mhurhangee/ep-ind-claims huggingface dataset:
A power generator (1, 1a), comprising: a hollow shaped speed-increasing gear whose input shaft and output shaft are coaxially disposed with a propeller shaft (150, 150a) to which a propeller is connected, and coupled to the propeller shaft (150, 150a); a hollow shaped power generation unit whose input shaft is coaxially disposed with the speed-increasing gear, the hollow shaped power generation unit generating power through the output of the speed-increasing gear; a rotor shaft (170, 170a) that is coaxially disposed with the speed-increasing gear and the power generation unit and rotates integrally with the propeller while being provided in hollow portions of the speed-increasing gear and the power generation unit; characterized by a position detector disposed rearmost on the devices provided in a nacelle of the power generator (1, 1a) that detects a rotational position of the propeller by detecting a rotational position of the rotor shaft (170, 170a); a slip ring whose one end is connected to the rotor shaft (170, 170a); and a detection shaft that is provided to the other end of the slip ring and rotates together with the rotor shaft (170, 170a), wherein in the rotor shaft (170, 170a), a wiring line from the propeller is provided, the position detector detects the rotational position of the rotor shaft (170, 170a) through the detection shaft, and the detection shaft has a smaller shaft diameter than that of the rotor shaft (170, 170a). a hollow shaped speed-increasing gear whose input shaft and output shaft are coaxially disposed with a propeller shaft (150, 150a) to which a propeller is connected, and coupled to the propeller shaft (150, 150a); a hollow shaped power generation unit whose input shaft is coaxially disposed with the speed-increasing gear, the hollow shaped power generation unit generating power through the output of the speed-increasing gear; a rotor shaft (170, 170a) that is coaxially disposed with the speed-increasing gear and the power generation unit and rotates integrally with the propeller while being provided in hollow portions of the speed-increasing gear and the power generation unit; characterized by a position detector disposed rearmost on the devices provided in a nacelle of the power generator (1, 1a) that detects a rotational position of the propeller by detecting a rotational position of the rotor shaft (170, 170a); a slip ring whose one end is connected to the rotor shaft (170, 170a); and a detection shaft that is provided to the other end of the slip ring and rotates together with the rotor shaft (170, 170a), wherein in the rotor shaft (170, 170a), a wiring line from the propeller is provided, the position detector detects the rotational position of the rotor shaft (170, 170a) through the detection shaft, and the detection shaft has a smaller shaft diameter than that of the rotor shaft (170, 170a).
A manufacturing method of a display device, comprising the steps of: forming a first conductive film; selectively forming a resist over the first conductive film; forming a second conductive film (103, 104) over the first conductive film and the resist; forming a protective conductive film over the second conductive film; removing the second conductive film formed over the resist by removing the resist; forming a third conductive film so as to cover the second conductive film formed over the first conductive film; and selectively etching the first conductive film and the third conductive film so as to form a wiring, wherein any of copper, silver, aluminum, gold or an alloy thereof are used as materials of the second conductive film, and wherein any of tungsten, molybdenum, chromium, titanium, and tantalum or an alloy thereof or a nitride thereof are used as materials of the protective conductive film. forming a first conductive film; selectively forming a resist over the first conductive film; forming a second conductive film (103, 104) over the first conductive film and the resist; forming a protective conductive film over the second conductive film; removing the second conductive film formed over the resist by removing the resist; forming a third conductive film so as to cover the second conductive film formed over the first conductive film; and selectively etching the first conductive film and the third conductive film so as to form a wiring, wherein any of copper, silver, aluminum, gold or an alloy thereof are used as materials of the second conductive film, and wherein any of tungsten, molybdenum, chromium, titanium, and tantalum or an alloy thereof or a nitride thereof are used as materials of the protective conductive film.
A method of forming a wear indicator for tooth cleaning elements (205, 211, 215) on a toothbrush comprising the steps of: providing a head and a handle extending therefrom; providing a plurality of tooth cleaning elements (205, 211, 215) on the head, each tooth cleaning element (205, 211, 215) having a body and a tip; and providing at least one elastomeric cleaning element; the tooth cleaning elements (205, 211, 215) being semitransparent or translucent; wherein the at least one elastomeric cleaning element is colored and surrounded by the tooth cleaning elements (205, 211, 215), wherein the at least one elastomeric cleaning element is shorter than the tooth cleaning elements (205, 211, 215), and wherein the tips of the tooth cleaning elements (205, 211, 215) are end-rounded such that the tips appear opaque, such that when the toothbrush is viewed from the side, the body appears darker than the tip to highlight the tip, which tip then shows wear before the body. providing a head and a handle extending therefrom; providing a plurality of tooth cleaning elements (205, 211, 215) on the head, each tooth cleaning element (205, 211, 215) having a body and a tip; and providing at least one elastomeric cleaning element; the tooth cleaning elements (205, 211, 215) being semitransparent or translucent; wherein the at least one elastomeric cleaning element is colored and surrounded by the tooth cleaning elements (205, 211, 215), wherein the at least one elastomeric cleaning element is shorter than the tooth cleaning elements (205, 211, 215), and wherein the tips of the tooth cleaning elements (205, 211, 215) are end-rounded such that the tips appear opaque, such that when the toothbrush is viewed from the side, the body appears darker than the tip to highlight the tip, which tip then shows wear before the body.
