mhurhangee/ep-ind-claims huggingface dataset:
Appliance apparatus for an automation system, having: - a network connection for receiving data packets (18, 20, 22) from a data network of the automation system, - a first protocol stack for a first communication protocol, which first protocol stack is coupled to the network connection, wherein the first protocol stack is a standard OPC-UA stack, - an application which is coupled to the first protocol stack, and having a second protocol stack for a second communication protocol, wherein the second protocol stack is designed for zero-request and/or zero-confirmation communication, the application is coupled to the second protocol stack, and both the first protocol stack and the second protocol stack are coupled to the network connection via a switch device which is designed to determine an item of allocation information for each of the data packets (18, 20, 22) received via the network connection, to select one of the protocol stacks (34, 36) on the basis of the determined allocation information and to forward the data packet (18, 20, 22) to the selected protocol stack (34, 36), wherein the switch device is coupled to the network connection via a network layer, and a communication interface of the network layer is simulated at a transition area to the first protocol stack in the switch device, wherein the switch device is designed to determine an operating state of the application as allocation information for at least one of the data packets (18, 20, 22) by determining the appliance utilization or the appliance temperature. - a network connection for receiving data packets (18, 20, 22) from a data network of the automation system, - a first protocol stack for a first communication protocol, which first protocol stack is coupled to the network connection, wherein the first protocol stack is a standard OPC-UA stack, - an application which is coupled to the first protocol stack,
Notching equipment for a steel strip for forming notches at both edge portions of a joint in a steel-strip width direction, the joint at which a trailing end of a preceding steel strip and a leading end of a succeeding steel strip are joined to each other, the equipment comprising: a shearing device that is configured to perform shearing on both edge portions in the steel-strip width direction including the joint to form first notch; the notching equipment characterised in that it further comprises: a grinding device that is configured to grind end surfaces of both the edge portions of the joint in the steel-strip width direction to form second notch.
Pneumatic vehicle tyre having a tread with profile blocks (1, 2), with in each case one or more sipe(s) (7, 11), which are aligned parallel to one another, run at an angle of from 0° to 50° to the axial direction, cross through the respective profile block (1, 2) and have a width of 0.4 mm to 0.8 mm and a depth of 65% to 100% of the profile depth, wherein the sipes (7, 11) divide the profile blocks (1, 2) into block segments (1a, 1b, 2a, 2b, 2c), so that each profile block (1, 2) has two edge-side block segments (1a, 1b, 2a, 2b), wherein the edge-side block segments (1a, 1b, 2a, 2b) are in each case provided with a number of micro-grooves (8, 9, 12, 14), which run parallel to one another within the block segment (1a, 1b, 2a, 2b), are made shallower than the sipes (7, 11) and have a width and a depth of in each case 0.1 mm to 0.8 mm, wherein profile blocks (1, 2) in the case of which one edge-side block segment (1b, 2b) is a narrow block segment (1b, 2b) and the other edge-side block segment (1a, 2a) is a wide block segment (1a, 2a), made wider than the narrow block segment (1b, 2b), are provided, characterized in that the micro-grooves run in the narrow block segments (1b, 2b) at an angle (β) of 50° to 90° - relative to the centre line (m 1) of the or each sipe (7, 11) running in the same profile block (1, 2) - and the micro-grooves (8, 12, 14) run in the wide block segments (1b, 2b) at an angle (α) of 0° to 35° - relative to the centre line (m 1) of the or each sipe (7, 11) running in the same profile block (1, 2). wherein the sipes (7, 11) divide the profile blocks (1, 2) into block segments (1a, 1b, 2a, 2b, 2c), so that each profile block (1, 2) has two edge-side block segments (1a, 1b, 2a, 2b), wherein the edge-side block segments (1a, 1b, 2a, 2b) are in each case provided with a number of micro-grooves (8, 9, 12, 14), which run parallel to one another within the block segment (1a, 1b, 2a, 2b), are made shallower than the sipes (7, 11) and have a width and a depth of in each case 0.1 mm to 0.8 mm, wherein profile blocks (1, 2) in the case of which one edge-side block segment (1b, 2b) is a narrow block segment (1b, 2b) and the other edge-side block segment (1a, 2a) is a wide block segment (1a, 2a), made wider than the narrow block segment (1b, 2b), are provided, characterized in that the micro-grooves run in the narrow block segments (1b, 2b) at an angle (β) of 50° to 90° - relative to the centre line (m 1) of the or each sipe (7, 11) running in the same profile block (1, 2) - and the micro-grooves (8, 12, 14) run in the wide block segments (1b, 2b) at an angle (α) of 0° to 35° - relative to the centre line (m 1) of the or each sipe (7, 11) running in the same profile block (1, 2).
