mhurhangee/ep-ind-claims huggingface dataset:
A fan blade comprising a main body extending between a leading edge and a trailing edge, and having channels formed into said main body from at least one open side with a plurality of ribs extending across the main body intermediate the channels, with said fan blade having a dovetail, and an airfoil extending radially outwardly from said dovetail, said ribs having a thickness defined as measured from said leading edge toward said trailing edge; characterised in that: said ribs have break-edges (38;66) at edges of said thickness, said break-edges being formed to extend away from an outer face at said open side, wherein said break-edges are respectively formed by a chamfer, wherein a nominal thickness (t 3) of the rib may be defined as a thickness between sides of the rib beyond the chamfer, and the nominal thickness (c) of the chamfer may be defined in a plane perpendicular to said outer face of said rib, with a ratio of said nominal thickness (c) of the chamfer to the nominal thickness (t 3) of the rib is between 0.02 and 0.15; or said break-edges are curved, wherein a ratio of a radius (r 1) of said curved break-edge to a nominal thickness (t 3) of the rib measured between sides of the rib at locations beyond the curved break-edge is between 0.02 and 0.15. said ribs have break-edges (38;66) at edges of said thickness, said break-edges being formed to extend away from an outer face at said open side, wherein said break-edges are respectively formed by a chamfer, wherein a nominal thickness (t 3) of the rib may be defined as a thickness between sides of the rib beyond the chamfer, and the nominal thickness (c) of the chamfer may be defined in a plane perpendicular to said outer face of said rib, with a ratio of said nominal thickness (c) of the chamfer to the nominal thickness (t 3) of the rib is between 0.02 and 0.15; or said break-edges are curved, wherein a ratio of a radius (r 1) of said curved break-edge to a nominal thickness (t 3) of the rib measured between sides of the rib at locations beyond the curved break-edge is between 0.02 and 0.15.
A stack of non-interleaved folded wipes, each wipe comprising: • a first fold, • a second fold at least substantially parallel to the first fold, and • a third fold at least substantially perpendicular to the first and second folds, wherein: • the three folds define a pattern of 3 x 2 panels, including only: ∘ two first side panels (12,13), ∘ two centre panels and ∘ two second side panels (12,13), • the first side panels and second side panels are initially folded onto the centre panels to form the wipe with an initial C-fold and • the first side panels and second side panels do not overlap each other; characterised in that: • each wipe has the two centre panels folded against each other so that the first and second side panels(12,13) are outwardly disposed with respective C-folds. • a first fold, • a second fold at least substantially parallel to the first fold, and • a third fold at least substantially perpendicular to the first and second folds, • the three folds define a pattern of 3 x 2 panels, including only: ∘ two first side panels (12,13), ∘ two centre panels and ∘ two second side panels (12,13), ∘ two first side panels (12,13), ∘ two centre panels and ∘ two second side panels (12,13), • the first side panels and second side panels are initially folded onto the centre panels to form the wipe with an initial C-fold and • the first side panels and second side panels do not overlap each other; • each wipe has the two centre panels folded against each other so that the first and second side panels(12,13) are outwardly disposed with respective C-folds.
