mhurhangee/ep-ind-claims huggingface dataset:
Method for stabilizing a vehicle combination, comprising a towing vehicle and a trailer, wherein, when there is a non-wheel-brake-induced deceleration of the towing vehicle, the trailer is braked by applying a braking pressure (p B) to the wheels of the trailer and the braking pressure (pa) is applied to the wheels of the unbraked trailer when a deceleration threshold value (S BM, S MR, S M) is exceeded by a deceleration (BM M, M R) determined at the towing vehicle and brought about by a motor and/or by a retarder and/or when a bending angle threshold value (S KW) is exceeded by a determined bending angle between the towing vehicle and the trailer, characterized in that a time period (tp B) for which the braking pressure (p B) is applied to the wheels of the trailer is determined in dependence on a gradient (G F) of a roadway on which the vehicle combination is moving and/or the determined radius of bend (r).
Dishwasher having a control device for performing at least one rinse cycle for cleaning dishes and having a water supply device which is connected to an external water supply device for the admission of feed water, wherein the water supply device has an inlet valve which can be opened and closed by the control device and an automatic flow setting device for setting, largely independently of the pressure (p) of the external water supply device, a feed water flow occurring when the inlet valve is open in a nominal pressure range of the flow setting device, characterised in that the rinse cycle comprises at least one time-controlled feed sequence (Z 1, Z 2, Z 3, Z 4, Z 5, Z 6) for the admission of a predetermined amount of feed water, in which the inlet valve is opened by the control device for a period corresponding to a timing value (ZV 1, ZV 2, ZV 3, ZV 4, ZV 5, ZV 6), wherein it is possible to activate an optionally activatable additional feed sequence (ZZ 1, ZZ 2, ZZ 3), associated with the feed sequence (Z 1, Z 2, Z 3, Z 4, Z 5, Z 6), in which the inlet valve is opened by the control device for a period corresponding to an additional timing value (ZZV 1, ZZV 2, ZZV 3), when the pressure (p) of the external water supply device lies below a predefined minimum pressure (GD U), wherein the minimum pressure (GD U) is determined such that it corresponds to the lower limit of the nominal pressure range, and wherein the control device is designed to identify an undershoot of the minimum pressure (GDu) by evaluating at least one measurement (M a, M b) of a sensor performed during one of the feed sequences (Z 1, Z 2, Z 3, Z 4, Z 5, Z 6) and for automatically activating the additional feed sequence (ZZ 1, ZZ 2, ZZ 3) when an undershoot is identified.
A device for lubricating an internal combustion engine having a crankshaft, which is connected to at least one connecting rod, having: at least one first flow limiter, in particular a restrictor, for reducing a lubricating fluid flow of a lubricating fluid stream passed to the at least one first flow limiter; a plurality of crankshaft bearings for the rotatable support of the crankshaft, wherein the plurality of crankshaft bearings is provided in fluid communication downstream of the at least one first flow limiter; and at least one big end bearing for the rotatable support of the at least one connecting rod, wherein the at least one big end bearing is provided in fluid communication downstream of at least one crankshaft bearing of the plurality of crankshaft bearings, characterized by: at least one wheel train bearing for the rotatable support of a wheel of a wheel train of the internal combustion engine, wherein the at least one wheel train bearing is provided in fluid communication downstream of the at least one first flow limiter. at least one first flow limiter, in particular a restrictor, for reducing a lubricating fluid flow of a lubricating fluid stream passed to the at least one first flow limiter; a plurality of crankshaft bearings for the rotatable support of the crankshaft, wherein the plurality of crankshaft bearings is provided in fluid communication downstream of the at least one first flow limiter; and at least one big end bearing for the rotatable support of the at least one connecting rod, wherein the at least one big end bearing is provided in fluid communication downstream of at least one crankshaft bearing of the plurality of crankshaft bearings, characterized by: at least one wheel train bearing for the rotatable support of a wheel of a wheel train of the internal combustion engine, wherein the at least one wheel train bearing is provided in fluid communication downstream of the at least one first flow limiter.
