mhurhangee/patent-ind-claim-en huggingface dataset:
A method for upgrading a kerosene fuel to meet Jet A-1 specification or JP-8 specification; a. providing a quantity of kerosene base fuel having a boiling point in the range of 130°C to 300°C, at atmospheric pressure, flash point of 38°C or above measured by ASTM D56, a density at 15°C of at least 775 kg/m 3 and freezing point of above -47°C; b. providing a quantity of synthetic cyclo-paraffinic kerosene fuel blending component comprising at least 99.5 mass% of carbon and hydrogen content and at least 70 mass% of cyclo-paraffin, and having a maximum iso- and n-paraffin content of less than 30 mass% (ASTM D2425) and an aromatic content of at most 1 mass%, said cyclo-paraffinic kerosene fuel blending component having a boiling point of at most 300°C, at atmospheric pressure, flash point of 38°C, or above, a density at 15°C of at least 800 kg/m 3 , and freezing point of -60°C or below, wherein the synthetic cyclo-paraffinic kerosene fuel blending component is derived from biomass; and c. blending a quantity of the synthetic cyclo-paraffinic kerosene fuel blending component and the kerosene base fuel in amount sufficient to lower the freezing point of the blended fuel to -47°C or lower, wherein the amount of the synthetic cyclo-paraffinic kerosene fuel blending component is 15 to 97 vol.%, based on the blended fuel. a. providing a quantity of kerosene base fuel having a boiling point in the range of 130°C to 300°C, at atmospheric pressure, flash point of 38°C or above measured by ASTM D56, a density at 15°C of at least 775 kg/m 3 and freezing point of above -47°C; b. providing a quantity of synthetic cyclo-paraffinic kerosene fuel blending component comprising at least 99.5 mass% of carbon and hydrogen content and at least 70 mass% of cyclo-paraffin, and having a maximum iso- and n-paraffin content of less than 30 mass% (ASTM D2425) and an aromatic content of at most 1 mass%, said cyclo-paraffinic kerosene fuel blending component having a boiling point of at most 300°C, at atmospheric pressure, flash point of 38°C, or above, a density at 15°C of at least 800 kg/m 3 , and freezing point of -60°C or below, wherein the synthetic cyclo-paraffinic kerosene fuel blending component is derived from biomass; and c. blending a quantity of the synthetic cyclo-paraffinic kerosene fuel blending component and the kerosene base fuel in amount sufficient to lower the freezing point of the blended fuel to -47°C or lower, wherein the amount of the synthetic cyclo-paraffinic kerosene fuel blending component is 15 to 97 vol.%, based on the blended fuel.
Method for frequency-dependent noise suppression in an input signal , wherein the input signal is distributed to a main signal path and an ancillary signal path , wherein the presence of a useful signal component and, if a useful signal component is present, a parameter for a frequency of the useful signal component are assessed in the ancillary signal path , and wherein a noise in the input signal is suppressed in the main signal path by at least one infinite impulse response filter whose frequency response is implemented with a maximum absolute value in the region of that frequency of the useful signal component that is assessed using the parameter , characterized in that the frequency response of the filter is implemented by determining a complex pole of the transfer function, the complex pole of the transfer function being determined by using the assessed parameter for the frequency of the useful signal component , wherein, when a presence of a useful signal component is ascertained by assessment, a width parameter for the useful signal component is assessed using an assumed reliability of the assessment of the parameter for the frequency of the useful signal component , and wherein the width parameter is used to stipulate a spectral width of the filter such that when the reliability of the assessment of the parameter is assumed to be high, the filter is provided with a smaller spectral width than when the reliability of the assessment of the parameter is assumed to be lower.
Insulation part for a roller shutter box , in particular a roller shutter box designed as a mounted roller shutter box, preferably composed of plastics extrusion parts and/or plastics moulded parts, the insulation part being able to be arranged inside the roller shutter box so as to be associated with a rear side of the roller shutter box and having a step-like bottom mounting region that can be associated with the rear side of the roller shutter box , a plurality of separating recesses that extend in the height direction of the insulation part also being provided over the depth of the roller shutter box , characterised in that the separating recesses extend over the entire extent of the insulation part .
An electronics heat exchanger comprising: a fluid flow body having a first panel , a second panel , and at least one fluid flow guide connecting the first panel and the second panel ; a plurality of pedestals extending from the second panel , the plurality of pedestals including at least a first pedestal having a first height and a second pedestal having a second height, distinct from the first height; characterized by a plurality of pins , each pin in the plurality of pins protruding through a corresponding through hole in the second panel and into a corresponding partial opening in a pedestal in the plurality of pedestals . a fluid flow body having a first panel , a second panel , and at least one fluid flow guide connecting the first panel and the second panel ; a plurality of pedestals extending from the second panel , the plurality of pedestals including at least a first pedestal having a first height and a second pedestal having a second height, distinct from the first height; characterized by a plurality of pins , each pin in the plurality of pins protruding through a corresponding through hole in the second panel and into a corresponding partial opening in a pedestal in the plurality of pedestals .
