mhurhangee/patent-ind-claim-en huggingface dataset:
Antenna device for a vehicle , comprising: - a generating unit for generating electromagnetic waves, - a waveguide system for transmitting electromagnetic waves, wherein - the waveguide system comprises a plurality of waveguide arrangements, wherein - the waveguide arrangements each comprise an input for feeding in the electromagnetic waves generated, wherein - the waveguide arrangements each comprise a plurality of outputs connected to the respective input and serving for coupling out the electromagnetic waves fed into the respective input , - wherein the respective plurality of outputs are connected to openings in a surface, from which openings the electromagnetic waves can radiate, - such that the surface comprises a plurality of regions , the respective openings of which are connected to a dedicated input by means of a dedicated waveguide arrangement, characterized in that - at least some of the plurality of regions are formed as planes arranged angularly with respect to one another. - a generating unit for generating electromagnetic waves, - a waveguide system for transmitting electromagnetic waves, wherein - the waveguide system comprises a plurality of waveguide arrangements, wherein - the waveguide arrangements each comprise an input for feeding in the electromagnetic waves generated, wherein - the waveguide arrangements each comprise a plurality of outputs connected to the respective input and serving for coupling out the electromagnetic waves fed into the respective input , - wherein the respective plurality of outputs are connected to openings in a surface, from which openings the electromagnetic waves can radiate, - such that the surface comprises a plurality of regions , the respective openings of which are connected to a dedicated input by means of a dedicated waveguide arrangement, characterized in that - at least some of the plurality of regions are formed as planes arranged angularly with respect to one another.
A flexible electronic device comprising: a flexible display ; a first housing and a second housing to which the flexible display is coupled; a multi-joint hinge configured to connect the first housing and the second housing so as to make the electronic device foldable and comprising a plurality of joints; a flexible cover configured to cover at least a portion of the first housing, the multi-joint hinge, and at least a portion of the second housing to thereby cover at least a portion of a rear face of the electronic device; and a plurality of shape-retaining units , located between the multi-joint hinge and the flexible cover and configured to support the flexible cover, wherein each shape-retaining unit includes at least one protrusion, wherein the plurality of shape-retaining units is fastened to the multi-joint hinge in such a manner that the at least one protrusion of each of the plurality of shape-retaining units is inserted into a corresponding hole of the multi-joint hinge, and wherein each of the plurality of shape-retaining units comprises an upper face curved according to a shape of the rear face of the electronic device to thereby support the flexible cover, when the electronic device is folded, to maintain a designed appearance of the folded electronic device. a flexible display ; a first housing and a second housing to which the flexible display is coupled; a multi-joint hinge configured to connect the first housing and the second housing so as to make the electronic device foldable and comprising a plurality of joints; a flexible cover configured to cover at least a portion of the first housing, the multi-joint hinge, and at least a portion of the second housing to thereby cover at least a portion of a rear face of the electronic device; and a plurality of shape-retaining units , located between the multi-joint hinge and the flexible cover and configured to support the flexible cover, wherein each shape-retaining unit includes at least one protrusion, wherein the plurality of shape-retaining units is fastened to the multi-joint hinge in such a manner that the at least one protrusion of each of the plurality of shape-retaining units is inserted into a corresponding hole of the multi-joint hinge, and wherein each of the plurality of shape-retaining units comprises an upper face curved according to a shape of the rear face of the electronic device to thereby support the flexible cover, when the electronic device is folded, to maintain a designed appearance of the folded electronic device.
