mhurhangee/ep-ind-claims huggingface dataset:
A method for preparing a jet fuel product from a crude oil feedstock comprising a pre-refined crude oil, wherein the pre-refined crude oil comprises crude oil that has been subjected to cracking or conversion in a reaction environment containing less than 345 kPag of hydrogen prior to shipment to a refinery, the method comprising: (i) determining a breakpoint using ASTM D3241 procedure for a first sample of a distillate fraction, the distillate fraction having an initial boiling point of at least 140°C and a final boiling point of 300°C or less, the distillate fraction having been distilled from a first crude oil feedstock comprising a first pre-refined crude oil and comprising a portion from the first pre-refined crude oil, and if said breakpoint is at least 275 °C then (ii) maintaining a second sample of the distillate fraction at a temperature of at least 40°C for an aging period of at least 6 weeks; (iii) determining a breakpoint for the aged second sample of the distillate fraction, and if the breakpoint for the aged second sample is at least 265°C then (iv) preparing a jet fuel product comprising a kerosene portion having been distilled from a second crude oil feedstock comprising a second pre-refined crude oil and comprising a volume percentage from the second pre-refined crude oil, wherein the second pre-refined crude oil is derived from the same source as the first pre-refined crude oil, the volume percentage of the kerosene portion from the second pre-refined crude in the jet fuel product being not more than 110% of the volume percentage corresponding to the portion of the distillate fraction from the first pre-refined crude oil, and the initial boiling point of the jet fuel product being at least as high as the initial boiling point of the distillate fraction, and the final boiling point of the jet fuel product being not more than the final boiling point of the distillate fraction. (i) determining a breakpoint using ASTM D3241 procedure for a first sample of a distillate fraction, the distillate fraction having an initial boiling point of at least 140°C and a final boiling point of 300°C or less, the distillate fraction having been distilled from a first crude oil feedstock comprising a first pre-refined crude oil and comprising a portion from the first pre-refined crude oil, and if said breakpoint is at least 275 °C then (ii) maintaining a second sample of the distillate fraction at a temperature of at least 40°C for an aging period of at least 6 weeks; (iii) determining a breakpoint for the aged second sample of the distillate fraction, and if the breakpoint for the aged second sample is at least 265°C then (iv) preparing a jet fuel product comprising a kerosene portion having been distilled from a second crude oil feedstock comprising a second pre-refined crude oil and comprising a volume percentage from the second pre-refined crude oil, wherein the second pre-refined crude oil is derived from the same source as the first pre-refined crude oil,
A variable speed control system for a walk-behind working machine, comprising: a control system base; a handle; a control lever comprising a lever arm having a first end that is pivotably attached to the control system base and a second end substantially opposing the first end that comprises a grip portion, the control lever being selectively pivotable with respect to the control system base between a first angular position at which the grip portion of the control lever is spaced apart from the handle by a first angle and a second angular position at which the control lever is proximate to the handle, characterized in that it further comprises a control connector in communication between the control lever and a machine component, wherein the control connector is configured to control the machine component to be in one of a range of operating states corresponding to the angular position of the control lever with respect to the control system base; and a control lever adjustment system configured to selectively adjust the first angle by which the control lever is spaced apart from the handle when the control lever is in the first angular position to adjust a total angular travel of the control lever between the first angular position and the second angular position. a control system base; a handle; a control lever comprising a lever arm having a first end that is pivotably attached to the control system base and a second end substantially opposing the first end that comprises a grip portion, the control lever being selectively pivotable with respect to the control system base between a first angular position at which the grip portion of the control lever is spaced apart from the handle by a first angle and a second angular position at which the control lever is proximate to the handle, characterized in that it further comprises a control connector in communication between the control lever and a machine component, wherein the control connector is configured to control the machine component to be in one of a range of operating states corresponding to the angular position of the control lever with respect to the control system base; and a control lever adjustment system configured to selectively adjust the first angle by which the control lever is spaced apart from the handle when the control lever is in the first angular position to adjust a total angular travel of the control lever between the first angular position and the second angular position.
