mhurhangee/patent-ind-claim-en huggingface dataset:
Gas burners system for a food cooking appliance, said burners system comprising a couple of burners substantially concentric, said couple of burners comprising an outer burner provided with a first burner cap and an inner burner provided with a second burner cap , said first burner cap and said second burner cap respectively comprising a plurality of first openings and second openings to allow the emission of gas, said first burner cap has a substantially circular shape when viewed in plan and each first opening has an elongated shape when viewed in plan, wherein each first opening comprises a first portion , a second portion and an intermediate portion , said second portion being closer to the central burner than said first portion , and wherein each first opening is oriented substantially in radial way on said first burner cap , characterized in that the burners system comprises passages formed on a side surface of the outer burner , in particular said passages being positioned on opposite sides respect to a vertical axis (A-A) of said burners system , said passages allowing to suck the primary air above a cooking hob , and in that said first openings and second openings develop in a direction substantially parallel to the vertical axis (A-A) of the burners system to generate a flame which propagates from the burners system towards the outside in said direction substantially parallel to said axis (A-A) of the burners system .
A method for producing methanol (MeOH) and hydrocarbon compounds containing at least two carbon atoms (C 2+ compounds), comprising: (a) directing methane (CH 4 ) and oxygen (O 2 ) into an oxidative coupling of methane (OCM) reactor to produce a product stream comprising the C 2+ compounds, carbon monoxide (CO), hydrogen (H 2 ), carbon dioxide (CO 2 ), and un-reacted CH 4 ; (b) generating a first effluent stream comprising the CO 2 from the product stream, wherein a concertation of the CO 2 in the first effluent stream is greater than a concentration of CO 2 in the product stream; (c) generating a second effluent stream comprising H 2 , CO, and un-reacted CH 4 from the product stream; (d) generating a third effluent stream comprising C 2 + compounds; and (e) directing the first effluent stream and the second effluent stream to an MeOH reactor to produce MeOH. (a) directing methane (CH 4 ) and oxygen (O 2 ) into an oxidative coupling of methane (OCM) reactor to produce a product stream comprising the C 2+ compounds, carbon monoxide (CO), hydrogen (H 2 ), carbon dioxide (CO 2 ), and un-reacted CH 4 ; (b) generating a first effluent stream comprising the CO 2 from the product stream, wherein a concertation of the CO 2 in the first effluent stream is greater than a concentration of CO 2 in the product stream; (c) generating a second effluent stream comprising H 2 , CO, and un-reacted CH 4 from the product stream; (d) generating a third effluent stream comprising C 2 + compounds; and (e) directing the first effluent stream and the second effluent stream to an MeOH reactor to produce MeOH.
Method for detecting malfunctions (F) in inertial measuring units used in a vehicle for measuring angular velocities ( ω A , ω B ) and specific forces ( f A , f B ) , two inertial measuring units being used that each have a plurality of sensors, comprising accelerometers and gyroscopic sensors, a first inertial measuring unit being used as the master inertial measuring unit, a second inertial measuring unit , of which the performance capabilities may be lower than those of the first inertial measuring unit , being used as the slave inertial measuring unit, measurements of the master inertial measuring unit being used as reference values in order to compensate for measurements of the slave inertial measuring unit by estimating error model parameters compared with the master inertial measuring unit , in order to detect a malfunction (F) on the basis of two corresponding sensor signals of the two inertial measuring units by comparison, characterized in that of the two inertial measuring units , the inertial measuring unit of which the motion estimation, calculated in a particular downstream Kalman filter , leads in an object tracking unit to an incorrect prediction of the calculated positions of objects in the surroundings of the vehicle is detected as faulty.
