mhurhangee/ep-ind-claims huggingface dataset:
Filter converter for converting an impulse response signal indicative of an amplitude/frequency filter characteristic in a time domain into filter definition signal, the converter comprising: a complex modulated filter bank for filtering the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain to obtain a plurality of complex valued subband signals forming the filter definition signal, wherein each complex valued subband signal of the plurality of complex valued subband signals obtained by the complex modulated filter bank corresponds to an impulse response for a subband filter for a subband signal to be filtered by the subband filter, wherein at least one complex subband signal of the plurality of complex valued subband signals comprises at least two different non-vanishing values, wherein each complex valued subband signal of the plurality of complex valued subband signals is shorter than the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain, wherein the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain is a time domain FIR (Finite Impulse Response) filter, and wherein the filter converter is configured to perform an extension with zeroes of the time domain FIR filter,wherein the complex modulated filter bank is adapted for outputting at least one complex valued subband signal of the plurality of complex valued subband signals as a linear combination of at least two values of the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain. a complex modulated filter bank for filtering the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain to obtain a plurality of complex valued subband signals forming the filter definition signal, wherein each complex valued subband signal of the plurality of complex valued subband signals obtained by the complex modulated filter bank corresponds to an impulse response for a subband filter for a subband signal to be filtered by the subband filter, wherein at least one complex subband signal of the plurality of complex valued subband signals comprises at least two different non-vanishing values, wherein each complex valued subband signal of the plurality of complex valued subband signals is shorter than the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain, wherein the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain is a time domain FIR (Finite Impulse Response) filter, and wherein the filter converter is configured to perform an extension with zeroes of the time domain FIR filter,wherein the complex modulated filter bank is adapted for outputting at least one complex valued subband signal of the plurality of complex valued subband signals as a linear combination of at least two values of the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain.
A portable media player case (100, 101) for housing a portable media player, comprising: a case body for housing the portable media player; and an extendable socket attached to the case body, the socket including: an accordion forming a conical shape and capable of extending outward from the case body and retracting back toward the case body; and a button attached to the distal end of the accordion, said button being formed of a rigid material and extending radially past the distal end of the accordion. a case body for housing the portable media player; and an extendable socket attached to the case body, the socket including: an accordion forming a conical shape and capable of extending outward from the case body and retracting back toward the case body; and a button attached to the distal end of the accordion, said button being formed of a rigid material and extending radially past the distal end of the accordion. an accordion forming a conical shape and capable of extending outward from the case body and retracting back toward the case body; and a button attached to the distal end of the accordion, said button being formed of a rigid material and extending radially past the distal end of the accordion.
An apparatus comprising: transfer circuitry configured to generate electrically a first transfer gradient for transferring an optically active fluid from a first reservoir to a second reservoir; a valve configured to control transfer of the optically active fluid from the first reservoir to the second reservoir, wherein the valve is closed when it has a first shape and the valve is open when it has a second shape different to the first shape; and valve control circuitry configured to provide a voltage to change the valve from the first shape to the second shape and open the valve facilitating transfer of the optically active fluid from the first reservoir to the second reservoir along the electrically generated first transfer gradient. transfer circuitry configured to generate electrically a first transfer gradient for transferring an optically active fluid from a first reservoir to a second reservoir; a valve configured to control transfer of the optically active fluid from the first reservoir to the second reservoir, wherein the valve is closed when it has a first shape and the valve is open when it has a second shape different to the first shape; and valve control circuitry configured to provide a voltage to change the valve from the first shape to the second shape and open the valve facilitating transfer of the optically active fluid from the first reservoir to the second reservoir along the electrically generated first transfer gradient.
A method comprising: providing a part (20; 20a) having a contoured surface; providing a fixture which generally conforms in shape to the contoured surface of the part (20; 20a); mounting said part (20; 20a) on said fixture to engage said part with said fixture; applying a controlled preload to one or more discrete locations along the contoured surface to constrain the contoured surface to the fixture in a shape the part assumes in a final assembly, the discrete locations corresponding to points of attachment on the part (20; 20a) when assembled with another component (100; 102) to form the final assembly; and inspecting said contoured surface to dimensional requirements, while said contoured surface is constrained as would be in the final assembly. providing a part (20; 20a) having a contoured surface; providing a fixture which generally conforms in shape to the contoured surface of the part (20; 20a); mounting said part (20; 20a) on said fixture to engage said part with said fixture; applying a controlled preload to one or more discrete locations along the contoured surface to constrain the contoured surface to the fixture in a shape the part assumes in a final assembly, the discrete locations corresponding to points of attachment on the part (20; 20a) when assembled with another component (100; 102) to form the final assembly; and inspecting said contoured surface to dimensional requirements, while said contoured surface is constrained as would be in the final assembly.
