mhurhangee/ep-ind-claims huggingface dataset:
A method for providing urea particles having an equivalent diameter in the range 50nm up to 700 nm in a solvent medium, said method comprising at least the steps of ■ providing at least one polyisocyanate component dissolved in a first solvent; ■ providing at least one isocyanate-reactive polyamine component dissolved in a second solvent; ■ providing at least one isocyanate-reactive monoamine, optionally dissolved in a third solvent; ■ combining and reacting said isocyanate-reactive monoamine optionally dissolved in said third solvent with said polyisocyanate dissolved in said first solvent, thereby providing an urea-modified polyisocyanate dissolved in said first solvent and said optionally third solvent, and then ■ combining and reacting said urea-modified polyisocyanate dissolved in said first solvent and said optionally third solvent with said polyamine component dissolved in said second solvent. ■ providing at least one polyisocyanate component dissolved in a first solvent; ■ providing at least one isocyanate-reactive polyamine component dissolved in a second solvent; ■ providing at least one isocyanate-reactive monoamine, optionally dissolved in a third solvent; ■ combining and reacting said isocyanate-reactive monoamine optionally dissolved in said third solvent with said polyisocyanate dissolved in said first solvent, thereby providing an urea-modified polyisocyanate dissolved in said first solvent and said optionally third solvent, and then ■ combining and reacting said urea-modified polyisocyanate dissolved in said first solvent and said optionally third solvent with said polyamine component dissolved in said second solvent.
An engine mounting arrangement comprising thrust struts, a balance yoke, and primary and secondary mount blocks, the thrust struts being connected to the balance yoke and the primary mount block comprising at least one thrust load connection connectable to the balance yoke for transferring thrust loads from an engine during normal operation of the engine mounting arrangement, characterised in that the secondary mount block is connected to the balance yoke via at least one thrust load catcher connection, wherein the at least one thrust load catcher connection defines a clearance with respect to the balance yoke so that no load passes therethrough during normal operation of the engine mounting arrangement and the at least one thrust load catcher connection being arranged to take up the clearance with respect to the balance yoke and transfer the thrust loads from the engine in the event of a failure condition of the primary mount block.
A display apparatus comprising: a substrate; a pixel layer comprising a plurality of display devices on the substrate; an encapsulating member encapsulating the pixel layer; a light modulating layer on the encapsulating member; a functional layer on the light modulating layer; and a bonding layer located between the light modulating layer and the functional layer to bond the light modulating layer and the functional layer, wherein the light modulating layer has openings each having a width exposing an uppermost surface of the encapsulating member and corresponding to the plurality of display devices, and wherein the bonding layer fills the openings and has a refractive index that is greater than a refractive index of the light modulating layer, characterised in that an inner wall of each of the openings comprises a lower end that is rounded to have a concave shape at a point at which a side surface of the light modulating layer meets an upper surface of the encapsulating member. a substrate; a pixel layer comprising a plurality of display devices on the substrate; an encapsulating member encapsulating the pixel layer; a light modulating layer on the encapsulating member; a functional layer on the light modulating layer; and a bonding layer located between the light modulating layer and the functional layer to bond the light modulating layer and the functional layer, wherein the light modulating layer has openings each having a width exposing an uppermost surface of the encapsulating member and corresponding to the plurality of display devices, and wherein the bonding layer fills the openings and has a refractive index that is greater than a refractive index of the light modulating layer, characterised in that an inner wall of each of the openings comprises a lower end that is rounded to have a concave shape at a point at which a side surface of the light modulating layer meets an upper surface of the encapsulating member.
An air conditioner (100, 200, 300, 400), comprising: a main body having an air inlet (2a, 2b, 402c) and an air outlet (3, 203) formed therein; an air sending unit arranged in the main body; a heat exchange unit arranged in the main body; and afirstvane (4a1) and a secondvane (4a2) supported in a movable manner, wherein the first vane (4a1) opens the air outlet (3, 203) during operation, and closes the air outlet (3, 203) during shutdown, and wherein the second vane (4a2) is accommodated in the main body during the shutdown, and is moved to an outside of the air outlet (3, 203) during the operation, characterized in that: the first vane (4a1) and the second vane (4a2) are aligned in series during the frontward blowing, and during the frontward blowing, in side view, an upstream end of the second vane (4a2) is positioned on a side away from the main body with respect to an imaginary line connecting an upstream end of the first vane (4a1) and a downstream end of the second vane (4a2) to each other. a main body having an air inlet (2a, 2b, 402c) and an air outlet (3, 203) formed therein; an air sending unit arranged in the main body; a heat exchange unit arranged in the main body; and afirstvane (4a1) and a secondvane (4a2) supported in a movable manner, wherein the first vane (4a1) opens the air outlet (3, 203) during operation, and closes the air outlet (3, 203) during shutdown, and wherein the second vane (4a2) is accommodated in the main body during the shutdown, and is moved to an outside of the air outlet (3, 203) during the operation, the first vane (4a1) and the second vane (4a2) are aligned in series during the frontward blowing, and during the frontward blowing, in side view, an upstream end of the second vane (4a2) is positioned on a side away from the main body with respect to an imaginary line connecting an upstream end of the first vane (4a1) and a downstream end of the second vane (4a2) to each other.