Method for waste ink management during additive manufacturing comprising: delivering ink to an additive manufacturing location ; collecting waste ink from the additive manufacturing location; and curing said waste ink upon collection, said method being characterized in that : said collecting comprises: collecting said waste ink from a roller or from printing head servicing; and distributing said waste ink evenly over a collecting cartridge ; and said curing comprises radiating curing energy evenly over said cartridge ; said method being further characterized in that it comprises: detecting when said cartridge is full; and irradiating drip pipes of said cartridge to cure undripped ink. delivering ink to an additive manufacturing location ; collecting waste ink from the additive manufacturing location; and curing said waste ink upon collection, said method being characterized in that : said collecting comprises: collecting said waste ink from a roller or from printing head servicing; and distributing said waste ink evenly over a collecting cartridge ; and said curing comprises radiating curing energy evenly over said cartridge ; said method being further characterized in that it comprises: detecting when said cartridge is full; and irradiating drip pipes of said cartridge to cure undripped ink. said collecting comprises: collecting said waste ink from a roller or from printing head servicing; and distributing said waste ink evenly over a collecting cartridge ; and collecting said waste ink from a roller or from printing head servicing; and distributing said waste ink evenly over a collecting cartridge ; and said curing comprises radiating curing energy evenly over said cartridge ; said method being further characterized in that it comprises: detecting when said cartridge is full; and irradiating drip pipes of said cartridge to cure undripped ink. detecting when said cartridge is full; and irradiating drip pipes of said cartridge to cure undripped ink.
A method for processing a digital bit stream representative of a communication signal, the method comprising: dividing , at one or more processors, the digital bit stream into a plurality of data packets, each of the data packets of the plurality of data packets including an overlap of data from an adjacent packet; in a first one or more processing blocks in the processor, performing a timing recovery error calculation and a timing recovery operation on a first portion of the plurality of data packets, and performing a carrier recovery error calculation and a carrier recovery operation on the first portion of the plurality of data packets; in a second one or more processing blocks in the processor in parallel with the first portion of the plurality of packets, performing a timing recovery error calculation and timing recovery operation on a second portion of the plurality of data packets; and performing a carrier recovery error calculation and carrier recovery operation on the second portion of the plurality of data packets; and combining the first portion and the second portion based on timing and phase stitching . dividing , at one or more processors, the digital bit stream into a plurality of data packets, each of the data packets of the plurality of data packets including an overlap of data from an adjacent packet; in a first one or more processing blocks in the processor, performing a timing recovery error calculation and a timing recovery operation on a first portion of the plurality of data packets, and performing a carrier recovery error calculation and a carrier recovery operation on the first portion of the plurality of data packets; performing a timing recovery error calculation and a timing recovery operation on a first portion of the plurality of data packets, and performing a carrier recovery error calculation and a carrier recovery operation on the first portion of the plurality of data packets; in a second one or more processing blocks in the processor in parallel with the first portion of the plurality of packets, performing a timing recovery error calculation and timing recovery operation on a second portion of the plurality of data packets; and performing a carrier recovery error calculation and carrier recovery operation on the second portion of the plurality of data packets; and performing a timing recovery error calculation and timing recovery operation on a second portion of the plurality of data packets; and performing a carrier recovery error calculation and carrier recovery operation on the second portion of the plurality of data packets; and combining the first portion and the second portion based on timing and phase stitching .
Small-sized submersible pump unit comprising a submersible motor , a shiftable module , and a pump , the housings of which are connected with each other by flangeless couplings a flangeless coupling is designed with embedded ring segments , whereas the coupled housings each have a covering part and a covered part , and the covered part of one of the housings comprises a blind rectangular groove , and the covering part of another housing comprises a rectangular through-opening , and said groove and opening form a cavity comprising an embedded ring segment characterized in that the embedded ring segment has a cylindrical external surface flush with the covered part that is overlapped by the covering part , whereas the covered part has a thread , and the covering part is fastened by a sleeve nut screwed on the thread of the covered part , wherein the covering part has a spring split bushing put thereon, the embedded ring segment is connected with the spring split bushing , and a tapered internal surface is made on the embedded ring segment at the level of cylindrical external surface , wherein the covered part is, in a non-threaded way, axially covered by the covering part . a flangeless coupling is designed with embedded ring segments , whereas the coupled housings each have a covering part and a covered part , and the covered part of one of the housings comprises a blind rectangular groove , and the covering part of another housing comprises a rectangular through-opening , and said groove and opening form a cavity comprising an embedded ring segment characterized in that the embedded ring segment has a cylindrical external surface flush with the covered part that is overlapped by the covering part , whereas the covered part has a thread , and the covering part is fastened by a sleeve nut screwed on the thread of the covered part , wherein the covering part has a spring split bushing put thereon, the embedded ring segment is connected with the spring split bushing , and a tapered internal surface is made on the embedded ring segment at the level of cylindrical external surface , wherein the covered part is, in a non-threaded way, axially covered by the covering part .
