mhurhangee/ep-ind-claims huggingface dataset:
A fluorescent light phantom device (1, 2) comprising: a phantom support (10, 20) having a plurality of fluorescent light phantom containers (1b-1e, 2b-2e); and a respective plurality of fluorescent light phantoms (12-15, 22-25) each of which is constituted of a medium, which reproduces at least one of light scattering and light absorption of an object to be measured, and a fluorescent coloring matter contained in the medium of a predetermined concentration and is stored in a respective one of the plurality of fluorescent light phantom containers, wherein the concentration of the said fluorescent coloring matter contained in the fluorescent light phantoms is different for each of the plurality of fluorescent light phantoms. a phantom support (10, 20) having a plurality of fluorescent light phantom containers (1b-1e, 2b-2e); and a respective plurality of fluorescent light phantoms (12-15, 22-25) each of which is constituted of a medium, which reproduces at least one of light scattering and light absorption of an object to be measured, and a fluorescent coloring matter contained in the medium of a predetermined concentration and is stored in a respective one of the plurality of fluorescent light phantom containers, wherein the concentration of the said fluorescent coloring matter contained in the fluorescent light phantoms is different for each of the plurality of fluorescent light phantoms.
A feeding device for worm gear machines, including a shaft which rotates in a feed container and has worm gear conveying in the direction of the longitudinal axis of the rotating shaft, wherein at least one wheel, which is not operatively connected to the worm gear, is assigned to each longitudinal side (24, 26) in the feed container, wherein each wheel can be moved rotationally by at least one separate drive (44, 46), wherein - each wheel is a disk wheel (40, 42), - multiple disk wheels (40, 42) are assigned to each longitudinal side (24, 26), said wheels being offset axially with regard to the longitudinal axis of the rotating shaft, - the drives (44, 46) being configured to drive the opposing disk wheels (40, 42) at different rotational speeds, and - the disk wheels (40, 42) being provided with a structured surface on their sides facing each other. - each wheel is a disk wheel (40, 42), - multiple disk wheels (40, 42) are assigned to each longitudinal side (24, 26), said wheels being offset axially with regard to the longitudinal axis of the rotating shaft, - the drives (44, 46) being configured to drive the opposing disk wheels (40, 42) at different rotational speeds, and - the disk wheels (40, 42) being provided with a structured surface on their sides facing each other.
An optical assembly for a laser alignment apparatus, comprising: first and second 90° pentaprisms (21, 22) disposed and oriented to reflect an input beam 90° to produce first and second reflected beams (31, 32) that are parallel to one another, wherein at least the first pentaprism is a beam splitting pentaprism; characterized in further comprising first and second beam diverters (41, 42) disposed and oriented to divert the first and second reflected beams (31, 32) respectively 45° to produce first and second output beams (51, 52) that are mutually perpendicular. first and second 90° pentaprisms (21, 22) disposed and oriented to reflect an input beam 90° to produce first and second reflected beams (31, 32) that are parallel to one another, wherein at least the first pentaprism is a beam splitting pentaprism; characterized in further comprising first and second beam diverters (41, 42) disposed and oriented to divert the first and second reflected beams (31, 32) respectively 45° to produce first and second output beams (51, 52) that are mutually perpendicular.
An applicator assembly configured to be coupled to a support boom of an agricultural vehicle that is moveable across a surface, the applicator assembly comprising: a resilient body configured to be coupled to the support boom; a foot coupled to the body, the foot configured to engage the surface; and a nozzle (175, 185) coupled to the body adjacent the foot, the nozzle configured to dispense agricultural matter to the surface, the applicator assembly being characterized in that the adjustment of the height of the support boom with respect to the surface causes the flexing of the body by engagement of the foot with the surface to cause the nozzle (175, 185) to move relative to the support boom thereby adjusting the dispensing direction of the nozzle (175, 185) to orient the dispensing direction more upwardly away from the ground with a greater flex of body than if the body includes a lesser flex. a resilient body configured to be coupled to the support boom; a foot coupled to the body, the foot configured to engage the surface; and a nozzle (175, 185) coupled to the body adjacent the foot, the nozzle configured to dispense agricultural matter to the surface, the applicator assembly being characterized in that the adjustment of the height of the support boom with respect to the surface causes the flexing of the body by engagement of the foot with the surface to cause the nozzle (175, 185) to move relative to the support boom thereby adjusting the dispensing direction of the nozzle (175, 185) to orient the dispensing direction more upwardly away from the ground with a greater flex of body than if the body includes a lesser flex.
