mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling on-device access using a set of stored instructions executed by a computer processor to perform the steps of: implementing a container application and a plurality of sub-applications on a computing device, wherein the container application is configured to manage the sub-applications; receiving a communication for a first sub-application of said plurality of sub-applications by a first service programming interface, SPI, of the container application, the communication being sent by an on-device process over a first communication pathway of a device infrastructure of the computer device utilizing an inter-process communication, IPC, framework provided by an operating system executing on the device infrastructure, the first communication pathway being provided external to the first SPI, and the first SPI implementing security policies on the communication received via the first communication pathway; retransmitting the communication by the first SPI to a second SPI of the first sub-application over a second communication pathway that bypasses the IPC framework provided by the operating system, the second communication pathway being internal to the first SPI; receiving a response to the communication by the first SPI from the second SPI over the second communication pathway; and directing the response to the on-device process over the first communication pathway. implementing a container application and a plurality of sub-applications on a computing device, wherein the container application is configured to manage the sub-applications; receiving a communication for a first sub-application of said plurality of sub-applications by a first service programming interface, SPI, of the container application, the communication being sent by an on-device process over a first communication pathway of a device infrastructure of the computer device utilizing an inter-process communication, IPC, framework provided by an operating system executing on the device infrastructure, the first communication pathway being provided external to the first SPI, and the first SPI implementing security policies on the communication received via the first communication pathway; retransmitting the communication by the first SPI to a second SPI of the first sub-application over a second communication pathway that bypasses the IPC framework provided by the operating system, the second communication pathway being internal to the first SPI; receiving a response to the communication by the first SPI from the second SPI over the second communication pathway; and directing the response to the on-device process over the first communication pathway.
Prosthesis socket with a. a proximal insertion opening and an inner circumference at least partially surrounding a stump b. at least one connecting device for a prosthesis component which can be attached to the prosthesis socket, c. at least one actuator by means of which the inner circumference of the prosthesis socket can be changed, d. a control device and at least one sensor (30 - 35) which is coupled to the control device, characterized in that at least one sensor is designed as an inertial sensor and that the control device is connected to the actuator and activates or deactivates the latter as a function of the received sensor signals. a. a proximal insertion opening and an inner circumference at least partially surrounding a stump b. at least one connecting device for a prosthesis component which can be attached to the prosthesis socket, c. at least one actuator by means of which the inner circumference of the prosthesis socket can be changed, d. a control device and at least one sensor (30 - 35) which is coupled to the control device, characterized in that at least one sensor is designed as an inertial sensor and that the control device is connected to the actuator and activates or deactivates the latter as a function of the received sensor signals.
A radiation curable ink having a viscosity of 30 mPa.s or less at 50°C, the viscosity being measured using an Anton Paar MCR301 rheometer, wherein the geometry of the cone of the rheometer was PP50, the ink comprising at least two monofunctional monomers, the at least two monofunctional monomers comprising a first monomer selected from an N-vinyl amide and a second monofunctional monomer being isobornyl acrylate, a difunctional acrylate monomer being propoxylated (or ethoxylated) neopentyl glycol di acrylate, wherein the amount of said difunctional acrylate is from 15 wt% to 60 wt% based on the total weight of the ink at least one multifunctional monomer selected from the group consisting of a trifunctional acrylate monomer, a tetrafunctional acrylate monomer, a pentafunctional acrylate monomer, a trifunctional epoxide monomer, a tetrafunctional epoxide monomer, a pentafunctional epoxide monomer, a trifunctional oxetane monomer, a tetrafunctional oxetane monomer, a pentafunctional oxetane monomer, a trifunctional vinylether monomer, a tetrafunctional vinylether monomer and a pentafunctional vinylether monomer, the ink further comprising at least one photoinitiator and a colorant.
