mhurhangee/ep-ind-claims huggingface dataset:
Jet fuel composition consisting of a petroleum derived jet fuel component and a renewable component consisting of hydroprocessed esters and fatty acids, wherein - the jet fuel composition contains 1 to 50vol% of the renewable component and has a freezing point of -40°C or below, preferably of -47°C and below, - the renewable component has a freezing point below - 30°C, and - the petroleum derived jet fuel component has a freezing point of -40°C or below and a content of C9-C12 normal paraffins from 17wt% to 25wt%, and wherein - the freezing point of the jet fuel composition is lower than a theoretical freezing point calculated from a linear relation, this theoretical freezing point being obtained by pondering the freezing point of each component by its volume content and addition of the results, - the jet fuel composition has a normal paraffins content of C9-C12 paraffins from 10 to 20wt% and a total normal paraffins content from 15 to 30wt%, the above-mentioned freezing points of the jet fuel composition and of its components being determined using a single and same method chosen from ASTM D2386-19 or ASTM D7153-15e1. - the jet fuel composition contains 1 to 50vol% of the renewable component and has a freezing point of -40°C or below, preferably of -47°C and below, - the renewable component has a freezing point below - 30°C, and - the petroleum derived jet fuel component has a freezing point of -40°C or below and a content of C9-C12 normal paraffins from 17wt% to 25wt%, and wherein - the freezing point of the jet fuel composition is lower than a theoretical freezing point calculated from a linear relation, this theoretical freezing point being obtained by pondering the freezing point of each component by its volume content and addition of the results, - the jet fuel composition has a normal paraffins content of C9-C12 paraffins from 10 to 20wt% and a total normal paraffins content from 15 to 30wt%,
A sinter powder comprising the following components: 59.5% to 99.85% by weight, based on the sum total of the percentages by weight of,,, and, of at least one thermoplastic polyurethane, 0.05% to 0.5% by weight, based on the sum total of the percentages by weight of,,, and, of at least one flow agent, 0.1% to 5% by weight, based on the sum total of the percentages by weight of,,, and, of at least one organic additive, 0% to 5% by weight, based on the sum total of the percentages by weight of,,, and, of at least one further additive and 0% to 30% by weight, based on the sum total of the percentages by weight of,,, and, of at least one reinforcer, wherein the at least one organic additive is selected from the group consisting of maleic acid- and/or maleic anhydride-grafted polypropylene waxes and amide waxes. 59.5% to 99.85% by weight, based on the sum total of the percentages by weight of,,, and, of at least one thermoplastic polyurethane, 0.05% to 0.5% by weight, based on the sum total of the percentages by weight of,,, and, of at least one flow agent, 0.1% to 5% by weight, based on the sum total of the percentages by weight of,,, and, of at least one organic additive, 0% to 5% by weight, based on the sum total of the percentages by weight of,,, and, of at least one further additive and 0% to 30% by weight, based on the sum total of the percentages by weight of,,, and, of at least one reinforcer, wherein the at least one organic additive is selected from the group consisting of maleic acid- and/or maleic anhydride-grafted polypropylene waxes and amide waxes.
A ram blade (36, 38) of a blowout preventer for shearing structures positioned in a bore extending through the blowout preventer, the ram blade (36, 38) comprising at least one flat side (50, 52, 90, 92), characterised in that the ram blade comprises: a blunt leading contour (58, 88) at a distal end of the ram blade (36, 38), at least one upper inclined surface (60, 80) above the blunt leading contour (58, 88), wherein the at least one upper inclined surface (60, 80) forms an angle between about 120 and 160 degrees with the flat side, and at least one lower declined surface (62, 82) below the blunt leading contour (58, 88), wherein the at least one lower declined surface (62, 82) forms an angle between about 60 and 100 degrees with the at least one upper inclined surface (60, 80). a blunt leading contour (58, 88) at a distal end of the ram blade (36, 38), at least one upper inclined surface (60, 80) above the blunt leading contour (58, 88), wherein the at least one upper inclined surface (60, 80) forms an angle between about 120 and 160 degrees with the flat side, and at least one lower declined surface (62, 82) below the blunt leading contour (58, 88), wherein the at least one lower declined surface (62, 82) forms an angle between about 60 and 100 degrees with the at least one upper inclined surface (60, 80).