Surroundings sensing system (1; 2) for transmitting and/or receiving ultrasonic signals, having an ultrasonic transducer (11; 21), which has at least one transducer element (112; 212) and at least one resonant body (111, 113; 211, 213) with a front body (111; 211) and a rear body (113; 213), and a diaphragm (12; 22) for transmitting sound, which diaphragm (12; 22) is coupled to an end side (1111; 2111) of the front body (111; 211), wherein the front body (111; 211), the transducer element (112; 212) and the rear body (113; 213) are detachably connected to one another, and the front body (111; 211) is attached to the diaphragm (12; 22), characterized in that the front body (111; 211) is attached to the diaphragm (12; 22) by a securing means (1112; 61), wherein the ultrasonic transducer (11; 21) forms a λ/2 oscillator together with the rear body (113; 213), the front body (111; 211) and the diaphragm (12; 22), and the securing means (1112; 61) is arranged in the centre of the λ/2 oscillator at λ/4.
Planar flexible application piece having an electrode arrangement, which can be supplied with a high voltage, for a dielectric barrier plasma treatment of a surface to be treated, the electrode arrangement comprising at least one planar electrode and a dielectric layer of a planar flexible material having a bearing face for the surface to be treated, said dielectric layer electrically shielding the at least one electrode from the surface to be treated in such a way that only a dielectric barrier current can flow between the at least one electrode and the surface to be treated when a plasma field is formed in a gas space between the electrode arrangement and the surface to be treated by a high voltage of the electrode, characterized in that the application piece comprises a high-voltage stage for generating the high voltage, the output of which is connected to the at least one electrode by a connecting piece (17, 17'), which is configured as a conductive section inside the dielectric layer, on the application piece.
A method for compensating at least partially a frequency deviation in a grid, the method comprising: determining a grid frequency, applying the grid frequency to a grid frequency criterion, in case the grid frequency meets the grid frequency criterion, determining an amount of additional power needed from a wind turbine power plant fleet based on the grid frequency criterion, determining a set of wind turbines from the wind turbine power plant fleet based on the grid frequency criterion and the amount of additional power needed, transmitting a command for a transient frequency response to the set of wind turbines, and further providing at least two grid frequency sub-criteria (111, 112), and in case the grid frequency meets one of the at least two grid frequency sub-criteria (111, 112), setting this grid frequency sub-criterion (111, 112) as the grid frequency criterion, and performing a stepped transient frequency response, by using at least two of the grid frequency sub-criteria (111, 112). determining a grid frequency, applying the grid frequency to a grid frequency criterion, in case the grid frequency meets the grid frequency criterion, determining an amount of additional power needed from a wind turbine power plant fleet based on the grid frequency criterion, determining a set of wind turbines from the wind turbine power plant fleet based on the grid frequency criterion and the amount of additional power needed, transmitting a command for a transient frequency response to the set of wind turbines, and further providing at least two grid frequency sub-criteria (111, 112), and in case the grid frequency meets one of the at least two grid frequency sub-criteria (111, 112), setting this grid frequency sub-criterion (111, 112) as the grid frequency criterion, and performing a stepped transient frequency response, by using at least two of the grid frequency sub-criteria (111, 112).