A method of preparing a frozen biological sample, comprising the steps of - fixing the biological sample with a non-crosslinking fixative solution, - incubating the fixed biological sample in an aqueous solution comprising a cryoprotectant, and - freezing the cryoprotected biological sample, wherein the non-crosslinking fixative solution comprises at least one alcohol and one or more additives, wherein the one or more additives are selected from: a. a sugar, preferably wherein the sugar is selected from a monosaccharide and/or a disaccharide, and/or or a sugar alcohol, preferably wherein the sugar alcohol is selected from sorbitol, mannitol and/or dulcitol; b. a poly(oxyalkylene) polymer, preferably a poly(oxyethylene) polymer, more preferably polyethylene glycol, wherein optionally, the poly(oxyalkylene) polymer is comprised in the non-crosslinking fixative solution in a concentration selected from 1 to 20% (w/v), 2 to 15% (w/v) and 3 to 10% (w/v); c. a poly(oxyalkylene) polymer having a molecular weight that lies in a range selected from 100 to 10000, 150 to 5000, 200 to 1000 and 250 to 500, wherein preferably the poly(oxyalkylene) polymer is polyethylene glycol; d. diethyleneglycol monoethylether acetate (DEGMEA); and/or e. a C 2 to C 12 polyol, preferably a C 2 to C 12 diol and/or triol. - fixing the biological sample with a non-crosslinking fixative solution, - incubating the fixed biological sample in an aqueous solution comprising a cryoprotectant, and - freezing the cryoprotected biological sample, a. a sugar, preferably wherein the sugar is selected from a monosaccharide and/or a disaccharide, and/or or a sugar alcohol, preferably wherein the sugar alcohol is selected from sorbitol, mannitol and/or dulcitol; b. a poly(oxyalkylene) polymer, preferably a poly(oxyethylene) polymer, more preferably polyethylene glycol, wherein optionally, the poly(oxyalkylene) polymer is comprised in the non-crosslinking fixative solution in a concentration selected from 1 to 20% (w/v), 2 to 15% (w/v) and 3 to 10% (w/v); c. a poly(oxyalkylene) polymer having a molecular weight that lies in a range selected from 100 to 10000, 150 to 5000, 200 to 1000 and 250 to 500, wherein preferably the poly(oxyalkylene) polymer is polyethylene glycol; d. diethyleneglycol monoethylether acetate (DEGMEA); and/or e. a C 2 to C 12 polyol, preferably a C 2 to C 12 diol and/or triol.
A method of identifying behaviour patterns indicative of viral transmissions in respect of a system that operates over a communications network, the system comprising a plurality of server computers and client computers, wherein at least some of the server computers are arranged to deliver data items to, and receive data items from, one or more client computers over the communications network, the method comprising the steps of: (a) receiving data in respect of data items which have been sent within the system, each of the received data identifying the computer, within the system, to and/or from which the said data item has been sent; (b) organising the received data into a representation indicative of the distribution of data items sent within the system, as a function of the identified computer; and (c) using the representation to train a classification means to recognise a plurality of behaviour types. (a) receiving data in respect of data items which have been sent within the system, each of the received data identifying the computer, within the system, to and/or from which the said data item has been sent; (b) organising the received data into a representation indicative of the distribution of data items sent within the system, as a function of the identified computer; and (c) using the representation to train a classification means to recognise a plurality of behaviour types.
An internal combustion engine drive control apparatus which includes an exhaust gas recirculation system recirculating some of exhaust gas of an internal combustion engine to an intake side of the internal combustion engine and in which an electronic control unit controls an operation of the exhaust gas recirculation system and an operation of the internal combustion engine, wherein the electronic control unit is designed to calculate a reference EGR rate on the basis of a speed and a load of the internal combustion engine using a reference EGR rate map, calculate a protection EGR rate on the basis of the speed, the load, and an ignition timing retardation amount of the internal combustion engine using a protection EGR rate map, and, when the reference EGR rate is higher than the protection EGR rate, execute the EGR control by using the reference EGR rate as a target EGR recirculation rate.
A signal acquisition system comprising: a signal acquisition probe having probe tip circuitry coupled to a resistive center conductor signal cable; and a signal processing instrument having an input node coupled to the resistive center conductor signal cable of the signal acquisition probe and coupled to a compensation system via input circuitry disposed in the signal processing instrument; wherein the signal acquisition probe and the signal processing instrument have mismatched time constants at the input node with the compensation system having an input amplifier with feedback loop circuitry and a shunt pole-zero pair coupled to the input circuitry, and wherein the shunt pole-zero pair includes a shunt resistive element and a shunt capacitive element configured to provide pole-zero pairs for maintaining flatness over the signal acquisition systems frequency bandwidth. a signal acquisition probe having probe tip circuitry coupled to a resistive center conductor signal cable; and a signal processing instrument having an input node coupled to the resistive center conductor signal cable of the signal acquisition probe and coupled to a compensation system via input circuitry disposed in the signal processing instrument; wherein the signal acquisition probe and the signal processing instrument have mismatched time constants at the input node with the compensation system having an input amplifier with feedback loop circuitry and a shunt pole-zero pair coupled to the input circuitry, and wherein the shunt pole-zero pair includes a shunt resistive element and a shunt capacitive element configured to provide pole-zero pairs for maintaining flatness over the signal acquisition systems frequency bandwidth.