Auxiliary refrigeration system of the type used to refrigerate a wind turbine's gearbox when the main refrigeration equipment is inoperative, being the auxiliary refrigeration system installed inside the nacelle with no contact with the outside, incorporating a pressure limiting valve and being connected between the established outward and return paths from the gearbox sump and regulated by a refrigerant impelling electrical pump, characterized in that the auxiliary refrigeration system is activated for outside temperatures below T BT =5°C and when this condition is not the temperature at the outlet of the main circuit Tsc is measured, if this value, is equal to or less than 25°C, auxiliary exchanger is activated.
A hand-held mop comprising: a mop body including a mop body portion having a mounting space, a mounting part having a mounting piece and an insert, the mounting piece being inserted into the mounting space of the mop body portion, and a grip having a holding side which defines an insert space into which the insert of the mounting part is inserted, characterized in that: the grip has a higher hardness than the mounting part, a side opening is formed in the holding side of the grip, a side projection is formed on the insert of the mounting part and engaged in the side opening of the grip, and a spring region is formed in the holding side of the grip, and when the insert is inserted into the insert space, the spring region is pressed by the side projection of the insert and bent. a mop body including a mop body portion having a mounting space, a mounting part having a mounting piece and an insert, the mounting piece being inserted into the mounting space of the mop body portion, and a grip having a holding side which defines an insert space into which the insert of the mounting part is inserted, characterized in that: the grip has a higher hardness than the mounting part, a side opening is formed in the holding side of the grip, a side projection is formed on the insert of the mounting part and engaged in the side opening of the grip, and a spring region is formed in the holding side of the grip, and when the insert is inserted into the insert space, the spring region is pressed by the side projection of the insert and bent. the grip has a higher hardness than the mounting part, a side opening is formed in the holding side of the grip, a side projection is formed on the insert of the mounting part and engaged in the side opening of the grip, and a spring region is formed in the holding side of the grip, and when the insert is inserted into the insert space, the spring region is pressed by the side projection of the insert and bent.
Gas burner controller adapter comprising a first connection terminal through which the same is connectable to a gas burner control device, namely to an input/output terminal of the gas burner control device that is adapted to receive a voltage signal of a flame ionization electrode, comprising a second connection terminal through which the same is connectable to the gas burner control device, namely to an output terminal of the gas burner control device that is adapted to provide a first electrical voltage signal, comprising a third connection terminal through which the same is connectable to the gas burner control device, namely to another output terminal of the gas burner control device that is adapted to provide a second electrical voltage signal, comprising a fourth connection terminal through which the same is connectable to a single electrode which is used as an ignition electrode and in addition as the flame ionization electrode, comprising a DC/DC converter a capacitor, and a thyristor, comprising an igniter having a transfer coil and an ignition coil, wherein input terminals of the DC/DC converter are connected to the second connection terminal and to the third connection terminal and wherein output terminals of the DC/DC converter are connected to the transfer coil through the capacitor and through the thyristor, wherein the ignition coil of the igniter is connected to the fourth connection terminal and to the first connection terminal. comprising a first connection terminal through which the same is connectable to a gas burner control device, namely to an input/output terminal of the gas burner control device that is adapted to receive a voltage signal of a flame ionization electrode, comprising a second connection terminal through which the same is connectable to the gas burner control device, namely to an output terminal of the gas burner control device that is adapted to provide a first electrical voltage signal, comprising a third connection terminal through which the same is connectable to the gas burner control device, namely to another output terminal of the gas burner control device that is adapted to provide a second electrical voltage signal, comprising a fourth connection terminal through which the same is connectable to a single electrode which is used as an ignition electrode and in addition as the flame ionization electrode, comprising a DC/DC converter a capacitor, and a thyristor, comprising an igniter having a transfer coil and an ignition coil, wherein input terminals of the DC/DC converter are connected to the second connection terminal and to the third connection terminal and wherein output terminals of the DC/DC converter are connected to the transfer coil through the capacitor and through the thyristor, wherein the ignition coil of the igniter is connected to the fourth connection terminal and to the first connection terminal.