Method of treatment of a pumpable liquid flow, wherein the method comprises: - providing the pumpable liquid flow in the form of an inflowing product; - then adding one or more flocculating agents to the pumpable liquid flow; - thereafter performing a filtration in a filter for separation of a solid phase from the pumpable liquid flow, for obtaining one flow with increased content of solid phase and one flow with increased liquid level; and - thereafter treatment of the flow with increased content of solid phase with high voltage pulses in a pulsed electric field (PEF) unit to increase the digestibility of the flow with increased content of solid phase, and after that said flow with increased content of solid phase has been treated with the high voltage pulses in the PEF-unit then directly performing digestion of the flow with increased content of solid phase, and biogas production. - providing the pumpable liquid flow in the form of an inflowing product; - then adding one or more flocculating agents to the pumpable liquid flow; - thereafter performing a filtration in a filter for separation of a solid phase from the pumpable liquid flow, for obtaining one flow with increased content of solid phase and one flow with increased liquid level; and - thereafter treatment of the flow with increased content of solid phase with high voltage pulses in a pulsed electric field (PEF) unit to increase the digestibility of the flow with increased content of solid phase,
A new hydrosilane compound, selected from the following compounds: 1-(dimethylsilyl)pyrene, 1-(3-dimethylsilylpropyl)naphthalene, (3-azidopropyl)dimethylsilane, [3-(dimethylsilyl)propyl]acrylamide, 1-(3-dimethylsilylpropyl)-3-methylimidazolium iodide, (3-nitropropyl)dimethylsilane, 4-(dimethylsilyl)butyric acid, ethyl 4-(dimethylsilyl)butyrate, [3-(dimethylsilyl)propyl] diethylphosphate, 4-(dimethylsilyl)butanol, (3-benzoylpropyl)dimethylsilane, 5,6-epoxyhexyldimethylsilane, (3-dimethylsilylpropyl)trifluoroacetamide, N-dimethylhydrosilylpropyliminotriphenylphosphorane, N-methyldihydrosilylpropyliminotriphenylphosphorane, 4-dimethylsilylphenylmagnesium bromide, 4-(1,3-dithian-2-yl)dimethylsilylbenzene, and triethyl-3-(dimethylsilylpropyl)ammonium bromide.
A thermoplastic resin composition, comprising: 100 parts by weight of a base resin (A) comprising a vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound graft copolymer (A-1) and an aromatic vinyl compound-vinyl cyanide compound copolymer (A-2); 0.1 to 32 parts by weight of a polymer (B) having a weight average molecular weight, measured as disclosed in the specification, of greater than 500,000 g/mol and containing an unshared electron pair, wherein the polymer (B) containing the unshared electron pair comprises one or more selected from the group consisting of a poly(ether ester amide) resin, a poly(ether amide) block copolymer, a poly(ester amide) block copolymer, a poly(ether ester) block copolymer, a polyether resin, a polyester resin, and a polyamide resin; 0.1 to 5 parts by weight of an inorganic antibacterial agent (C) comprising one or more carriers selected from the group consisting of phosphate glass, silica gel, calcium phosphate, and zirconium sodium phosphate; and 0.4 to 5 parts by weight of zinc oxide (D) having a BET surface area, measured as disclosed in the specification, of 28 m 2 /g or more. 100 parts by weight of a base resin (A) comprising a vinyl cyanide compound-conjugated diene compound-aromatic vinyl compound graft copolymer (A-1) and an aromatic vinyl compound-vinyl cyanide compound copolymer (A-2); 0.1 to 32 parts by weight of a polymer (B) having a weight average molecular weight, measured as disclosed in the specification, of greater than 500,000 g/mol and containing an unshared electron pair, wherein the polymer (B) containing the unshared electron pair comprises one or more selected from the group consisting of a poly(ether ester amide) resin, a poly(ether amide) block copolymer, a poly(ester amide) block copolymer, a poly(ether ester) block copolymer, a polyether resin, a polyester resin, and a polyamide resin; 0.1 to 5 parts by weight of an inorganic antibacterial agent (C) comprising one or more carriers selected from the group consisting of phosphate glass, silica gel, calcium phosphate, and zirconium sodium phosphate; and 0.4 to 5 parts by weight of zinc oxide (D) having a BET surface area, measured as disclosed in the specification, of 28 m 2 /g or more.