A shampoo composition comprising: i) a piroctone compound selected from piroctone acid, primary, secondary and tertiary olamine salts of piroctone acid (such as the diethanolamine and triethanolamine salts) and mixtures thereof and ii) a cleansing surfactant comprising an amphoteric surfactant and an anionic surfactant, the anionic surfactant consisting of an ethoxylated alkyl sulphate and the total level of anionic surfactant having an average degree of ethoxylation of 3 or greater; wherein the composition comprises a total cleansing surfactant level from 6 to 12 wt percent of the total composition; and the ratio of ethoxylated anionic surfactant to amphoteric surfactant is from 3: 1 to 4:1. i) a piroctone compound selected from piroctone acid, primary, secondary and tertiary olamine salts of piroctone acid (such as the diethanolamine and triethanolamine salts) and mixtures thereof and ii) a cleansing surfactant comprising an amphoteric surfactant and an anionic surfactant, the anionic surfactant consisting of an ethoxylated alkyl sulphate and the total level of anionic surfactant having an average degree of ethoxylation of 3 or greater;
Timepiece comprising a case middle closed by a glass and the following elements positioned in the case middle: - a dial - a rigid mounting plate extending under the dial - a module comprising an electric motor, referred to as the motor module - a printed circuit board, of which at least a first portion is interposed between the mounting plate and the motor module - means for the assembly of the motor module on the mounting plate through the first portion of the printed circuit board. - a dial - a rigid mounting plate extending under the dial - a module comprising an electric motor, referred to as the motor module - a printed circuit board, of which at least a first portion is interposed between the mounting plate and the motor module - means for the assembly of the motor module on the mounting plate through the first portion of the printed circuit board.
A remote-controlled tugboat for assisting a marine vessel to maneuver, the tugboat comprising: a towing line attached to the tugboat at one end and attachable to the marine vessel at another end; a towing line force sensor; and a control unit having a transmitter-receiver configured to wirelessly receive pilot-control thrust commands transmitted from at least one of a land-based control center and a mobile remote controller unit, said pilot-control thrust commands being for assisting the marine vessel to maneuver in dependence on sensor data from the towing line force sensor, wherein the control unit is configured to command the tugboat based on the pilot-control thrust commands and said tugboat is configured to execute said pilot-control thrust commands to assist said marine vessel with a required tension on the towing line. a towing line attached to the tugboat at one end and attachable to the marine vessel at another end; a towing line force sensor; and a control unit having a transmitter-receiver configured to wirelessly receive pilot-control thrust commands transmitted from at least one of a land-based control center and a mobile remote controller unit, said pilot-control thrust commands being for assisting the marine vessel to maneuver in dependence on sensor data from the towing line force sensor,
A process of controlling the brewing of beverages from a brewing apparatus comprising a brewing chamber (2; 82) provided with means (6, 7; 86, 87) to filter hot pressurised water through ground edible ingredients such as coffee, tea or herbal remedies and a controlling unit comprising means of storing and comparing data, characterized in comprising the following steps: a) detecting at least the beverage flow rate data of the beverage dispensed during said brewing step; b) comparing said detected data with data stored in said controlling unit memory to determine whether a correction to the actual beverage flow rate should be made and c) adjusting a beverage brewing parameter selected from the flow rate of the water fed to said brewing chamber (2; 82) and said brewing chamber volume, when required to bring said beverage flow rate in line with said stored data; wherein said adjustment of the said brewing parameters is carried out in real-time, during the same brewing process, as an effect of said step b) of comparing said detected data with said stored data. a) detecting at least the beverage flow rate data of the beverage dispensed during said brewing step; b) comparing said detected data with data stored in said controlling unit memory to determine whether a correction to the actual beverage flow rate should be made and c) adjusting a beverage brewing parameter selected from the flow rate of the water fed to said brewing chamber (2; 82) and said brewing chamber volume, when required to bring said beverage flow rate in line with said stored data;