A compound represented by a formula A: wherein Ph is optionally substituted phenyl; Py is R 1 is H or C 1-6 hydrocarbyl; A is optionally substituted imidazolyl, optionally substituted thiazolyl, optionally substituted pyrrolyl, morpholine-4-carbonyl, optionally substituted piperazin-1-ylcarbamoyl, or optionally substituted morpholinocarbamoyl; and B is optionally substituted amino(C 1-3 alkyl), optionally substituted alkylamino(C 1-3)alkyl, acetaminomethyl, optionally substituted guanidino, optionally substituted guanidino(C 1-3 alkyl), or optionally substituted guanidinopropyl; or is optionally substituted pyrimidinyl, wherein alkyl is one selected from: linear alkyl, branched alkyl, cycloalkyl, or a combination thereof, and R 9, R 10, and R 11 are independently R A, F, Cl, CN, OR A, CF 3, NO 2, NR A R B, COR A, CO 2 R A, OCOR A, NR A COR B, CONR A R B, H, OH, NH 2, C 1-6 alkyl, or C 1-6 alkoxy; where each R A and R B are independently H or C 1-12 alkyl; provided at least one of R 9, R 10, and R 11 are independently H, F, Cl, NH 2, CH 3, SO 2 NH 2, OCH 3, CH 2 OH, or N(C 2 H 5) 2. wherein Ph is optionally substituted phenyl; Py is R 1 is H or C 1-6 hydrocarbyl; A is optionally substituted imidazolyl, optionally substituted thiazolyl, optionally substituted pyrrolyl, morpholine-4-carbonyl, optionally substituted piperazin-1-ylcarbamoyl, or optionally substituted morpholinocarbamoyl; and B is optionally substituted amino(C 1-3 alkyl), optionally substituted alkylamino(C 1-3)alkyl, acetaminomethyl, optionally substituted guanidino, optionally substituted guanidino(C 1-3 alkyl), or optionally substituted guanidinopropyl; or is optionally substituted pyrimidinyl, wherein alkyl is one selected from: linear alkyl, branched alkyl, cycloalkyl, or a combination thereof, and R 9, R 10, and R 11 are independently R A, F, Cl, CN, OR A, CF 3, NO 2, NR A R B, COR A, CO 2 R A, OCOR A, NR A COR B, CONR A R B, H, OH, NH 2, C 1-6 alkyl, or C 1-6 alkoxy; where each R A and R B are independently H or C 1-12 alkyl; provided at least one of R 9, R 10, and R 11 are independently H, F, Cl, NH 2, CH 3, SO 2 NH 2, OCH 3, CH 2 OH, or N(C 2 H 5) 2.
Procedure for obtaining the design of a fairing which closes the interior end of an elevator of an aircraft with respect to the section of fuselage with the aforesaid elevator arranged on a horizontal stabiliser of the aircraft, so that the horizontal stabiliser moves with a trim angle (α) with respect to the fuselage section rotating in turn the elevator with an elevator angle (β) with respect to the horizontal stabiliser, including the following stages: a) spatial displacement or offset of the surface of the fuselage section on which said fairing of the elevator is to move, starting from a given position of the trim angle (α) of the horizontal stabiliser; b) cut of a solid which simulates the volume of the elevator; c) variation for the aforementioned fixed trim angle (α) of stage a), of the elevator angle (β) of the elevator cutting for each elevator angle (β) the solid which simulates the volume of the elevator of stage b): d) making of iterations of stage c) up until the elevator angle β is maximum (β m) e) verification of whether for said maximum elevator angle (β m) the trim angle (α) is also maximum (α m) f) extraction of maximum trim angle (α m) and maximum elevator angle (β m) values for the given offset of the surface of the fuselage section; g) extraction and smoothing of the surface obtained, which a result provides the optimised fairing design for a elevator. a) spatial displacement or offset of the surface of the fuselage section on which said fairing of the elevator is to move, starting from a given position of the trim angle (α) of the horizontal stabiliser; b) cut of a solid which simulates the volume of the elevator; c) variation for the aforementioned fixed trim angle (α) of stage a), of the elevator angle (β) of the elevator cutting for each elevator angle (β) the solid which simulates the volume of the elevator of stage b): d) making of iterations of stage c) up until the elevator angle β is maximum (β m) e) verification of whether for said maximum elevator angle (β m) the trim angle (α) is also maximum (α m) f) extraction of maximum trim angle (α m) and maximum elevator angle (β m) values for the given offset of the surface of the fuselage section; g) extraction and smoothing of the surface obtained, which a result provides the optimised fairing design for a elevator.
