mhurhangee/patent-ind-claim-en huggingface dataset:
A method pertaining to a parallel hybrid system for propulsion of a motor vehicle (100; 110) comprising a combustion engine in combination with an electrical machine configuration which includes an electrical machine provided with power supply, comprising the step, during an initial movement phase of the vehicle's propulsion, of using both the combustion engine and the electrical machine of the electrical machine configuration to propel the vehicle (100; 110), wherein the initial movement phase comprises a state when a clutch in the power train is sliding together, characterised by the step, - during said initial movement phase, of continuously distributing torque extracted respectively from the combustion engine and said electrical machine on the basis of the electrical machine's speed (N). - during said initial movement phase, of continuously distributing torque extracted respectively from the combustion engine and said electrical machine on the basis of the electrical machine's speed (N).
Use of a steel powder for the manufacture of components using an additive manufacturing process in which the steel powder is solidified by means of selective heat input in order to represent the component to be manufactured, wherein the steel powder has the following composition (in % by weight): C: 0 - 0.1% Si: ≤ 1.5% Mn: 9.0 - 15.0% Mo: 0.01 - 3.0% N: 0.004 - 0.020% S: ≤ 0.40% Al: 0.004 - 10.0% B: < 0.0025% Nb: ≤ 0.25% Ti: ≤ 1.8% V: ≤ 1.0% Cu: ≤ 2.0% Cr: ≤ 5.0% and optionally Ni with the proviso that the Ni content is 0.5 - 4.0%, wherein Z < 35% by weight applies to the value "Z" formed from the respective Mo content %Mo, the respectively present Ni content %Ni and/or the respectively present Cr content %Cr of the steel powder according to the formula Z = 5 * %Ni + %Cr + 5 * %Mo, Remainder iron and manufacture-related unavoidable impurities. and optionally Ni with the proviso that the Ni content is 0.5 - 4.0%, wherein Z < 35% by weight applies to the value "Z" formed from the respective Mo content %Mo, the respectively present Ni content %Ni and/or the respectively present Cr content %Cr of the steel powder according to the formula Z = 5 * %Ni + %Cr + 5 * %Mo, Remainder iron and manufacture-related unavoidable impurities.
A compartment being one or more of a sample storage compartment, a reagent storage compartment, a reagent manipulator compartment, a sample manipulator compartment and a quality control compartment comprising at least one target area susceptible to condensed water formation, the compartment comprising: at least one condensed water collector , wherein the condensed water collector comprises at least a first portion arranged to collect condensed water from the at least one target area and at least a second portion , and wherein the condensed water collector comprises a porous material being arranged between the first portion and the second portion and being configured to transport the collected condensed water; and a condensed water remover (4, 7; 53) configured to remove condensed water from the second portion thereby facilitating transportation of condensed water from the first portion to the second portion via the porous material, characterized in that the first portion is located inside the compartment and wherein the condensed water collector extends through a wall of the compartment to place the second portion of the condensed water collector outside of the compartment . at least one condensed water collector , wherein the condensed water collector comprises at least a first portion arranged to collect condensed water from the at least one target area and at least a second portion , and wherein the condensed water collector comprises a porous material being arranged between the first portion and the second portion and being configured to transport the collected condensed water; and a condensed water remover (4, 7; 53) configured to remove condensed water from the second portion thereby facilitating transportation of condensed water from the first portion to the second portion via the porous material, characterized in that the first portion is located inside the compartment and wherein the condensed water collector extends through a wall of the compartment to place the second portion of the condensed water collector outside of the compartment .