A pipe conduit panel for guiding at least one connecting pipe of an underfloor heating system, comprising a laying plate into which at least one first pipe guide channel that is open towards the upper side of the laying plate is brought in for receiving a connecting pipe, wherein the first pipe guide channel comprises at least one routing section having a section start and a section end, characterized in that the first pipe guide channel is formed such from the section start to the section end that a connecting pipe laid in the first pipe guide channel is transferred from a first laying plane at the section start into a second laying plane at the section end relative to the upper side.
Self-standing bag comprising a base arranged on the lower end of each of a front wall and a rear wall, which base is formed by means of a base fold which is connected by seams (1, 2, 7, 8, 9, 10) to the front wall on the front side and to the rear wall on the rear side, a folded edge of the base fold, in a filled state of the self-standing bag, extending from a first corner of the base to a diagonally, in particular diametrically, opposite second corner of the base, characterised in that the self-standing bag comprises two side folds (15, 16).
A materials handling vehicle comprising: a frame; a set of wheels (16, 18) supported on said frame to allow said materials handling vehicle to move across a floor surface; and an operator support assembly comprising a suspended floorboard upon which an operator may stand and an energy absorbing structure coupled to said frame and said suspended floorboard for absorbing and dissipating at least a portion of energy resulting from disturbances encountered by the vehicle as it moves across the floor surface prior to said energy portion reaching the operator standing on said suspended floorboard, said energy absorbing structure including a damping element (144, 244, 344, 444, 544, 650, 740, 944) for effecting a damping function; characterised in that said damping element comprises a valve (650, 740); and said energy absorbing structure further comprises: a hydraulic piston/cylinder unit coupled to said frame; and a ride accumulator (660, 742) capable of receiving and storing energy, said valve being a separate element from said hydraulic piston/cylinder unit. a frame; a set of wheels (16, 18) supported on said frame to allow said materials handling vehicle to move across a floor surface; and an operator support assembly comprising a suspended floorboard upon which an operator may stand and an energy absorbing structure coupled to said frame and said suspended floorboard for absorbing and dissipating at least a portion of energy resulting from disturbances encountered by the vehicle as it moves across the floor surface prior to said energy portion reaching the operator standing on said suspended floorboard, said energy absorbing structure including a damping element (144, 244, 344, 444, 544, 650, 740, 944) for effecting a damping function; characterised in that said damping element comprises a valve (650, 740); and said energy absorbing structure further comprises: a hydraulic piston/cylinder unit coupled to said frame; and a ride accumulator (660, 742) capable of receiving and storing energy, said valve being a separate element from said hydraulic piston/cylinder unit. a hydraulic piston/cylinder unit coupled to said frame; and a ride accumulator (660, 742) capable of receiving and storing energy, said valve being a separate element from said hydraulic piston/cylinder unit.
A genetically modified pig comprising: a) an exogenous polynucleotide sequence encoding a human leukocyte antigen G (HLA-G); and b) an endonuclease-mediated genomic disruption in a gene encoding an endogenous glycoprotein galactosyltransferase alpha 1,3 (GGTA1), wherein the endonuclease-mediated genomic disruption results in a reduced protein expression of the endogenous GGTA1, wherein the reduced protein expression of the endogenous GGTA1 is in comparison to GGTA1 protein expression in a non-genetically modified counterpart pig, wherein the endonuclease-mediated genomic disruption is within 20 base pairs of a protospacer-adjacent motif, wherein said exogenous polynucleotide sequence encoding the HLA-G is: (i) controlled by a Rosa26 promoter and is inserted within_50 base pairs of the endogenous Rosa26 promoter; (ii) controlled by a GGTA1 promoter and is inserted within 50 base pairs of an endogenous GGTA1 promoter; or; (iii) controlled by a GGTA1 promoter and is inserted within the endogenous GGTA1 gene sequence. a) an exogenous polynucleotide sequence encoding a human leukocyte antigen G (HLA-G); and b) an endonuclease-mediated genomic disruption in a gene encoding an endogenous glycoprotein galactosyltransferase alpha 1,3 (GGTA1), wherein the endonuclease-mediated genomic disruption results in a reduced protein expression of the endogenous GGTA1, wherein the reduced protein expression of the endogenous GGTA1 is in comparison to GGTA1 protein expression in a non-genetically modified counterpart pig, wherein the endonuclease-mediated genomic disruption is within 20 base pairs of a protospacer-adjacent motif, wherein said exogenous polynucleotide sequence encoding the HLA-G is: (i) controlled by a Rosa26 promoter and is inserted within_50 base pairs of the endogenous Rosa26 promoter; (ii) controlled by a GGTA1 promoter and is inserted within 50 base pairs of an endogenous GGTA1 promoter; or; (iii) controlled by a GGTA1 promoter and is inserted within the endogenous GGTA1 gene sequence. (i) controlled by a Rosa26 promoter and is inserted within_50 base pairs of the endogenous Rosa26 promoter; (ii) controlled by a GGTA1 promoter and is inserted within 50 base pairs of an endogenous GGTA1 promoter; or; (iii) controlled by a GGTA1 promoter and is inserted within the endogenous GGTA1 gene sequence.
