mhurhangee/ep-ind-claims huggingface dataset:
A method for reducing power consumption of a client node operating in a heterogeneous network, comprising: monitoring by using a processing logic a plurality of subframes on a downlink channel and processing a control signal comprising a scheduling option corresponding to transmissions on said downlink channel; wherein said processing logic further ceases monitoring predetermined subframes of said plurality of subframes based on said scheduling option, the scheduling option indicating whether the predetermined subframes to cease monitoring are Almost Blank Subframes 'ABS' or non-ABS, and wherein said monitoring operations comprise monitoring of a Physical Downlink Control Channel 'PDCCH'. monitoring by using a processing logic a plurality of subframes on a downlink channel and processing a control signal comprising a scheduling option corresponding to transmissions on said downlink channel; wherein said processing logic further ceases monitoring predetermined subframes of said plurality of subframes based on said scheduling option, the scheduling option indicating whether the predetermined subframes to cease monitoring are Almost Blank Subframes 'ABS' or non-ABS, and wherein said monitoring operations comprise monitoring of a Physical Downlink Control Channel 'PDCCH'.
A chair comprising a support frame configured as a skid-base frame and including a pipe structure which, with respect to a vertical chair longitudinal central plane, has a pipe element (14A, 14B) each on both sides which forms a lateral boundary of a seatsection and a back rest section, where the pipe elements (14A, 14B) respectivelyextend continuously with an axially extending slot running along the seat section and the back rest section, into which a foldable surface material with a welt arranged on the edges has been inserted, wherein the seat section and the back rest section are formed from the surface material, characterised in that the pipe elements (14A, 14B) have an end piece pushed into them at their upper ends, at which the surface material is folded over downwards towards the back.
A nacelle for a bypass aircraft engine, the nacelle comprising an air inlet configured to be disposed upstream of the engine, a middle section intended to surround a fan of the engine, the middle section being delimited externally by a fan cowl configured to be supported by a fan casing to which it is configured to be fastened in the upstream portion, a downstream section delimiting an annular flow path adapted to circulate the air flow and accommodating thrust reversal means, the thrust reversal means comprising cascades and a movable cowl associated to at least one actuator to displace the movable cowl between a direct jet position, in which it ensures the aerodynamic continuity of the nacelle and an indirect jet position in which it opens a passage in the nacelle by uncovering the cascades disposed around this flow path which receive the cold air flow to return it outwards and forwards, the cascades being fastened to the movable cowl and sliding with it, wherein the nacelle includes a series of guiding devices (16, 17, 18) distributed about a longitudinal axis (Δ) of the nacelle, and each including a first guiding element (20, 23, 27) secured to the middle section and a second guiding element (19, 22, 24) secured to the downstream section, characterized in that at least one of the guiding devices (16, 17) at least partially surrounds at least one actuator.
A wire coupling comprising: a first wire (100, 600, 700, 800) composed of a first material; a second wire (102 602) composed of a second material; a sleeve positioned over a connectable region of the first wire (100, 600, 700, 800); and a laser weld (106, 108) affixing the sleeve to both the first wire (100, 600, 700, 800) and the second wire (102, 602) characterised in that said sleeve is affixed alongside said second wire. a first wire (100, 600, 700, 800) composed of a first material; a second wire (102 602) composed of a second material; a sleeve positioned over a connectable region of the first wire (100, 600, 700, 800); and a laser weld (106, 108) affixing the sleeve to both the first wire (100, 600, 700, 800) and the second wire (102, 602) characterised in that said sleeve is affixed alongside said second wire.
Use of a combination of a first defensin and a second defensin in recruiting LGR6+ stem cells into an intracellular space for reducing one or more of wrinkle depth, wrinkle length, wrinkle width, pore size, irregularity in texture of a skin surface, oiliness, brown spots, and red spots in non-injured skin, wherein the combination of the first and second defensins is a combination of alpha-defensin 5 and beta-defensin 3.
