrous element (13, 610) which is coupled to said magnetic means (10, 12, 600) and is associated with the non-magnetic deformable body deformable in a direction orthogonal to said level base, and the magnetic outfit being able to adopt alternatively the first dimensional configuration and the second dimensional configuration, such as to be able to be introduced freely into said cavity in a first configuration, and to be blocked in this cavity in its second dimensional configuration, further to manual actuation of the deforming screw unit.
A fuel cell stack assembly comprising: (a) at least one fuel cell comprising: (i) an electrolyte layer (1e, 103) defining first and second faces and with said first face mounted on and in electrochemical contact with a first electrode (1a, 102) and with said second face mounted on and in electrochemical contact with a second electrode (1c, 104); and (ii) an electrically conductive current collector (2, 109, 1012) joined to or mounted on or in said second electrode (1c, 104) and in electrical contact with said second electrode (1c, 104), said electrically conductive current collector (2, 109, 1012) having an at least one extension extending outwards of a perimeter defined by said first and second electrodes (la, 102, 1c, 104) and said electrolyte (1e, 103) and defining at least one fuel cell stack; (b) cover means (6, 105) disposed around said at least one stack; and (c) clamping means adapted to exert compressive force upon said cover means (6, 105); arranged such that said compressive force is only exerted upon said at least one fuel cell outside of said perimeter of said first and second electrodes (la, 102, 1c, 104) and said electrolyte (1e, 103). (a) at least one fuel cell comprising: (i) an electrolyte layer (1e, 103) defining first and second faces and with said first face mounted on and in electrochemical contact with a first electrode (1a, 102) and with said second face mounted on and in electrochemical contact with a second electrode (1c, 104); and (ii) an electrically conductive current collector (2, 109, 1012) joined to or mounted on or in said second electrode (1c, 104) and in electrical contact with said second electrode (1c, 104), said electrically conductive current collector (2, 109, 1012) having an at least one extension extending outwards of a perimeter defined by said first and second electrodes (la, 102, 1c, 104) and said electrolyte (1e, 103) and defining at least one fuel cell stack; (i) an electrolyte layer (1e, 103) defining first and second faces and with said first face mounted on and in electrochemical contact with a first electrode (1a, 102) and with said second face mounted on and in electrochemical contact with a second electrode (1c, 104); and (ii) an electrically conductive current collector (2, 109, 1012) joined to or mounted on or in said second electrode (1c, 104) and in electrical contact with said second electrode (1c, 104), said electrically conductive current collector (2, 109, 1012) having an at least one extension extending outwards of a perimeter defined by said first and second electrodes (la, 102, 1c, 104) and said electrolyte (1e, 103) and defining at least one fuel cell stack; (b) cover means (6, 105) disposed around said at least one stack; and (c) clamping means adapted to exert compressive force upon said cover means (6, 105); arranged such that said compressive force is only exerted upon said at least one fuel cell outside of said perimeter of said first and second electrodes (la, 102, 1c, 104) and said electrolyte (1e, 103).
A mounting box comprising: a box case defining a mounting space inside thereof, the box case comprising at least one installation aperture adapted to provide a passage between an exterior of the box case and the mounting space; and attachment means comprising at least one attachment member (4, 6) for each of the at least one installation aperture, each attachment member (4, 6) having an access surface (42, 62) and a stopping surface (44, 64), the access surface (42, 62) being an bevelled surface adapted to co-operate with an outer surface of an elongated electric installation member when the elongated electric installation member is introduced into the installation aperture, the co-operation being adapted to move the attachment member (4, 6) in radial direction from a resting position of the attachment member (4, 6) such that cross-sectional area of the installation aperture increases, the stopping surface (44, 64) being adapted to co-operate with an outer surface of an elongated electric installation member passing through the installation aperture when an outwards directed force is exerted to the elongated electric installation member, the co-operation being adapted to resist movement of the elongated electric installation member outwards through the installation aperture, characterized in that each attachment member (4, 6) is an integral part of the box case such that the box case and each attachment member (4, 6) are made from a same material. a box case defining a mounting space inside thereof, the box case comprising at least one installation aperture adapted to provide a passage between an exterior of the box case and the mounting space; and attachment means comprising at least one attachment member (4, 6) for each of the at least one installation aperture, each attachment member (4, 6) having an access surface (42, 62) and a stopping surface (44, 64), the access surface (42, 62) being an bevelled surface adapted to co-operate with an outer surface of an elongated electric installation member when the elongated electric installation member is introduced into the installation aperture, the co-operation being adapted to move the attachment member (4, 6) in radial direction from a resting position of the attachment member (4, 6) such that cross-sectional area of the installation aperture increases, the stopping surface (44, 64) being adapted to co-operate with an outer surface of an elongated electric installation member passing through the installation aperture when an outwards directed force is exerted to the elongated electric installation member, the co-operation being adapted to resist movement of the elongated electric installation member outwards through the installation aperture, characterized in that each attachment member (4, 6) is an integral part of the box case such that the box case and each attachment member (4, 6) are made from a same material.
Method for producing halobutyl rubber by copolymerisation of isobutyl and isoprene in a solvent to form butyl rubber, wherein the solvent can be non-soluble for a suspension process or be soluble for a solution process, and subsequent halogenation of the butyl rubber, characterised in that at least the halogenation is carried out using a halogenation agent, in particular using chlorine or bromine, in a combination kneader, in which a copolymerisation zone is separated from a halogenation zone by a plug zone, wherein the halogenation agent is fed into the halogenation zone and the solvent vapours arising in the halogenation kneader and any acidic by-products arising, in particular HCl and HBr, are removed.