Aircraft propelled by a turbine engine having contra-rotating fans (7, 8), the turbine engine being integrated at the rear of a fuselage of the aircraft, in the continuation of the fuselage, and comprising at least two gas generators (2a, 2b) which feed a power turbine through a common central flow duct, said turbine comprising two contra-rotating rotors (5, 6) for driving two fans (7, 8) arranged downstream of the gas generators (2a, 2b), characterized in that the aircraft comprises separating means arranged so as to separate the gas flow in the power turbine into at least two concentric flow ducts (16, 17) and a device comprising first distribution means for distributing the gas flow between these at least two flow ducts (16, 17) from the central flow duct, said first distribution means being designed to be able to open or close the feed of at least one flow duct, referred to as the concealable flow duct, from among the at least two concentric flow ducts (16, 17) of the power turbine.
An antenna device comprising: two conductor surfaces (11, 12) arranged to face each other spaced apart; a plurality of connecting conductors (21, 22, 25) that connect the two conductor surfaces (11, 12) at at least two positions; and an antenna coil arranged in proximity to at least one of the plurality of connecting conductors (21, 22, 25) and directly adjacent to an edge of one of the conductor surfaces (11, 12), wherein two of the plurality of connecting conductors (21, 22) and the two conductor surfaces (11, 12) form a closed loop containing a surface of a space, and in a plan view of a surface of the space defined by the closed loop, the antenna coil is arranged at a position where the antenna coil does not overlap the surface of the space and at a position where electromagnetic induction by the antenna coil is configured to cause an induced current to flow through one of the connecting conductors (21, 22) which form the closed loop, wherein the antenna device is configured to operate in an HF band and is configured to couple magnetic field coupling to a counterpart antenna. two conductor surfaces (11, 12) arranged to face each other spaced apart; a plurality of connecting conductors (21, 22, 25) that connect the two conductor surfaces (11, 12) at at least two positions; and an antenna coil arranged in proximity to at least one of the plurality of connecting conductors (21, 22, 25) and directly adjacent to an edge of one of the conductor surfaces (11, 12), wherein two of the plurality of connecting conductors (21, 22) and the two conductor surfaces (11, 12) form a closed loop containing a surface of a space, and in a plan view of a surface of the space defined by the closed loop, the antenna coil is arranged at a position where the antenna coil does not overlap the surface of the space and at a position where electromagnetic induction by the antenna coil is configured to cause an induced current to flow through one of the connecting conductors (21, 22) which form the closed loop, wherein the antenna device is configured to operate in an HF band and is configured to couple magnetic field coupling to a counterpart antenna.
A water vapor barrier film comprising: a phyllosilicate mineral; and a synthetic resin, wherein the phyllosilicate mineral comprises a non-swelling clay mineral and a swelling clay mineral, the phyllosilicate mineral is present in an amount of not less than 30% by weight and not more than 90% by weight of the total weight of the water vapor barrier film, and the water vapor barrier film has a water vapor permeability, measured at 40°C and 90%RH, of not more than 0.5 g/m 2 ·day, the non-swelling clay mineral has a swelling force of less than 5 mL/2 g and the swelling clay mineral has a swelling force of not less than 5 mL/2 g, the swelling force being measured according to the measurement method as set out in the description, the swelling clay mineral is present in an amount of not less than 2% by weight and not more than 80% by weight of the total weight of the phyllosilicate mineral, and the synthetic resin is a heat-resistant synthetic resin. a phyllosilicate mineral; and a synthetic resin, wherein the phyllosilicate mineral comprises a non-swelling clay mineral and a swelling clay mineral, the phyllosilicate mineral is present in an amount of not less than 30% by weight and not more than 90% by weight of the total weight of the water vapor barrier film, and the water vapor barrier film has a water vapor permeability, measured at 40°C and 90%RH, of not more than 0.5 g/m 2 ·day, the non-swelling clay mineral has a swelling force of less than 5 mL/2 g and the swelling clay mineral has a swelling force of not less than 5 mL/2 g, the swelling force being measured according to the measurement method as set out in the description, the swelling clay mineral is present in an amount of not less than 2% by weight and not more than 80% by weight of the total weight of the phyllosilicate mineral, and the synthetic resin is a heat-resistant synthetic resin.