Electrical connection terminal, comprising a connection terminal housing which has a conductor insertion opening, a busbar which is arranged in the connection terminal housing, a spring element which is rotatably mounted in the connection terminal housing and can be pivoted to an open position and to a closed position, wherein a conductor which is inserted into the conductor insertion opening can be clamped against the busbar by means of the spring element in the closed position, and an operating element which is rotatably mounted in the connection terminal housing and by means of which the spring element can be operated to move to the open position and to the closed position, wherein the operating element has a main body, which has a tool insertion opening, and an operating arm, wherein the spring element is operated by means of the operating arm in order to move said spring element from the closed position to the open position, characterized in that the main body and the operating arm are formed in two parts, wherein the operating arm is designed such that it can pivot relative to the main body in such a way that a pivot angle (beta) of the operating arm is smaller than a pivot angle (alpha) of the main body. a busbar which is arranged in the connection terminal housing, a spring element which is rotatably mounted in the connection terminal housing and can be pivoted to an open position and to a closed position, wherein a conductor which is inserted into the conductor insertion opening can be clamped against the busbar by means of the spring element in the closed position, and an operating element which is rotatably mounted in the connection terminal housing and by means of which the spring element can be operated to move to the open position and to the closed position, wherein the operating element has a main body, which has a tool insertion opening, and an operating arm, wherein the spring element is operated by means of the operating arm in order to move said spring element from the closed position to the open position, characterized in that the main body and the operating arm are formed in two parts, wherein the operating arm is designed such that it can pivot relative to the main body in such a way that a pivot angle (beta) of the operating arm is smaller than a pivot angle (alpha) of the main body.
A blade for a turbomachine bladed wheel having N blades arranged around a wheel axis: a first end of the blade having a first platform presenting a surface, referred to as a "platform wall", on a side toward an airfoil of the blade; the first platform being formed integrally with the airfoil; the blade being characterized in that over a first portion of the axial extent of the blade, a section in a plane perpendicular to the axis of the wheel through the wall of the first platform is constituted essentially by a first straight line segment on a first side of the airfoil and by a second straight line segment on the second side of the airfoil; and each of the first and second segments forms an angle (α) of 90°-180°/N relative to the radial direction on either side of the airfoil, in such a manner that the first and the second segment form an acute angle relative to the radial direction for the blade. a first end of the blade having a first platform presenting a surface, referred to as a "platform wall", on a side toward an airfoil of the blade; the first platform being formed integrally with the airfoil; the blade being characterized in that over a first portion of the axial extent of the blade, a section in a plane perpendicular to the axis of the wheel through the wall of the first platform is constituted essentially by a first straight line segment on a first side of the airfoil and by a second straight line segment on the second side of the airfoil; and each of the first and second segments forms an angle (α) of 90°-180°/N relative to the radial direction on either side of the airfoil, in such a manner that the first and the second segment form an acute angle relative to the radial direction for the blade.