Method for the temperature-compensated detection of a quantity of charge that can be withdrawn from a rechargeable battery, comprising the following steps: operating a battery as an energy source, as a result of which the battery is partially discharged; providing a total capacitance estimated value of the battery; detecting the quantity of charge that can be withdrawn and compensating for a temperature error related to the quantity of charge that can be withdrawn by: providing a factor that results from the ratio of a first quiescent voltage difference to a second quiescent voltage difference, wherein the first quiescent voltage difference is the difference between the present quiescent voltage of the battery and the minimum quiescent voltage of the battery at the operating temperature and the second quiescent voltage difference is the difference between a present maximum quiescent voltage of the battery and the minimum quiescent voltage of the battery at the operating temperature; in this case, operating temperature is to be understood as meaning that temperature prevailing during discharge of the battery; and providing the quantity of charge that can be withdrawn as the result of a multiplication of the factor by the total capacitance estimated value. operating a battery as an energy source, as a result of which the battery is partially discharged; providing a total capacitance estimated value of the battery; detecting the quantity of charge that can be withdrawn and compensating for a temperature error related to the quantity of charge that can be withdrawn by: providing a factor that results from the ratio of a first quiescent voltage difference to a second quiescent voltage difference, wherein the first quiescent voltage difference is the difference between the present quiescent voltage of the battery and the minimum quiescent voltage of the battery at the operating temperature and the second quiescent voltage difference is the difference between a present maximum quiescent voltage of the battery and the minimum quiescent voltage of the battery at the operating temperature; in this case, operating temperature is to be understood as meaning that temperature prevailing during discharge of the battery; and providing the quantity of charge that can be withdrawn as the result of a multiplication of the factor by the total capacitance estimated value. providing a factor that results from the ratio of a first quiescent voltage difference to a second quiescent voltage difference, wherein the first quiescent voltage difference is the difference between the present quiescent voltage of the battery and the minimum quiescent voltage of the battery at the operating temperature and the second quiescent voltage difference is the difference between a present maximum quiescent voltage of the battery and the minimum quiescent voltage of the battery at the operating temperature; in this case, operating temperature is to be understood as meaning that temperature prevailing during discharge of the battery; and providing the quantity of charge that can be withdrawn as the result of a multiplication of the factor by the total capacitance estimated value.
A flash memory device, comprising: a substrate; an electrode layer on a portion of the substrate, the electrode layer being a metal silicide layer; and a memory cell comprising: a channel structure on the electrode layer and comprising, from an inside to an outside, a polysilicon channel layer in contact with the electrode layer, a tunneling insulator layer surrounding a surface of the channel layer, a charge trapping layer surrounding a surface of the tunneling insulator layer, and a barrier layer surrounding a surface of the charge trapping layer; and a plurality of gate structures surrounding the channel structure along an axial direction of the channel structure, characterized in that a portion of the polysilicon channel layer in contact with the metal silicide layer is a polysilicon portion having a relatively larger grain size than the remaining part of the polysilicon channel layer, said portion being surrounded by a gate structure at a bottom of the plurality of gate structures. a substrate; an electrode layer on a portion of the substrate, the electrode layer being a metal silicide layer; and a memory cell comprising: a channel structure on the electrode layer and comprising, from an inside to an outside, a polysilicon channel layer in contact with the electrode layer, a tunneling insulator layer surrounding a surface of the channel layer, a charge trapping layer surrounding a surface of the tunneling insulator layer, and a barrier layer surrounding a surface of the charge trapping layer; and a plurality of gate structures surrounding the channel structure along an axial direction of the channel structure, a channel structure on the electrode layer and comprising, from an inside to an outside, a polysilicon channel layer in contact with the electrode layer, a tunneling insulator layer surrounding a surface of the channel layer, a charge trapping layer surrounding a surface of the tunneling insulator layer, and a barrier layer surrounding a surface of the charge trapping layer; and a plurality of gate structures surrounding the channel structure along an axial direction of the channel structure,
A method for operating a capacitive measuring circuit, which measuring circuit comprises a capacitor arrangement (2, 21) to be measured and at least one component (3, 31, 32) with a capacitance variable by at least one electric control signal (71, 72), wherein the at least one variable capacitance (3, 31, 32) is changed by at least one electric control signal (71, 72), characterized in that the capacitor arrangement (2, 21) to be measured is left in a substantially temporally unchanged way and the electric control signal is independent of an output signal of the measuring circuit.