Multimedia-compatible rotary union for transferring different fluid media having different viscosities from a stationary machine part to a rotating machine part, comprising: a stationary housing part for being installed in the stationary machine part and having a working space; a rotor for being connected to the rotating machine part and having a fluid channel for establishing fluid communication with the working space of the stationary housing part; a mechanical seal between the stationary housing part and the rotor, the mechanical seal comprising a rotor seal ring rotating with the rotor and a stator seal ring, the stator seal ring or the rotor seal ring being secured to an axially movable seal ring carrier, and the mechanical seal being adapted to open and close by axially moving the seal ring carrier; wherein the stationary housing part comprises at least first and second media inlet channels (22, 24) for introducing fluid media into the stationary housing part, wherein the first and second media inlet channels (22, 24) open into the working space and wherein fluid media can be introduced under pressure into the rotary union via the first or the second media inlet channel (22, 24); and wherein the mechanical seal exhibits a first balance ratio when the first media inlet channel is pressurised with medium and a second balance ratio (B') when the second media inlet channel is pressurised with medium. a stationary housing part for being installed in the stationary machine part and having a working space; a rotor for being connected to the rotating machine part and having a fluid channel for establishing fluid communication with the working space of the stationary housing part; a mechanical seal between the stationary housing part and the rotor, the mechanical seal comprising a rotor seal ring rotating with the rotor and a stator seal ring, the stator seal ring or the rotor seal ring being secured to an axially movable seal ring carrier, and the mechanical seal being adapted to open and close by axially moving the seal ring carrier; wherein the stationary housing part comprises at least first and second media inlet channels (22, 24) for introducing fluid media into the stationary housing part, wherein the first and second media inlet channels (22, 24) open into the working space and wherein fluid media can be introduced under pressure into the rotary union via the first or the second media inlet channel (22, 24); and wherein the mechanical seal exhibits a first balance ratio when the first media inlet channel is pressurised with medium and a second balance ratio (B') when the second media inlet channel is pressurised with medium.
A heat transfer system capable of being coupled to at least one temperature controlled zone, the elements of the system comprising: (i) at least one liquid refrigerant line; (ii) at least one expansion valve suitable for use with R22 or a composition comprising: from 7.0-9.0 % by weight difluoromethane; 39.0-50.0 % by weight pentafluoroethane; 39.0-50.0 % by weight 1,1,1,2-tetrafluoroethane; and 1.9 to 2.5 % by weight hydrocarbon, which consists essentially of 1.5 -1.8 % n-butane and 0.4 - 0.7 % wt isopentane or 0.4-0.7 % wt n-pentane; (iii) at least one evaporator; (iv) at least one compressor; (v) at least one condenser; (vi) at least one vapor refrigerant line; and wherein all of the elements have an inlet side and an outlet side and elements (i) through (vi) are in fluid communication together and contain a composition comprising from 7.0-9.0 % by weight difluoromethane; 39.0-50.0 % by weight pentafluoroethane; 39.0-50.0 % by weight 1,1,1,2-tetrafluoroethane; and 1.9 to 2.5 % by weight hydrocarbon, which consists essentially of 1.5 - 1.8 % n-butane and 0.4 - 0.7 % wt isopentane or 0.4-0.7 % wt n-pentane; and the system further comprising at least one sensing element having two ends, wherein one end is communicatively coupled to an outlet side of at least one evaporator and one end is communicatively coupled to at least one expansion valve and the at least one sensing element contains a fluid suitable for use when R22 is used in the condenser-to-evaporator circuit. (i) at least one liquid refrigerant line; (ii) at least one expansion valve suitable for use with R22 or a composition comprising: from 7.0-9.0 % by weight difluoromethane; 39.0-50.0 % by weight pentafluoroethane; 39.0-50.0 % by weight 1,1,1,2-tetrafluoroethane; and 1.9 to 2.5 % by weight hydrocarbon, which consists essentially of 1.5 -1.8 % n-butane and 0.4 - 0.7 % wt isopentane or 0.4-0.7 % wt n-pentane; (iii) at least one evaporator; (iv) at least one compressor; (v) at least one condenser; (vi) at least one vapor refrigerant line;