Low drop-out voltage regulator operable to compensate a zero frequency with respect to a variable load at an output of the voltage regulator in order to provide a stable output (Vreg) taking into account any temperature variation, said voltage regulator comprising : - a regulation loop comprising at least a pass transistor , a source transistor , a sensing transistor and a retention transistor , for which sources of the pass transistor and the source transistor are connected to a first node, a drain of the source transistor is connected to a drain of the retention transistor and to a gate of the pass transistor to form a second node, a drain of the pass transistor is connected to a source of the sensing transistor at an output node, and a source of the retention transistor is connected to a drain of the sensing transistor , characterized in that the voltage regulator comprises a stability compensation circuit comprising a first MOS resistor , which is a stable resistor, and a second MOS resistor , which is a variable resistor, coupled with the first MOS resistor , and at least one capacitor coupled by a first terminal with a drain of at least one of the first MOS resistor and the second MOS resistor , in that a second terminal of the capacitor is connected to the second node coupled with a drain of the retention transistor and with a drain of the source transistor , in that the gate of the second MOS resistor is coupled to the gate of the pass transistor at the second node, and in that the gate of the first MOS resistor is coupled to a gate of the source transistor . - a regulation loop comprising at least a pass transistor , a source transistor , a sensing transistor and a retention transistor , for which sources of the pass transistor and the source transistor are connected to a first node, a drain of the source transistor is connected to a drain of the retention transistor and to a gate of the pass transistor to form a second node, a drain of the pass transistor is connected to a source of the sensing transistor at an output node, and a source of the retention transistor is connected to a drain of the sensing transistor ,
A method for producing a cured product of an episulfide-based resin, the cured product having a thickness of 2 cm or more, the method sequentially having: (A) a step of obtaining a resin composition by mixing a compound (a) below, a compound (b) below and a polymerization catalyst: (a) a compound having two episulfide groups per molecule represented by formula below: wherein m represents an integer from 0 to 4 and n represents an integer from 0 to 2 (b) a compound having at least one thiol group in one molecule; (B) a step of injecting the resin composition into a mold in such a manner as to produce a cured product having a thickness of 2 cm or more; and (C) a step of polymerizing the resin composition in a heating medium, which comprises a liquid having a thermal conductivity of 0.2 W/m·K or higher, or in a shower of the heating medium, with the temperature of the heating medium being elevated, wherein the maximum temperature of the heating medium in the step (C) is 55 to 110°C. (A) a step of obtaining a resin composition by mixing a compound (a) below, a compound (b) below and a polymerization catalyst: (a) a compound having two episulfide groups per molecule represented by formula below: wherein m represents an integer from 0 to 4 and n represents an integer from 0 to 2 (b) a compound having at least one thiol group in one molecule; (a) a compound having two episulfide groups per molecule represented by formula below: wherein m represents an integer from 0 to 4 and n represents an integer from 0 to 2 (b) a compound having at least one thiol group in one molecule; (B) a step of injecting the resin composition into a mold in such a manner as to produce a cured product having a thickness of 2 cm or more; and (C) a step of polymerizing the resin composition in a heating medium, which comprises a liquid having a thermal conductivity of 0.2 W/m·K or higher, or in a shower of the heating medium, with the temperature of the heating medium being elevated,
A method for acquiring a channel quality indicator, CQI, in a user equipment, the method comprising: calculating CQIs of at least two subbands, wherein there are one or two overlapped resource blocks between a first subband and a second subband of the subbands and the first subband and the second subband are adjacent subbands; characterized by : transmitting the subband CQIs to an evolved node B, eNB, at a single reporting instance.
Egg laying device for flies, the device comprising: - a fly cage comprising a container comprising: - a base wall which defines a base surface which is orientated towards the interior of the cage , and - a lateral wall which surrounds the base surface and which defines a lateral surface which is orientated towards the interior of the cage, and - a laying nest which is fixed to the cage and which is intended to receive eggs laid by flies (M) which are enclosed in the cage , in which device the base surface and/or the lateral surface has/have, over more than 90% of the area(s) thereof, a radius of curvature greater than 0.5 cm, wherein the base surface extends in a plane in an uninterrupted manner as far as a junction zone defined between the base surface and the lateral surface , wherein the base surface does not have any raised portions or depressions, the height of which measured perpendicularly to the general plane of the base surface being greater than 10 mm, characterized in that the junction zone defined between the lateral surface and the base surface , has at any point a radius of curvature greater than 1 cm and in that the lateral wall comprises a plurality of planar faces, a junction zone between two adjacent faces having at any point a radius of curvature greater than 1 cm. - a fly cage comprising a container comprising: - a base wall which defines a base surface which is orientated towards the interior of the cage , and - a lateral wall which surrounds the base surface and which defines a lateral surface which is orientated towards the interior of the cage, and - a base wall which defines a base surface which is orientated towards the interior of the cage , and - a lateral wall which surrounds the base surface and which defines a lateral surface which is orientated towards the interior of the cage, and - a laying nest which is fixed to the cage and which is intended to receive eggs laid by flies (M) which are enclosed in the cage , in which device the base surface and/or the lateral surface has/have, over more than 90% of the area(s) thereof, a radius of curvature greater than 0.5 cm, wherein the base surface extends in a plane in an uninterrupted manner as far as a junction zone defined between the base surface and the lateral surface , wherein the base surface does not have any raised portions or depressions, the height of which measured perpendicularly to the general plane of the base surface being greater than 10 mm, characterized in that the junction zone defined between the lateral surface and the base surface , has at any point a radius of curvature greater than 1 cm and in that the lateral wall comprises a plurality of planar faces, a junction zone between two adjacent faces having at any point a radius of curvature greater than 1 cm.