A method for the production of polyurethane foam, comprising the steps of: - providing an isocyanate-reactive component A comprising a polyol component A1 which further comprises a physical blowing agent T; - combining at least the isocyanate-reactive component A and an isocyanate component B, thereby obtaining a polyurethane reaction mixture; - providing the polyurethane reaction mixture in a cavity; and - reducing the pressure within the cavity to a pressure lower than ambient pressure; characterized in that the physical blowing agent T is present in the isocyanate-reactive component A in the form of an emulsion with the polyol component A1 constituting the continuous phase and droplets of the physical blowing agent T the dispersed phase of the emulsion, wherein the average size of the droplets of the physical blowing agent T is ≥ 0,1 μm to ≤ 20 μm, the droplet size being determined by using an optical microscope operating in bright field transmission mode wherein the polyol A1 comprises: A1a: a polyether polyol with a hydroxyl number of ≥ 15 mg KOH/g to ≤ 550 mg KOH/g and a functionality of ≥ 1,5 to ≤ 5,5 obtained by the addition of an epoxide to one or more starter compounds selected from the group of carbohydrates and/or at least difunctional alcohols; and A1b: a polyether polyol with a hydroxyl number of ≥ 100 mg KOH/g to ≤ 550 mg KOH/g and a functionality of ≥ 1,5 to ≤ 5,0 obtained by the addition of an epoxide to an aromatic amine; and A1e: a polyester polyether polyol with a hydroxyl number of ≥ 100 mg KOH/g to ≤ 450 mg KOH/g and a functionality of ≥ 1,5 to ≤ 3,5 obtained by the addition of an epoxide to the esterification product of an aromatic dicarboxylic acid derivative and an at least difunctional alcohol. - providing an isocyanate-reactive component A comprising a polyol component A1 which further comprises a physical blowing agent T; - combining at least the isocyanate-reactive component A and an isocyanate component B, thereby obtaining a polyurethane reaction mixture; - providing the polyurethane reaction mixture in a cavity; and - reducing the pressure within the cavity to a pressure lower than ambient pressure; A1a: a polyether polyol with a hydroxyl number of ≥ 15 mg KOH/g to ≤ 550 mg KOH/g and a functionality of ≥ 1,5 to ≤ 5,5 obtained by the addition of an epoxide to one or more starter compounds selected from the group of carbohydrates and/or at least difunctional alcohols; and A1b: a polyether polyol with a hydroxyl number of ≥ 100 mg KOH/g to ≤ 550 mg KOH/g and a functionality of ≥ 1,5 to ≤ 5,0 obtained by the addition of an epoxide to an aromatic amine; and A1e: a polyester polyether polyol with a hydroxyl number of ≥ 100 mg KOH/g to ≤ 450 mg KOH/g and a functionality of ≥ 1,5 to ≤ 3,5 obtained by the addition of an epoxide to the esterification product of an aromatic dicarboxylic acid derivative and an at least difunctional alcohol.
Motor vehicle comprising a liquid container for receiving an operating liquid, additionally comprising a drive motor of the motor vehicle and a cooling circuit for cooling the drive motor, wherein a cooling liquid circulates in the cooling circuit, wherein at least one heating coil is arranged in the liquid container, wherein the heating coil is attached to the cooling circuit in such a manner that the cooling liquid can flow through the heating coil in order to heat the operating liquid, wherein a connection line is attached to the cooling circuit on two sides, so that a smaller secondary circuit is created through which the cooling liquid flows, wherein the heating coil is arranged in the secondary circuit characterized in that a pump is arranged in the secondary circuit so that cooling liquid can be circulated within the secondary circuit, wherein the pump is arranged in the connection line.
