mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a background structure in a jacquard fabric for a mattress ticking using a double-sided needle selection circular knitting machine of a rib gating type, the method by which an arbitrary pattern is created by means of computer-based needle selection on a cylinder side, an arbitrary pattern is also created by means of computer-based needle selection on a dial side, and an arbitrary knitting structure is made in an arbitrary part by combining the pattern obtained on the cylinder side with the pattern obtained on the dial side, characterized in that the background structure is a knitting structure in which one repeat is constituted by four or more feeders, and wherein the method comprises: (i) at first and third feeders, in a course direction, repeating a process of knitting knitting yarn with two consecutive cylinder needles and welting with one cylinder needle, and thereafter, on the dial side, knitting the knitting yarn with two consecutive dial needles; and (ii) at second and fourth feeders, in the course direction, repeating a process of knitting the knitting yarn with one dial needle and welting with three dial needles on the dial side opposed to the cylinder side on which a resulting jacquard structure is expressed. (i) at first and third feeders, in a course direction, repeating a process of knitting knitting yarn with two consecutive cylinder needles and welting with one cylinder needle, and thereafter, on the dial side, knitting the knitting yarn with two consecutive dial needles; and (ii) at second and fourth feeders, in the course direction, repeating a process of knitting the knitting yarn with one dial needle and welting with three dial needles on the dial side opposed to the cylinder side on which a resulting jacquard structure is expressed.
An electron microscopy sample support comprising: a metal support member comprising a plurality of spaced support elements arranged to form a mesh; and a metal foil comprising a porous region; said support member being configured to give structural stability to said metal foil, and said porous region of said metal foil being configured to receive an electron microscopy sample, characterized in that said support member, plurality of spaced support elements and metal foil are all formed from gold and said metal foil is gold and has a thickness of 5 x 10 -8 m or greater. a metal support member comprising a plurality of spaced support elements arranged to form a mesh; and a metal foil comprising a porous region; said support member being configured to give structural stability to said metal foil, and said porous region of said metal foil being configured to receive an electron microscopy sample, characterized in that said support member, plurality of spaced support elements and metal foil are all formed from gold and said metal foil is gold and has a thickness of 5 x 10 -8 m or greater.
An ultra-wideband antenna comprising: a coaxial cable extending through the center of a conductive tube, a distal end of a center conductor of the coaxial cable electrically connected to a distal end of the conductive tube, a distal end of a shield of the coaxial cable not electrically connected to any conductor; a first and a second ferrite bead (104,106) disposed on the coaxial cable outwardly from a proximal end of the conductive tube, outside of the conductive tube, the first and second ferrite bead (104,106) disposed serially on the coaxial cable, spaced apart from one another. a coaxial cable extending through the center of a conductive tube, a distal end of a center conductor of the coaxial cable electrically connected to a distal end of the conductive tube, a distal end of a shield of the coaxial cable not electrically connected to any conductor; a first and a second ferrite bead (104,106) disposed on the coaxial cable outwardly from a proximal end of the conductive tube, outside of the conductive tube, the first and second ferrite bead (104,106) disposed serially on the coaxial cable, spaced apart from one another.
A descrambling module attachable to a plurality of digital television signal receivers via an IEEE1394 bus, said descrambling module comprising: - an IEEE1394 interface for inputting a scrambled digital television signal from one of the plurality of receivers and for outputting an encrypted descrambled digital television signal to one or more of said plurality of receivers; - a descrambler for descrambling said inputted scrambled digital television signal; - an encryptor for encrypting said descrambled digital television signal; and - a processor configured to obtain limitation information from a packet contained in the inputted digital television signal, said limitation information defining the maximum number of receivers to which encrypted descrambled digital television signal may be outputted from said descrambling module, and to control the interface to output the encrypted descrambled digital television signal to only up to a maximum number of said plurality of receivers, wherein the maximum number of receivers, to which the encrypted descrambled digital television signal may be outputted, is defined by the limitation information. - an IEEE1394 interface for inputting a scrambled digital television signal from one of the plurality of receivers and for outputting an encrypted descrambled digital television signal to one or more of said plurality of receivers; - a descrambler for descrambling said inputted scrambled digital television signal; - an encryptor for encrypting said descrambled digital television signal; and - a processor configured to obtain limitation information from a packet contained in the inputted digital television signal, said limitation information defining the maximum number of receivers to which encrypted descrambled digital television signal may be outputted from said descrambling module, and to control the interface to output the encrypted descrambled digital television signal to only up to a maximum number of said plurality of receivers, wherein the maximum number of receivers, to which the encrypted descrambled digital television signal may be outputted, is defined by the limitation information.