A resin composition for sliding member, consisting of: (a) a tetrafluoroethylene resin; and (b) fillers, said fillers consisting of: - 5 to 30% by weight of the composition of barium sulfate, - 1 to 15% by weight of the composition of magnesium silicate, and - 1 to 25% by weight of the composition of a phosphate that is a metal salt of metaphosphoric acid, and optionally one or more of - a solid lubricant selected from graphite, molybdenum disulfide, and a mixture thereof, - an inorganic filler that is at least one material selected from the group consisting of a potassium titanate powder, potassium titanate fibers, wollastonite, alumina, silicon carbide and iron oxide, and - a low-molecular weight tetrafluoroethylene resin. (a) a tetrafluoroethylene resin; and (b) fillers, said fillers consisting of: - 5 to 30% by weight of the composition of barium sulfate, - 1 to 15% by weight of the composition of magnesium silicate, and - 1 to 25% by weight of the composition of a phosphate that is a metal salt of metaphosphoric acid, and optionally one or more of - a solid lubricant selected from graphite, molybdenum disulfide, and a mixture thereof, - an inorganic filler that is at least one material selected from the group consisting of a potassium titanate powder, potassium titanate fibers, wollastonite, alumina, silicon carbide and iron oxide, and - a low-molecular weight tetrafluoroethylene resin. - 5 to 30% by weight of the composition of barium sulfate, - 1 to 15% by weight of the composition of magnesium silicate, and - 1 to 25% by weight of the composition of a phosphate that is a metal salt of metaphosphoric acid, - a solid lubricant selected from graphite, molybdenum disulfide, and a mixture thereof, - an inorganic filler that is at least one material selected from the group consisting of a potassium titanate powder, potassium titanate fibers, wollastonite, alumina, silicon carbide and iron oxide, and - a low-molecular weight tetrafluoroethylene resin.
A hearing device comprising: a light source (212, 300, 304, 308, 402) configured to emit light; a photodetector (214, 404) configured to detect the emitted light after interacting with tissue of a subject; an audio receiver (116, 202) configured to deliver a sound to the subject; a dome (120, 206) configured to conform to a shape of a subject's ear canal when the hearing device is in the ear canal; and a spout (118, 204), the audio receiver (116, 202) configured to deliver the sound to the subject through the spout (118, 204), wherein the dome (120, 206) absorbs and/or reflects at least part of the emitted light such that an intensity of the emitted light at a wavelength passing through the dome to the photodetector is significantly smaller than an intensity of the emitted light at the wavelength passing through the tissue to the photodetector, wherein an output of the light source (212, 300, 304, 308, 402) and an input of the photodetector (214, 404) are separated by the dome (120, 206), and the output of the light source (212, 300, 304, 308, 402) is located at the spout (118, 204) and the input of the photodetector (214, 404) is located at the audio receiver (116, 202), or the output of the light source (212, 300, 304, 308, 402) is located at the audio receiver (116, 202) and the input of the photodetector (214, 404) is located at the spout (118, 204). a light source (212, 300, 304, 308, 402) configured to emit light; a photodetector (214, 404) configured to detect the emitted light after interacting with tissue of a subject; an audio receiver (116, 202) configured to deliver a sound to the subject; a dome (120, 206) configured to conform to a shape of a subject's ear canal when the hearing device is in the ear canal; and a spout (118, 204), the audio receiver (116, 202) configured to deliver the sound to the subject through the spout (118, 204), wherein the dome (120, 206) absorbs and/or reflects at least part of the emitted light such that an intensity of the emitted light at a wavelength passing through the dome to the photodetector is significantly smaller than an intensity of the emitted light at the wavelength passing through the tissue to the photodetector, wherein an output of the light source (212, 300, 304, 308, 402) and an input of the photodetector (214, 404) are separated by the dome (120, 206), and the output of the light source (212, 300, 304, 308, 402) is located at the spout (118, 204) and the input of the photodetector (214, 404) is located at the audio receiver (116, 202), or the output of the light source (212, 300, 304, 308, 402) is located at the audio receiver (116, 202) and the input of the photodetector (214, 404) is located at the spout (118, 204).