A robot cleaner comprising: a cleaner body including a controller, the cleaner body having a dust container accommodation part formed as being dented toward a front side from a rear side of the cleaner body to be opened rearward ; a wheel unit mounted in the cleaner body , wherein the controller is configured to control driving of the wheel unit ; a suction unit mounted in the cleaner body configured to suck air containing dust; a dust container detachably coupled to the dust container accommodation part , the dust container configured to filter and collect dust from sucked air; and a dust container cover including a hinge part rotatably coupled to the cleaner body (1 10a), the dust container cover covers or opens at least a portion of the dust container accommodation part by detachably coupling to the top surface of the dust container . a cleaner body including a controller, the cleaner body having a dust container accommodation part formed as being dented toward a front side from a rear side of the cleaner body to be opened rearward ; a wheel unit mounted in the cleaner body , wherein the controller is configured to control driving of the wheel unit ; a suction unit mounted in the cleaner body configured to suck air containing dust; a dust container detachably coupled to the dust container accommodation part , the dust container configured to filter and collect dust from sucked air; and a dust container cover including a hinge part rotatably coupled to the cleaner body (1 10a), the dust container cover covers or opens at least a portion of the dust container accommodation part by detachably coupling to the top surface of the dust container .
A system for treating headaches comprising: a flexible, coiled neurostimulation lead having a single electrode adapted for positioning proximate to, but not in direct physical contact with multiple occipital nerves innervating an area of pain, wherein the lead comprises a plurality of coils, the coils being composed of bundles of conductive wires, each of the conductive wires as well as the coils being wired in parallel to an electrical stimulation device to ensure that a fracture sustained in a single wire does not inhibit therapeutical pulses delivered by the lead as a whole, and wherein the interstices of the coils allow tissue ingrowth; and an electrical stimulation device configured to deliver therapy for a period of time via the flexible, coiled neurostimulation lead, the therapy comprising pulsed electrical signals having a pulse duration of 0 to 500 μs at 0 to 50 mA and 20 to 200 Hz via stimulation of the occipital nerves without generating muscle contractions. a flexible, coiled neurostimulation lead having a single electrode adapted for positioning proximate to, but not in direct physical contact with multiple occipital nerves innervating an area of pain, wherein the lead comprises a plurality of coils, the coils being composed of bundles of conductive wires, each of the conductive wires as well as the coils being wired in parallel to an electrical stimulation device to ensure that a fracture sustained in a single wire does not inhibit therapeutical pulses delivered by the lead as a whole, and wherein the interstices of the coils allow tissue ingrowth; and an electrical stimulation device configured to deliver therapy for a period of time via the flexible, coiled neurostimulation lead, the therapy comprising pulsed electrical signals having a pulse duration of 0 to 500 μs at 0 to 50 mA and 20 to 200 Hz via stimulation of the occipital nerves without generating muscle contractions.