Polypropylene composition having a melt flow rate MFR 2 (230 °C) measured according to ISO 1133 of ≥ 9.0 g/10 min, the composition comprising a) at least two heterophasic propylene copolymers (HECOs), wherein the at least two heterophasic propylene copolymers (HECOs) are contained in a total amount of at least 50 wt%, based on the total weight of the composition, b) an ethylene-α-olefin elastomer having a melt flow rate MFR 2 (190 °C) measured according to ISO 1133 of < 0.5 g/10 min, c) wherein the ratio of the MFR 2 of at least one of the at least two heterophasic propylene copolymers (HECOs) to the MFR 2 of the ethylene-α-olefin elastomer [MFR 2 (HECO) / MFR 2] is in the range of 2/1 to 100/1, and d) wherein the intrinsic viscosity measured according to ISO 1628-1 (decalin) of the xylene cold soluble fraction of at least one of the at least two heterophasic propylene copolymers (HECOs) is ≥ 2.5 dl/g. a) at least two heterophasic propylene copolymers (HECOs), wherein the at least two heterophasic propylene copolymers (HECOs) are contained in a total amount of at least 50 wt%, based on the total weight of the composition, b) an ethylene-α-olefin elastomer having a melt flow rate MFR 2 (190 °C) measured according to ISO 1133 of < 0.5 g/10 min, c) wherein the ratio of the MFR 2 of at least one of the at least two heterophasic propylene copolymers (HECOs) to the MFR 2 of the ethylene-α-olefin elastomer [MFR 2 (HECO) / MFR 2] is in the range of 2/1 to 100/1, and d) wherein the intrinsic viscosity measured according to ISO 1628-1 (decalin) of the xylene cold soluble fraction of at least one of the at least two heterophasic propylene copolymers (HECOs) is ≥ 2.5 dl/g.
Composite pane having a sheet-like fire protection glazing, consisting of a plurality of glass panes which are parallel to one another and between which there are arranged intumescent layers, wherein at least one polymer interlayer is arranged in each case indirectly or directly on the two opposing lateral faces of the fire protection glazing, wherein at least one glass or glass-ceramic pane (15, 16) is arranged in each case on those sides of the polymer interlayers which are remote from the fire protection glazing, wherein the polymer interlayers consist of polycarbonate or polymethyl methacrylate, and wherein the polymer interlayers have a thickness in the range of between 2 mm and 8 mm.
A method of managing a digitally-streamed audio communication session between a plurality of user devices (7a, 7b, 7c), the user devices being configured to send digitally-streamed data indicative of received audio contributions from respective participants in a multiple-participant audio communication session to a multiple-participant audio communication session controller for processing and onward streaming of data indicative of said received audio contributions from said session controller to one or more other user devices (7a, 7b, 7c) for conversion to audio representations for respective other participants of said received audio contributions, the data (21, 22) being streamed between the session controller and the respective user devices (7a, 7b, 7c) in accordance with one or more digital streaming profiles having one or more adjustable digital streaming parameters; the method comprising: identifying, from streamed data received by said session controller in respect of successive audio contributions from respective participants, time measures indicative of start-times and end-times in respect of said audio contributions; determining, from time measures identified in respect of a plurality of audio contributions, respective disparity measures, each disparity measure being determined in respect of a preceding audio contribution from one participant and an immediately-succeeding audio contribution from another participant, the disparity measure in respect of a preceding audio contribution and an immediately-succeeding audio contribution being indicative of a disparity between the end-time identified in respect of the preceding audio contribution and the start-time identified in respect of the immediately-succeeding audio contribution; and adjusting one or more digital streaming parameters of the digital streaming profile in accordance with which data is being streamed between the session controller and at least one of the respective user devices in dependence on said disparity measures. identifying, from streamed data received by said session controller in respect of successive audio contributions from respective participants, time measures indicative of start-times and end-times in respect of said audio contributions; determining, from time measures identified in respect of a plurality of audio contributions, respective disparity measures, each disparity measure being determined in respect of a preceding audio contribution from one participant and an immediately-succeeding audio contribution from another participant, the disparity measure in respect of a preceding audio contribution and an immediately-succeeding audio contribution being indicative of a disparity between the end-time identified in respect of the preceding audio contribution and the start-time identified in respect of the immediately-succeeding audio contribution; and adjusting one or more digital streaming parameters of the digital streaming profile in accordance with which data is being streamed between the session controller and at least one of the respective user devices in dependence on said disparity measures.