A method for reducing asphalt pavement thickness thereby providing a more economical pavement material, the method comprising the steps of: combining a base asphalt, an oxidized polyolefin, and an aggregate to form an asphalt paving material, wherein the oxidized polyolefin is oxidized polyethylene with a density of 0.91 to 0.935 g/cm 3 wherein the oxidized polyolefin and the base asphalt form an asphalt binder which is combined with the aggregate and wherein the oxidized polyolefin is present in the asphalt binder in an amount of 0.25 to 10 weight percent; and depositing a layer of the asphalt paving material on a substrate layer and compacting the asphalt paving material to a thickness that is less than a thickness of a compacted asphalt paving material formed of the aggregate and the base asphalt with no oxidized polyolefin, compacted using an identical compaction process under identical process conditions, while achieving the same amount or less of high temperature rutting than the compacted asphalt paving material formed of the aggregate and the base asphalt with no oxidized polyolefin, wherein the high-temperature rutting is simulated by Mechanical Empirical Pavement Design Guide (MEPDG) software from the National Cooperative Highway Research Program. combining a base asphalt, an oxidized polyolefin, and an aggregate to form an asphalt paving material, wherein the oxidized polyolefin is oxidized polyethylene with a density of 0.91 to 0.935 g/cm 3 wherein the oxidized polyolefin and the base asphalt form an asphalt binder which is combined with the aggregate and wherein the oxidized polyolefin is present in the asphalt binder in an amount of 0.25 to 10 weight percent; and depositing a layer of the asphalt paving material on a substrate layer and compacting the asphalt paving material to a thickness that is less than a thickness of a compacted asphalt paving material formed of the aggregate and the base asphalt with no oxidized polyolefin, compacted using an identical compaction process under identical process conditions, while achieving the same amount or less of high temperature rutting than the compacted asphalt paving material formed of the aggregate and the base asphalt with no oxidized polyolefin, wherein the high-temperature rutting is simulated by Mechanical Empirical Pavement Design Guide (MEPDG) software from the National Cooperative Highway Research Program.
Knitting tool bar having knitting tools which are disposed in receptacle grooves of a knitting tool receptacle, and having a lid assembly which secures the knitting tools in the receptacle grooves, wherein each knitting tool has a rear side which is adjacent to a groove base, a front side which protrudes from the receptacle groove, and two flanks (9, 10) which interconnect the front side and the rear side, the lid assembly acting on the front side, the knitting tools by way of the front side thereof protrude in each case into one lid groove, the lid groove being configured in a sub-base which is disposed between the lid assembly and the knitting tools, characterized in that the sub- base at least in the region of the knitting tools is formed from a deformable material having a hardening mechanism, and being imparted the fixed shape thereof only during or after the fitting to the lid assembly.
The use of a polymer dispersion for cold sealing, the polymer dispersion comprising at least one polymer which is present in dispersion in water and is preparable by emulsion polymerization of radically polymerizable monomers in the presence of at least one polymeric protective colloid, the polymer having a calculated glass transition temperature in the range from -20 to +10°C and the polymer being formed to an extent of 0.05 to less than 1 wt%, preferably 0.07 to 0.8 wt%, of at least one monomer M selected from the group consisting of (meth)acrylate monomers having a substituent of the formula where X is CH 2, 0, NH or NR, and R is a C1 to C4 alkyl group.
An ovarian cancer specifically targeted biodegradable amphiphilic polymer, characterized in that the ovarian cancer specifically targeted biodegradable amphiphilic polymer is prepared by bonding a polymer containing dithiocarbonate monomer with a targeting molecule by Michael addition or amidation reaction; wherein the targeting molecule is GE11 polypeptide or transferrin; and wherein the polymer containing dithiocarbonate monomer has a chemical structure of Formula I: wherein R1 is selected from one of the following groups: R2 is selected from one of the following groups: and wherein k is from 113 to 170, x is from 15 to 45, and y is from 80 to 300, and the polymer containing dithiocarbonate monomer has a molecular weight of 30 kDa to 55 kDa.
A method of manufacturing a composite fan blade extending spanwise from a root to a tip, chordwise from a leading edge to a trailing edge, the composite fan blade comprising an outer part and a core, the outer part defining a pressure surface wall extending from the leading edge to the trailing edge and a suction surface wall extending from the leading edge to the trailing edge, the method comprising: laying up a plurality of continuous plies extending along a longitudinal direction from a first end to a second end to achieve a stack of continuous plies, the stack comprising a first portion corresponding to the pressure surface wall, a second portion corresponding to the suction surface wall, and a central portion corresponding to the root, wherein the first end corresponds to a pressure surface tip region of the composite fan blade and the second end corresponds to a suction surface tip region of the composite fan blade; placing the core on the central portion of the stack of continuous plies to achieve an unfolded preform; folding the continuous plies about the core, such that the central portion of the stack folds about the core and the first portion is superimposed to the second portion, to achieve a folded preform; applying pressure to the folded preform to achieve a consolidated curved folded preform; and curing the consolidated curved folded preform to achieve the composite fan blade; the method characterised in that in the folding step the central portion of the stack folds about the core so as to form the root, and the first portion and the second portion extend in a spanwise direction between the root and respective tip regions (64, 66). laying up a plurality of continuous plies extending along a longitudinal direction from a first end to a second end to achieve a stack of continuous plies, the stack comprising a first portion corresponding to the pressure surface wall, a second portion corresponding to the suction surface wall, and a central portion corresponding to the root, wherein the first end corresponds to a pressure surface tip region of the composite fan blade and the second end corresponds to a suction surface tip region of the composite fan blade; placing the core on the central portion of the stack of continuous plies to achieve an unfolded preform; folding the continuous plies about the core, such that the central portion of the stack folds about the core and the first portion is superimposed to the second portion, to achieve a folded preform; applying pressure to the folded preform to achieve a consolidated curved folded preform; and curing the consolidated curved folded preform to achieve the composite fan blade; the method characterised in that in the folding step the central portion of the stack folds about the core so as to form the root, and the first portion and the second portion extend in a spanwise direction between the root and respective tip regions (64, 66).
