mhurhangee/ep-ind-claims huggingface dataset:
A vehicle steering system, comprising: a steered wheel driving mechanism that steers a steered wheel; a steering angle detecting unit that detects a steering angle (θh) of a steering member; a reaction force actuator that applies steering reaction force to the steering member; a steered operation actuator that drives the steered wheel driving mechanism; a steered operation actuator control unit that controls the steered operation actuator; a steering range determination unit that determines whether the steering angle (θh) is within a first steering angle range where the steering angle (θh) is smaller than or equal to a first change angle (θh1) or within a second steering angle range where the steering angle (θh) is larger than the first change angle (θh1), the vehicle system being characterized by comprising a reaction force actuator control unit that controls the reaction force actuator such that the steering reaction force is increased to a maximum value with an increase in the steering angle (θh) when the steering angle (θh) is within the first steering angle range and the steering reaction force is decreased from the maximum value with an increase in the steering angle (θh) when the steering angle (θh) is within the second steering angle range. a steered wheel driving mechanism that steers a steered wheel; a steering angle detecting unit that detects a steering angle (θh) of a steering member; a reaction force actuator that applies steering reaction force to the steering member; a steered operation actuator that drives the steered wheel driving mechanism; a steered operation actuator control unit that controls the steered operation actuator; a steering range determination unit that determines whether the steering angle (θh) is within a first steering angle range where the steering angle (θh) is smaller than or equal to a first change angle (θh1) or within a second steering angle range where the steering angle (θh) is larger than the first change angle (θh1), the vehicle system being characterized by comprising a reaction force actuator control unit that controls the reaction force actuator such that the steering reaction force is increased to a maximum value with an increase in the steering angle (θh) when the steering angle (θh) is within the first steering angle range and the steering reaction force is decreased from the maximum value with an increase in the steering angle (θh) when the steering angle (θh) is within the second steering angle range.
An electric power tool comprising: a motor including, a stator including teeth, and a rotor rotatable with respect to the stator; a front-end tool connected to the stator and is configured to be driven; a housing configured to accommodate the motor a calculating unit and sensors (72,73,74,75); and a trigger switch configured to adjust rotation of the motor, wherein a first coil and a second coil, which is different from the first coil, are wound on the teeth, and characterized in that: when a pulling amount of the trigger switch is less than a predetermined threshold value, electrical conduction to one of the first coil and the second coil is made, wherein when the pulling amount of the trigger switch is equal to or more than the predetermined threshold value, electrical conduction to the other one of the first coil and the second coil is made, and wherein the calculating unit selects the coils based on the signals from the trigger switch and adjusts the speed based on the signals from the trigger switch and the sensors. a motor including, a stator including teeth, and a rotor rotatable with respect to the stator; a front-end tool connected to the stator and is configured to be driven; a housing configured to accommodate the motor a calculating unit and sensors (72,73,74,75); and a trigger switch configured to adjust rotation of the motor, wherein a first coil and a second coil, which is different from the first coil, are wound on the teeth, and characterized in that: when a pulling amount of the trigger switch is less than a predetermined threshold value, electrical conduction to one of the first coil and the second coil is made, wherein when the pulling amount of the trigger switch is equal to or more than the predetermined threshold value, electrical conduction to the other one of the first coil and the second coil is made, and wherein the calculating unit selects the coils based on the signals from the trigger switch and adjusts the speed based on the signals from the trigger switch and the sensors. when a pulling amount of the trigger switch is less than a predetermined threshold value, electrical conduction to one of the first coil and the second coil is made, wherein when the pulling amount of the trigger switch is equal to or more than the predetermined threshold value, electrical conduction to the other one of the first coil and the second coil is made, and wherein the calculating unit selects the coils based on the signals from the trigger switch and adjusts the speed based on the signals from the trigger switch and the sensors.
