mhurhangee/ep-ind-claims huggingface dataset:
A rotor blade assembly for a turbo machine, having a plurality of individual rotor blades, two rotor disks (8, 10) and clamping elements (12, 14), wherein the rotor blades are arranged side by side in the peripheral direction and are clamped with their blade roots between the two rotor disks (8, 10), wherein the clamping elements (12, 14) engage the rotor disks (8, 10) for clamping the blade roots, wherein the clamping elements (12, 14) engage the rotor disks (8, 10) externally and can be supported on a front rotor element and a rear rotor element, and wherein each blade root has an end portion, which is thickened on both sides in the axial direction, and each rotor disk (8, 10) is provided with a corresponding recess (38, 40) for accommodating portions of the end portion, characterized in that the end portions and the clamping elements (12, 14) are arranged on the same radius (r).
A wireless communication method, wherein the method comprises: determining, by a terminal device, a network type and/or network identity of a target network, the network type and/or network identity of the target network indicating whether the target network is a local network or a public land network, and being a local network type or local network identity of the target network when the target network is the local network; and performing, by the terminal device, communication through the target network, wherein when the target network is the local network, the network identity comprises information of an involved public land mobile network, PLMN, and information of the local network identity, the information of the local network identity is unique in the PLMN, and the network identity indicates that the target network is the local network, wherein determining, by the terminal device, the network type and/or network identity of the target network comprises: determining, by the terminal device, the network type and/or network identity of the target network based on the network type and/or network identity supported by a current network based on information of a currently accessed cell. determining, by a terminal device, a network type and/or network identity of a target network, the network type and/or network identity of the target network indicating whether the target network is a local network or a public land network, and being a local network type or local network identity of the target network when the target network is the local network; and performing, by the terminal device, communication through the target network, wherein when the target network is the local network, the network identity comprises information of an involved public land mobile network, PLMN, and information of the local network identity, the information of the local network identity is unique in the PLMN, and the network identity indicates that the target network is the local network, wherein determining, by the terminal device, the network type and/or network identity of the target network comprises: determining, by the terminal device, the network type and/or network identity of the target network based on the network type and/or network identity supported by a current network based on information of a currently accessed cell.
Piston for an internal combustion engine, with a piston head and a piston skirt, wherein the piston head comprises a circumferential ring part as well as, in the region of the ring part, a circumferential cooling channel and a circumferential ring support, wherein the ring support forms a wall section of the cooling channel thereby directly contacting the cooling channel, wherein the cooling channel has a cross-section comprising a contraction disposed in a central area, characterized in that - the cross-section of the cooling channel comprises in the axial direction: a height (H 1), a first maximum radial width (B 1) in a region arranged on the side of the contraction facing the piston crown, a second maximum radial width (B 2) in a region arranged on the side of the contraction facing away from the piston crown, and a third minimum radial width (b) in the region of the contraction, wherein: H 1 ≥ B 1 + B 2 and b ≤ 0.5 * min B 1, B 2 - the ring support comprises a surface having an axial height (H 2) and adjoining the cooling channel, wherein: H 2 ≥ 0, 5 * B 1 + B 2. - the cross-section of the cooling channel comprises in the axial direction: a height (H 1), a first maximum radial width (B 1) in a region arranged on the side of the contraction facing the piston crown, a second maximum radial width (B 2) in a region arranged on the side of the contraction facing away from the piston crown, and a third minimum radial width (b) in the region of the contraction, wherein: H 1 ≥ B 1 + B 2 and b ≤ 0.5 * min B 1, B 2 - the ring support comprises a surface having an axial height (H 2) and adjoining the cooling channel, wherein: H 2 ≥ 0, 5 * B 1 + B 2.