A radial fan with a motor and a fan housing, an outer part and an inner part of which form a spiral-like pressure chamber, wherein a pressure connector which forms an outlet of the radial fan is arranged on the outer part, wherein the fan housing is equipped with a fan wheel which is arranged on a shaft connected to the motor, and wherein an annular flow divider which surrounds the fan wheel is arranged adjacently to the fan wheel in a radial direction, which flow divider together with the fan housing forms a diffuser about the fan wheel, which diffuser transitions directly into the pressure chamber, wherein the motor is formed as a canned motor with a bearing tube which is open axially on at least one side, and wherein the bearing tube and the inner part are formed as a single piece.
A photoacoustic sensor comprising an emitter comprising a first emitter element for intermittently emitting optical radiation at a first wavelength and a second emitter element for intermittently emitting optical radiation at a second wavelength, different from the first wavelength, wherein the emitter comprises at least one of a Light Emitting Diode and a Laser Diode, wherein the first wavelength is for photoacoustically detecting particulate matter in a measurement cavity and the second wavelength is for photoacoustically detecting the particulate matter and at least one target gas in the measurement cavity, and an acoustic transducer comprising a MEMS microphone for transducing a first acoustic signal into a first sensor signal depending on an interaction of the optical radiation at the first wavelength and the particulate matter, and for transducing a second acoustic signal into a second sensor signal depending on an interaction of the optical radiation at the second wavelength with the particulate matter and the at least one target gas, wherein the photoacoustic sensor comprises a housing which defines said measurement cavity and wherein at least the emitter and the acoustic transducer are arranged inside the housing, and wherein the photoacoustic sensor further comprises a controller configured to determine a quantity of the particulate matter inside the measurement cavity based on the first sensor signal and to determine a quantity of both the particulate matter and the at least one target gas inside the measurement cavity based on the second sensor signal.
A refrigeration dryer for dehumidifying air by means of a refrigerant circuit containing carbon dioxide as refrigerant, comprising a compressor, a gas cooler, an evaporator, which is designed to dehumidify air guided past its cold surface on a secondary side, a refrigerant collector having at least one inlet and one outlet, and a pressure-reducing member in the form of an expansion valve or an ejector, wherein an air-air heat exchanger, of which the outlet of the part through which the air to be dehumidified passes is connected to the air-side inlet of the evaporator, or an air-CO 2 heat exchanger, which on the refrigerant side is arranged downstream of the gas cooler, is arranged downstream of the evaporator at the air-side outlet thereof, for heating the dried air, characterised in that - the refrigerant collector is arranged parallel to the pressure-reducing, wherein a first control valve or switching solenoid valve is installed between a branching to the pressure-reducing and the inlet of the refrigerant collector, and a second control valve or switching solenoid valve is installed between the outlet of the refrigerant collector and mouth of the pressure-reducing, by means of which valves the inflow of refrigerant into the refrigerant collector and the outflow of refrigerant from the refrigerant collector can be controlled, in each case depending on the pressure of the refrigerant on the high-pressure side and/or the cooling water temperature. - the refrigerant collector is arranged parallel to the pressure-reducing, wherein a first control valve or switching solenoid valve is installed between a branching to the pressure-reducing and the inlet of the refrigerant collector, and a second control valve or switching solenoid valve is installed between the outlet of the refrigerant collector and mouth of the pressure-reducing, by means of which valves the inflow of refrigerant into the refrigerant collector and the outflow of refrigerant from the refrigerant collector can be controlled, in each case depending on the pressure of the refrigerant on the high-pressure side and/or the cooling water temperature.
A method, comprising: installing a new version of an application program; converting a data set for a previous version of said application program to a data Schema used by said new version one data segment at a time, wherein said data set comprises a plurality of data segments, each data segment being a discrete subset of said data set, and wherein said converting comprises converting a first data segment of said plurality of data segments to said data Schema; providing access to a second data segment of said plurality of data segments while converting said first data segment; preventing access to said first data segment during said conversion; identifying a domain name for said previous version; creating a temporary domain name for said previous version; redirecting access requests with said domain name to said temporary domain name; and ceasing the redirecting and using said domain name for said new version once said data set has been converted. installing a new version of an application program; converting a data set for a previous version of said application program to a data Schema used by said new version one data segment at a time, wherein said data set comprises a plurality of data segments, each data segment being a discrete subset of said data set, and wherein said converting comprises converting a first data segment of said plurality of data segments to said data Schema; providing access to a second data segment of said plurality of data segments while converting said first data segment; preventing access to said first data segment during said conversion; identifying a domain name for said previous version; creating a temporary domain name for said previous version; redirecting access requests with said domain name to said temporary domain name; and ceasing the redirecting and using said domain name for said new version once said data set has been converted.