A method of extending a trunk reach of a passive optical network, PON, the PON comprising: an optical network termination, ONT, for processing upstream and downstream PON signals on a trunk fiber and an optical line termination, OLT communicating with the ONT, the OLT and the ONT each comprising a Gigabit PON Transmission Convergence, GTC, function (222b, 234b), and the ONT further comprising a GPON physical media layer, GPM, function; and an extender device coupled to, but remotely located from, the OLT, the extender device comprising a GPON physical media layer, GPM, function; the method comprising the following steps to be performed by the extender device: receiving upstream PON signals from an ONT over an optical distribution network, ODN, utilizing a GPON protocol; time division multiplexing the PON signals on a trunk fiber, wherein the PON signals are packed into optical channel data units, ODUs, and mapped onto an optical channel transport unit; applying forward error correction, FEC, to the PON signals; and applying optical-electrical-optical, OEO, regeneration to the PON signals; whereby the upstream PON signals can be extended by the extender device without changing the GPON functionality of the ODN. an optical network termination, ONT, for processing upstream and downstream PON signals on a trunk fiber and an optical line termination, OLT communicating with the ONT, the OLT and the ONT each comprising a Gigabit PON Transmission Convergence, GTC, function (222b, 234b), and the ONT further comprising a GPON physical media layer, GPM, function; and an extender device coupled to, but remotely located from, the OLT, the extender device comprising a GPON physical media layer, GPM, function; the method comprising the following steps to be performed by the extender device: receiving upstream PON signals from an ONT over an optical distribution network, ODN, utilizing a GPON protocol; time division multiplexing the PON signals on a trunk fiber, wherein the PON signals are packed into optical channel data units, ODUs, and mapped onto an optical channel transport unit; applying forward error correction, FEC, to the PON signals; and applying optical-electrical-optical, OEO, regeneration to the PON signals; receiving upstream PON signals from an ONT over an optical distribution network, ODN, utilizing a GPON protocol; time division multiplexing the PON signals on a trunk fiber, wherein the PON signals are packed into optical channel data units, ODUs, and mapped onto an optical channel transport unit; applying forward error correction, FEC, to the PON signals; and applying optical-electrical-optical, OEO, regeneration to the PON signals;
A refrigerating apparatus comprising a structure formed by insulating walls and at least one refrigeration enclosure, said refrigerating apparatus comprising a device for heat removal by heat pump installed on an insertable movable insulating tray in the upper portion of the refrigerating apparatus, wherein the insertable insulating tray is insertable by a system of surface-mounted flanges on the insulating walls, said insulating tray carrying on its upper portion the device for heat removal by heat pump and on its underside a static evaporator type cooling device consisting of a metallic tubular evaporator covered with at least one plasticised sleeve, characterised in that: said at least one plasticised sleeve forms a one-piece structure, the refrigeration enclosure comprises an opening in the front face sealed by a door, and the plasticised sleeve renders the metallic tubular evaporator completely hermetic to the air of the refrigeration enclosure. said at least one plasticised sleeve forms a one-piece structure, the refrigeration enclosure comprises an opening in the front face sealed by a door, and the plasticised sleeve renders the metallic tubular evaporator completely hermetic to the air of the refrigeration enclosure.
A magnesium hydroxide-based solid solution represented by the following formula and having an average secondary particle size of 300 nm or less: Mg 2-x R x (Formula 1) wherein R represents a monovalent organic acid, and x represents 0 < x < 1, wherein the monovalent organic acid is at least one of formic acid, glycolic acid, and lactic acid.
A method of recovering a bead support from an emulsion, the method comprising: supplying an aqueous surfactant solution into a centrifuge tube, the surfactant solution includes an anionic surfactant in a range of 5.0% to 15.0% and includes a non-ionic surfactant in a range of 0.05% to 8.0%; and applying an emulsion into the centrifuge tube while centrifuging, the emulsion comprising a dispersed aqueous phase including the bead support and a continuous phase comprising a hydrophobic liquid, the emulsion breaking and material of the dispersed phase preferentially partitioning to the surfactant solution. supplying an aqueous surfactant solution into a centrifuge tube, the surfactant solution includes an anionic surfactant in a range of 5.0% to 15.0% and includes a non-ionic surfactant in a range of 0.05% to 8.0%; and applying an emulsion into the centrifuge tube while centrifuging, the emulsion comprising a dispersed aqueous phase including the bead support and a continuous phase comprising a hydrophobic liquid, the emulsion breaking and material of the dispersed phase preferentially partitioning to the surfactant solution.