Isolation circuit for the DC isolation of a load circuit-compensation circuit of a vehicle electric drive from a control loop that is provided to control the load circuit-compensation circuit, said isolation circuit having a compensation circuit side, which is configured for DC connection to the load circuit-compensation circuit, and having a control side, which is configured for DC connection to the control loop, wherein the isolation circuit comprises a series capacitive connection, which is connected to the control side by means of the compensation circuit side, wherein the isolation circuit further comprises a rectifier circuit, is connected to the series capacitive connection and is configured to rectify the modulated control loop signal and to emit said signal as a compensation circuit control signal to the load circuit-compensation circuit, characterized in that the isolation circuit comprises a modulator circuit, which is configured to modulate the control loop signal with a frequency of greater than 1 kilohertz and to emit the modulated control loop signal to the series capacitive connection, and in that the isolation circuit further comprises a smoothing circuit, which is connected to the rectifier circuit and is configured to smooth the modulated control loop signal and to emit said signal as a compensation circuit control signal to the load circuit-compensation circuit, wherein the smoothing circuit comprises at least one capacitance provided in a parallel circuit and/or at least one inductance provided in a series circuit.
An optical system for a tip section of a multi-sensor endoscope, the system comprising: a front-pointing camera sensor; a front objective lens system; a side-pointing camera sensor; and a side objective lens system, wherein at least one of said front and side objective lens systems (132, 232) comprises a front sub system (510a, 520a, 530a) and a rear sub-system (510b, 520b, 530b) separated by a stop diaphragm (S 1), wherein said front sub-system (510a, 520a, 530a) comprises, in order from the object side, a first front negative lens (430, 430', 430") and a second front positive lens (431, 431', 431"), said rear sub-system (510b, 520b, 530b) comprises, in order from the object side, a first rear positive lens (432, 432', 432"), an achromatic sub-assembly comprising a second rear positive lens (433, 433', 433") and a third rear negative lens (434, 434', 434"), wherein the following condition is satisfied: f (first rear positive lens) ≤ 1.8f, where f is the composite focal length of the total lens system (132, 232) and f (first rear positive lens) is the focal length of said first rear positive lens (432, 432', 432"). a front-pointing camera sensor; a front objective lens system; a side-pointing camera sensor; and a side objective lens system, wherein at least one of said front and side objective lens systems (132, 232) comprises a front sub system (510a, 520a, 530a) and a rear sub-system (510b, 520b, 530b) separated by a stop diaphragm (S 1), wherein said front sub-system (510a, 520a, 530a) comprises, in order from the object side, a first front negative lens (430, 430', 430") and a second front positive lens (431, 431', 431"), said rear sub-system (510b, 520b, 530b) comprises, in order from the object side, a first rear positive lens (432, 432', 432"), an achromatic sub-assembly comprising a second rear positive lens (433, 433', 433") and a third rear negative lens (434, 434', 434"), wherein the following condition is satisfied: f (first rear positive lens) ≤ 1.8f, where f is the composite focal length of the total lens system (132, 232) and f (first rear positive lens) is the focal length of said first rear positive lens (432, 432', 432").