Electronics assembly comprising at least one carrier substrate (10.1, 10.2), wherein an electronic circuit is formed on at least one carrier substrate surface (10.1', 10.2'), wherein the electronics assembly (10.1, 10.2) comprises at least one mechanical connecting dome which is connected to at least one of the carrier substrate surfaces (10.1', 10.2') in a substrate connecting region (10.15, 10.25), characterized in that the connecting dome has, on a side facing away from the substrate connecting region (10.15, 10.25), a terminating boundary layer which is composed of a metal oxide and is designed to provide an adhesion area for an adhesive layer for forming an adhesively bonded composite arrangement with a joining partner (100").
A sprinkler bracket which has a lower clamp through which the profile (P) where the sprinkler system will be mounted is passed; an upper clamp which corresponds to the lower clamp by means of connecting with said lower clamp and enables locking the sprinkler sleeve (S); a sleeve housing in which said sprinkler sleeve (S) is placed and locked; a locking bar which enables locking of said lower clamp and the upper clamp after they are fitted on each other and is attached to the lower clamp , characterized by comprising; • a handle lock which enables the locking bar to remain stable after locking process, is attached to the portion protruding outwardly from the lower clamp of the locking bar and enables easy opening and closing by allowing for the external intervention, • a handle which is formed by sloping the extension of the locking bar outside the lower clamp and helps rotating the locking bar around its axis by 90 degrees in order to perform the locking process, • a fastening element which fixes the lower clamp and the upper clamp wherein the upper clamp rotates the fastening element by taking the sleeve and is closed in the lower clamp . • a handle lock which enables the locking bar to remain stable after locking process, is attached to the portion protruding outwardly from the lower clamp of the locking bar and enables easy opening and closing by allowing for the external intervention, • a handle which is formed by sloping the extension of the locking bar outside the lower clamp and helps rotating the locking bar around its axis by 90 degrees in order to perform the locking process, • a fastening element which fixes the lower clamp and the upper clamp wherein the upper clamp rotates the fastening element by taking the sleeve and is closed in the lower clamp .
A method for characterizing target compounds, with an analyzing system comprising a measurement chamber intended to receive target compounds contained in a fluid sample, in which measurement chamber are located a plurality of distinct sensitive sites each comprising receptors that are able to interact with the target compounds, the method comprising the following steps: • fluidically supplying a fluid sample to the measurement chamber, this comprising an injecting phase P 2 in which the fluid sample is formed from a carrier fluid and said target compounds; • determining , in the supplying step, at a measurement time t i , for each sensitive site, a measurement signal S k (t i ) representative of the interactions between the target compounds and the receptors, k being the rank of the sensitive site in question, so as to obtain a measurement vector S(t i ) formed from the measurement signals S k (t i ) acquired at the measurement time t i ; and • computing , at the measurement time t i , a normalized vector Sn(t i ) from the measurement vector S(t i ) at the measurement time t i , and from a norm ∥S(t i )∥ computed from the measurement vector S(t i ) at the measurement time t i ; characterized in that it furthermore comprises the following step: • reiterating the steps of determining measurement signals and of computing the normalized vector, while incrementing the measurement time, until a stability criterion is met, so as to obtain a characterization of the target compounds on the basis of the normalized vector Sn(t i ) at the measurement time t i . • fluidically supplying a fluid sample to the measurement chamber, this comprising an injecting phase P 2 in which the fluid sample is formed from a carrier fluid and said target compounds; • determining , in the supplying step, at a measurement time t i , for each sensitive site, a measurement signal S k (t i ) representative of the interactions between the target compounds and the receptors, k being the rank of the sensitive site in question, so as to obtain a measurement vector S(t i ) formed from the measurement signals S k (t i ) acquired at the measurement time t i ; and • computing , at the measurement time t i , a normalized vector Sn(t i ) from the measurement vector S(t i ) at the measurement time t i , and from a norm ∥S(t i )∥ computed from the measurement vector S(t i ) at the measurement time t i ; • reiterating the steps of determining measurement signals and of computing the normalized vector, while incrementing the measurement time, until a stability criterion is met, so as to obtain a characterization of the target compounds on the basis of the normalized vector Sn(t i ) at the measurement time t i .
A hybrid module for a motor vehicle for coupling an internal combustion engine, having an electrical machine that comprises a rotor arranged on an axis of rotation , and having at least one coupling for transmitting a torque from a drive unit which is arranged in the space enclosed by the rotor , and having a rotary part which is fixedly connected to the rotor at least rotationally and also arranged on the axis of rotation , which extends further radially from the axis of rotation than the rotor , so that heat introduced into the rotary part by the rotor and/or the coupling can be dissipated into the surroundings of the rotary part , characterised in that the rotary part has a plurality of component segments arranged axially next to one another, which are arranged in parallel with one another in the radial extension, there being a distance between the component segments that favours the dissipation of heat from the component segments and enlarges the surface of the rotary part .