An injector with a needle stick protector comprising: a frame (488, 882b) having a skin contact surface and defining an aperture (408, 808) in said skin contact surface; a needle (452, 652) having a sharp needle tip configured to advance through said aperture (408, 808); a needle protector (404, 604) removably mounted over said needle (452, 652); and a stick protector (416, 516, 616, 716, 816, 916) movably attached to said frame (488, 882b) and biased against said needle protector (404, 604), characterised in that the stick protector (416, 516, 616, 716, 816, 916) is movable into a shielding position upon removal of the needle protector (404, 604), blocking exposure of the needle tip and preventing the needle (452, 652) from deploying. a frame (488, 882b) having a skin contact surface and defining an aperture (408, 808) in said skin contact surface; a needle (452, 652) having a sharp needle tip configured to advance through said aperture (408, 808); a needle protector (404, 604) removably mounted over said needle (452, 652); and a stick protector (416, 516, 616, 716, 816, 916) movably attached to said frame (488, 882b) and biased against said needle protector (404, 604), characterised in that the stick protector (416, 516, 616, 716, 816, 916) is movable into a shielding position upon removal of the needle protector (404, 604), blocking exposure of the needle tip and preventing the needle (452, 652) from deploying.
A method for detecting and canceling DC offset in a receiver, comprising: downcoverting a received signal to a baseband level signal, the downcoverted signal having a first sampling rate; providing the downconverted received signal to a first filter system configured to operate at the first sampling rate and generating a first filtered signal; converting the first filtered signal to a digital signal by an ADC; sampling the digital signal at the first sampling rate by an estimator logic and a second filter developing a DC estimate signal (242, 249) representative of any direct current component present on the downconverted received signal by determining the difference between the stored sampled signals and dividing the difference by the elapsed time interval between the times T 0 and T 1; filtering the digital signal by the second filter to generate a second filtered signal having a second sampling rate, where the first sampling rate is significantly higher than the second sampling rate; and subtracting the DC estimate signal (242, 249) from the first filtered signal and/or the second filtered signal. downcoverting a received signal to a baseband level signal, the downcoverted signal having a first sampling rate; providing the downconverted received signal to a first filter system configured to operate at the first sampling rate and generating a first filtered signal; converting the first filtered signal to a digital signal by an ADC; sampling the digital signal at the first sampling rate by an estimator logic and a second filter developing a DC estimate signal (242, 249) representative of any direct current component present on the downconverted received signal by determining the difference between the stored sampled signals and dividing the difference by the elapsed time interval between the times T 0 and T 1; filtering the digital signal by the second filter to generate a second filtered signal having a second sampling rate, where the first sampling rate is significantly higher than the second sampling rate; and subtracting the DC estimate signal (242, 249) from the first filtered signal and/or the second filtered signal.
Knitted article, consisting of a ground knit that is knitted in the form of a circular knit and is composed of at least one ground knit thread, wherein at least one zone is provided with a reduced thread volume, characterized in that the zone is knitted by means of further threads (5, 5'), which are fixed in place in the same stitch row (6, 6') in the ground knit by way of their two ends (10, 10') and at least some of which are thinner than the ground knit thread, wherein the threads (5, 5'), instead of the interrupted ground knit thread, are knitted in multiple separate rows (6, 6') that form stitches (8, 8') and extend around less than 360° in a circumferential direction.
Preform or preform assembly for blow moulding a container, wherein the preform or preform assembly has a neck portion (4, 4A, 4B) defining a neck opening, wherein a lid element has been provided at the neck portion (4, 4A, 4B), an opening extending into the neck portion (4, 4A, 4B), providing access to an internal space of the preform or preform assembly, characterized in that the lid element is connected to the neck portion (4, 4A, 4B) permanently and the lid element is provided with the opening, which opening has a cross section which is smaller than the inner cross section of the neck opening.