A vehicle comprising a door hinged at the bottom part of an opening of the vehicle for being able to pivot around a horizontal axis and to constitute, in its entirely open position, a ramp facilitating the access to the interior of the vehicle, the vehicle being equipped with a ballistic protection device for a door having a ballistic protection element facing the door and connected to the latter via means for automatically bringing closer and spacing apart the protection element and the door when opening and closing the door, respectively, characterised by the fact that said means for bringing closer and spacing apart comprise: - at least one upper connecting arm and at least one lower connecting arm hinged to the protection element and to the door at their top part and their bottom part, respectively, the upper and lower connecting arms having the same length and being arranged such that the average plane of the door and the average plane of the protection element can be brought closer to and spaced apart from each other, while remaining parallel to each other, and - at least one actuating arm hinged on one hand to the at least one lower connecting arm and, on the other hand, to a fixed part of the vehicle, around said opening, so as to control, when pivoting the door, by action on the at least one lower connecting arm, the displacement of the protection element with respect to the door, each aforesaid hinge allowing a relative rotation around a horizontal axis which is parallel to the pivot axis of the door, and the lengths of the actuating and connecting arms (13, 14) being fixed. - at least one upper connecting arm and at least one lower connecting arm hinged to the protection element and to the door at their top part and their bottom part, respectively, the upper and lower connecting arms having the same length and being arranged such that the average plane of the door and the average plane of the protection element can be brought closer to and spaced apart from each other, while remaining parallel to each other, and - at least one actuating arm hinged on one hand to the at least one lower connecting arm and, on the other hand, to a fixed part of the vehicle, around said opening, so as to control, when pivoting the door, by action on the at least one lower connecting arm, the displacement of the protection element with respect to the door,
A wind turbine comprising an electric generator and a wind rotor, the electric generator including a generator rotor and a generator stator concentrically arranged around a generator axis and at a distance from each other, wherein the electric generator further comprises a distance sensor arrangement including at least one distance sensor (25a, 25b, 25c) adapted to sense the distance between the generator rotor and the generator stator and to provide a sensor signal comprising an information about the sensed distance, characterised in that the distance sensor arrangement comprises a distance sensor (25a, 25b) laterally disposed from the generator axis and aligned to sense the distance in a substantially or exactly horizontal direction, wherein the distance sensor arrangement comprises a first and a second distance sensor (25b, 25c) each of which having a respective sensor axis and wherein a parallel projection of the sensor axis of the first distance sensor and of the sensor axis of the second distance sensor onto a plane having a surface normal parallel to the generator axis cross each other, wherein the parallel projection of the sensor axis of the first distance sensor and of the sensor axis of the second distance sensor cross at an angle of about or exactly 90 degrees, wherein the wind rotor is pivotable about a vertical axis, wherein the wind turbine is adapted to pivot the wind rotor in accordance with the sensor signal from the distance sensor arrangement of the electric generator.
A method for planning a mission and launching two or more missiles, to be included in the same mission, from one or more aircraft in such a way that the missiles arrive at the same target approximately at the same time without interfering with each other on the way to the target, characterized in that planning of the mission is performed by: - sending a set of identical mission data to said missiles prior to launch; - letting each missile be assigned a unique identity; - letting each missile calculate identical main trajectories and trajectories with a unique offset to the main trajectory in one or more of three dimensions in space and one in time, where a resulting offset trajectory (41, 42) is unique for each missile and is based on said identical mission data and the unique identity; - launching the missiles to be included in the same mission, and where each missile follows the resulting offset trajectory (41, 42) unique for this missile. - sending a set of identical mission data to said missiles prior to launch; - letting each missile be assigned a unique identity; - letting each missile calculate identical main trajectories and trajectories with a unique offset to the main trajectory in one or more of three dimensions in space and one in time, where a resulting offset trajectory (41, 42) is unique for each missile and is based on said identical mission data and the unique identity; - launching the missiles to be included in the same mission, and where each missile follows the resulting offset trajectory (41, 42) unique for this missile.
A surgical device for arthroscopy comprising: - an insertion arm having a folded contact end configured to abut the surgical device against a patient's bone; - a handle connected to a connection end of the insertion arm, opposite to said folded contact end, and extending transversely to said insertion arm; - a retrieval element connected to said insertion arm and mobile along said insertion arm between a retracted position and an extracted position in which it intercepts a leading end of a suture thread at said folded contact end, and mobile between said extracted position and said retracted position in which it holds said leading end; characterized in that said retrieval element is a basket made of flexible material defining a containment volume suitable for receiving said leading end of the suture thread, said containment volume being configured to expand in the transition between the retracted position and the extracted position and to shrink in the transition between the extracted position and the retracted position. - an insertion arm having a folded contact end configured to abut the surgical device against a patient's bone; - a handle connected to a connection end of the insertion arm, opposite to said folded contact end, and extending transversely to said insertion arm; - a retrieval element connected to said insertion arm and mobile along said insertion arm between a retracted position and an extracted position in which it intercepts a leading end of a suture thread at said folded contact end, and mobile between said extracted position and said retracted position in which it holds said leading end;