Overall method for the treatment of biological waste, which comprises an aqueous liquid phase in which at least urea and ammonium compounds and inorganically and organically bound phosphates are dissolved and/or contained in particulate form, preferably liquid manure, liquid manure and fermentation residues from biogas plants, comprising the following Process steps: Stage (a): Introducing carbon dioxide gas [CO 2] under increased pressure or supercritical carbon dioxide into the liquid phase in order to dissolve particulate-bound phosphates; Step (b): Reducing the CO 2 content in the liquid phase by acidifying the liquid phase and driving off dissolved CO 2 and/or CO 2 bound as carbonate; Stage (c): Alkalizing the liquid phase with the release of ammonia, preferably using CaO or Ca 2 (lime milk), optionally mixed with NaOH, and expelling the ammonia [NH 3] with heating and/or by applying a negative pressure and/or with the aid of an air or steam stream (ammonia stripping); Stage (d): Precipitating and separating of calcium phosphate from the liquid phase, preferably as tricalcium phosphate [Ca 3 (PO 4) 2] or hydroxyapatite [Ca 5 (PO 4) 3]; Stage (e): Reacting the ammonia [NH 3] obtained in stage (c) with phosphoric acid [H 3 PO 4] to obtain ammonium phosphate compound, preferably diammonium hydrogen phosphate [(NH 4) 2 HPO 4] (fertilizer), and separating the obtained ammonium phosphate compound; Stage (f): i) Using or providing the calcium phosphate obtained in stage (d) for use as a plant nutrient (fertilizer) and/or ii) Reacting the calcium phosphate obtained in step (d) with sulfuric acid [H 2 SO 4] to obtain calcium sulfate (gypsum) and phosphoric acid [H 3 PO 4] and separating the calcium sulfate from the liquid phase and/or iii) Mixing the calcium phosphate obtained in step (d) with the ash of incinerated biological waste and/or sewage sludge ash and reacting the mixture with phosphoric acid [H3PO4], nitric acid [HNO 3] or a mineral acid mixture of the two acids to obtain phosphoric acid [H 3 PO 4].
A stepper-motor regulated gas valve control, comprising: a main diaphragm chamber, a main diaphragm in the main diaphragm chamber that controllably displaces a valve relative to a valve opening in response to changes in pressure in the main diaphragm chamber, to thereby permit adjustment of the flow of fuel through the valve opening; a servo-regulator diaphragm configured to regulate fluid flow to the main diaphragm chamber, to control the rate of fuel flow through the valve opening; a stepper-motor configured to move in a stepwise manner to displace the servo-regulator diaphragm for regulating fluid flow to the diaphragm chamber 102), to thereby regulate the rate of fuel flow through the valve opening; and a control circuit configured to receive an input control signal from which a reference value of between 0 and 5 volts is obtained, said control circuit being configured to determine a select motor step value that corresponds to the obtained reference value, and to move the stepper-motor to the selected motor step value for displacing the servo-regulator diaphragm, to thereby regulate the rate of fuel flow through the valve opening. a main diaphragm chamber, a main diaphragm in the main diaphragm chamber that controllably displaces a valve relative to a valve opening in response to changes in pressure in the main diaphragm chamber, to thereby permit adjustment of the flow of fuel through the valve opening; a servo-regulator diaphragm configured to regulate fluid flow to the main diaphragm chamber, to control the rate of fuel flow through the valve opening; a stepper-motor configured to move in a stepwise manner to displace the servo-regulator diaphragm for regulating fluid flow to the diaphragm chamber 102), to thereby regulate the rate of fuel flow through the valve opening; and a control circuit configured to receive an input control signal from which a reference value of between 0 and 5 volts is obtained, said control circuit being configured to determine a select motor step value that corresponds to the obtained reference value, and to move the stepper-motor to the selected motor step value for displacing the servo-regulator diaphragm, to thereby regulate the rate of fuel flow through the valve opening.
A sintered ore manufacturing method comprising: charging a granulated raw material for sintering formed by granulating a compounded raw material for sintering containing at least iron ore, carbon material and auxiliary material onto a circulating pallet, from a raw material feeding section of a sintering machine to form a charged layer, and igniting carbon material in the charged layer by using an ignition furnace while sucking a gas above the charged layer with a wind box arranged beneath the pallet thereby to introduce the gas into the charged layer to burn the carbon material, characterized in that the compounded raw material for sintering containing not less than 10 mass% of fine powdery iron ore with a particle size of not more than 150 μm is granulated in a granulator by blowing steam into the granulator in an amount of not less than 3 kg/t-s such that the granulated raw material for sintering to be charged onto the pallet is heated and humidified to have a temperature higher than a starting temperature of the compounded raw material for sintering before the charging into the granulator by not lower than 10°C, wherein the starting temperature of the compounded raw material for sintering before the charging into the granulator is from air temperature to 35°C, and wherein the granulated raw material for sintering is adjusted to have a water content of 6 to 10 mass% as a target value. charging a granulated raw material for sintering formed by granulating a compounded raw material for sintering containing at least iron ore, carbon material and auxiliary material onto a circulating pallet, from a raw material feeding section of a sintering machine to form a charged layer, and igniting carbon material in the charged layer by using an ignition furnace while sucking a gas above the charged layer with a wind box arranged beneath the pallet thereby to introduce the gas into the charged layer to burn the carbon material, characterized in that the compounded raw material for sintering containing not less than 10 mass% of fine powdery iron ore with a particle size of not more than 150 μm is granulated in a granulator by blowing steam into the granulator in an amount of not less than 3 kg/t-s such that the granulated raw material for sintering to be charged onto the pallet is heated and humidified to have a temperature higher than a starting temperature of the compounded raw material for sintering before the charging into the granulator by not lower than 10°C, wherein the starting temperature of the compounded raw material for sintering before the charging into the granulator is from air temperature to 35°C, and wherein the granulated raw material for sintering is adjusted to have a water content of 6 to 10 mass% as a target value.