A hand-held thermal imaging camera comprising: an infrared, IR, lens assembly having at least one associated IR sensor for detecting IR images of a target scene, the IR sensor comprising a plurality of pixels, each pixel having a unique coordinate location; a visible light, VL, lens assembly and having at least one associated VL sensor for detecting VL images of the target scene; and at least one processor; wherein the camera is characterized in that the at least one processor is programmed with instructions to: capture a plurality of consecutive frames of IR images of a single target scene; capture a plurality of consecutive frames of VL images, each of the frames of VL images corresponding to, and taken substantially simultaneously with one of the plurality of consecutive frames of IR images; perform an alignment calculation using the captured VL images to determine the misalignment between each VL image and a reference image belonging to the series of VL images and shift each of the captured IR images by the amount of misalignment determined for the corresponding VL image; and average the shifted IR image frames to create an average IR image of the scene with improved quality. an infrared, IR, lens assembly having at least one associated IR sensor for detecting IR images of a target scene, the IR sensor comprising a plurality of pixels, each pixel having a unique coordinate location; a visible light, VL, lens assembly and having at least one associated VL sensor for detecting VL images of the target scene; and at least one processor; wherein the camera is characterized in that the at least one processor is programmed with instructions to: capture a plurality of consecutive frames of IR images of a single target scene; capture a plurality of consecutive frames of VL images, each of the frames of VL images corresponding to, and taken substantially simultaneously with one of the plurality of consecutive frames of IR images; perform an alignment calculation using the captured VL images to determine the misalignment between each VL image and a reference image belonging to the series of VL images and shift each of the captured IR images by the amount of misalignment determined for the corresponding VL image; and average the shifted IR image frames to create an average IR image of the scene with improved quality. capture a plurality of consecutive frames of IR images of a single target scene; capture a plurality of consecutive frames of VL images, each of the frames of VL images corresponding to, and taken substantially simultaneously with one of the plurality of consecutive frames of IR images; perform an alignment calculation using the captured VL images to determine the misalignment between each VL image and a reference image belonging to the series of VL images and shift each of the captured IR images by the amount of misalignment determined for the corresponding VL image; and average the shifted IR image frames to create an average IR image of the scene with improved quality.
A method of outputting a message to the display unit of a mobile terminal, which is connected to a service management server and a content providing server via a wired/wireless communication network, which includes memory, a control unit, said display unit and a key input unit, in which a standby screen occupation representation type application is installed, in standby mode, the method comprising the steps of: receiving at least one message from the service management server, wherein the message is generated by the service management server on the basis of information provided by the content providing server that provides desired information previously set by a user of the mobile terminal for reception and the message includes a message header, bulletin contents and message details; determining whether the message is a bulletin message; if, as a result of the determination, the message is the bulletin, storing the message in the memory; driving the standby screen occupation representation type application in standby mode under the control of the control unit; extracting the message using the standby screen occupation representation type application; and outputting the extracted message to the display unit, characterised in that the message header includes a Telesvc-id, storage time, a content ID and a callback Uniform Resource Locator, URL, wherein, if the content ID has a highly important grade, the message details are output to the display unit. receiving at least one message from the service management server, wherein the message is generated by the service management server on the basis of information provided by the content providing server that provides desired information previously set by a user of the mobile terminal for reception and the message includes a message header, bulletin contents and message details; determining whether the message is a bulletin message; if, as a result of the determination, the message is the bulletin, storing the message in the memory; driving the standby screen occupation representation type application in standby mode under the control of the control unit; extracting the message using the standby screen occupation representation type application; and outputting the extracted message to the display unit, characterised in that the message header includes a Telesvc-id, storage time, a content ID and a callback Uniform Resource Locator, URL, wherein, if the content ID has a highly important grade, the message details are output to the display unit.
A neodymium based homogeneous phase rare-earth catalyst prepared by a process comprising the following steps: 1) in an inert solvent, preparing a mixture solution comprising a neodymium carboxylate compound as component a, a halogen-containing compound as component c, and a conjugated diene as component d; 2) adding an organo-aluminum compound as component b to the mixture obtained from step 1) to obtain said neodymium based homogeneous phase rare-earth catalyst; wherein said organo-aluminum compound is selected from alkylaluminiums with a general formula of AlR 3 and alkylaluminium hydrides with a general formula of AlHR 2, in which R is a C 1 -C 6 linear or branched alkyl group, and the molar ratio of the components in the catalyst is 1:5-30:2-10:35-65 in view of a:b:c:d; preferably, the molar ratio of the components in the catalyst is 1:10-25:2-4:37-60 in view of a:b:c:d. 1) in an inert solvent, preparing a mixture solution comprising a neodymium carboxylate compound as component a, a halogen-containing compound as component c, and a conjugated diene as component d; 2) adding an organo-aluminum compound as component b to the mixture obtained from step 1) to obtain said neodymium based homogeneous phase rare-earth catalyst;
An organic electroluminescence device comprising a first electrode, a second electrode opposite the first electrode, and an organic layer interposed between the first electrode and the second electrode wherein the organic layer comprises a compound selected from compounds 1-5 and 7-62:
Use of an additive for improving the ferrous corrosion-preventing characteristics of a fuel, wherein the additive has the formula: where: R 1 is hydrogen; R 2, R 3, R 4, R 5, R 11 and R 12 are each independently selected from hydrogen, alkyl, alkoxy, alkoxy-alkyl, secondary amine and tertiary amine groups; R 6, R 7, R 8 and R 9 are each independently selected from hydrogen, alkyl, alkoxy, alkoxy-alkyl, secondary amine and tertiary amine groups; X is selected from -O- or -NR 10 -, where R 10 is selected from hydrogen and alkyl groups; and n is 0 or 1. R 1 is hydrogen; R 2, R 3, R 4, R 5, R 11 and R 12 are each independently selected from hydrogen, alkyl, alkoxy, alkoxy-alkyl, secondary amine and tertiary amine groups; R 6, R 7, R 8 and R 9 are each independently selected from hydrogen, alkyl, alkoxy, alkoxy-alkyl, secondary amine and tertiary amine groups; X is selected from -O- or -NR 10 -, where R 10 is selected from hydrogen and alkyl groups; and n is 0 or 1.