A spin torque transfer memory cell structure (100-1, 100-2, 100-3; 200-1, 200-2; 300) which is comprising: a tunneling barrier material (108; 208-1, 208-2) positioned between a ferromagnetic storage material (106; 206-1, 206-2) and a pinned ferromagnetic material (110; 210-1, 210-2) characterized in that the pinned ferromagnetic material is in contact with an antiferromagnetic material (112; 212); wherein the tunneling barrier material (108; 208-1, 208-2) is a multiferroic material (108; 208-1, 208-2), and wherein the antiferromagnetic material (112; 212), the ferromagnetic storage material (106; 206-1, 206-2), and the pinned ferromagnetic material (110; 210-1, 210-2) are positioned between a first electrode (104; 204) and a second electrode (114; 214). a tunneling barrier material (108; 208-1, 208-2) positioned between a ferromagnetic storage material (106; 206-1, 206-2) and a pinned ferromagnetic material (110; 210-1, 210-2) characterized in that the pinned ferromagnetic material is in contact with an antiferromagnetic material (112; 212); wherein the tunneling barrier material (108; 208-1, 208-2) is a multiferroic material (108; 208-1, 208-2), and wherein the antiferromagnetic material (112; 212), the ferromagnetic storage material (106; 206-1, 206-2), and the pinned ferromagnetic material (110; 210-1, 210-2) are positioned between a first electrode (104; 204) and a second electrode (114; 214).
A computer-implemented method for providing critical care using a wearable device, the method comprising: monitoring one or more health parameters related to a critical care condition of a user of the wearable device via one or more sensors in the wearable device; identifying one or more locations of assets relevant to the critical care condition; generating a risk assessment based on values of the monitored one or more health parameters and a number of the assets located within a radius from a current location of the wearable device; generating alert information for the user of the wearable device based on the generated risk assessment; and calling another device and/ or sending an SMS or email message to another device, wherein the calling and/ or the sending is based on the generated risk assessment; wherein at least one step of the method is performed by a processor of the wearable device. monitoring one or more health parameters related to a critical care condition of a user of the wearable device via one or more sensors in the wearable device; identifying one or more locations of assets relevant to the critical care condition; generating a risk assessment based on values of the monitored one or more health parameters and a number of the assets located within a radius from a current location of the wearable device; generating alert information for the user of the wearable device based on the generated risk assessment; and calling another device and/ or sending an SMS or email message to another device, wherein the calling and/ or the sending is based on the generated risk assessment; wherein at least one step of the method is performed by a processor of the wearable device.
A method for estimating the activation time (T EST) of a sensor control device used to collect analyte data, the method, comprising: receiving by a reader device of an analyte monitoring system a count from a sensor control device of the system and with which the reader device is in communication, wherein the count is a value of a sequential counter of the sensor control device that is updated after the passage of a count time interval; and estimating an activation time (T EST) of the sensor control device, by the reader device, according to the following formula: T EST = T CUR − C ∗ I where T CUR is a current time of the reader device, C is the count received from the sensor control device and I is the count time interval, wherein the count time interval is a fixed or a set time interval between counter increments. receiving by a reader device of an analyte monitoring system a count from a sensor control device of the system and with which the reader device is in communication, wherein the count is a value of a sequential counter of the sensor control device that is updated after the passage of a count time interval; and estimating an activation time (T EST) of the sensor control device, by the reader device, according to the following formula: T EST = T CUR − C ∗ I where T CUR is a current time of the reader device, C is the count received from the sensor control device and I is the count time interval, wherein the count time interval is a fixed or a set time interval between counter increments.