A shock wave and/or ultrasound therapy system comprising an ultra-sound and/or shockwave source and an X-ray system, characterized in that the ultrasound and/or shockwave source is suspended on a hexapod drive, and a system controller is provided and configured to generate control signals for the hexapod drive to align the ultrasound and/or shockwave source with the X-ray system.
A turbine insert for a vehicle wheel, in particular for a structural wheel of a motor vehicle, said wheel having a cylindrical rim, a hub and a structure of the type with spokes connecting the hub to the rim and defining radial cut-outs and the turbine insert being intended to be inserted in a radial cut-out, said turbine insert including, on the one hand, at least one aerodynamic blade, which is substantially radial, with a cross-section having an "aeroplane wing" profile, oriented to displace the air from one side of the wheel towards the other side of the wheel during the rotation of the latter, and, on the other hand, means for positioning of the turbine insert so as to permit its placing in position in a radial cut-out, and means for fixing the turbine insert so as to permit the fixing of the latter in position in the radial cut-out, said turbine insert being characterized in that it comprises two aerodynamic blades (24, 25), which are substantially radial, with a cross-section having an "aeroplane wing" profile, oriented to displace the air from one side of the wheel towards the other side of the wheel during the rotation of the latter.
A dermatological medical device (1, 15, 20, 53, 56, 65, 67, 68, 72, 77), comprising: a distal end for positioning at a region proximal a target therapeutic region of tissue; an output port at the distal end; an energy source (8, 19, 402) configured to generate optical energy to be output from the output port to the target therapeutic region of tissue; and a control device configured to control delivery of the optical energy for heating the target therapeutic region of tissue to a temperature that is less than an injuring temperature so as to induce an expression of heat shock proteins at the target therapeutic region of tissue, wherein temperatures greater than a pain threshold of about 45 Degree Celsius are generally referred to as injury temperatures, wherein the medical device is configured to increase a temperature of the target therapeutic region of tissue by at least 2°C and no more than 8°C, during a thermal exposure period between 2-10 seconds at one or more temperatures less than the injuring temperature, and wherein the control device is configured to control delivery of optical energy by providing an initial power region configured to maximize a temperature rise rate, which region is followed by a temperature maintenance region having reduced power or having modulated pulse amplitude and temporal structure, said temperature maintenance region having a duration within the thermal exposure period to maintain the temperature elevation at the target therapeutic region in the range between 2°C and 8°C. a distal end for positioning at a region proximal a target therapeutic region of tissue; an output port at the distal end; an energy source (8, 19, 402) configured to generate optical energy to be output from the output port to the target therapeutic region of tissue; and a control device configured to control delivery of the optical energy for heating the target therapeutic region of tissue to a temperature that is less than an injuring temperature so as to induce an expression of heat shock proteins at the target therapeutic region of tissue, wherein temperatures greater than a pain threshold of about 45 Degree Celsius are generally referred to as injury temperatures, wherein the medical device is configured to increase a temperature of the target therapeutic region of tissue by at least 2°C and no more than 8°C, during a thermal exposure period between 2-10 seconds at one or more temperatures less than the injuring temperature, and wherein the control device is configured to control delivery of optical energy by providing an initial power region configured to maximize a temperature rise rate, which region is followed by a temperature maintenance region having reduced power or having modulated pulse amplitude and temporal structure, said temperature maintenance region having a duration within the thermal exposure period to maintain the temperature elevation at the target therapeutic region in the range between 2°C and 8°C.
A method for controlling a multi-type air conditioner comprising the steps of: a control unit integrating operation time periods of an outdoor unit; the control unit attempting to access to all indoor units if it is determined that the integrated time period of the outdoor unit has reached an integrated time period preset at the control unit; characterized in that the method further comprises: summing maximum operation rates of the indoor units successfully accessed; determining whether the summed operation rate is higher than a rate preset at the control unit; and performing an oil recovery operation of the indoor units only when the summed rate is higher than the preset rate. a control unit integrating operation time periods of an outdoor unit; the control unit attempting to access to all indoor units if it is determined that the integrated time period of the outdoor unit has reached an integrated time period preset at the control unit; characterized in that the method further comprises: summing maximum operation rates of the indoor units successfully accessed; determining whether the summed operation rate is higher than a rate preset at the control unit; and performing an oil recovery operation of the indoor units only when the summed rate is higher than the preset rate. summing maximum operation rates of the indoor units successfully accessed; determining whether the summed operation rate is higher than a rate preset at the control unit; and performing an oil recovery operation of the indoor units only when the summed rate is higher than the preset rate.