A method for performing a random access procedure, the method being performed by a user equipment, UE, and comprising: selecting one random access preamble from among a first random access preamble and a second random access preamble if a dual connectivity is configured and if a first subframe of the first random access preamble is overlapped with a second subframe of the second random access preamble; transmitting the selected one random access preamble, wherein the first random access preamble is to be transmitted toward a first cell belonging to a master cell group, MCG, of a first base station, wherein the second random access preamble is to be transmitted toward a second cell belonging to a secondary cell group, SCG, of a second base station, wherein if a transmission of an unselected random access preamble is dropped, information used for suspending a power ramping is delivered to an upper layer, and wherein the information used for suspending the power ramping enables the upper layer to suspend the power ramping. selecting one random access preamble from among a first random access preamble and a second random access preamble if a dual connectivity is configured and if a first subframe of the first random access preamble is overlapped with a second subframe of the second random access preamble; transmitting the selected one random access preamble, wherein the first random access preamble is to be transmitted toward a first cell belonging to a master cell group, MCG, of a first base station, wherein the second random access preamble is to be transmitted toward a second cell belonging to a secondary cell group, SCG, of a second base station, wherein if a transmission of an unselected random access preamble is dropped, information used for suspending a power ramping is delivered to an upper layer, and wherein the information used for suspending the power ramping enables the upper layer to suspend the power ramping.
Bumper assembly for a motor vehicle, having an upper main crossbeam which can be coupled via crash boxes to the motor vehicle, and a lower auxiliary crossbeam, wherein main crossbeam and auxiliary crossbeam are coupled to one another via vertical struts (4, 6), wherein the main crossbeam and the auxiliary crossbeam are integral and formed together with material uniformity, wherein the main crossbeam and the auxiliary crossbeam and/or the vertical element is/are supported on the crash box via at least one additional supporting element oriented in a direction towards the motor vehicle or the main crossbeam is supported on the auxiliary crossbeam via at least one additional supporting element oriented in a direction towards the motor vehicle, characterised in that the supporting element is integral and formed with material uniformity with the main crossbeam or the auxiliary crossbeam or the vertical element itself.
A vacuum cleaner comprising: a cleaner main body comprising a suction motor for generating a suction force; a suction unit arranged to communicate with the cleaner main body and receive air and dust; a battery arranged to supply power to the suction motor, wherein the battery comprises a plurality of battery cells; a battery management system "BMS" arranged to detect a status of the battery; and a controller arranged to control an operation of the suction motor, wherein the controller is arranged to determine a time to stop the suction motor based on a voltage detected by the BMS, characterized in that the controller is arranged to change the determined time to stop the suction motor according to an operation mode of the suction motor, wherein the controller is configured to determine whether the operation mode of the suction motor is a reference mode, wherein, when the operation mode of the suction motor is a reference mode, that is, when the controller determines that the intensity of the suction force is strong, the controller is arranged to stop the suction motor if an operation time of the suction motor in the reference mode reaches a reference time, even if a voltage of each of the plurality of battery cells exceeds a reference voltage. a cleaner main body comprising a suction motor for generating a suction force; a suction unit arranged to communicate with the cleaner main body and receive air and dust; a battery arranged to supply power to the suction motor, wherein the battery comprises a plurality of battery cells; a battery management system "BMS" arranged to detect a status of the battery; and a controller arranged to control an operation of the suction motor, wherein the controller is arranged to determine a time to stop the suction motor based on a voltage detected by the BMS, characterized in that the controller is arranged to change the determined time to stop the suction motor according to an operation mode of the suction motor, wherein the controller is configured to determine whether the operation mode of the suction motor is a reference mode, wherein, when the operation mode of the suction motor is a reference mode, that is, when the controller determines that the intensity of the suction force is strong, the controller is arranged to stop the suction motor if an operation time of the suction motor in the reference mode reaches a reference time, even if a voltage of each of the plurality of battery cells exceeds a reference voltage.
A flat gasket, comprising: - a functional layer having at least one media through-opening and at least one combustion chamber through-opening; and - a second layer, which is separate from the functional layer and has a media through-opening(s) that corresponds to the media through-opening(s) in the functional layer and a combustion chamber through-opening(s) that corresponds to the combustion chamber through-opening(s) in the functional layer; - wherein the functional layer has at least one combustion chamber sealing bead, which is preferably a full bead, for each combustion chamber through-opening; and - wherein the second layer has an elastomer sealing profile for each media through-opening; characterized in that - the second layer has an outer boundary sealing bead for each media through-opening; and - the functional layer and the second layer lie one above the other in the outer boundary region; or - the second layer extends further outwards than the functional layer. - a functional layer having at least one media through-opening and at least one combustion chamber through-opening; and - a second layer, which is separate from the functional layer and has a media through-opening(s) that corresponds to the media through-opening(s) in the functional layer and a combustion chamber through-opening(s) that corresponds to the combustion chamber through-opening(s) in the functional layer; - wherein the functional layer has at least one combustion chamber sealing bead, which is preferably a full bead, for each combustion chamber through-opening; and - wherein the second layer has an elastomer sealing profile for each media through-opening; - the second layer has an outer boundary sealing bead for each media through-opening; and - the functional layer and the second layer lie one above the other in the outer boundary region; or - the second layer extends further outwards than the functional layer.