Method for wheel alignment measurement with two measurement value capturing devices (4a, 4b), the method comprising: passing by, with a vehicle to be measured, between the two measurement value capturing devices (4a, 4b), each of the measurement value capturing devices (4a, 4b) recording at least two images of a wheel (8a, 8b) mounted at the front axle of the vehicle and at least two images of a wheel (12a, 12b) mounted at the rear axle of the vehicle, respectively; evaluating the images recorded by the measurement value capturing devices (4a, 4b) to determine whether the vehicle has travelled along a straight line; and if the evaluation of the images recorded by the measurement value capturing devices (4a, 4b) reveals that the vehicle has travelled along a straight line, evaluating the images recorded by the measurement value capturing devices (4a, 4b), and determining the geometric travel axis of the vehicle from these images. passing by, with a vehicle to be measured, between the two measurement value capturing devices (4a, 4b), each of the measurement value capturing devices (4a, 4b) recording at least two images of a wheel (8a, 8b) mounted at the front axle of the vehicle and at least two images of a wheel (12a, 12b) mounted at the rear axle of the vehicle, respectively; evaluating the images recorded by the measurement value capturing devices (4a, 4b) to determine whether the vehicle has travelled along a straight line; and if the evaluation of the images recorded by the measurement value capturing devices (4a, 4b) reveals that the vehicle has travelled along a straight line, evaluating the images recorded by the measurement value capturing devices (4a, 4b), and determining the geometric travel axis of the vehicle from these images. evaluating the images recorded by the measurement value capturing devices (4a, 4b), and determining the geometric travel axis of the vehicle from these images.
Heat pump unit, comprising a housing, having first and second openings (12, 13), heat pump modules with Peltier elements (27, 28, 34), a fan for the forced pulling of air through the first openings, conveying the air to the heat pump modules and blowing the air through the second openings, and an inlet and an outlet for integrating the heat pump modules into a circuit, in which a heat exchanging fluid circulates, wherein by supplying electrical energy to the heat pump modules the heat pump modules in a heating mode withdraw heat energy from the fluid and deliver the withdrawn heat energy to the air passing by, and in a cooling mode withdraw heat energy from the air passing by and deliver the withdrawn heat energy to the fluid, characterized in that the housing comprises a front plate acting as radiation plate, and that at least one Peltier element of at least one of the heat pump modules is connected with the front plate in such a manner, that in the heating mode at least a part of the heat produced by the Peltier element is emitted as thermal radiation directly into a room to be controlled in temperature.
A hearing aid comprising an input transducer for generating an audio signal, a feedback suppression circuit configured for modelling a feedback path of the hearing aid, a subtractor for subtracting an output signal of the feedback suppression circuit from the audio signal to form a feedback compensated audio signal, a signal processor that is connected to an output of the subtractor for processing the feedback compensated audio signal to perform hearing loss compensation, a receiver that is connected to an output of the signal processor for converting the processed feedback compensated audio signal into a sound signal, and a gain processor for performing gain adjustment of the feedback compensated audio signal based at least on an estimate of a residual feedback signal R of the feedback compensated audio signal, wherein the estimate of the residual feedback signal R is based at least on the audio signal, characterized in that the gain processor applies a gain α to the feedback compensated audio signal so that the resulting loudness of the output signal of the hearing aid substantially equals the loudness that would have been obtained with no residual feedback signal.
A method for manufacturing of iron, having: a melting stage, comprising the steps of: introducing an iron oxide-containing raw material and slag formers to a melting reactor; melting said iron oxide-containing raw material in said melting reactor; and transforming said melted iron oxide-containing raw material into a liquid slag; and a smelting reduction stage, comprising the steps of: transferring said liquid slag into a smelting reduction reactor; heating said liquid slag in said smelting reduction reactor; supplying a reducing agent to said smelting reduction reactor; reducing said liquid slag in said smelting reduction reactor into a liquid iron melt; and producing a combustible gas mixture in said smelting reduction reactor comprising at least one of CO and H 2; said step of melting in turn comprising combustion of at least a part of at least one of CO and H 2 in said combustible gas mixture in or in connection with said melting reactor, for utilizing generated combustion heat for said melting. a melting stage, comprising the steps of: introducing an iron oxide-containing raw material and slag formers to a melting reactor; melting said iron oxide-containing raw material in said melting reactor; and transforming said melted iron oxide-containing raw material into a liquid slag; and introducing an iron oxide-containing raw material and slag formers to a melting reactor; melting said iron oxide-containing raw material in said melting reactor; and transforming said melted iron oxide-containing raw material into a liquid slag; and a smelting reduction stage, comprising the steps of: transferring said liquid slag into a smelting reduction reactor; heating said liquid slag in said smelting reduction reactor; supplying a reducing agent to said smelting reduction reactor; reducing said liquid slag in said smelting reduction reactor into a liquid iron melt; and producing a combustible gas mixture in said smelting reduction reactor comprising at least one of CO and H 2; transferring said liquid slag into a smelting reduction reactor; heating said liquid slag in said smelting reduction reactor; supplying a reducing agent to said smelting reduction reactor; reducing said liquid slag in said smelting reduction reactor into a liquid iron melt; and producing a combustible gas mixture in said smelting reduction reactor comprising at least one of CO and H 2; said step of melting in turn comprising combustion of at least a part of at least one of CO and H 2 in said combustible gas mixture in or in connection with said melting reactor, for utilizing generated combustion heat for said melting.