A hydrophilic inorganic powder, comprising: an inorganic powder as a base material; a hydrophobic-coat that covers the surface of the inorganic powder; and a hydrophilic-coat that covers the hydrophobic-coat, wherein ingredients of the hydrophilic-coat comprise both of a hydrophilic surfactant and a lipophilic surfactant, and each of the hydrophilic surfactant and the lipophilic surfactant has a branched alkyl moiety in their molecules, wherein the hydrophilic inorganic powder has self-dispersibility in water or an aqueous solvent, the hydrophilic surfactant is at least one selected from the following group A, and the lipophilic surfactant is at least one selected from the following group B, Group A: Polyoxyethylene isostearyl ether; Polyoxyethylene glyceryl triisostearate; Polyoxyethylene isostearate; Polyoxyethylene glyceryl isostearate; Polyoxyethylene isocetyl ether; and Polyoxyethylene isostearyl ether; Group B: Polyglyceryl diisostearate; Sorbitan sesquiisostearate; and Polyoxyethylene phytosterol, and the ingredients of the hydrophobic-coat comprise at least one selected from dimethylpolysiloxane, disodium cocoyl glutamate, methyl hydrogen polysiloxane, stearic acid, silicone, monoisostearyl sebacate, disodium stearoyl glutamate, lecithin and octyltriethoxysilane. an inorganic powder as a base material; a hydrophobic-coat that covers the surface of the inorganic powder; and a hydrophilic-coat that covers the hydrophobic-coat, wherein ingredients of the hydrophilic-coat comprise both of a hydrophilic surfactant and a lipophilic surfactant, and each of the hydrophilic surfactant and the lipophilic surfactant has a branched alkyl moiety in their molecules, wherein the hydrophilic inorganic powder has self-dispersibility in water or an aqueous solvent, the hydrophilic surfactant is at least one selected from the following group A, and the lipophilic surfactant is at least one selected from the following group B, Group A: Polyoxyethylene isostearyl ether; Polyoxyethylene glyceryl triisostearate; Polyoxyethylene isostearate; Polyoxyethylene glyceryl isostearate; Polyoxyethylene isocetyl ether; and Polyoxyethylene isostearyl ether; Group B: Polyglyceryl diisostearate; Sorbitan sesquiisostearate; and Polyoxyethylene phytosterol, and Group A: Polyoxyethylene isostearyl ether; Polyoxyethylene glyceryl triisostearate; Polyoxyethylene isostearate; Polyoxyethylene glyceryl isostearate; Polyoxyethylene isocetyl ether; and Polyoxyethylene isostearyl ether; Polyoxyethylene isostearyl ether; Polyoxyethylene glyceryl triisostearate; Polyoxyethylene isostearate; Polyoxyethylene glyceryl isostearate; Polyoxyethylene isocetyl ether; and Polyoxyethylene isostearyl ether; Group B: Polyglyceryl diisostearate; Sorbitan sesquiisostearate; and Polyoxyethylene phytosterol, and Polyglyceryl diisostearate; Sorbitan sesquiisostearate; and Polyoxyethylene phytosterol, and the ingredients of the hydrophobic-coat comprise at least one selected from dimethylpolysiloxane, disodium cocoyl glutamate, methyl hydrogen polysiloxane, stearic acid, silicone, monoisostearyl sebacate, disodium stearoyl glutamate, lecithin and octyltriethoxysilane.