A method of removing interference, performed by a first User Equipment, UE, in a multi-node system, the method comprising: receiving (S301) antenna configuration information from a Base Station, BS, ; receiving a first signal that is transmitted using a first precoding matrix from at least one node controlled by the BS ; and removing an interference signal from the first signal, wherein the interference signal comprises a signal transmitted from the at least one node to a second UE by applying a second precoding matrix to a second signal, wherein the antenna configuration information informs the first UE about interfering antennas of the at least one node, wherein when a number of receive antennas of the first UE is greater than a number of the interfering antennas that send signals exerting interference on the first UE according to the antenna configuration information, a reception filter for the first signal and the first precoding matrix are calculated (S302, S303), wherein the reception filter for the first signal is calculated (S302) as a matrix which minimizes an absolute value of a multiplication of the matrix and an interfering antenna channel matrix between the receive antennas of the first UE and the interfering antennas of the at least one node, and wherein the first precoding matrix is calculated (S303) as a further matrix which maximizes an absolute value of a multiplication of the reception filter, the antenna channel matrix between the receive antennas of the first UE and the antennas of the at least one node that send data to the first UE and the further matrix. receiving (S301) antenna configuration information from a Base Station, BS, ; receiving a first signal that is transmitted using a first precoding matrix from at least one node controlled by the BS ; and removing an interference signal from the first signal, wherein the interference signal comprises a signal transmitted from the at least one node to a second UE by applying a second precoding matrix to a second signal, wherein the antenna configuration information informs the first UE about interfering antennas of the at least one node, wherein when a number of receive antennas of the first UE is greater than a number of the interfering antennas that send signals exerting interference on the first UE according to the antenna configuration information, a reception filter for the first signal and the first precoding matrix are calculated (S302, S303), wherein the reception filter for the first signal is calculated (S302) as a matrix which minimizes an absolute value of a multiplication of the matrix and an interfering antenna channel matrix between the receive antennas of the first UE and the interfering antennas of the at least one node, and wherein the first precoding matrix is calculated (S303) as a further matrix which maximizes an absolute value of a multiplication of the reception filter, the antenna channel matrix between the receive antennas of the first UE and the antennas of the at least one node that send data to the first UE and the further matrix.
A method for setting a lubricant level measuring device of an azimuth thruster installed in a marine vessel, the method comprising: determining an installation orientation of the azimuth thruster in the marine vessel by determining a tilt installation angle (α, β1, β2, γ) of the azimuth thruster ; and adjusting a lubricant measuring location of the lubricant level measuring device based on the determined installation orientation of the azimuth thruster by adjusting a position of a movable meter tube of the lubricant level measuring device ; wherein a table, an equation, a diagram or a graph is used to directly determine an adjustment of the lubricant measuring location of the lubricant level measuring device based on the determined installation orientation of the azimuth thruster , wherein said table is provided to show an extension length (H) of the meter tube depending from one or more of the tilt installation angles (α, β1, β2, γ). determining an installation orientation of the azimuth thruster in the marine vessel by determining a tilt installation angle (α, β1, β2, γ) of the azimuth thruster ; and adjusting a lubricant measuring location of the lubricant level measuring device based on the determined installation orientation of the azimuth thruster by adjusting a position of a movable meter tube of the lubricant level measuring device ; wherein a table, an equation, a diagram or a graph is used to directly determine an adjustment of the lubricant measuring location of the lubricant level measuring device based on the determined installation orientation of the azimuth thruster , wherein said table is provided to show an extension length (H) of the meter tube depending from one or more of the tilt installation angles (α, β1, β2, γ).
Suction head for connection to a fuel hose in a fuel tank , - wherein the suction head has a housing-shaped base body made of an injection-moulding material , - and the base body is designed with an end-face opening , - wherein the end-face opening is closed by means of a cap , - and the suction head comprises a connector for the fuel hose , - and fuel is drawn in via the fuel hose and the suction head , - wherein a first, inner filter element is accommodated in the base body , - and the base body has in its outer surface recesses covered by a second, outer filter element , characterised in that - the second, outer filter element consists of a filter fabric made in twill or satin weave, so that a fabric surface facing the flowing fuel has a rough and multidimensional structure, - and in that the filter fabric has a mesh size (W) greater than 10 μm and less than 25 μm, - wherein the mesh size (W) of the filter fabric is less than a pore size (P) of the first, inner filter element in the base body . - wherein the suction head has a housing-shaped base body made of an injection-moulding material , - and the base body is designed with an end-face opening , - wherein the end-face opening is closed by means of a cap , - and the suction head comprises a connector for the fuel hose , - and fuel is drawn in via the fuel hose and the suction head , - wherein a first, inner filter element is accommodated in the base body , - and the base body has in its outer surface recesses covered by a second, outer filter element , characterised in that - the second, outer filter element consists of a filter fabric made in twill or satin weave, so that a fabric surface facing the flowing fuel has a rough and multidimensional structure, - and in that the filter fabric has a mesh size (W) greater than 10 μm and less than 25 μm, - wherein the mesh size (W) of the filter fabric is less than a pore size (P) of the first, inner filter element in the base body .
A pump assembly with a pump casing and with a suction chamber which is formed in this casing and which comprises at least one an emptying branch , wherein the emptying branch comprises a first connection in the installation position intended for operation of the pump assembly which is to be vented and which is situated vertically above a base region of the suction chamber and the emptying branch comprises a valve device which in a first switching position permits the opening of the first connection , characterised in that the emptying brancg has a second connection to the base region of the suction chamber , and that the valve means makes it possible to open at least the second connection in a second switching position.