Encoder for deriving a representation of an audio signal having a first frame, a second frame following the first frame, and a third frame following the second frame, the encoder comprising: a warp estimator for estimating a first warp parameter sequence for the first and the second frame and for estimating a second warp parameter sequence for the second frame and the third frame; a spectral analyzer for deriving first spectral coefficients for the first and the second frame using the first warp parameter sequence and for deriving second spectral coefficients for the second and the third frame using the second warp parameter sequence; a perceptual model calculator for receiving the audio signal, wherein the audio signal is a multi-channel audio signal; a warp coder for encoding the first warp parameter sequence and the second warp parameter sequence; an encoder, controlled by the perceptual model calculator, for receiving the first spectral coefficients for quantization to obtain encoded first spectral coefficients and for receiving the second spectral coefficients for quantization to obtain encoded second spectral coefficients; and an output interface for outputting the representation of the audio signal including the encoded first warp parameter sequence, the encoded second warp parameter sequence, the encoded first spectral coefficients, and the encoded second spectral coefficients. a warp estimator for estimating a first warp parameter sequence for the first and the second frame and for estimating a second warp parameter sequence for the second frame and the third frame; a spectral analyzer for deriving first spectral coefficients for the first and the second frame using the first warp parameter sequence and for deriving second spectral coefficients for the second and the third frame using the second warp parameter sequence; a perceptual model calculator for receiving the audio signal, wherein the audio signal is a multi-channel audio signal; a warp coder for encoding the first warp parameter sequence and the second warp parameter sequence; an encoder, controlled by the perceptual model calculator, for receiving the first spectral coefficients for quantization to obtain encoded first spectral coefficients and for receiving the second spectral coefficients for quantization to obtain encoded second spectral coefficients; and an output interface for outputting the representation of the audio signal including the encoded first warp parameter sequence, the encoded second warp parameter sequence, the encoded first spectral coefficients, and the encoded second spectral coefficients.
A continuous process for the preparation of propylene oxide, comprising (i) providing a liquid feed stream comprising propene, hydrogen peroxide, methanol, water, at least one dissolved potassium salt of hydroxyethylidenediphosphonic acid, and optionally propane; (ii) passing the liquid feed stream provided in (i) into an epoxidation reactor comprising a catalyst comprising a titanium zeolite of structure type MFI, and subjecting the liquid feed stream to epoxidation reaction conditions in the epoxidation reactor, obtaining a reaction mixture comprising propylene oxide, methanol, water, and the at least one dissolved potassium salt of hydroxyethylidenediphosphonic acid, and optionally propane; (iii) removing an effluent stream from the epoxidation reactor, the effluent stream comprising propylene oxide, methanol, water, at least a portion of the at least one potassium salt of hydroxyethylidenediphosphonic acid, and optionally propane. (i) providing a liquid feed stream comprising propene, hydrogen peroxide, methanol, water, at least one dissolved potassium salt of hydroxyethylidenediphosphonic acid, and optionally propane; (ii) passing the liquid feed stream provided in (i) into an epoxidation reactor comprising a catalyst comprising a titanium zeolite of structure type MFI, and subjecting the liquid feed stream to epoxidation reaction conditions in the epoxidation reactor, obtaining a reaction mixture comprising propylene oxide, methanol, water, and the at least one dissolved potassium salt of hydroxyethylidenediphosphonic acid, and optionally propane; (iii) removing an effluent stream from the epoxidation reactor, the effluent stream comprising propylene oxide, methanol, water, at least a portion of the at least one potassium salt of hydroxyethylidenediphosphonic acid, and optionally propane.