Cavity inspection system comprising an inspection unit designed for insertion into a cavity, which comprises at least one sensor device with a camera, using which the interior space of the cavity can be viewed and which is designed to detect the shape of a wall of the cavity, as well as a control device for controlling the inspection unit, which comprises an evaluation device connected to the sensor device, wherein the evaluation device comprises a structure recognition module which is designed in such a way that it recognizes structures (24, 26, 28) in the shape detected by the sensor device, characterized in that the evaluation device is an image evaluation device in which the structure recognition module comprises a neural network and is designed in such a way that it recognizes certain structures (24, 26, 28) in an image captured by the camera, and the control device is designed in such a way that, when a certain structure (24, 26, 28) is detected by the structure recognition module, it initiates at least one action of the cavity inspection system, that it determines the position (a) of a structure (24, 26, 28) recognized by the structure recognition module and prompts a positioning of the inspection unit and/or the camera relative to the recognized structure (24, 26, 28), and that it determines the position (a) of a recognized structure (24, 26, 28) taking into account at least one previously or currently detected measured value and/or data stored in a database. an inspection unit designed for insertion into a cavity, which comprises at least one sensor device with a camera, using which the interior space of the cavity can be viewed and which is designed to detect the shape of a wall of the cavity, as well as a control device for controlling the inspection unit, which comprises an evaluation device connected to the sensor device, wherein the evaluation device comprises a structure recognition module which is designed in such a way that it recognizes structures (24, 26, 28) in the shape detected by the sensor device, characterized in that the evaluation device is an image evaluation device in which the structure recognition module comprises a neural network and is designed in such a way that it recognizes certain structures (24, 26, 28) in an image captured by the camera, and the control device is designed in such a way that, when a certain structure (24, 26, 28) is detected by the structure recognition module, it initiates at least one action of the cavity inspection system, that it determines the position (a) of a structure (24, 26, 28) recognized by the structure recognition module and prompts a positioning of the inspection unit and/or the camera relative to the recognized structure (24, 26, 28), and that it determines the position (a) of a recognized structure (24, 26, 28) taking into account at least one previously or currently detected measured value and/or data stored in a database.
A method for layered building a component by additive fabrication with the aid of a data model, wherein the data model describes an at least partial division of the component into a number of 3D volume regions, at least one of the 3D volume regions encompassing more than one build layer and comprising an external surface extending obliquely to the building direction, with the result that this 3D volume region has cross-sectional areas that change in the build direction in such a way that stresses at the partition boundaries occurring upon component production are oriented obliquely to the build direction and therefore are conveyed at least in part in different directions, characterized in that at least one of the 3D volume regions exhibits a threedimensional offset for generating an overlap region between at least two 3D volume regions.
A mechanical seal ring comprising: a seal ring exposed to a process fluid, said seal ring having exposed ring surfaces exposed to said process fluid and said exposed ring surfaces including a seal face; said seal ring comprising a silicon carbide substrate, characterised that a coating layer applied to said substrate so as to define said exposed ring surfaces, said coating layer being formed of tantalum, said seal ring including a transformation layer interfacing inwardly with said substrate and outwardly with said coating layer which said transformation layer is formed of tantalum carbide. a seal ring exposed to a process fluid, said seal ring having exposed ring surfaces exposed to said process fluid and said exposed ring surfaces including a seal face; said seal ring comprising a silicon carbide substrate, characterised that a coating layer applied to said substrate so as to define said exposed ring surfaces, said coating layer being formed of tantalum, said seal ring including a transformation layer interfacing inwardly with said substrate and outwardly with said coating layer which said transformation layer is formed of tantalum carbide.
