mhurhangee/ep-ind-claims huggingface dataset:
A shovel comprising: a lower travelling body; an upper swinging body mounted on the lower travelling body; an attachment attached to the upper swinging body; an orientation detecting device configured to detect an orientation of the attachment; an imaging device; and a control device; characterized in that the control device is configured to obtain information relating to a current shape of a ground surface as a work target based on information output from the imaging device, and to control the attachment based on the obtained information relating to the current shape of the ground surface as the work target and based on the orientation of the attachment detected by the orientation detecting device. a lower travelling body; an upper swinging body mounted on the lower travelling body; an attachment attached to the upper swinging body; an orientation detecting device configured to detect an orientation of the attachment; an imaging device; and a control device; characterized in that the control device is configured to obtain information relating to a current shape of a ground surface as a work target based on information output from the imaging device, and to control the attachment based on the obtained information relating to the current shape of the ground surface as the work target and based on the orientation of the attachment detected by the orientation detecting device.
An anode for a secondary battery comprising an anode current collector and an anode active material layer formed on at least one surface of the current collector, wherein the anode active material layer comprises an anode active material having a reaction potential (vs. Li + /Li) of 1V or less, and 2 to 10 wt%, based on 100 wt% of the anode active material layer, of an additive comprising lithium titanium oxide or a mixture of lithium titanium oxide and titanium oxide, wherein the anode comprises, as an anode active material, one or more selected from soft carbon, hard carbon, kish graphite, pyrolytic carbon, mesophase pitch based carbon fiber, meso-carbon microbeads, mesophase pitches, and petroleum or coal tar pitch derived cokes, wherein the lithium titanium oxide is any one selected from Li 0.8 Ti 2.2 O 4, Li 2.67 Ti 1.33 O 4, Li 1.33 Ti 1.67 O 4, Li 1.14 Ti 1.71 O 4, Li 2 Ti 3 O 7, LiTi 2 O 4 and a mixture thereof, and wherein the lithium titanium oxide comprises primary particles and optionally secondary particles being aggregates of the primary particles, the unaggregated primary particles being present in an amount of 90-100 wt% of the lithium titanium oxide.
Method for the protection of seeds and germinating plants before attack by phytopathogenic fungi, characterized in that the seeds are coated with a fungicide combination comprising fluoxastrobin and at least one active compound selected from the dithiocarbamates group consisting of thiram ziram in which the mixing ratio of fluoxastrobin to dithiocarbamate, related to the weight ratio, is between 1: 1 and 1: 100, and the phytopathogenic fungi are seed- and soil-borne rotting and withering, as well as seedling diseases caused by Fusarium culmorum, Phytophthora cactorum, Pythium ultimum, Rhizoctonia solani, Sclerotium rolfsii. thiram ziram
Blade for a rotor of a wind turbine having a substantially horizontal rotor shaft, said rotor comprising a hub, from which the blade extends substantially radially when mounted, said blade comprising a chord plane extending between the leading edge and the trailing edge of said blade, and said blade comprising a root area closest to the hub and having a substantially circular cross-section, an airfoil area furthest away from the hub and a transition area between the root area and the airfoil area, and said blade comprising a single airfoil substantially along the entire airfoil area, characterized in that a separately mounted blade part (15, 16) is mounted to the blade, said separately mounted blade part (15, 16) having an airfoil profile and being arranged with a mutual distance transverse to the chord plane, wherein the separately mounted blade part (15, 16) extends along the root area of the blade.