A payment terminal with a housing comprising a planar upper face with an extension at one end forming an angle θ 2 . between 30 and 50° with the planar face for receiving a contactless reading device for contactless reading and communicating with contactless payment means, the other end of the planar face comprising a magnetic stripe card reader and receiving, in a slot , located above the magnetic stripe card reader and forming an angle θ 1 between 30 and 50° with the planar face, a contact chip card reader , said terminal comprising a main circuit board comprising at least a controller, at least a memory for storing data and/or programs, said controller comprising at least a processor for executing said programs when it receives instructions from the memory of the controller in order to control at least a display device displaying a virtual keyboard, means for communicating by Internet or by WiFi, and a functionality of contact or contactless card reading, the terminal being characterized in that said main circuit board comprises, at one end, a connector for a contact card reader oriented with an angle θ 1 between 30 and 50° with the planar surface of the card and, at the other end, a flexible connector for connecting a wired antenna for a functionality of reading of contactless payment means with an angle θ 2 between 30 and 50° with the planar surface of the card.
Flame-retardant polyamide composition comprising as component A) 1 to 96 wt% of one or more thermoplastic polyamides, as component B) 2 to 25 wt% of a dialkylphosphinic salt of the formula (I), and/or of a diphosphinic salt of the formula (II), and/or of polymers thereof, in which R 1 and R 2 are identical or different and are C 1 -C 6 -alkyl, linear, or branched, or H; R 3 is C 1 -C 10 -alkylene, linear, or branched, C 6 -C 10 -arylene, C 7 -C 20 -alkylarylene, or C 7 -C 20 -arylalkylene; M is Mg, Ca, Al, Sb, Sn, Ge, Ti, Zn, Fe, Zr, Ce, Bi, Sr, Mn, Li, Na, K and/or a protonated nitrogen base; m is 1 to 4; n is 1 to 4; x is 1 to 4, as component C) 1 to 20 wt% of a salt of phosphorous acid, as component D) 1 to 20 wt% of a phosphazene of the general formula in which in formula (III) o is an integer from 3 to 25 and in formula (IV) p is an integer from 3 to 1000, and X is -N = P(OPh) 3 or -N = P(O)OPh and Y is -P(OPh) 4 or -P(O)(OPh) 2 , R 4 and R 4' are identical or different and are C 1 -C 20 -alkyl, C 6 -C 30 -aryl, C 6 -C 30 -arylalkyl, or C 6 -C 30 -alkyl-substituted aryl, as component E) 0 to 50 wt% of filler or reinforcing agent, as component F) 0 to 2 wt% of a phosphonite or of a mixture of a phosphonite and a phosphite, and as component G) 0 to 2 wt% of an ester or salt of long-chain aliphatic carboxylic acids (fatty acids), which typically have chain lengths of C 14 to C 40 , the sum of the components always being 100 wt%. as component A) 1 to 96 wt% of one or more thermoplastic polyamides, as component B) 2 to 25 wt% of a dialkylphosphinic salt of the formula (I), and/or of a diphosphinic salt of the formula (II), and/or of polymers thereof, R 1 and R 2 are identical or different and are C 1 -C 6 -alkyl, linear, or branched, or H; R 3 is C 1 -C 10 -alkylene, linear, or branched, C 6 -C 10 -arylene, C 7 -C 20 -alkylarylene, or C 7 -C 20 -arylalkylene; M is Mg, Ca, Al, Sb, Sn, Ge, Ti, Zn, Fe, Zr, Ce, Bi, Sr, Mn, Li, Na, K and/or a protonated nitrogen base; m is 1 to 4; n is 1 to 4; x is 1 to 4, as component C) 1 to 20 wt% of a salt of phosphorous acid, as component D) 1 to 20 wt% of a phosphazene of the general formula o is an integer from 3 to 25 and in formula (IV) p is an integer from 3 to 1000, and X is -N = P(OPh) 3 or -N = P(O)OPh and Y is -P(OPh) 4 or -P(O)(OPh) 2 , R 4 and R 4' are identical or different and are C 1 -C 20 -alkyl, C 6 -C 30 -aryl, C 6 -C 30 -arylalkyl, or C 6 -C 30 -alkyl-substituted aryl, as component E) 0 to 50 wt% of filler or reinforcing agent, as component F) 0 to 2 wt% of a phosphonite or of a mixture of a phosphonite and a phosphite, and as component G) 0 to 2 wt% of an ester or salt of long-chain aliphatic carboxylic acids (fatty acids), which typically have chain lengths of C 14 to C 40 , the sum of the components always being 100 wt%.