Method for controlling a motor propulsion unit comprising an electric motor equipped with a permanent magnet rotor and a stator, said method comprising a step of regulating the currents (Id, Iq) of the stator so that they attain setpoint current values (Idref, Iqref) by virtue of control signals (Vd, Vq) of the electric motor, said currents to be regulated (Id, Iq) and said control signals (Vd, Vq) being expressed in a rotating reference frame comprising a plurality of axes (d, q), characterized in that said regulation step comprises for each of the axes (d, q) of said plurality of axes a step of applying, to the current to be regulated (Id, Iq) on said axis, a linear operator (OP1D, OP2D, OP1Q, OP2Q) that differs as a function of the value of said current to be regulated (Id, Iq) with respect to the setpoint value thereof (Idref, Iqref), said step of application of said linear operator providing a control signal value (Vd, Vq) on said axis, said linear operator (OP1D, OP2D, OP1Q, OP2Q) comprising: - a first term minimizing or maximizing, as a function of the value of said current to be regulated (Id, Iq) with respect to the setpoint value thereof (Idref, Iqref), a zero-order component of a control signal estimated on said axis as a function of said currents to be regulated (Id, Iq), of the speed (ω r) of said rotor, and of limit values (R smin, R smax, L smin, L smax, Φ fmin, Φ max) of value ranges estimating features of said motor propulsion unit, - and a second term proportional to said current to be regulated (Id, Iq) on said axis (d, q) using a convergence factor (λ d, λ q). - a first term minimizing or maximizing, as a function of the value of said current to be regulated (Id, Iq) with respect to the setpoint value thereof (Idref, Iqref), a zero-order component of a control signal estimated on said axis as a function of said currents to be regulated (Id, Iq), of the speed (ω r) of said rotor, and of limit values (R smin, R smax, L smin, L smax, Φ fmin, Φ max) of value ranges estimating features of said motor propulsion unit, - and a second term proportional to said current to be regulated (Id, Iq) on said axis (d, q) using a convergence factor (λ d, λ q).
Medical device and secure control system comprising a wearable medical device and a medical device controller, the medical device controller comprising a communications module including at least a short range wireless communications capability for communication with a consumer electronic device including any one or more of a smartphone, a personal computer, a smartwatch and a computer tablet, the medical device controller further comprising a memory storing a computer program and encryption keys configured to establish an encrypted communication with the consumer electronics device, and a processor configured to execute the computer program, the medical device controller and the medical device storing each at least one journal for exchange of journal entries between the medical device controller and the consumer electronic device and between the medical device controller and the medical device, the journal entries comprising user identification, user rights, and operations instructed to the medical device, the medical device controller configured to transmit via said encrypted communication: i) a data entry image for presentation on a graphical display of the consumer electronic device, or ii) instructions to upload an entry image stored in the memory of the consumer electronic device, and to receive via said encrypted communication an instruction for operation of the medical device, the medical device controller configured to transmit said instruction for operation of the medical device to the medical device. i) a data entry image for presentation on a graphical display of the consumer electronic device, or ii) instructions to upload an entry image stored in the memory of the consumer electronic device, and to receive via said encrypted communication an instruction for operation of the medical device,
Lighting arrangement for information boards, comprising - a plurality of light-emitting diodes, - a light panel through which light from the light-emitting diodes is emitted, and - a plurality of light modules, - a retaining module, the light modules each having at least one of the light-emitting diodes as a light source, and the light modules can be secured on the retaining module in a spaced arrangement such that for each light module, a substantially quadrangular sub-region of the light panel is illuminated and a region of the light panel provided for displaying information is illuminated entirely and substantially uniformly by all of the light modules, characterised in that the lighting arrangement comprises a retaining module extending flat and oriented substantially parallel with the light panel and at least two elastic mounting arms are provided spaced apart from one another on the light module, and in that at least two mounting slots are provided on the retaining module for each light module with a corresponding spacing so that the light module is inserted in the mounting slot by the elastic mounting arms to place it in a mounted position and is secured on the retaining module by a linear movement in a mounting direction, and the elastic mounting arms are guided by the fixing slot and locate around the retaining module, and the light modules have an optical element for shaping and deflecting light of the light-emitting diodes in the direction of the light panel, the optical element being a refractive optical element. - a plurality of light-emitting diodes, - a light panel through which light from the light-emitting diodes is emitted, and - a plurality of light modules, - a retaining module,