Structural element for thermal insulation between two concrete structural components (2, 3), the structural element having an insulator body and having reinforcing elements (5, 6, 7) which are connectible to both concrete structural components for transmission of force and/or moments between the two structural components, wherein one of the reinforcing elements is in the form of a compression element for transmission of compressive force and for that purpose is connected to the two concrete structural components and consists of high-strength concrete, characterised in that the concrete is in the form of a thermally insulating/load-bearing material as a result of its containing titanium minerals as additive, and the concrete comprises quartz sand in a proportion by mass of the order of less than 10 %.
A peristaltic pump, comprising a tube for transporting a material, wherein the tube is arranged along a longitudinal axis; a pump head configured to cause a squeezing of the tube, wherein the pump head is rotatable about a rotation axis, wherein the pump head comprises at least one squeeze member for squeezing the tube; and a support member; characterised in that the support member comprises a slot for supporting the at least one squeeze member, the slot extending in a radial direction relative to the rotation axis, such that a movement of the at least one squeeze member in a radial direction is enabled.
An ultrasonic probe adapter (1, 1') for ultrasonic testing of externally toothed test specimens (100, 100', 101), comprising - a probe side (10, 10') which preferably faces away from a test specimen (100, 100', 101) during ultrasonic testing, - a test specimen side (20, 20') which faces a test specimen (100, 100', 101) during ultrasonic testing, - wherein the probe side (10, 10') and the test specimen side (20, 20') each have a longitudinal extension, - a thickness extending from the probe side (10, 10') to the test specimen side (20, 20'), - a width extending orthogonally to the thickness and orthogonally to the longitudinal extension of the probe side (10, 10') and/or to the longitudinal extension of the test specimen side (20, 20'), wherein a test toothing is arranged on the test specimen side (20, 20'), characterized in that said ultrasonic probe adapter (1, 1') is configured as a ring or ring segment, so that the probe side (10, 10') forms the outer circumferential surface and the test specimen side (20, 20') forms the inner circumferential surface. - a probe side (10, 10') which preferably faces away from a test specimen (100, 100', 101) during ultrasonic testing, - a test specimen side (20, 20') which faces a test specimen (100, 100', 101) during ultrasonic testing, - wherein the probe side (10, 10') and the test specimen side (20, 20') each have a longitudinal extension, - a thickness extending from the probe side (10, 10') to the test specimen side (20, 20'), - a width extending orthogonally to the thickness and orthogonally to the longitudinal extension of the probe side (10, 10') and/or to the longitudinal extension of the test specimen side (20, 20'),
An integrated build and powder material supply system for an additive manufacturing apparatus, said system comprising: a building compartment adapted to accommodate an object to be formed by means of additive manufacturing; a storage compartment located below said building compartment, the storage compartment adapted to store a powder material for forming said object; a movable separation element that separates said storage compartment from said build compartment, the separation element comprising a build platform for supporting said object; a drive unit adapted to move said separation element; wherein a volume of said building compartment and a volume of said storage compartment are variable in size; and further comprising: a transport unit adapted to transport said powder material from said storage compartment towards said building compartment, such transport unit comprising a screw drive (30a, 30b) and/or a conveyor belt, and/or a pneumatic conveying system; wherein said system is adapted to re-allocate at least a portion of a volume previously allocated to said storage compartment to said building compartment, or vice versa. a building compartment adapted to accommodate an object to be formed by means of additive manufacturing; a storage compartment located below said building compartment, the storage compartment adapted to store a powder material for forming said object; a movable separation element that separates said storage compartment from said build compartment, the separation element comprising a build platform for supporting said object; a drive unit adapted to move said separation element; wherein a volume of said building compartment and a volume of said storage compartment are variable in size; and further comprising: a transport unit adapted to transport said powder material from said storage compartment towards said building compartment, such transport unit comprising a screw drive (30a, 30b) and/or a conveyor belt, and/or a pneumatic conveying system; wherein said system is adapted to re-allocate at least a portion of a volume previously allocated to said storage compartment to said building compartment, or vice versa. a transport unit adapted to transport said powder material from said storage compartment towards said building compartment, such transport unit comprising a screw drive (30a, 30b) and/or a conveyor belt, and/or a pneumatic conveying system; wherein said system is adapted to re-allocate at least a portion of a volume previously allocated to said storage compartment to said building compartment, or vice versa.