Electric propulsion unit of an aircraft comprising : - at least an electric power system , - at least an electric motor comprising an output shaft (A18) and powered by the electric power system , - a propeller driven in rotation by the electric motor , - a cooling system for the electric power system comprising a main cooling circuit which comprises : o a main air inlet , o at least one intake duct , o at least one main heat exchanger , o at least an exhaust duct , o a main air outlet , - a nacelle housing the electric power system and the electric motor and comprising: o a central fairing , o a front fairing which extends from the central fairing to a front end (34.1) and o a rear fairing which extends from the central fairing to a rear end (36.1), wherein the front fairing comprises a protrude positioned in a lower part of the front fairing , said protrude having a front face located in a transverse plane perpendicular to the output shaft (A18), wherein the main air inlet is positioned on the front face , wherein the main cooling circuit is sized for the cooling needs of the electric power system during the cruise flight and wherein the cooling system comprises at least one secondary cooling circuit which comprises a secondary air inlet , at least one intake duct , at least one secondary heat exchanger , at least an exhaust duct , a secondary air outlet , said at least one secondary cooling circuit being sized to increase the cooling capacity of the main cooling circuit . - at least an electric power system , - at least an electric motor comprising an output shaft (A18) and powered by the electric power system , - a propeller driven in rotation by the electric motor , - a cooling system for the electric power system comprising a main cooling circuit which comprises : o a main air inlet , o at least one intake duct , o at least one main heat exchanger , o at least an exhaust duct , o a main air outlet , o a main air inlet , o at least one intake duct , o at least one main heat exchanger , o at least an exhaust duct , o a main air outlet , - a nacelle housing the electric power system and the electric motor and comprising: o a central fairing , o a front fairing which extends from the central fairing to a front end (34.1) and o a rear fairing which extends from the central fairing to a rear end (36.1), o a central fairing , o a front fairing which extends from the central fairing to a front end (34.1) and o a rear fairing which extends from the central fairing to a rear end (36.1),
An atomizer (100; 400; 500; 600; 700) comprising: an atomizer body with an air passage (104; 204; 304; 404; 504; 604; 704) defined therethrough from an upstream end of the atomizer body to a downstream end thereof; and a fuel circuit (110; 410; 510) defined in the atomizer body extending from a fuel inlet to a fuel outlet (114; 415; 614; 714) opening into the air passage (104; 204; 304; 404; 504; 604; 704); wherein the fuel circuit opens tangentially into the air passage (104; 604) relative to a flow path defined through the air passage; characterized in that the fuel circuit includes a swirl channel (132; 232; 332) extending circumferentially around the air passage (104; 204; 304), with a fuel slot opening tangentially into the swirl channel (132; 232; 332). an atomizer body with an air passage (104; 204; 304; 404; 504; 604; 704) defined therethrough from an upstream end of the atomizer body to a downstream end thereof; and a fuel circuit (110; 410; 510) defined in the atomizer body extending from a fuel inlet to a fuel outlet (114; 415; 614; 714) opening into the air passage (104; 204; 304; 404; 504; 604; 704); wherein the fuel circuit opens tangentially into the air passage (104; 604) relative to a flow path defined through the air passage; characterized in that the fuel circuit includes a swirl channel (132; 232; 332) extending circumferentially around the air passage (104; 204; 304), with a fuel slot opening tangentially into the swirl channel (132; 232; 332).