An analytical system for DNA sequencing comprising: an integrated optical delivery device and an integrated target waveguide device , wherein the integrated optical delivery device comprises: a plurality of optical inputs; a plurality of optical outputs; and a plurality of optical output waveguides disposed on a substrate and optically connected to the plurality of optical inputs and the plurality of optical outputs; wherein the integrated target waveguide device is a multiplexed DNA sequencing device configured to sequence DNA in at least 100 reaction regions, characterized in that : at least one optical output is configured for optical coupling to the integrated target waveguide device through free space at a distance of at least 1 mm, and said at least one optical output has a numerical aperture of no more than 0.1. an integrated optical delivery device and an integrated target waveguide device , wherein the integrated optical delivery device comprises: a plurality of optical inputs; a plurality of optical outputs; and a plurality of optical output waveguides disposed on a substrate and optically connected to the plurality of optical inputs and the plurality of optical outputs; wherein the integrated target waveguide device is a multiplexed DNA sequencing a plurality of optical inputs; a plurality of optical outputs; and a plurality of optical output waveguides disposed on a substrate and optically connected to the plurality of optical inputs and the plurality of optical outputs; wherein the integrated target waveguide device is a multiplexed DNA sequencing device configured to sequence DNA in at least 100 reaction regions, characterized in that : at least one optical output is configured for optical coupling to the integrated target waveguide device through free space at a distance of at least 1 mm, and said at least one optical output has a numerical aperture of no more than 0.1. at least one optical output is configured for optical coupling to the integrated target waveguide device through free space at a distance of at least 1 mm, and said at least one optical output has a numerical aperture of no more than 0.1.
A method of repairing and assessing at least part of a damaged object , the method comprising: providing a damaged object; and performing, using common Additive Manufacturing apparatus , an Additive Manufacturing process to: add additional material to the damaged object; and produce a test specimen , the test specimen being produced from the same material as the additional material that is added to the damaged object, the test specimen being produced on a surface of the damaged object at a location that is at or proximate to the location, on the damaged object, of the additional material that is added by the Additive Manufacturing apparatus performing the Additive Manufacturing process; performing, using computed tomography scanning apparatus , on the produced test specimen , a computed tomography scanning process to create a model , the model being a digital model of the internal structure of the test specimen ; determining whether or not the model satisfies one or more criteria; and if the model satisfies the one or more criteria, determining that the additional material added to the damaged object is acceptable; or if the model does not satisfy the one or more criteria, determining that the additional material added to the damaged object is not acceptable. providing a damaged object; and performing, using common Additive Manufacturing apparatus , an Additive Manufacturing process to: add additional material to the damaged object; and produce a test specimen , the test specimen being produced from the same material as the additional material that is added to the damaged object, the test specimen being produced on a surface of the damaged object at a location that is at or proximate to the location, on the damaged object, of the additional material that is added by the Additive Manufacturing apparatus performing the Additive Manufacturing process; add additional material to the damaged object; and produce a test specimen , the test specimen being produced from the same material as the additional material that is added to the damaged object, the test specimen being produced on a surface of the damaged object at a location that is at or proximate to the location, on the damaged object, of the additional material that is added by the Additive Manufacturing apparatus performing the Additive Manufacturing process; performing, using computed tomography scanning apparatus , on the produced test specimen , a computed tomography scanning process to create a model , the model being a digital model of the internal structure of the test specimen ; determining whether or not the model satisfies one or more criteria; and if the model satisfies the one or more criteria, determining that the additional material added to the damaged object is acceptable; or if the model does not satisfy the one or more criteria, determining that the additional material added to the damaged object is not acceptable.