A method of detecting a frame line of a parking space (PL1-5, PR1-5) from a captured image acquired by an image capture device (1a-d), comprising: detecting the frame line when a value of a parameter used for detection of the frame line falls within a first threshold range; estimating a position of an undetected frame line on a basis of a position of the detected frame line; setting a threshold range of the value of the parameter to a second threshold range wider than the first threshold range, the threshold range being used for detecting the frame line at the estimated position of the frame line, the frame line comprising a plurality of frame lines, the estimated position comprising a plurality of estimated positions; and setting the second threshold range so as to widen for each of the estimated positions of the frame lines as a distance between the estimated position of the frame line and the image capture device (1a-d) increases. detecting the frame line when a value of a parameter used for detection of the frame line falls within a first threshold range; estimating a position of an undetected frame line on a basis of a position of the detected frame line; setting a threshold range of the value of the parameter to a second threshold range wider than the first threshold range, the threshold range being used for detecting the frame line at the estimated position of the frame line, the frame line comprising a plurality of frame lines, the estimated position comprising a plurality of estimated positions; and setting the second threshold range so as to widen for each of the estimated positions of the frame lines as a distance between the estimated position of the frame line and the image capture device (1a-d) increases.
A central venous access vena cava filter catheter, comprising: a. a multi-lumen catheter body having a first port associated with a first lumen and a second port associated with a second lumen; and b. a vena cava filter member concentrically coupled to the multi-lumen catheter body and positioned intermediate the first port and the second port such that the first port is proximal the vena cava filter member and the second port is distal the vena cava filter member, the vena cava filter member comprising a plurality of structural members (62, 64, 66) and a hoop member, wherein the plurality of structural members (62, 64, 66) comprise a first set of structural members affixed at a proximal end to a proximal portion of the vena cava filter member, a second set of structural members affixed at a distal end thereof to a distal portion of the vena cava filter member, wherein the proximal portion of the vena cava filter member is concentrically fixed to the multi-lumen catheter body and the distal portion of the vena cava filter member is movably and concentrically positioned around the distal portion of the multi-lumen catheter body and coupled thereto, and wherein the hoop member is coupling a distal end of the first set of structural members to a proximal portion of the second set of structural members. a. a multi-lumen catheter body having a first port associated with a first lumen and a second port associated with a second lumen; and b. a vena cava filter member concentrically coupled to the multi-lumen catheter body and positioned intermediate the first port and the second port such that the first port is proximal the vena cava filter member and the second port is distal the vena cava filter member, the vena cava filter member comprising a plurality of structural members (62, 64, 66) and a hoop member,
Method of producing an electronic component, comprising the steps: • depositing an electrically conductive layer that can be melted or evaporated by laser light on a substrate (1, 12) transparent to the light of a laser, • depositing further layers (3, 4) of the electronic component thereon, • detaching the layer that can be melted or evaporated by laser light from the substrate by irradiation with the light of the laser, particularly through the transparent substrate, characterised in that, after the detachment of the electronic component, the substrate is used again for the production of an electronic component and that a rotating roller is used as the substrate. • depositing an electrically conductive layer that can be melted or evaporated by laser light on a substrate (1, 12) transparent to the light of a laser, • depositing further layers (3, 4) of the electronic component thereon, • detaching the layer that can be melted or evaporated by laser light from the substrate by irradiation with the light of the laser, particularly through the transparent substrate, characterised in that, after the detachment of the electronic component, the substrate is used again for the production of an electronic component and that a rotating roller is used as the substrate.
A process for producing a mold, comprising a step of mixing refractory particles, a water-soluble phenol resin, and a curing agent composition comprising an ester compound, thereby yielding mixed sands, and a step of putting the mixed sands into an original pattern to shape the sands, wherein the refractory particles comprise reclaimed sands that are artificial sands produced by a fusion method in a proportion of 70% or more by weight, the curing agent composition comprises at least one selected from triethylene glycol diacetate, triethylene glycol, 3-phenylpropane-1-ol, and benzyl alcohol, and the mixed sands further comprise resorcin as a phenolic compound monomer.