Process for the selective production of oxidized furan derivatives starting from 5-hydroxymethyl-2-furfural of formula in the presence of a solvent, an oxidation agent, a catalyst, and optionally a base and/or a co-solvent, characterized in that - the oxidation process is carried out continuously in flow, - the process is carried out in a reactor setup for varying reaction parameters - the solvent for the oxidation process is water and - a dipolar aprotic solvent is present as a co-solvent. - the oxidation process is carried out continuously in flow, - the process is carried out in a reactor setup for varying reaction parameters - the solvent for the oxidation process is water and - a dipolar aprotic solvent is present as a co-solvent.
A rubberized concrete composition comprising cement and rubber particles that are partially oxidized and having surface-active functional groups that are selected from the group consisting of sulfoxides (R-SO-R), sulfones (R-SO 2 -R), sulfur trioxides (R-SO 3) and mixtures thereof, wherein R represents hydrocarbons of the rubber particles; characterized in that further comprised is a bonding agent being gas condensate that is formed by partially oxidizing crumb rubber in the presence of oxygen gas.
A method of delaying pyrophosphate detection comprising: providing a sequestering agent which is capable of reversibly sequestering pyrophosphate by adsorption, chelation or forming a complex therewith; generating pyrophosphate in the presence of said sequestering agent, whereby said pyrophosphate is reversibly sequestered; removing from the area of detection at least a portion of substances that would otherwise increase background and/or interfere with the detection of the pyrophosphate; releasing said pyrophosphate from said sequestering agent; and detecting said pyrophosphate. providing a sequestering agent which is capable of reversibly sequestering pyrophosphate by adsorption, chelation or forming a complex therewith; generating pyrophosphate in the presence of said sequestering agent, whereby said pyrophosphate is reversibly sequestered; removing from the area of detection at least a portion of substances that would otherwise increase background and/or interfere with the detection of the pyrophosphate; releasing said pyrophosphate from said sequestering agent; and detecting said pyrophosphate.
Motorized wheel structure comprising: - a motor unit equipped with a stator case in which a stator and a rotor equipped with a motor shaft are inserted, said motor unit being suited to set a wheel rotating; - a motor reduction unit operatively connected to said motor shaft of said motor unit; - a fixing bracket for fastening said motorized wheel structure to an external device; characterized in that: - said motor reduction unit is equipped at one own end with a substantially circular coupling seat in which a first coupling area and a second coupling area are defined; - said fixing bracket is equipped with an annular portion removably coupled in correspondence with said first coupling area of said coupling seat; - said stator case is installed passing through said annular portion of said fixing bracket and is removably coupled in correspondence with said second coupling area of said coupling seat. - a motor unit equipped with a stator case in which a stator and a rotor equipped with a motor shaft are inserted, said motor unit being suited to set a wheel rotating; - a motor reduction unit operatively connected to said motor shaft of said motor unit; - a fixing bracket for fastening said motorized wheel structure to an external device; - said motor reduction unit is equipped at one own end with a substantially circular coupling seat in which a first coupling area and a second coupling area are defined; - said fixing bracket is equipped with an annular portion removably coupled in correspondence with said first coupling area of said coupling seat; - said stator case is installed passing through said annular portion of said fixing bracket and is removably coupled in correspondence with said second coupling area of said coupling seat.