A heat pump system , comprising: a compressor configured to compress a refrigerant; a heating heat exchanger configured to exchange heat between the refrigerant compressed by the compressor and a heating medium; a decompressor configured to decompress the refrigerant; an evaporator configured to exchange heat between the refrigerant decompressed by the decompressor and outside air; outside air temperature detection means configured to detect outside air temperature; outlet temperature detection means configured to detect outlet temperature, the outlet temperature being temperature of the heating medium flowing out from the heating heat exchanger ; compressor control means configured to control an operating frequency of the compressor ; characterized in that the compressor control means is configured to control an operating frequency of the compressor in accordance with a sum of a fundamental frequency and a correction frequency; and the heat pump system further comprises fundamental frequency calculation means configured to calculate the fundamental frequency in accordance with a temperature difference obtained by subtracting current outlet temperature from target outlet temperature and in accordance with current outside air temperature; and first correction means configured to add a positive first correction value to the correction frequency when the temperature difference is larger than a positive first reference value and a temporal variation in the outlet temperature is smaller than a reference. a compressor configured to compress a refrigerant; a heating heat exchanger configured to exchange heat between the refrigerant compressed by the compressor and a heating medium; a decompressor configured to decompress the refrigerant; an evaporator configured to exchange heat between the refrigerant decompressed by the decompressor and outside air; outside air temperature detection means configured to detect outside air temperature; outlet temperature detection means configured to detect outlet temperature, the outlet temperature being temperature of the heating medium flowing out from the heating heat exchanger ; compressor control means configured to control an operating frequency of the compressor ; characterized in that the compressor control means is configured to control an operating frequency of the compressor in accordance with a sum of a fundamental frequency and a correction frequency; and the heat pump system further comprises fundamental frequency calculation means configured to calculate the fundamental frequency in accordance with a temperature difference obtained by subtracting current outlet temperature from target outlet temperature and in accordance with current outside air temperature; and first correction means configured to add a positive first correction value to the correction frequency when the temperature difference is larger than a positive first reference value and a temporal variation in the outlet temperature is smaller than a reference.
A computer-implemented method comprising: obtaining first and second different geographic information associated with a geographic region , the first and second different geographic information being at the same orientation in respect of the geographic region; providing, by a processor, the obtained first geographic information on a display screen of a mobile device ; detecting a movement of the mobile device , the movement being other than a change in a geographic location of the mobile device; and changing, by the processor, the obtained first geographic information displayed on the display screen of the mobile device to display the obtained second different geographic information , the changing of the geographic information being a function of the detected movement; and wherein the obtained first geographic information comprises a first map of the geographic region and the obtained second different geographic information comprises a second map of the geographic region, the second map being different than the first. obtaining first and second different geographic information associated with a geographic region , the first and second different geographic information being at the same orientation in respect of the geographic region; providing, by a processor, the obtained first geographic information on a display screen of a mobile device ; detecting a movement of the mobile device , the movement being other than a change in a geographic location of the mobile device; and changing, by the processor, the obtained first geographic information displayed on the display screen of the mobile device to display the obtained second different geographic information , the changing of the geographic information being a function of the detected movement; and wherein the obtained first geographic information comprises a first map of the geographic region and the obtained second different geographic information comprises a second map of the geographic region, the second map being different than the first.
A method for synthesizing phycocyanin from cyanobacteria, the method comprising the steps of: (i) culturing a cyanobacterium in a suitable growth medium; and (ii) providing a suitable source of light, wherein the light consists of electromagnetic radiation having a wavelength of between 670 and 690 nm. (i) culturing a cyanobacterium in a suitable growth medium; and (ii) providing a suitable source of light, wherein the light consists of electromagnetic radiation having a wavelength of between 670 and 690 nm.
A method for producing three-dimensional parts by means of a three-dimensional printing process, wherein an auxiliary structure is additionally formed, during the construction of parts, which extends beyond an extension of the part or parts, said auxiliary structure lying at least partially outside a projection area of the part or parts projected vertically onto a construction platform , and the auxiliary structure being formed in such a way that it holds the part in a form-locking manner, characterised in that a plurality of layers of parts are formed and in that a separate auxiliary structure is formed in each layer of parts.
Mobile loading system for a loading space of a vehicle having a floor and a vehicle frame, wherein the mobile loading system comprises at least one frame which supports a loading floor and the frame comprises at least two first receptacles for bracing devices and the floor of the loading space and/or the vehicle frame has at least two receptacles for bracing devices, characterized in that the frame has an enclosure with transverse struts (13.1, 13.2) and longitudinal struts (12.1, 12.2) and the enclosure , the longitudinal struts (12.1, 12.2) and/or transverse struts (13.1, 13.2) are laser-cut and/or folded metal sheets.