Laminated core (16, 34) for a rotor and/or a stator of a rotating electric machine having an air gap between the rotor and the stator, with - teeth (22, 24) which are arranged adjacent to one another in a peripheral direction of the laminated core (16, 34) and delimit slots (26, 32) for accommodating at least one electrical conductor (36, 38) that forms at least one winding, and - a cover unit arranged on the air gap side which delimits the slots in the radial direction, wherein the cover unit has at least one tapering region in a region of the respective slot, in which a material of the cover unit is thinner in a radial direction of the laminated core than in a region of the cover unit adjoining said tapering region, wherein the material of the cover unit corresponds to the material of the laminated core, wherein, in the region of the respective slot, at least two tapering regions (50, 52) are formed, which are spaced apart from one another in the peripheral direction of the laminated core, characterised in that, in an axial cross-section through the laminated core (16, 34), the respective slot is delimited on the air gap side by two equally long legs of a notional isosceles triangle, wherein corners of a base of the notional triangle are congruent with air-gap-side corners of the respective slot and a height of the notional triangle runs in parallel with and partially identically to a geometric radial line of gravity of the respective slot in the axial cross-section, and wherein a tip of the notional triangle points away from the air gap. - teeth (22, 24) which are arranged adjacent to one another in a peripheral direction of the laminated core (16, 34) and delimit slots (26, 32) for accommodating at least one electrical conductor (36, 38) that forms at least one winding, and - a cover unit arranged on the air gap side which delimits the slots in the radial direction, wherein the cover unit has at least one tapering region in a region of the respective slot, in which a material of the cover unit is thinner in a radial direction of the laminated core than in a region of the cover unit adjoining said tapering region,
A method for producing a piston ring comprising the steps of: providing a wire made of steel having alloy elements consisting of C, Si, Mn and Cr as indispensable alloy elements and Mo, V and B as optional alloy elements, the balance being Fe and inevitable impurities, said indispensable alloy elements having a composition consisting of 0.45 to 0.65 % by mass of C, 0.15 to 0.35 % by mass of Si, 0.65 to 1.00 % by mass of Mn and 0.60 to 1.10 % by mass of Cr, said optional alloy elements having a composition consisting of less than 0.35 % by mass of Mo, less than 0.25 % by mass of V and less than 0.001 % by mass of B, the total amount of said indispensable alloy elements and said optional alloy elements being less than 3.0 % by mass; conducting oil quenching and tempering treatments of the wire at a quenching temperature of 820 to 930 °C and a tempering temperature of 440 to 500 °C before forming the piston ring from the wire; conducting a strain-removing of the formed piston ring by heat treatment at a temperature of 420 to 480 °C, lower than said tempering temperature, nitriding the piston ring subjected to strain-removing treatment at a temperature within ±30 °C of said tempering temperature to obtain a nitrided layer comprising a compound layer consisting of a Fe N phase and a diffusion layer; and removing the compound layer on the outermost surface of the nitrided layer to expose the diffusion layer. providing a wire made of steel having alloy elements consisting of C, Si, Mn and Cr as indispensable alloy elements and Mo, V and B as optional alloy elements, the balance being Fe and inevitable impurities, said indispensable alloy elements having a composition consisting of 0.45 to 0.65 % by mass of C, 0.15 to 0.35 % by mass of Si, 0.65 to 1.00 % by mass of Mn and 0.60 to 1.10 % by mass of Cr, said optional alloy elements having a composition consisting of less than 0.35 % by mass of Mo, less than 0.25 % by mass of V and less than 0.001 % by mass of B, the total amount of said indispensable alloy elements and said optional alloy elements being less than 3.0 % by mass; conducting oil quenching and tempering treatments of the wire at a quenching temperature of 820 to 930 °C and a tempering temperature of 440 to 500 °C before forming the piston ring from the wire; conducting a strain-removing of the formed piston ring by heat treatment at a temperature of 420 to 480 °C, lower than said tempering temperature, nitriding the piston ring subjected to strain-removing treatment at a temperature within ±30 °C of said tempering temperature to obtain a nitrided layer comprising a compound layer consisting of a Fe N phase and a diffusion layer; and removing the compound layer on the outermost surface of the nitrided layer to expose the diffusion layer.
An injectable dermal filler composition comprising a crosslinked hyaluronic acid-based polymer and phenylephrine present at a concentration of 0.001 % w/w to 0.1 % w/w.