A transmission system, comprising: a drive member; a driven member having a connection mechanism; and an at least partially flexible transmission coupled to the drive member and the connection mechanism of the driven member and configured to cause movement of the driven member in response to movement of the drive member, wherein the flexible transmission comprises a plurality of tension elements (130,131,132,134), wherein the connection mechanism is configured to be adjusted to vary a tension force applied to the flexible transmission, and characterized in that the connection mechanism includes a plurality of coupling members, each coupling member configured to receive an end of a tension element of the flexible transmission, wherein each coupling member is configured to inhibit rotation of the tension element when the connection mechanism is adjusted to vary the tension force applied to the flexible transmission wherein the connection mechanism includes one or more slots configured to receive the coupling members; wherein at least one of the slots is configured to receive a plurality of said coupling members; and the connection mechanism is configured to be adjusted to independently vary a tension force applied to each of the plurality of tension elements (130,131,132,134). a drive member; a driven member having a connection mechanism; and an at least partially flexible transmission coupled to the drive member and the connection mechanism of the driven member and configured to cause movement of the driven member in response to movement of the drive member, wherein the flexible transmission comprises a plurality of tension elements (130,131,132,134), wherein the connection mechanism is configured to be adjusted to vary a tension force applied to the flexible transmission, and characterized in that the connection mechanism includes a plurality of coupling members, each coupling member configured to receive an end of a tension element of the flexible transmission, wherein each coupling member is configured to inhibit rotation of the tension element when the connection mechanism is adjusted to vary the tension force applied to the flexible transmission wherein the connection mechanism includes one or more slots configured to receive the coupling members; wherein at least one of the slots is configured to receive a plurality of said coupling members; and the connection mechanism is configured to be adjusted to independently vary a tension force applied to each of the plurality of tension elements (130,131,132,134).
Stirring device, in particular a whisk, for an electrical kitchen appliance for processing mixtures, including a drive shaft and a first arched, self-contained hoop which is arranged on an end of the drive shaft, and a second, arched, self-contained hoop for processing mixtures, which intersects the first arched hoop and is arranged on the end of the drive shaft, wherein the hoops (11, 15) are embodied to be wire-like, wherein the hoops (11, 15) are embodied to be rectangular, characterised in that the first hoop comprises moulded-on elements embodied as bulges, which are embodied such that the active surface acting upon the mixture to be processed is enlarged, wherein the second hoop comprises moulded-on elements embodied as bulges, which are embodied such that the active surface acting upon the mixture to be processed is enlarged, wherein the moulded-on elements embodied as bulges are embodied to be spherical and are arranged in a lower region of the hoops (11, 15), wherein the moulded-on elements of the first hoop are essentially arranged in a horizontal segment of the hoop which is essentially in parallel with the bottom of a basin during operation of the stirring device, and wherein the moulded-on elements of the second hoop are arranged in a vertical segment of the hoop which is essentially at right angles to the bottom of the basin during operation of the stirring device.
A genetically modified immunodeficient mouse in which a mutation is introduced into the gene of the IL-2 receptor γ chain to disrupt the IL-2 receptor γ chain; which has mutations of genes involved in rearrangement of antigen receptor genes of T cells and B cells at both allelic loci which result in the loss of the functions of T cells and B cells; and in which FcerIg gene and FcgrIIb gene are deficient, FcgR is not functionally expressed and the IL-2 receptor γ chain is not functionally expressed.
An apparatus for joining two hollow organ sections with an annular array of surgical staples comprising: a staple cartridge assembly configured to support the annular array of surgical staples therein, the staple cartridge assembly including pushers configured to eject the respective surgical staples from the staple cartridge assembly, and an outer wall defining a cavity and having a finger deflectably extending over the cavity; an anvil assembly movable relative to the staple cartridge assembly between spaced apart and approximated positions to adjustably clamp the two hollow organ sections between the staple cartridge and anvil assemblies; and a buttress material including an annular body dimensioned to be mounted on a distal surface of the staple cartridge assembly, and a tab extending proximally from the annular body such that at least a portion of the tab is wrapped around the finger of the outer wall of the staple cartridge assembly, wherein the pushers are movable between a first position in which one of the pushers engages the finger such that the tab of the buttress material wrapped around the finger is secured against the pusher, and a second position in which the one of the pushers is disengaged from the finger such that the at least a portion of the tab of the buttress material wrapped around the finger is released from the one of the pushers. a staple cartridge assembly configured to support the annular array of surgical staples therein, the staple cartridge assembly including pushers configured to eject the respective surgical staples from the staple cartridge assembly, and an outer wall defining a cavity and having a finger deflectably extending over the cavity; an anvil assembly movable relative to the staple cartridge assembly between spaced apart and approximated positions to adjustably clamp the two hollow organ sections between the staple cartridge and anvil assemblies; and a buttress material including an annular body dimensioned to be mounted on a distal surface of the staple cartridge assembly, and a tab extending proximally from the annular body such that at least a portion of the tab is wrapped around the finger of the outer wall of the staple cartridge assembly, wherein the pushers are movable between a first position in which one of the pushers engages the finger such that the tab of the buttress material wrapped around the finger is secured against the pusher, and a second position in which the one of the pushers is disengaged from the finger such that the at least a portion of the tab of the buttress material wrapped around the finger is released from the one of the pushers.