A device comprising: an optical fiber having one or more cores; a coreless fiber fused to the optical fiber at a distal end of the optical fiber, the coreless fiber forming a taper at a distal end of the coreless fiber; and a light-absorbing metal tube surrounding a distal portion of the optical fiber, adhered to and surrounding the coreless fiber, and extending distally beyond the taper, wherein the light-absorbing metal tube produces high specular and low diffuse reflection when light is incident on the light-absorbing tube at a grazing angle of incidence; wherein a diffusion region (201, 401) is formed by heating the distal portion of the optical fiber together with a proximal portion of the coreless fiber, wherein the one or more cores expanding laterally within the diffusion region (201, 401) to cause light from the optical fiber to expand in the coreless fiber and to interact with the light-absorbing metal tube at a grazing angle of incidence greater than 45 degrees, wherein the distal portion of the optical fiber, the coreless fiber, and the light-absorbing metal tube collectively form a termination structure that terminates the optical fiber, and wherein the termination structure has a length less than 5 mm, has a largest transverse dimension less than 325 um, and achieves a return loss of -70dB or less regardless of a presence of surfaces proximate the termination structure. an optical fiber having one or more cores; a coreless fiber fused to the optical fiber at a distal end of the optical fiber, the coreless fiber forming a taper at a distal end of the coreless fiber; and a light-absorbing metal tube surrounding a distal portion of the optical fiber, adhered to and surrounding the coreless fiber, and extending distally beyond the taper, wherein the light-absorbing metal tube produces high specular and low diffuse reflection when light is incident on the light-absorbing tube at a grazing angle of incidence; wherein a diffusion region (201, 401) is formed by heating the distal portion of the optical fiber together with a proximal portion of the coreless fiber, wherein the one or more cores expanding laterally within the diffusion region (201, 401) to cause light from the optical fiber to expand in the coreless fiber and to interact with the light-absorbing metal tube at a grazing angle of incidence greater than 45 degrees, wherein the distal portion of the optical fiber, the coreless fiber, and the light-absorbing metal tube collectively form a termination structure that terminates the optical fiber, and wherein the termination structure has a length less than 5 mm, has a largest transverse dimension less than 325 um, and achieves a return loss of -70dB or less regardless of a presence of surfaces proximate the termination structure.
Compressed chewing gum tablet comprising at least one compressed chewing gum module, the at least one compressed chewing gum module including a compressed particulate chewing gum composition, which compressed particulate chewing gum composition comprises compressed chewing gum particles containing gum base, wherein the content of gum base is at least 5 % by weight of the tablet, and wherein the chewing gum tablet is provided with a film coating, wherein the film coating comprises liquid flavoring in an amount of more than 1% by weight of the dry film coating and wherein the amount of liquid flavor in the chewing gum tablet, including the film coating, is above 0.05 % by weight of the chewing gum tablet.
A method of manufacturing a machine part comprising a sintered compact having a true density ratio of 97% or more and less than 100%, the method comprising: a compression molding step of compression molding raw material powder that contains as a main raw material iron-based alloy powder containing molybdenum and has 0.1 to 0.8 mass% of carbon powder blended therein, in a mold to obtain a green compact; a sintering step of heating the green compact at 1,200°C or more and 1,300°C or less, to obtain a sintered compact; and a heat treatment step of subjecting the sintered compact to heat treatment to form a hardened layer, wherein, in the compression molding step, a solid lubricant adheres to surfaces (13a, 15a, 16a) defining a cavity of the mold, and then the compression molding of the raw material powder filled into the cavity is performed in a state in which the mold is heated at a temperature equal to or higher than a melting point of the solid lubricant, such that a lubricant component of the solid lubricant adhering to the surfaces (13a, 15a, 16a) defining the cavity can diffuse and penetrate between the raw material powder and the cavity, and between the powders constituting the raw material powder, wherein the true density ratio is calculated by the following calculation formula: true density ratio = density of entire machine part formed of sintered compact/true density × 100 %, and wherein the "density of entire machine part formed of sintered compact" in the calculation formula is measured by a method specified in JIS Z2501. a compression molding step of compression molding raw material powder that contains as a main raw material iron-based alloy powder containing molybdenum and has 0.1 to 0.8 mass% of carbon powder blended therein, in a mold to obtain a green compact; a sintering step of heating the green compact at 1,200°C or more and 1,300°C or less, to obtain a sintered compact; and a heat treatment step of subjecting the sintered compact to heat treatment to form a hardened layer, wherein, in the compression molding step, a solid lubricant adheres to surfaces (13a, 15a, 16a) defining a cavity of the mold, and then the compression molding of the raw material powder filled into the cavity is performed in a state in which the mold is heated at a temperature equal to or higher than a melting point of the solid lubricant, such that a lubricant component of the solid lubricant adhering to the surfaces (13a, 15a, 16a) defining the cavity can diffuse and penetrate between the raw material powder and the cavity, and between the powders constituting the raw material powder, wherein the true density ratio is calculated by the following calculation formula: true density ratio = density of entire machine part formed of sintered compact/true density × 100 %, and wherein the "density of entire machine part formed of sintered compact" in the calculation formula is measured by a method specified in JIS Z2501.