Method for testing whether a current collector of a preferably not rail-bound, electric motor-driven vehicle is in contact with a contact wire of an overhead line extending in a direction of travel (F), wherein the current collector is movable in and counter to a vertical direction (V) and comprises: - a carrier element and - a contact strip mounted on the carrier element for contacting the contact wire, wherein the current collector comprises a sensor unit , characterised in that - the contact strip is resiliently mounted on the carrier element by means of at least one primary spring element , - wherein the contact strip upon contacting the contact wire is deflected out of a rest position (I) counter to the vertical direction (V) relative to the carrier element , - wherein the deflection is detected by the sensor unit and, dependent upon the deflection , it is determined whether the contact strip is contacted by the contact wire , and - wherein an inclination (N) of the contact strip relative to the carrier element about an inclination axis (Z) extending in the direction of travel (V) is detected by means of the sensor unit and dependent upon the inclination (N) of the contact strip and the deflection of the primary spring element a contacting point of the contact wire is detected on the contact strip . - a carrier element and - a contact strip mounted on the carrier element for contacting the contact wire, - the contact strip is resiliently mounted on the carrier element by means of at least one primary spring element , - wherein the contact strip upon contacting the contact wire is deflected out of a rest position (I) counter to the vertical direction (V) relative to the carrier element , - wherein the deflection is detected by the sensor unit and, dependent upon the deflection , it is determined whether the contact strip is contacted by the contact wire , and - wherein an inclination (N) of the contact strip relative to the carrier element about an inclination axis (Z) extending in the direction of travel (V) is detected by means of the sensor unit and dependent upon the inclination (N) of the contact strip and the deflection of the primary spring element a contacting point of the contact wire is detected on the contact strip .
A phenolic resin foam comprising: cyclopentane as a hydrocarbon having a carbon number of 6 or less; optionally another hydrocarbon having a carbon number of 6 or less; and a high-boiling hydrocarbon with a boiling point of 140 °C or more and 350 °C or less which is a single compound or a plurality of compounds selected from cyclooctane, nonane, decane, decalin, undecane, dodecane, tridecane, tetradecane, pentadecane, hexadecane, heptadecane, octadecane, nonadecane, and icosane, and having a density of 10 kg/m 3 or more and 150 kg/m 3 or less, wherein a value of a content X in units of mol of the cyclopentane per a space volume of 22.4 × 10 -3 m 3 in the phenolic resin foam, determined as described in " Content of hydrocarbon having a carbon number of 6 or less, content of hydrofluoroolefin having a carbon number of 3 or 4, and content of halogenated saturated hydrocarbon in foam" in the description, is 0.25 or more and 0.85 or less, a ratio of the cyclopentane in the hydrocarbon having a carbon number of 6 or less or the hydrocarbons having a carbon number of 6 or less contained in the phenolic resin foam, determined as described in " Content of hydrocarbon having a carbon number of 6 or less, content of hydrofluoroolefin having a carbon number of 3 or 4, and content of halogenated saturated hydrocarbon in foam" in the description, is 60 mol% or more and 100 mol% or less, and a value of an extraction amount Y in units of g of the high-boiling hydrocarbon with a boiling point of 140 °C or more and 350 °C or less extracted into heptane when the phenolic resin foam is ground and subjected to an extraction treatment in the heptane, per a space volume of 22.4 × 10 -3 m 3 in the phenolic resin foam, is in a range of not more than a coefficient a calculated according to the following formula and not less than a coefficient b calculated according to the following formula : a = − 1.95 X + 6.2 b = 0.47 X + 0.14
A method for operating a wind turbine during idling, comprising a rotor hub, thereby controlling a rotational speed of the rotor hub during idling of the wind turbine based on a determined rotational speed of the rotor hub and a reference rotational speed of the rotor hub, wherein the controlling of the rotational speed is based on at least one allowed rotational speed range , wherein the reference rotational speed of the rotor hub is set equal to the determined rotational speed of the rotor hub as long as the determined rotational speed of the rotor hub is within one of the at least one allowed rotational speed range , wherein the rotational speed of the rotor hub is controlled - by adjusting a pitch angle of at least one rotor blade of the rotor hub based on the determined rotational speed of the rotor hub, and/or - by adjusting a power torque of a generator communicating with the rotor hub based on the determined rotational speed of the rotor hub. - by adjusting a pitch angle of at least one rotor blade of the rotor hub based on the determined rotational speed of the rotor hub, and/or - by adjusting a power torque of a generator communicating with the rotor hub based on the determined rotational speed of the rotor hub.