A surgical instrument comprising: a handle; an adapter configured to releasably couple to the handle and including a translating element; a loading unit configured to releasably couple to a distal end portion of the adapter, the loading unit configured to translate the translating element of the adapter proximally as the loading unit is being coupled to the adapter which loading unit including an end effector assembly including a first and a second jaw member moveable relative to one another and configured to act on tissue; wherein the translating element comprises a translatable shaft extending distally through the loading unit configured to transfer motion from the adapter to the loading unit to actuate one or more of the functions of the end effector, the translatable shaft being received in a shaft receiver of the loading unit such that translation of the shaft actuates the end effector; a loading unit detection system comprising a magnet embedded in the translating element of the adapter and configured to translate with the translating element as the loading unit is coupled to the adapter; and a GMR IC embedded within the adapter, the GMR IC configured to output a differential voltage in response to a magnetic field produced by the magnet, wherein the differential voltage produced by the GMR IC is indicative of a position of the loading unit relative to the adapter. a handle; an adapter configured to releasably couple to the handle and including a translating element; a loading unit configured to releasably couple to a distal end portion of the adapter, the loading unit configured to translate the translating element of the adapter proximally as the loading unit is being coupled to the adapter which loading unit including an end effector assembly including a first and a second jaw member moveable relative to one another and configured to act on tissue; wherein the translating element comprises a translatable shaft extending distally through the loading unit configured to transfer motion from the adapter to the loading unit to actuate one or more of the functions of the end effector, the translatable shaft being received in a shaft receiver of the loading unit such that translation of the shaft actuates the end effector; a loading unit detection system comprising a magnet embedded in the translating element of the adapter and configured to translate with the translating element as the loading unit is coupled to the adapter; and a GMR IC embedded within the adapter, the GMR IC configured to output a differential voltage in response to a magnetic field produced by the magnet, wherein the differential voltage produced by the GMR IC is indicative of a position of the loading unit relative to the adapter.
A method of controlling a hydraulic trailer brake circuit of a trailer, comprising: providing a controller, a base valve, a first sensor, a second sensor, a control valve having a solenoid, a pressurized supply of hydraulic fluid supply, a first brake output, and a second brake output; supplying a first pressure to an inlet of the base valve; outputting a second pressure from an outlet of the base valve to the first brake output; detecting the first pressure with the first sensor and the second pressure with the second sensor; communicating the detected first pressure and the second pressure to the controller; comparing a difference between first pressure and the second pressure to a threshold; and operably controlling the control valve to its de-energized state if the difference exceeds the threshold. providing a controller, a base valve, a first sensor, a second sensor, a control valve having a solenoid, a pressurized supply of hydraulic fluid supply, a first brake output, and a second brake output; supplying a first pressure to an inlet of the base valve; outputting a second pressure from an outlet of the base valve to the first brake output; detecting the first pressure with the first sensor and the second pressure with the second sensor; communicating the detected first pressure and the second pressure to the controller; comparing a difference between first pressure and the second pressure to a threshold; and operably controlling the control valve to its de-energized state if the difference exceeds the threshold.
An apparatus for implanting two species of ions, comprising: a source simultaneously producing a first plasma, which includes a first species of ions, and a second plasma, which includes a second, differing, species of ions; an accelerator system including an analyzer magnet, which cooperate to simultaneously: (i) accelerate the first and second species of ions from the first and second plasma along an initial axis, (ii) alter a trajectory of the first species of ions from the first plasma, thereby producing a first ion beam along a first axis, which is transverse to the initial axis, and (iii) alter a trajectory of the second species of ions from the second plasma, thereby producing a second ion beam along a second axis, which is transverse to the initial axis and the first axis, and a beam processing system operating to simultaneously direct the first and second ion beams toward a semiconductor wafer such that the first and second species of ions bombard an implantation surface of a semiconductor wafer to create an exfoliation layer therein; and an end station operating to support and translate the semiconductor wafer such that the semiconductor wafer translates through the first ion beam and thereafter translates through the semiconductor wafer through the second ion beam. a source simultaneously producing a first plasma, which includes a first species of ions, and a second plasma, which includes a second, differing, species of ions; an accelerator system including an analyzer magnet, which cooperate to simultaneously: (i) accelerate the first and second species of ions from the first and second plasma along an initial axis, (ii) alter a trajectory of the first species of ions from the first plasma, thereby producing a first ion beam along a first axis, which is transverse to the initial axis, and (iii) alter a trajectory of the second species of ions from the second plasma, thereby producing a second ion beam along a second axis, which is transverse to the initial axis and the first axis, and a beam processing system operating to simultaneously direct the first and second ion beams toward a semiconductor wafer such that the first and second species of ions bombard an implantation surface of a semiconductor wafer to create an exfoliation layer therein; and an end station operating to support and translate the semiconductor wafer such that the semiconductor wafer translates through the first ion beam and thereafter translates through the semiconductor wafer through the second ion beam.