A sprayable gel composition, comprising: (a) a polysaccharide selected from gellan gum or carrageenan, present in an amount ranging from 0.08% to 1.5% by weight, (b) magnesium cations present in an amount ranging from 0,002 to 0,08% by weight, (c) a humectant is present in an amount ranging from 10% to 15% by weight, (d) an emollient is present in an amount ranging from 1% to 10% by weight, and (e) a cosmetically acceptable carrier is present in an amount ranging from 75% to 85% by weight, wherein the weight percentages are based on the total weight of all components of the sprayable gel composition. (a) a polysaccharide selected from gellan gum or carrageenan, present in an amount ranging from 0.08% to 1.5% by weight, (b) magnesium cations present in an amount ranging from 0,002 to 0,08% by weight, (c) a humectant is present in an amount ranging from 10% to 15% by weight, (d) an emollient is present in an amount ranging from 1% to 10% by weight, and (e) a cosmetically acceptable carrier is present in an amount ranging from 75% to 85% by weight,
A light valve film for forming a light modulating element of a light valve, said film comprised of a cross-linked polymer matrix with a plurality of droplets of a liquid light valve suspension distributed therein, wherein said liquid light valve suspension comprises a liquid suspending medium and polyiodide particles suspended in the liquid suspending medium, wherein said polymer matrix forms a continuous matrix phase and said droplets form a discontinuous capsule phase dispersed throughout said continuous matrix phase, said film being characterised by a ratio larger than 0.157 and smaller than 0.220, wherein said ratio is the ratio between a matrix/capsule ratio of the film and the relative particles weight of the discontinuous capsule phase, wherein the matrix/capsule ratio of the film is the ratio between the weight of the continuous polymer matrix phase and the weight of the discontinuous capsule phase, and wherein the relative particles weight of the discontinuous capsule phase equals one hundred multiplied by the ratio between the weight of the polyiodide particles and the weight of the liquid suspending medium of the discontinuous capsule phase, and in that the light valve film has a light transmittance in the unpowered OFF state of less than 0.5 %, in that the difference between the visible light transmittance of the light valve film in the unpowered OFF state and the visible light transmittance of the light valve film in the powered ON state is larger than 42% points, and in that the light valve film has a thickness in the range of 0.0508 mm (2 mils) to 0.127 mm (5 mils).
A fully integrated neural amplifier for amplifying neural signals, comprising: (a) a first stage amplifier within the neural amplifier, said first stage amplifier configured for connection to a working electrode and a counter electrode, each said electrode connected to said first stage amplifier through a separate DC blocking capacitor (Cin), as input capacitor; (b) a capacitive feedback circuit within said first stage amplifier configured for setting a gain of said neural amplifier as a ratio of said input capacitor (Cin) and a feedback capacitor (Cf); and (c) a folded-cascode amplifier having an auxiliary gain stage incorporated in said first stage amplifier to increase open loop gain, said auxiliary gain stage comprising two common-source amplifiers, in which the first common-source amplifier is formed by a differential pair of transistors with diode-connected load, so that the differential outputs of said first common-source amplifier are connected to two gates of current source transistors of said folded cascade amplifier which comprise the second common-source amplifier embedded into the folded branch of said folded-cascode amplifier for the purpose of minimizing current consumption. (a) a first stage amplifier within the neural amplifier, said first stage amplifier configured for connection to a working electrode and a counter electrode, each said electrode connected to said first stage amplifier through a separate DC blocking capacitor (Cin), as input capacitor; (b) a capacitive feedback circuit within said first stage amplifier configured for setting a gain of said neural amplifier as a ratio of said input capacitor (Cin) and a feedback capacitor (Cf); and (c) a folded-cascode amplifier having an auxiliary gain stage incorporated in said first stage amplifier to increase open loop gain, said auxiliary gain stage comprising two common-source amplifiers, in which the first common-source amplifier is formed by a differential pair of transistors with diode-connected load, so that the differential outputs of said first common-source amplifier are connected to two gates of current source transistors of said folded cascade amplifier which comprise the second common-source amplifier embedded into the folded branch of said folded-cascode amplifier for the purpose of minimizing current consumption.