A method for operating a base station comprising: determining, using an electronic processor of the base station, that a traffic load on a narrowband transceiver of the base station is increasing; determining, using the electronic processor, a number of additional carrier channels to operate the narrowband transceiver within a predefined blocking rate, wherein the blocking rate is the time before a push-to-talk action results in an outbound or inbound communication; reducing, using the electronic processor, a bandwidth of a broadband transceiver of the base station based on the number of additional carrier channels; and assigning, using the electronic processor, additional carrier channels to the narrowband transceiver to operate the narrowband transceiver with the number of additional carrier channels. determining, using an electronic processor of the base station, that a traffic load on a narrowband transceiver of the base station is increasing; determining, using the electronic processor, a number of additional carrier channels to operate the narrowband transceiver within a predefined blocking rate, wherein the blocking rate is the time before a push-to-talk action results in an outbound or inbound communication; reducing, using the electronic processor, a bandwidth of a broadband transceiver of the base station based on the number of additional carrier channels; and assigning, using the electronic processor, additional carrier channels to the narrowband transceiver to operate the narrowband transceiver with the number of additional carrier channels.
A pneumatic tire which is composed of a pair of bead portions, a pair of side wall portions extending from the pair of bead portions, and a tread portion bridging both side wall portions and which comprises one or more carcasses extending toroidally between the pair of bead portions, characterized in that the carcass is constituted of a treat which is an organic fiber cord coated with rubber; the occupancy rate of the organic fiber cord in the treat is 70% or higher; and the ratio of the cord diameter φ (mm) of the organic fiber cord as a dip treated cord to the minimum value D (mm) of the gauge in the thickness direction of the tire at an external region of the side wall portion in the tire radial direction from the maximum width portion of a tire when the tire is mounted to a rim satisfies the relationship represented by the expression below: 0.25 < φ / D < 0.50.
Protective layer for PECVD boats made of graphite for receiving wafers and for transporting same in or through PECVD coating plants, in particular in the photovoltaics industry, wherein the PECVD boat composed of graphite has an electrically conductive hard-material coating with a multilayer construction composed of titanium nitride and/or titanium carbide, characterized in that the electrically conductive hard-material coating comprises boron carbide composed of boron and carbon deposited on the PECVD boat in the PECVD coating plant or in an oven.
A work machine comprising: a machine body including a track structure and a swing structure; a work device having a boom and an arm and mounted to the swing structure; a plurality of hydraulic cylinders (32a, 32b) that are driven by hydraulic fluid delivered from a hydraulic pump and that operate the work device; an operation device that gives an instruction on an operation of the work device according to an operation of an operator; and a controller that performs an area restriction control for controlling at least one hydraulic cylinder of the plurality of hydraulic cylinders (32a, 32b) in such a manner that the work device is located on or on an upper side of an optionally set target surface during operation of the operation device, wherein if a jack-up angle (φ) as an inclination angle of the machine body relative to a ground is larger than a preset target value (φt), the controller, in performing the area restriction control, corrects the control of the at least one hydraulic cylinder in such a manner that the jack-up angle (φ) approaches the target value (φt), characterized in that the target value (φt) is set in such a manner as to vary according to posture of the arm. a machine body including a track structure and a swing structure; a work device having a boom and an arm and mounted to the swing structure; a plurality of hydraulic cylinders (32a, 32b) that are driven by hydraulic fluid delivered from a hydraulic pump and that operate the work device; an operation device that gives an instruction on an operation of the work device according to an operation of an operator; and a controller that performs an area restriction control for controlling at least one hydraulic cylinder of the plurality of hydraulic cylinders (32a, 32b) in such a manner that the work device is located on or on an upper side of an optionally set target surface during operation of the operation device, wherein if a jack-up angle (φ) as an inclination angle of the machine body relative to a ground is larger than a preset target value (φt), the controller, in performing the area restriction control, corrects the control of the at least one hydraulic cylinder in such a manner that the jack-up angle (φ) approaches the target value (φt), characterized in that the target value (φt) is set in such a manner as to vary according to posture of the arm.
A pharmaceutical composition having antiproliferative and cytotoxic activity comprising: a) a chimeric peptide comprising a functional sequence of protein inhibitor of cyclin kinase p16INK4a (SEQ ID NO: 1) and a transport sequence, wherein the chimeric peptide has the amino acid sequence of SEQ ID NO: 3, SEQ ID NO: 4, or SEQ ID NO: 7; b) a therapeutically active agent selected from the group comprising taxol, 5-fluorouracil, etoposide; and c) pharmaceutically acceptable carriers. a) a chimeric peptide comprising a functional sequence of protein inhibitor of cyclin kinase p16INK4a (SEQ ID NO: 1) and a transport sequence, wherein the chimeric peptide has the amino acid sequence of SEQ ID NO: 3, SEQ ID NO: 4, or SEQ ID NO: 7; b) a therapeutically active agent selected from the group comprising taxol, 5-fluorouracil, etoposide; and c) pharmaceutically acceptable carriers.