A variable orientation guide vane (12; 112) for a gas turbine engine, the variable orientation guide vane (12; 112) comprising: an airfoil (38A; 38B; 138) for interacting with a fluid in a gas path of the gas turbine engine, the airfoil (38A; 38B; 138) having a leading edge (42A; 42B) and a trailing edge (44A; 44B); and a button (40A; 40B; 140), the airfoil (38A; 38B; 138) being mounted to the button (40A; 40B; 140) and rotatable with the button (40B; 40B; 140) about an axis (VA; VB) during use, the button (40A; 40B; 140) having a leading end at an angular position corresponding to an angular position of the leading edge (42A; 42B) of the airfoil (38A; 38B; 138) relative to the axis (VA; VB), the button (40A; 40B; 140) including a platform surface (46A; 46B; 146) for facing the gas path and defining part of the gas path during use, characterized in that the platform surface (46A; 46B; 146) includes a depression (48A; 48B) for receiving therein part of an adjacent variable orientation guide vane (12; 112), the depression (48A; 48B) defining a sunken portion of the platform surface (46A; 46B; 146) that is lower than a leading end portion of the platform surface (46A; 46B; 146) at or adjacent the leading end of the button (40A; 40B; 140). an airfoil (38A; 38B; 138) for interacting with a fluid in a gas path of the gas turbine engine, the airfoil (38A; 38B; 138) having a leading edge (42A; 42B) and a trailing edge (44A; 44B); and a button (40A; 40B; 140), the airfoil (38A; 38B; 138) being mounted to the button (40A; 40B; 140) and rotatable with the button (40B; 40B; 140) about an axis (VA; VB) during use, the button (40A; 40B; 140) having a leading end at an angular position corresponding to an angular position of the leading edge (42A; 42B) of the airfoil (38A; 38B; 138) relative to the axis (VA; VB), the button (40A; 40B; 140) including a platform surface (46A; 46B; 146) for facing the gas path and defining part of the gas path during use, characterized in that the platform surface (46A; 46B; 146) includes a depression (48A; 48B) for receiving therein part of an adjacent variable orientation guide vane (12; 112), the depression (48A; 48B) defining a sunken portion of the platform surface (46A; 46B; 146) that is lower than a leading end portion of the platform surface (46A; 46B; 146) at or adjacent the leading end of the button (40A; 40B; 140).
A structure for arranging a speaker in a vehicle, the structure comprising: a hinge pillar including a hinge pillar inner and a hinge pillar outer that form a closed cross-section extending vertically; and a speaker box fixed to the hinge pillar and configured to hold and house a speaker therein, wherein an opening is open in a transverse direction of the vehicle in the hinge pillar inner, the speaker box includes a box part (11, 21) formed of a sheet metal member including a bottom and side walls that form a housing space housing the speaker, together with the bottom, and the box part (11, 21) is arranged in the opening, with the bottom located in the closed cross-section and with the housing space open inside a vehicle cabin, and is joined to an edge of the opening, characterized in that a lower part of the hinge pillar inner includes a rear edge extending rearward toward a bottom, the box part (11, 21) is arranged at the lower part of the hinge pillar inner, a lower rear of the box part (11, 21) is bulged more rearward than an upper rear of the box part (11, 21) along a lower rear edge of the hinge pillar inner, and the lower rear includes an inclined surface between a vehicle outer side surface being the bottom of the box part (11, 21) and a lower surface being a part of the side walls of the box part (11, 21). a hinge pillar including a hinge pillar inner and a hinge pillar outer that form a closed cross-section extending vertically; and a speaker box fixed to the hinge pillar and configured to hold and house a speaker therein, wherein an opening is open in a transverse direction of the vehicle in the hinge pillar inner, the speaker box includes a box part (11, 21) formed of a sheet metal member including a bottom and side walls that form a housing space housing the speaker, together with the bottom, and the box part (11, 21) is arranged in the opening, with the bottom located in the closed cross-section and with the housing space open inside a vehicle cabin, and is joined to an edge of the opening, characterized in that a lower part of the hinge pillar inner includes a rear edge extending rearward toward a bottom, the box part (11, 21) is arranged at the lower part of the hinge pillar inner, a lower rear of the box part (11, 21) is bulged more rearward than an upper rear of the box part (11, 21) along a lower rear edge of the hinge pillar inner, and the lower rear includes an inclined surface between a vehicle outer side surface being the bottom of the box part (11, 21) and a lower surface being a part of the side walls of the box part (11, 21).
A method of processing a specimen from a fluid sample, comprising: forcing the fluid sample through a set of one or more microfluidic channels and a filter; and collecting the specimen on the filter; and transferring the collected specimen from the filter to a slide, wherein transferring the collected specimen from the filter to the slide comprises inflating a bladder to force the filter into contact with the slide. forcing the fluid sample through a set of one or more microfluidic channels and a filter; and collecting the specimen on the filter; and transferring the collected specimen from the filter to a slide, wherein transferring the collected specimen from the filter to the slide comprises inflating a bladder to force the filter into contact with the slide.