An apparatus comprising: a hospital bed comprising an auxiliary power outlet; a medical device; a cable extending from the medical device and having at one end thereof a plug comprising a plug body, a plurality of prongs extending from the plug body and configured to couple to the auxiliary power outlet of the hospital bed to receive power; characterised in a first near field communication antenna carried by the plug body; a communication module coupled to the bed in proximity to the auxiliary power outlet, the communication module comprising a second near field communication antenna, and at least one of the first near field communication antenna and the second near field communication antenna communicating data wirelessly to the other of the first near field communication antenna and the second near field communication antenna; and near field communication circuitry carried by the medical device and coupled to the first near field communication antenna via at least one conductor routed along the cable, wherein the hospital bed receives data from the medical device via the first and second near field communication antennae (124, 126). a hospital bed comprising an auxiliary power outlet; a medical device; a cable extending from the medical device and having at one end thereof a plug comprising a plug body, a plurality of prongs extending from the plug body and configured to couple to the auxiliary power outlet of the hospital bed to receive power; characterised in a first near field communication antenna carried by the plug body; a communication module coupled to the bed in proximity to the auxiliary power outlet, the communication module comprising a second near field communication antenna, and at least one of the first near field communication antenna and the second near field communication antenna communicating data wirelessly to the other of the first near field communication antenna and the second near field communication antenna; and near field communication circuitry carried by the medical device and coupled to the first near field communication antenna via at least one conductor routed along the cable,
Electric drive unit for a water-bearing domestic appliance, in particular a domestic dishwasher or washing machine, at least comprising: - a controllable converter for providing a supply voltage from a multiphase, in particular a 3-phase, voltage system, - a control device (10, 11) for activating the converter to operate an electric motor from the multiphase voltage system, - with an additional electrical device (18, 19, 20, 9), which comprises at least one additional electric motor (18, 19, 20) for another hydraulic pump and/or a blower and/or at least one valve, characterised in that the additional electrical device (18, 19, 20, 9) can be connected via a connection device (28, 21, 22) to a load-current-carrying DC link upstream of the converter, and that the converter is connected on the input side to the DC link and a power supply unit which is connected on the output side to the DC link is provided for producing an output side DC link direct voltage (U K1) from an input side system voltage (U N). - a controllable converter for providing a supply voltage from a multiphase, in particular a 3-phase, voltage system, - a control device (10, 11) for activating the converter to operate an electric motor from the multiphase voltage system, - with an additional electrical device (18, 19, 20, 9), which comprises at least one additional electric motor (18, 19, 20) for another hydraulic pump and/or a blower and/or at least one valve, characterised in that
A medicine injection device equipped with a formulation syringe (11,44) and used to inject the formulation into a living body, the medicine injection device comprising: a formulation dissolving section which dissolves the formulation contained in the syringe; a formulation dissolving detecting section which detects the dissolving timing of the formulation dissolved by the formulation dissolving section as a timing to start using the formulation; a use time counting section (21,23) which counts a time elapsed from the timing to start using the formulation; a memory which stores an expiration date of the formulation started from the dissolving time of the formulation; and a notification section (10,27,28,29) which notifies information about the elapsed time counted by the use time counting section and/or the expiration date. a formulation dissolving section which dissolves the formulation contained in the syringe; a formulation dissolving detecting section which detects the dissolving timing of the formulation dissolved by the formulation dissolving section as a timing to start using the formulation; a use time counting section (21,23) which counts a time elapsed from the timing to start using the formulation; a memory which stores an expiration date of the formulation started from the dissolving time of the formulation; and a notification section (10,27,28,29) which notifies information about the elapsed time counted by the use time counting section and/or the expiration date.
A tank telescopic oral cavity washing device, comprising: a device body that a pump is built in; and a tank that comprises a storage unit, the tank being capable of accommodating the device body in the storage unit so as to slidably support the device body, wherein a liquid supply hole through which liquid is injected into the storage unit is formed in the tank, the liquid supply hole is closed by a liquid supply lid with which the tank is openably and closably provided via a hinge, characterized in that in a state where the liquid supply lid is opened, an end portion of the liquid supply lid provided opposite to the hinge is disposed within a range along a side surface of the tank in a front view, such that it does not protrude from a lower end of the side surface of tank. a device body that a pump is built in; and a tank that comprises a storage unit, the tank being capable of accommodating the device body in the storage unit so as to slidably support the device body, wherein a liquid supply hole through which liquid is injected into the storage unit is formed in the tank, the liquid supply hole is closed by a liquid supply lid with which the tank is openably and closably provided via a hinge, characterized in that in a state where the liquid supply lid is opened, an end portion of the liquid supply lid provided opposite to the hinge is disposed within a range along a side surface of the tank in a front view, such that it does not protrude from a lower end of the side surface of tank.