A substrate (100, 200, 500, 600) for an organic electronic device, comprising: a base layer; a high refractive layer that is on the base layer, that comprises a binder, of which a refractive index is 1.4 or more, and that comprises particles, of which a refractive index is more than 2.3 in an amount of from 60 to 300 parts by weight, relative to 100 parts by weight of the binder, and a scattering layer (201, 300, 401) between and in the contact with the base layer and the high refractive layer, wherein the high refractive layer has a refractive index of 1.8 to 2.5. a base layer; a high refractive layer that is on the base layer, that comprises a binder, of which a refractive index is 1.4 or more, and that comprises particles, of which a refractive index is more than 2.3 in an amount of from 60 to 300 parts by weight, relative to 100 parts by weight of the binder, and a scattering layer (201, 300, 401) between and in the contact with the base layer and the high refractive layer, wherein the high refractive layer has a refractive index of 1.8 to 2.5.
An analysis system for analyzing samples from a sample source, the system comprising: a spectrometry system for detecting one or more components of the samples; a gas chromatography system for separating the samples into the components; a concentrator (72, 78) for concentrating the samples; wherein the system is configurable for directing the samples: a) from the sample source to said spectrometry system; characterized in that the system is further configurable for directing the samples: b) from the sample source to the concentrator (72, 78) and directing concentrated samples to the gas chromatography system for separating the sample into the components and directing the separated components to the spectrometry system. a spectrometry system for detecting one or more components of the samples; a gas chromatography system for separating the samples into the components; a concentrator (72, 78) for concentrating the samples; wherein the system is configurable for directing the samples: a) from the sample source to said spectrometry system; a) from the sample source to said spectrometry system; characterized in that the system is further configurable for directing the samples: b) from the sample source to the concentrator (72, 78) and directing concentrated samples to the gas chromatography system for separating the sample into the components and directing the separated components to the spectrometry system.
Cupboard fitting, for example a shelf for a preferably movable frame to be arranged in the inner space of a cupboard carcass, a rail (9.9) being provided with a rail attachment body (9.6) for delimiting a storage space at least in part, the rail (9.9) being provided with a reinforcement element (9.1) that can be fixed to the base and is designed as a corner connector of the cupboard fitting, which reinforcement element comprises a receptacle (9.5) for securing a connector (9.4), to which the rail attachment body (9.6) can be secured with an outward lateral offset, characterised in that the connector (9.4) can be inserted into the receptacle (9.5) of the reinforcement element (9.1) and the rail attachment body (9.6) can be inserted into the receptacle (9.5) of the connector (9.4) in a frictionally connected manner, and the reinforcement element (9.1) comprising a receptacle (9.2), into which the base can be inserted in regions, and the reinforcement element (9.1) engaging under the base in the assembled position.
A method of storing data regarding parameter values comprising the steps of: making a series of measurements of parameter values at times separated by predetermined time intervals; processing the series of measurements of parameter values made at predetermined time intervals to identify events at different times, the processing comprising determining a gradient of change of parameter value between each consecutive measurement of parameter value, and identifying as events times where a change in successive gradients exceeds a threshold value; generating a further series of measurements of parameter values at each of said different times; and storing each of said further series of measurements of parameter values in association with said respective different time. making a series of measurements of parameter values at times separated by predetermined time intervals; processing the series of measurements of parameter values made at predetermined time intervals to identify events at different times, the processing comprising determining a gradient of change of parameter value between each consecutive measurement of parameter value, and identifying as events times where a change in successive gradients exceeds a threshold value; generating a further series of measurements of parameter values at each of said different times; and storing each of said further series of measurements of parameter values in association with said respective different time.
Process for classification of metallurgical silicon containing impurities of carbon and/or carbon-containing compounds comprising the steps of a) determining the free carbon proportion which reacts with oxygen up to a temperature of 700°C, b) assigning metallurgical silicon in which the free carbon proportion is ≤ 150 ppmw for a process for producing chlorosilanes and/or assigning metallurgical silicon in which the free carbon proportion is > 150 ppmw for a process for producing methylchlorosilanes. a) determining the free carbon proportion which reacts with oxygen up to a temperature of 700°C, b) assigning metallurgical silicon in which the free carbon proportion is ≤ 150 ppmw for a process for producing chlorosilanes and/or assigning metallurgical silicon in which the free carbon proportion is > 150 ppmw for a process for producing methylchlorosilanes.