A motor comprising: a housing; a control part coupled to the housing; a stator assembly coupled to an inside of the housing and connected to the control part; a rotor disposed inside the stator; a rotary shaft coupled to the rotor; and a sensor connecting part including a body mounted on the housing and having a sensor mounting part, and a terminal included in the body and connected to the sensor mounting part and the control part, wherein the body includes a first body and a second body, wherein the first body is a portion exposed in front of the housing and having the sensor mounting part, wherein the second body is a portion located in the housing and is coupled to the control part, characterized in that the sensor mounting part includes a first mounting part and a second mounting part electrically connected to the terminal, the first mounting part being disposed to face a center of the rotary shaft; and the second mounting part being disposed on a front end of the body so that it is electrically connected to the terminal. a housing; a control part coupled to the housing; a stator assembly coupled to an inside of the housing and connected to the control part; a rotor disposed inside the stator; a rotary shaft coupled to the rotor; and a sensor connecting part including a body mounted on the housing and having a sensor mounting part, and a terminal included in the body and connected to the sensor mounting part and the control part, wherein the body includes a first body and a second body, wherein the first body is a portion exposed in front of the housing and having the sensor mounting part, wherein the second body is a portion located in the housing and is coupled to the control part, characterized in that the sensor mounting part includes a first mounting part and a second mounting part electrically connected to the terminal, the first mounting part being disposed to face a center of the rotary shaft; and the second mounting part being disposed on a front end of the body so that it is electrically connected to the terminal.
An overbased metal detergent having friction-modifying properties, comprising a stable, colloidal dispersion of inorganic base particles in an oil of lubricating viscosity, wherein the detergent comprises i) from 15 to 40 mass % of colloidal inorganic base particles; ii) from 20 to 45 mass % of a stabilising system comprising the mixture obtained by combining A) at least one oil-soluble detergent component having an anionic moiety selected from sulfonate, phenate, sulfurised phenate, thiophosphonate, salicylate, carboxylate, or naphthenate, and B) at least one aliphatic amide having from 10 to 30, preferably 16 to 24, carbon atoms, constituting from 25 to 75, preferably 30 to 60, more preferably 35 to 55, mass % of the mixture; and iii) the oil of lubricating viscosity as the balance; and wherein the amide is incorporated as an integral step in the preparation of the overbased detergent. i) from 15 to 40 mass % of colloidal inorganic base particles; ii) from 20 to 45 mass % of a stabilising system comprising the mixture obtained by combining A) at least one oil-soluble detergent component having an anionic moiety selected from sulfonate, phenate, sulfurised phenate, thiophosphonate, salicylate, carboxylate, or naphthenate, and B) at least one aliphatic amide having from 10 to 30, preferably 16 to 24, carbon atoms, constituting from 25 to 75, preferably 30 to 60, more preferably 35 to 55, mass % of the mixture; and A) at least one oil-soluble detergent component having an anionic moiety selected from sulfonate, phenate, sulfurised phenate, thiophosphonate, salicylate, carboxylate, or naphthenate, and B) at least one aliphatic amide having from 10 to 30, preferably 16 to 24, carbon atoms, constituting from 25 to 75, preferably 30 to 60, more preferably 35 to 55, mass % of the mixture; and iii) the oil of lubricating viscosity as the balance; and wherein the amide is incorporated as an integral step in the preparation of the overbased detergent.