A system comprising a housing of a docking station (104;500) coupled to a handheld media device (102;504); a speaker included in the housing; a transceiver integrated within the housing to wirelessly transmit audio content and wirelessly transmit and receive control information, the speaker being able to produce audible signals from the audio content; and a remote control that is able to control operation of the speaker and the transceiver, the remote control also being able to transmit a signal for selecting one or more remote speakers for operation which are remote from the housing, wherein the remote control can be used to control operations of one or more of the remote speakers, wherein the operations include one or more of volume control, balance, mute and equalization.
An aluminoborosilicate glass of composition, expressed as percentages by weight of oxides, containing: 60% to 70% of SiO 2, 13% to 20% of Al 2 O 3, 1% to 9% of B 2 O 3, 0 to 3% of P 2 O 5, 0.5% to 4% of MgO, 1% to 4% of BaO, 0 to 3% of CaO, 0 to 3% of SrO, 2% to 10% of ZnO, 0 to 2% of Li 2 O, 0 to 2% of Na 2 O, 0 to 2% of K 2 O, 0.1% to 3% of CuO, optionally up to 1% of at least one fining agent; and optionally up to 2% of at least one coloring agent other than CuO, with: MgO + BaO + CaO + SrO ≤ 6%, 0.2% ≤ Li 2 O + Na 2 O + K 2 O ≤ 2%, and B 2 O 3 + MgO + Li 2 O - (BaO + CaO + SrO + CuO) < 6.4%; advantageously < 6%. 60% to 70% of SiO 2, 13% to 20% of Al 2 O 3, 1% to 9% of B 2 O 3, 0 to 3% of P 2 O 5, 0.5% to 4% of MgO, 1% to 4% of BaO, 0 to 3% of CaO, 0 to 3% of SrO, 2% to 10% of ZnO, 0 to 2% of Li 2 O, 0 to 2% of Na 2 O, 0 to 2% of K 2 O, 0.1% to 3% of CuO, optionally up to 1% of at least one fining agent; and optionally up to 2% of at least one coloring agent other than CuO, MgO + BaO + CaO + SrO ≤ 6%, 0.2% ≤ Li 2 O + Na 2 O + K 2 O ≤ 2%, and B 2 O 3 + MgO + Li 2 O - (BaO + CaO + SrO + CuO) < 6.4%; advantageously < 6%.
Method for monitoring a machine, in which an FMEA method is used and the FMEA method involves ascertaining for at least one component of the machine, for at least one predetermined limit value of the machine component, a priority index that is obtained from the product of the following index variables: seriousness of the effect of the limit value being exceeded in terms of the operability of the machine; and the likelihood of discovery of the exceeding of the limit value by means of a vibration detection system that is provided for; and wherein the priority index is used for rating the present machine state, the necessary maintenance measures, the vibration detection system and/or the risk of failure of the machine, characterized in that the limit value is a vibration limit value and the priority index is a vibration priority index, wherein the product of the index variables is further contributed to by the frequency with which the predetermined vibration limit value is exceeded; and in that at least two vibration limit values for one frequency range each are used for forming the index variables.
A method for activating a cell in a wireless communication system, the method comprising the steps of: transitioning, at a base station, an operation state of the cell from an active state to a dormant state; transmitting, at the base station, a discovery signal including cell state information which indicates whether the cell is in the active state or the dormant state; determining whether a cell activation signal is received at the base station from another base station; and transitioning the operation state of the cell from the dormant state to the active state, if the cell activation signal is received at the base station. transitioning, at a base station, an operation state of the cell from an active state to a dormant state; transmitting, at the base station, a discovery signal including cell state information which indicates whether the cell is in the active state or the dormant state; determining whether a cell activation signal is received at the base station from another base station; and transitioning the operation state of the cell from the dormant state to the active state, if the cell activation signal is received at the base station.