A transparent polyamide having a dicarboxylic acid unit containing 95 mol% or more of a 2,6-decahydronaphthalenedicarboxylic acid unit, and a diamine unit containing 70 mol% or more of at least one selected from the group consisting of an m-xylylenediamine unit, a p-xylylenediamine unit, a 1,3-bis(aminomethyl)cyclohexane unit and a 1,4-bis(aminomethyl)cyclohexane unit.
A method for obtaining a curved laminated glazing unit possessing a concave side and a convex side, said glazing unit comprising a glass sheet, called the internal glass sheet, disposed to the concave side of the glazing unit and bonded adhesively by means of a thermoplastic interlayer with a glass sheet, called the external glass sheet, disposed to the convex side of the glazing unit, said method comprising the following steps: - applying an enamel coating to a part of a first face of a first glass sheet so as to create at least one enameled zone and at least one unenameled zone (14, 16), - applying a sacrificial layer absorbing a part of the infrared radiation to a part, called the sacrificial zone, of a first face of a second glass sheet, - simultaneously bending the first and second glass sheets (1, 2), the glass sheets being disposed during bending so that one of the first and second glass sheets is disposed on the other glass sheet, the respective first faces (11, 21) of each glass sheet (1, 2) are oriented toward the concave side of the glazing unit, and the sacrificial zone is disposed at least in line with at least one part of an enameled zone, - removing said sacrificial layer, either during bending or after the bending step, - laminating the first and second glass sheets by means of a thermoplastic interlayer. - applying an enamel coating to a part of a first face of a first glass sheet so as to create at least one enameled zone and at least one unenameled zone (14, 16), - applying a sacrificial layer absorbing a part of the infrared radiation to a part, called the sacrificial zone, of a first face of a second glass sheet, - simultaneously bending the first and second glass sheets (1, 2), the glass sheets being disposed during bending so that one of the first and second glass sheets is disposed on the other glass sheet, the respective first faces (11, 21) of each glass sheet (1, 2) are oriented toward the concave side of the glazing unit, and the sacrificial zone is disposed at least in line with at least one part of an enameled zone, - removing said sacrificial layer, either during bending or after the bending step, - laminating the first and second glass sheets by means of a thermoplastic interlayer.
A system for ophthalmic surgery, comprising: (a) a laser source configured to deliver a laser beam comprising a plurality of laser pulses having a wavelength between about 320 nanometers and about 430 nanometers, a pulse duration between about 1 picosecond and about 100 nanoseconds, and a pulse energy between about 0.01 microJoules and about 500 microJoules; (b) an optical system operatively coupled to the laser source, the optical system including a lens for focusing the laser beam, and one or more movable optical elements for scanning the laser beam in a pattern into one or more intraocular targets within an eye of a patient; and (c) an imaging subsystem adapted to capture in a confocal arrangement back-reflected light provided by the laser source and reflected from the one or more intraocular targets; characterized in that the system is configured to provide interleaved lower energy pulses for imaging and higher energy pulses for treatment. (a) a laser source configured to deliver a laser beam comprising a plurality of laser pulses having a wavelength between about 320 nanometers and about 430 nanometers, a pulse duration between about 1 picosecond and about 100 nanoseconds, and a pulse energy between about 0.01 microJoules and about 500 microJoules; (b) an optical system operatively coupled to the laser source, the optical system including a lens for focusing the laser beam, and one or more movable optical elements for scanning the laser beam in a pattern into one or more intraocular targets within an eye of a patient; and (c) an imaging subsystem adapted to capture in a confocal arrangement back-reflected light provided by the laser source and reflected from the one or more intraocular targets;