Document shredder for shredding large quantities or voluminous data carrier material such as paper stacks, cardboard boxes, document files, file bundles and like materials, comprising a stand/frame, at least two cutting mechanisms and means for drive and control of the cutting mechanisms, wherein each cutting mechanism comprises at least two working rollers, with which strippers are associated, wherein these working rollers are cutting rollers, the cutting discs or cutting knives of which intermesh, characterised by a first cutting mechanism, a second cutting mechanism and a third cutting mechanism, wherein - each cutting mechanism (100, 200, 300) has a separate housing, which housings are so arranged in the stand/frame that in accordance with the respectively set task, thus in accordance with the material category of the starting material to be comminuted, at least the second or the third cutting mechanism is selectably exchanged for a cutting mechanism of different power or can be removed, - the cutting mechanisms (100, 200, 300) arranged one above the other are provided in such a way that the cut material outlet of the respective upper cutting mechanism (100; 200) is at the same time the cut material inlet for the respective lower cutting mechanism (200; 300) and - the upper, first cutting mechanism contains four working rollers (120, 130, 140, 150) provided with tools, wherein in each instance two of the four working rollers are of identical construction and in addition are arranged as a pair in parallel alignment with one another and wherein the upper pair of working rollers are constructed as feed rollers (140, 150) and the lower pair of working rollers as cutting rollers. - each cutting mechanism (100, 200, 300) has a separate housing, which housings are so arranged in the stand/frame that in accordance with the respectively set task, thus in accordance with the material category of the starting material to be comminuted, at least the second or the third cutting mechanism is selectably exchanged for a cutting mechanism of different power or can be removed, - the cutting mechanisms (100, 200, 300) arranged one above the other are provided in such a way that the cut material outlet of the respective upper cutting mechanism (100; 200) is at the same time the cut material inlet for the respective lower cutting mechanism (200; 300) and - the upper, first cutting mechanism contains four working rollers (120, 130, 140, 150) provided with tools, wherein in each instance two of the four working rollers are of identical construction and in addition are arranged as a pair in parallel alignment with one another and wherein the upper pair of working rollers are constructed as feed rollers (140, 150) and the lower pair of working rollers as cutting rollers.
Method for detecting a volume of a fluid flowing in a measuring line, exhibiting a gas portion at least temporarily, for example milk or fuel, in which - a filling level measurement is carried out in the measuring line by means of a filling level measuring device, - a flow measurement is carried out in the measuring line by means of a flow measuring device, - the required flow quantity is calculated from the results of the flow measurement and those of the filling level measurement and - the fluid flow in the measuring line is stopped at least temporarily, characterized in that - the filling level measuring device exhibits a plurality of electrode plates (61, 62) which form a plate pack in the region of the measuring line and - a residual fluid quantity located in the measuring line on the outlet side of the flow measuring device and the filling level measuring device is determined from the results of the flow measurement and the results of the filling level measurement. - a filling level measurement is carried out in the measuring line by means of a filling level measuring device, - a flow measurement is carried out in the measuring line by means of a flow measuring device, - the required flow quantity is calculated from the results of the flow measurement and those of the filling level measurement and - the fluid flow in the measuring line is stopped at least temporarily, - the filling level measuring device exhibits a plurality of electrode plates (61, 62) which form a plate pack in the region of the measuring line and - a residual fluid quantity located in the measuring line on the outlet side of the flow measuring device and the filling level measuring device is determined from the results of the flow measurement and the results of the filling level measurement.
Process for dyeing keratin fibres, such as human keratin fibres, and in particular the hair, comprising the application, to said fibres, of: i) a composition comprising one or more dyes chosen from chromene dyes and chromane dyes, ii) a composition comprising one or more zinc mineral salts, the compositions i) and ii) being two distinct compositions or forming a single composition, said process excluding any use of a chemical oxidizing agent other than the oxygen in the air. i) a composition comprising one or more dyes chosen from chromene dyes and chromane dyes, ii) a composition comprising one or more zinc mineral salts, the compositions i) and ii) being two distinct compositions or forming a single composition, said process excluding any use of a chemical oxidizing agent other than the oxygen in the air.