A needle assembly , comprising: a housing comprising a flash chamber , and having a distal portion and a proximal portion engageable with a specimen collection container; a cannula having a patient end, a non-patient end, and a sidewall extending therebetween defining a cannula interior, the patient end of the cannula projecting at least partially from the distal portion of the housing ; a shield restrainably engaged with a portion of the housing between a retracted position and an extended position, the shield axially transitionable over the patient cannula from a retracted position in which the patient end is exposed, to an extended position in which the patient end is shielded by at least a portion of the shield, wherein, when the shield is in the retracted position, the shield is disposed within an interior portion of the housing and is biased against a portion of the housing by a spring, and at least a portion of the flash chamber is visible; and a release element transitionable from a first position to a second position, wherein the spring biases the shield to the extended position upon transition of the release element from the first position to the second position, characterized in that said release element including a restraining portion extending at least partially through an elongated channel in the shield which extends longitudinally through the shield along a top surface thereof, and wherein the release element is deployable through an exterior surface of at least one of the shield and the housing to cause the restraining portion to move through the channel. a housing comprising a flash chamber , and having a distal portion and a proximal portion engageable with a specimen collection container; a cannula having a patient end, a non-patient end, and a sidewall extending therebetween defining a cannula interior, the patient end of the cannula projecting at least partially from the distal portion of the housing ; a shield restrainably engaged with a portion of the housing between a retracted position and an extended position, the shield axially transitionable over the patient cannula from a retracted position in which the patient end is exposed, to an extended position in which the patient end is shielded by at least a portion of the shield, wherein, when the shield is in the retracted position, the shield is disposed within an interior portion of the housing and is biased against a portion of the housing by a spring, and at least a portion of the flash chamber is visible; and a release element transitionable from a first position to a second position, wherein the spring biases the shield to the extended position upon transition of the release element from the first position to the second position, characterized in that said release element including a restraining portion extending at least partially through an elongated channel in the shield which extends longitudinally through the shield along a top surface thereof, and wherein the release element is deployable through an exterior surface of at least one of the shield and the housing to cause the restraining portion to move through the channel.
An adaptor (30; 60) for connecting a rotating electrical machine to a prime mover , the adaptor comprising side walls (40, 42; 70, 72), a top wall (36; 66) and a bottom wall (38; 68) and a plurality of air outlets (50, 52, 54, 56; 80, 82, 84, 86), characterised in that : each of the walls (36, 38, 40, 42; 66, 68, 70, 72) has an air outlet (50, 52, 54, 56; 80, 82, 84, 86); the air outlet (50, 52, 54, 56; 80, 82, 84, 86) is provided in a first part of the wall, in the direction of air flow; a second part of each of the walls (36, 38, 40, 42; 66, 68, 70, 72) is without an air outlet or has an air outlet which is blocked off; the second part of each of the walls is arranged to direct air flow to an air outlet (50, 52, 54, 56; 80, 82, 84, 86) in a subsequent wall; and the second part of each of the walls (36, 38, 40, 42; 66, 68, 70, 72) is arranged to provide an increase in a cross-sectional area of air flow towards the air outlet (50, 52, 54, 56; 80, 82, 84, 86) such that a progressive reduction in air velocity is achieved within the adaptor towards the outlet. each of the walls (36, 38, 40, 42; 66, 68, 70, 72) has an air outlet (50, 52, 54, 56; 80, 82, 84, 86); the air outlet (50, 52, 54, 56; 80, 82, 84, 86) is provided in a first part of the wall, in the direction of air flow; a second part of each of the walls (36, 38, 40, 42; 66, 68, 70, 72) is without an air outlet or has an air outlet which is blocked off; the second part of each of the walls is arranged to direct air flow to an air outlet (50, 52, 54, 56; 80, 82, 84, 86) in a subsequent wall; and the second part of each of the walls (36, 38, 40, 42; 66, 68, 70, 72) is arranged to provide an increase in a cross-sectional area of air flow towards the air outlet (50, 52, 54, 56; 80, 82, 84, 86) such that a progressive reduction in air velocity is achieved within the adaptor towards the outlet.