A high-frequency line structure comprising: a high-frequency line substrate ; a transmission line including ground ends and signal line ends provided in a bottom surface of the high-frequency line substrate ; ground lead pins , end portions of which are fixed to the respective ground ends, and having bottom surfaces forming a horizontal plane; and signal lead pins , end portions of which are fixed to the respective signal line ends, and having other end portions extending away from the signal line ends, wherein the signal lead pins are arranged between the ground lead pins , characterized in that the signal lead pins have a structure in which each of the other end portions of the signal lead pins springs up in a direction toward the bottom surface of the high-frequency line substrate , from the horizontal plane to which the bottom surfaces of the ground lead pins pertain. a high-frequency line substrate ; a transmission line including ground ends and signal line ends provided in a bottom surface of the high-frequency line substrate ; ground lead pins , end portions of which are fixed to the respective ground ends, and having bottom surfaces forming a horizontal plane; and signal lead pins , end portions of which are fixed to the respective signal line ends, and having other end portions extending away from the signal line ends, wherein the signal lead pins are arranged between the ground lead pins , characterized in that the signal lead pins have a structure in which each of the other end portions of the signal lead pins springs up in a direction toward the bottom surface of the high-frequency line substrate , from the horizontal plane to which the bottom surfaces of the ground lead pins pertain.
An apparatus, comprising: means for generating a first channel estimate using a first channel estimation filter having a first filter response; means for recovering a first signal using the first channel estimate; means for regenerating the first signal after recovering the first signal; means for generating a second channel estimate based on the regenerated first signal and using a second channel estimation filter having a second filter response that is different from the first filter response; and means for combining the first channel estimate and the second channel estimate to obtain a third channel estimate in response to detecting a traffic to pilot ratio within a particular range; and means for estimating interference due to the first signal; and means for removing the estimated interference due to the first signal, wherein the means for estimating the interference due to the first signal estimates the interference due to the first signal based on the third channel estimate; and further comprising: means for generating a fourth channel estimate using a third channel estimation filter having a third filter response that is different from the first filter response; means for recovering a second signal using the fourth channel estimate; means for estimating interference due to the second signal; and means for removing the estimated interference due to the second signal. means for generating a first channel estimate using a first channel estimation filter having a first filter response; means for recovering a first signal using the first channel estimate; means for regenerating the first signal after recovering the first signal; means for generating a second channel estimate based on the regenerated first signal and using a second channel estimation filter having a second filter response that is different from the first filter response; and means for combining the first channel estimate and the second channel estimate to obtain a third channel estimate in response to detecting a traffic to pilot ratio within a particular range; and means for estimating interference due to the first signal; and means for removing the estimated interference due to the first signal, wherein the means for estimating the interference due to the first signal estimates the interference due to the first signal based on the third channel estimate; and further comprising: means for generating a fourth channel estimate using a third channel estimation filter having a third filter response that is different from the first filter response; means for recovering a second signal using the fourth channel estimate; means for estimating interference due to the second signal; and means for removing the estimated interference due to the second signal. means for generating a fourth channel estimate using a third channel estimation filter having a third filter response that is different from the first filter response; means for recovering a second signal using the fourth channel estimate; means for estimating interference due to the second signal; and means for removing the estimated interference due to the second signal.
A printing managing apparatus comprising: a memory that is arranged to store pieces of setting information of respective print jobs and pieces of information relating to respective printers ; a display control unit that is arranged to cause a display to display, simultaneously, print job information and a printer list that is a list of printers; the print job information comprising a print job list that is a list of print jobs; a receiving unit that is arranged to receive an input to the print job list displayed on the display ; the display control unit is arranged so that if the receiving unit receives an input for selecting a print job that is displayed in the print job list , the display control unit changes the display order of the printers in the printer list using the setting information of the selected print job and the pieces of information relating to the respective printers ; and the receiving unit is arranged to receive an input for selecting a printer as a transmission destination of data of a print job through a picture that is displayed on the display and that reflects the change of the display order. a memory that is arranged to store pieces of setting information of respective print jobs and pieces of information relating to respective printers ; a display control unit that is arranged to cause a display to display, simultaneously, print job information and a printer list that is a list of printers; the print job information comprising a print job list that is a list of print jobs; a receiving unit that is arranged to receive an input to the print job list displayed on the display ; the display control unit is arranged so that if the receiving unit receives an input for selecting a print job that is displayed in the print job list , the display control unit changes the display order of the printers in the printer list using the setting information of the selected print job and the pieces of information relating to the respective printers ; and the receiving unit is arranged to receive an input for selecting a printer as a transmission destination of data of a print job through a picture that is displayed on the display and that reflects the change of the display order.