Composition comprising I. at least one reaction product between a nitrogen-free monohydric alcohol and an aldehyde or ketone, and II. at least one reaction product between a monosaccharide having 3 to 6 carbon atoms and/or an oligosaccharide being formed by oligomerization of monosaccharides having 3 to 6 carbon atoms and formaldehyde, wherein the aldehyde or ketone for the reaction with the monohydric alcohol contains 1 to 10 carbon atoms, and wherein the monohydric alcohol comprises 1 to 15 carbon atoms, wherein the molar ratio between the reaction product between a monohydric alcohol and an aldehyde or ketone (group I) and the reaction product between a monosaccharide having 3 to 6 carbon atoms and/or an oligosaccharide being formed by oligomerization of monosaccharides having 3 to 6 carbon atoms and an aldehyde having one or two carbon atoms (group II) is between 20:1 and 1:20, more preferably between 5:1 and 1:5, and wherein the reaction products I. and II. are hemiacetals and/or acetals. I. at least one reaction product between a nitrogen-free monohydric alcohol and an aldehyde or ketone, and II. at least one reaction product between a monosaccharide having 3 to 6 carbon atoms and/or an oligosaccharide being formed by oligomerization of monosaccharides having 3 to 6 carbon atoms and formaldehyde, wherein the aldehyde or ketone for the reaction with the monohydric alcohol contains 1 to 10 carbon atoms, and wherein the monohydric alcohol comprises 1 to 15 carbon atoms, wherein the molar ratio between the reaction product between a monohydric alcohol and an aldehyde or ketone (group I) and the reaction product between a monosaccharide having 3 to 6 carbon atoms and/or an oligosaccharide being formed by oligomerization of monosaccharides having 3 to 6 carbon atoms and an aldehyde having one or two carbon atoms (group II) is between 20:1 and 1:20, more preferably between 5:1 and 1:5, and wherein the reaction products I. and II. are hemiacetals and/or acetals. wherein the molar ratio between the reaction product between a monohydric alcohol and an aldehyde or ketone (group I) and the reaction product between a monosaccharide having 3 to 6 carbon atoms and/or an oligosaccharide being formed by oligomerization of monosaccharides having 3 to 6 carbon atoms and an aldehyde having one or two carbon atoms (group II) is between 20:1 and 1:20, more preferably between 5:1 and 1:5, and wherein the reaction products I. and II. are hemiacetals and/or acetals.
A smelting vessel for producing molten metal including a refractory lined hearth that in use is in contact with molten slag or molten metal in the vessel, with the hearth including an upper part that in use is in contact with molten slag in a slag zone in the vessel and a lower part that in use is in contact with molten metal in a metal zone in the vessel, with the hearth including a plurality of heat pipes positioned in a refractory lining of the upper part of the hearth for cooling the refractory lining, and with the heat pipes being positioned in a plurality of radially spaced-apart rings completely around the hearth, wherein an upper sections of each of the plurality of heat pipes being in heat transfer relationship with a slag zone cooler for transferring heat from the plurality of heat pipes to the slag zone cooler, said slag zone cooler being positioned in the refractory lining of the hearth for cooling the refractory lining.
A remote-controlled dynamoelectric machine maintenance vehicle, comprising: a frame; at least one drive module attached to the frame and having a drive train that utilizes magnetic adhesion to traverse an interior ferromagnetic surface of the dynamoelectric machine; a motor operatively connected to the drive module and responsive to a signal from a remote-controller, the motor providing a motive force to the drive train; an effectuator (16, 18) attached to the frame and operable to engage a wedge on the dynamoelectric machine and remotely tighten the wedge in a dynamoelectric machine slot; wherein the dynamoelectric machine maintenance vehicle is sized and configured to fit between a stator of the dynamoelectric machine and rotor of the dynamoelectric machine; and wherein the wedge comprises a main body and an insert wherein movement of the insert relative to the main body in one direction increases the width of the wedge in the dynamoelectric machine slot and tightens a coil within the slot and the effectuator (16, 18) comprises first and second, spaced, telescoping members (34, 36), the first telescoping member operable, upon command, to extend from one side of the frame and engage the wedge insert and the second telescoping member operable to extend from the one side of the frame and engage the main body of the wedge and at least one of the first and second telescoping members operable to move in the one direction relative to the other of the first and second telescoping members and tighten the wedge in the slot. a frame; at least one drive module attached to the frame and having a drive train that utilizes magnetic adhesion to traverse an interior ferromagnetic surface of the dynamoelectric machine; a motor operatively connected to the drive module and responsive to a signal from a remote-controller, the motor providing a motive force to the drive train; an effectuator (16, 18) attached to the frame and operable to engage a wedge on the dynamoelectric machine and remotely tighten the wedge in a dynamoelectric machine slot; wherein the dynamoelectric machine maintenance vehicle is sized and configured to fit between a stator of the dynamoelectric machine and rotor of the dynamoelectric machine; and wherein the wedge comprises a main body and an insert wherein movement of the insert relative to the main body in one direction increases the width of the wedge in the dynamoelectric machine slot and tightens a coil within the slot and the effectuator (16, 18) comprises first and second, spaced, telescoping members (34, 36), the first telescoping member operable, upon command, to extend from one side of the frame and engage the wedge insert and the second telescoping member operable to extend from the one side of the frame and engage the main body of the wedge and at least one of the first and second telescoping members operable to move in the one direction relative to the other of the first and second telescoping members and tighten the wedge in the slot.