An electronic device comprising: a printed circuit board; an antenna module including: a radio frequency integrated circuit mounted on the printed circuit board, and an array antenna coupled to an upper portion of the radio frequency integrated circuit; and an electromagnetic wave shielding structure surrounding a side portion of the antenna module, wherein the array antenna comprises: an antenna substrate coupled to an upper portion of the radio frequency integrated circuit; a plurality of radiators disposed on an upper surface of the antenna substrate; and characterized in that the array antenna further comprises a first ground pattern disposed on the upper surface of the antenna substrate along a circumference of the antenna substrate; wherein an upper end of the electromagnetic wave shielding structure covers the first ground pattern. a printed circuit board; an antenna module including: a radio frequency integrated circuit mounted on the printed circuit board, and an array antenna coupled to an upper portion of the radio frequency integrated circuit; and an electromagnetic wave shielding structure surrounding a side portion of the antenna module, wherein the array antenna comprises: an antenna substrate coupled to an upper portion of the radio frequency integrated circuit; a plurality of radiators disposed on an upper surface of the antenna substrate; and characterized in that the array antenna further comprises a first ground pattern disposed on the upper surface of the antenna substrate along a circumference of the antenna substrate; wherein an upper end of the electromagnetic wave shielding structure covers the first ground pattern. a radio frequency integrated circuit mounted on the printed circuit board, and an array antenna coupled to an upper portion of the radio frequency integrated circuit; and an electromagnetic wave shielding structure surrounding a side portion of the antenna module, wherein the array antenna comprises: an antenna substrate coupled to an upper portion of the radio frequency integrated circuit; a plurality of radiators disposed on an upper surface of the antenna substrate; and characterized in that the array antenna further comprises a first ground pattern disposed on the upper surface of the antenna substrate along a circumference of the antenna substrate; an antenna substrate coupled to an upper portion of the radio frequency integrated circuit; a plurality of radiators disposed on an upper surface of the antenna substrate; and characterized in that the array antenna further comprises a first ground pattern disposed on the upper surface of the antenna substrate along a circumference of the antenna substrate; wherein an upper end of the electromagnetic wave shielding structure covers the first ground pattern.
A patient interface comprising: an inflatable nasal seal including a face contacting side, the nasal seal being formed of a soft flexible material, and including a central portion to extend across the base of the nose, and a side portion extending from each end of the central portion, each side portion extending across a side of the nose, the face contacting side of the seal being supple to conform under internal pressure to the surfaces of the nose of a wearer, including, at the side portions of the seal, to outside surfaces of the sides of the nose, an exterior side of the nasal seal including regions much stiffer than the supple interior side, the regions extending into the side portions of the seal. an inflatable nasal seal including a face contacting side, the nasal seal being formed of a soft flexible material, and including a central portion to extend across the base of the nose, and a side portion extending from each end of the central portion, each side portion extending across a side of the nose, the face contacting side of the seal being supple to conform under internal pressure to the surfaces of the nose of a wearer, including, at the side portions of the seal, to outside surfaces of the sides of the nose, an exterior side of the nasal seal including regions much stiffer than the supple interior side, the regions extending into the side portions of the seal.
A biological tissue identification apparatus comprising: a light source capable of irradiating a predetermined region of a biological tissue with a measurement light that includes mid-infrared light; an imaging element (12, 19) for acquiring a measurement image by imaging a part of the measurement light transmitted through the biological tissue or a part of the measurement light reflected at the biological tissue, which has a specific wavelength λ 1 being a wavelength in a range of 2 μm to 20 μm; and a computer including a calculation analysis unit capable of calculating focusing measures in a plurality of regions of the measurement image by an edge analysis of the measurement image, and the calculation analysis unit being configured to identify the biological tissue based on the focusing measures. a light source capable of irradiating a predetermined region of a biological tissue with a measurement light that includes mid-infrared light; an imaging element (12, 19) for acquiring a measurement image by imaging a part of the measurement light transmitted through the biological tissue or a part of the measurement light reflected at the biological tissue, which has a specific wavelength λ 1 being a wavelength in a range of 2 μm to 20 μm; and a computer including a calculation analysis unit capable of calculating focusing measures in a plurality of regions of the measurement image by an edge analysis of the measurement image, and the calculation analysis unit being configured to identify the biological tissue based on the focusing measures.