A compound which is an amino acid derivative of formula or a pharmaceutically acceptable salt or hydrate thereof: wherein R 1 is - indole the N-position of which may be substituted with formyl, benzyl or C 1-6 -alkyl; or - phenyl substituted with C 1-4 -alkoxy; R 2 is H, C 2-4 -alkyl or cyano; R 3 is H or C 1-4 -alkyl; and R 4 is phenyl substituted with one or two substituents selected from F, Br, I, cyano, CF 3 and phenoxy. R 1 is - indole the N-position of which may be substituted with formyl, benzyl or C 1-6 -alkyl; or - phenyl substituted with C 1-4 -alkoxy; - indole the N-position of which may be substituted with formyl, benzyl or C 1-6 -alkyl; or - phenyl substituted with C 1-4 -alkoxy; R 2 is H, C 2-4 -alkyl or cyano; R 3 is H or C 1-4 -alkyl; and R 4 is phenyl substituted with one or two substituents selected from F, Br, I, cyano, CF 3 and phenoxy.
A method for increasing double-strand break induced mutagenesis at a genomic locus of interest in a cell comprising the steps of: (i) identifying at said genomic locus of interest at least one DNA target sequence cleavable by one rare-cutting endonuclease; (ii) engineering said at least one rare-cutting endonuclease to provide a chimeric rare-cutting endonuclease able to generate one double-strand break in the genomic locus of interest and a loss of genetic information within the genomic locus of interest by another enzymatic activity, said another enzymatic activity being an exonuclease activity; and (iii) contacting said DNA target sequence with said at least one chimeric rare-cutting endonuclease to generate one DNA double-strand break in the genomic locus of interest, and a loss of genetic information around said DNA target sequence within the genomic locus of interest, wherein said chimeric rare-cutting endonuclease is a rare-cutting endonuclease fused to an exonuclease domain, thereby obtaining a cell in which double-strand break induced mutagenesis at said genomic locus of interest is increased. (i) identifying at said genomic locus of interest at least one DNA target sequence cleavable by one rare-cutting endonuclease; (ii) engineering said at least one rare-cutting endonuclease to provide a chimeric rare-cutting endonuclease able to generate one double-strand break in the genomic locus of interest and a loss of genetic information within the genomic locus of interest by another enzymatic activity, said another enzymatic activity being an exonuclease activity; and (iii) contacting said DNA target sequence with said at least one chimeric rare-cutting endonuclease to generate one DNA double-strand break in the genomic locus of interest, and a loss of genetic information around said DNA target sequence within the genomic locus of interest,
A tire mold comprising: a mold surface that vulcanizes and molds a tire; and a blade that vulcanizes and molds a sipe in the tire, the blade being formed on the mold surface, wherein: the blade includes a concave-convex surface in which a plurality of convex portions formed adjacent to each other and a plurality of concave portions formed between the convex portions adjacent to each other are formed; a length of the concave portion is smaller than a length of the convex portion in a concave-convex surface view; the concave portion is formed in a shape having a sharp distal end in a depth direction of the concave portion; a first layer extended from one end to another end in a predetermined direction of the blade is formed on a side surface of the blade; and multiple first layers are formed adjacent to each other in a direction orthogonal to the predetermined direction at an interval of 0.1 mm to 0.5 mm. a mold surface that vulcanizes and molds a tire; and a blade that vulcanizes and molds a sipe in the tire, the blade being formed on the mold surface, wherein: the blade includes a concave-convex surface in which a plurality of convex portions formed adjacent to each other and a plurality of concave portions formed between the convex portions adjacent to each other are formed; a length of the concave portion is smaller than a length of the convex portion in a concave-convex surface view; the concave portion is formed in a shape having a sharp distal end in a depth direction of the concave portion; a first layer extended from one end to another end in a predetermined direction of the blade is formed on a side surface of the blade; and multiple first layers are formed adjacent to each other in a direction orthogonal to the predetermined direction at an interval of 0.1 mm to 0.5 mm. the blade includes a concave-convex surface in which a plurality of convex portions formed adjacent to each other and a plurality of concave portions formed between the convex portions adjacent to each other are formed; a length of the concave portion is smaller than a length of the convex portion in a concave-convex surface view; the concave portion is formed in a shape having a sharp distal end in a depth direction of the concave portion; a first layer extended from one end to another end in a predetermined direction of the blade is formed on a side surface of the blade; and multiple first layers are formed adjacent to each other in a direction orthogonal to the predetermined direction at an interval of 0.1 mm to 0.5 mm.