A control method of a non-contact power transmission apparatus in a non-contact power charging system, which includes the non-contact power transmission apparatus generating a power signal at a primary charge core thereof and a non-contact power receiving apparatus receiving the power signal from the non-contact power transmission apparatus so as to be charged with power, the method comprising: transmitting, at the primary core of the non-contact power transmission apparatus, a call signal that calls a unique identifier value from the non-contact power receiving apparatus, and standing by for a response signal; discerning whether or not a normal unique identifier signal is received from the non-contact power receiving apparatus by discerning a signal detected according to load modulation by the primary charge core; if it is discerned that a normal unique identifier signal is received from the non-contact power receiving apparatus, generating, at the primary charge core through a gate driver module of the non-contact power transmission apparatus, the power signal; receiving charge status information from the non-contact power receiving apparatus and adjusting the power signal based on the charge status information received from the non-contact power receiving apparatus; and if fully-charged state information is received from the non-contact power receiving apparatus, terminating a charging operation. transmitting, at the primary core of the non-contact power transmission apparatus, a call signal that calls a unique identifier value from the non-contact power receiving apparatus, and standing by for a response signal; discerning whether or not a normal unique identifier signal is received from the non-contact power receiving apparatus by discerning a signal detected according to load modulation by the primary charge core; if it is discerned that a normal unique identifier signal is received from the non-contact power receiving apparatus, generating, at the primary charge core through a gate driver module of the non-contact power transmission apparatus, the power signal; receiving charge status information from the non-contact power receiving apparatus and adjusting the power signal based on the charge status information received from the non-contact power receiving apparatus; and if fully-charged state information is received from the non-contact power receiving apparatus, terminating a charging operation.
A composition comprising at least 8 reference peptides (R-peptides) selected from the group consisting of SEQ ID NO.: 1 - 27 and variants thereof, wherein at least one R-peptide is selected from each group comprising - group 2 consisting of SEQ ID NO.: 3 - 5 and variants thereof, - group 3 consisting of SEQ ID NO.: 6 - 8 and variants thereof, - group 4 consisting of SEQ ID NO.: 9 - 11 and variants thereof, - group 5 consisting of SEQ ID NO.: 12 - 18 and variants thereof, and - group 6 consisting of SEQ ID NO.: 19 - 23 and variants thereof, wherein each variant differs from the original peptide in 15 % or less of the amino acids, wherein each variant does not comprise methionine, tryptophan, cysteine, an aspartic acid-proline motif, an asparagine-proline motif or an asparagine-glycine motif, and wherein each amino acid that differs from the original peptide is obtained by a conservative amino acid exchange. - group 2 consisting of SEQ ID NO.: 3 - 5 and variants thereof, - group 3 consisting of SEQ ID NO.: 6 - 8 and variants thereof, - group 4 consisting of SEQ ID NO.: 9 - 11 and variants thereof, - group 5 consisting of SEQ ID NO.: 12 - 18 and variants thereof, and - group 6 consisting of SEQ ID NO.: 19 - 23 and variants thereof, wherein each variant differs from the original peptide in 15 % or less of the amino acids, wherein each variant does not comprise methionine, tryptophan, cysteine, an aspartic acid-proline motif, an asparagine-proline motif or an asparagine-glycine motif, and wherein each amino acid that differs from the original peptide is obtained by a conservative amino acid exchange.
Production process of a composite product, the composite product comprising a core, at least a first layer at a first face of the core, the first layer comprising a sheet impregnated with a solid polyurethane material, and a polymer-based film applied to said first layer at the opposite side with respect to said first face of the core, wherein the process comprises: - producing a semi-finished product comprising said core and, at the first face of the core, said sheet impregnated by a liquid mixture precursor of said solid polyurethane material; - providing a mould comprising two half-moulds (11, 12) each having a respective shaping surface; - adhering said film to said shaping surface of a first of said two half-moulds by applying a depression between said film and said shaping surface; - forming the semi-finished product by pressing said two half-moulds (11, 12) against each other with said semi-finished product interposed between the two shaping surfaces, so that said film comes into contact with the liquid mixture which impregnates said sheet at the first layer; - with the semi-finished product in the mould, thermosetting said liquid mixture to transform it into said polyurethane solid material so that said film firmly adheres to said first layer and thus producing the composite product. - producing a semi-finished product comprising said core and, at the first face of the core, said sheet impregnated by a liquid mixture precursor of said solid polyurethane material; - providing a mould comprising two half-moulds (11, 12) each having a respective shaping surface; - adhering said film to said shaping surface of a first of said two half-moulds by applying a depression between said film and said shaping surface; - forming the semi-finished product by pressing said two half-moulds (11, 12) against each other with said semi-finished product interposed between the two shaping surfaces, so that said film comes into contact with the liquid mixture which impregnates said sheet at the first layer; - with the semi-finished product in the mould, thermosetting said liquid mixture to transform it into said polyurethane solid material so that said film firmly adheres to said first layer and thus producing the composite product.