A water stopping device of suspension and sliding type for use in an immersed tunnel, comprising a water stop, having a first end connected with a first joint segment of the immersed tunnel and able to move axially with the first joint segment; and the water stop further having a second end connected with a second joint segment; so as to form a water stopping cavity; characterised in that, the water stopping device further comprises at least one first rod; a first end of the first rod connected with the first joint segment and able to move with the first joint segment; and a second end of the first rod being movably connected with the second joint segment; and also comprising at least one first hanging structure connected with the water stop and the corresponding first rod, and slidably provided on the corresponding first rod. a water stop, having a first end connected with a first joint segment of the immersed tunnel and able to move axially with the first joint segment; and the water stop further having a second end connected with a second joint segment; so as to form a water stopping cavity; characterised in that, the water stopping device further comprises at least one first rod; a first end of the first rod connected with the first joint segment and able to move with the first joint segment; and a second end of the first rod being movably connected with the second joint segment; and also comprising at least one first hanging structure connected with the water stop and the corresponding first rod, and slidably provided on the corresponding first rod.
A bone plate including a plate member (2, 2', 2", 201) including a through-hole (21, 21', 21", 210) that extends from a top side to a bottom side of the plate member (2, 2', 2", 201); a disk (3, 3', 3", 3'", 300) wherein the disk is provided in the through-hole and rotatably supported in the plate member, the disk (3, 3', 3", 3"', 300) including a slot (34, 34', 34", 340) that is shaped such as to allow a guided displacement of the bone plate (1, 1', 1", 1") in a plane perpendicular to an axis of rotation of the disk with respect to a bone anchor extending through the slot.
An electric motor diagnosis device comprising: - a voltage detection circuit for detecting a voltage of a main circuit connected to an electric motor; - a current detection circuit for detecting a current of the main circuit; - a logical calculation circuit for performing a logical calculation processing on the basis of information from the voltage detection circuit and the current detection circuit; - a sampling speed setting unit; and - a storage unit, wherein the logical calculation circuit includes - an input unit for acquiring and receiving inputs of detection information from the voltage detection circuit and the current detection circuit, rated information of the electric motor, and a sampling speed from the sampling speed setting unit, - a calculation unit for calculating a load torque and a winding resistance of the electric motor on the basis of input information from the input unit, by using a preset forgetting coefficient and a preset scale factor, and - an output unit for outputting a winding resistance value obtained by the calculation unit. - a voltage detection circuit for detecting a voltage of a main circuit connected to an electric motor; - a current detection circuit for detecting a current of the main circuit; - a logical calculation circuit for performing a logical calculation processing on the basis of information from the voltage detection circuit and the current detection circuit; - a sampling speed setting unit; and - a storage unit, wherein the logical calculation circuit includes - an input unit for acquiring and receiving inputs of detection information from the voltage detection circuit and the current detection circuit, rated information of the electric motor, and a sampling speed from the sampling speed setting unit, - a calculation unit for calculating a load torque and a winding resistance of the electric motor on the basis of input information from the input unit, by using a preset forgetting coefficient and a preset scale factor, and - an output unit for outputting a winding resistance value obtained by the calculation unit. - an input unit for acquiring and receiving inputs of detection information from the voltage detection circuit and the current detection circuit, rated information of the electric motor, and a sampling speed from the sampling speed setting unit, - a calculation unit for calculating a load torque and a winding resistance of the electric motor on the basis of input information from the input unit, by using a preset forgetting coefficient and a preset scale factor, and - an output unit for outputting a winding resistance value obtained by the calculation unit.
Mixed micromechanical part of watch movement intended for interacting with other parts of the watch movement, comprising a metal part and a silicon part, characterized in that the silicon part comprises at least one through cavity in which the metal part is intimately tied to the silicon part resulting from the growth of said metal part in said cavity.
A non-naturally occurring microorganism, comprising a genetic modification conferring to said microorganism an increased efficiency of producing acetyl-CoA from CO 2, CO and H 2, or a combination thereof, or from CO and/or CO 2 and H 2, relative to said microorganism in the absence of said genetic modification, wherein said microorganism comprises a pathway to convert CO 2, CO, H 2, or a combination thereof, or CO and/or CO2 and H2, to acetyl-CoA, wherein said genetic modification comprises expression of exogenous nucleic acid molecules encoding proteins heterologous to said microorganism, whereby expression of said heterologous proteins increases the efficiency of producing acetyl-CoA from CO 2, CO, H 2, or a combination thereof, or from CO and/or CO2 and H2, wherein said heterologous proteins are cobalamide corrinoid/iron-sulfur protein, methyltransferase, carbon monoxide dehydrogenase, acetyl-coA synthase, acetyl-CoA synthase disulfide reductase and hydrogenase.