mhurhangee/ep-ind-claims huggingface dataset:
A railway vehicle, comprising: an auxiliary power supply device for converting power supplied from an overhead line and supplying power to a DC load (50, 51, 52, 53); a first storage battery for supplying power to the DC load (50, 51, 52, 53) in a case where power supplied from the overhead line is stopped and a second storage battery for supplying power to a communication device for external communication in a case where power supplied from the overhead line is stopped; and control means for, after the power supply from the overhead line is stopped, causing a power capacity needed to reboot the auxiliary power supply device to remain in the first storage battery, wherein: the control means is configured to start operating at a time at which the first storage battery starts supplying power to the DC load (50, 51, 52, 53) and configured to stop power supply from the first storage battery at a time at which a remaining power capacity of the first storage battery becomes the power capacity needed to reboot the auxiliary power supply device, and after the power supply from the overhead line is restored, the auxiliary power supply device is rebooted by the remaining capacity of the first storage battery. an auxiliary power supply device for converting power supplied from an overhead line and supplying power to a DC load (50, 51, 52, 53); a first storage battery for supplying power to the DC load (50, 51, 52, 53) in a case where power supplied from the overhead line is stopped and a second storage battery for supplying power to a communication device for external communication in a case where power supplied from the overhead line is stopped; and control means for, after the power supply from the overhead line is stopped, causing a power capacity needed to reboot the auxiliary power supply device to remain in the first storage battery, wherein: the control means is configured to start operating at a time at which the first storage battery starts supplying power to the DC load (50, 51, 52, 53) and configured to stop power supply from the first storage battery at a time at which a remaining power capacity of the first storage battery becomes the power capacity needed to reboot the auxiliary power supply device, and after the power supply from the overhead line is restored, the auxiliary power supply device is rebooted by the remaining capacity of the first storage battery. the control means is configured to start operating at a time at which the first storage battery starts supplying power to the DC load (50, 51, 52, 53) and configured to stop power supply from the first storage battery at a time at which a remaining power capacity of the first storage battery becomes the power capacity needed to reboot the auxiliary power supply device, and after the power supply from the overhead line is restored, the auxiliary power supply device is rebooted by the remaining capacity of the first storage battery.
A mechanism of a guiding arm for guiding a winch wire rope onto a drum of a winch comprising a wire rope, two sheaves (14a and 14b) and directing discs, characterized in that a connecting element, preferably a rope or a chain, together with the two sheaves (14a and 14b) forms a loop, which connects on one side the guiding arm and on the other side a weight; that the guiding arm and the weight are due to the loop connection always at the same distance, while their position with regard to the drum depends on the position of the rope on the drum; that the guiding arm is rotatably mounted into the winch housing or the drum housing perpendicularly to the drum axis and oscillates along the longitudinal axis of the drum, wherein the wire rope is guided with directing discs towards an outlet opening at a part of the winch, where the wire rope has its ending intended for attachment of a load intended for towing.
A method performed by a radio network node, the radio network node being operated in a shared radio cell deployment where several radio units are controlled by the radio network node and where each of the several radio units is serving a respective radio cell sector of a shared radio cell; the method comprising: collecting information on UE capabilities of UEs that are present in the shared radio cell; based on the collected information, determining whether there exists at least one UE that is capable of utilizing probing pilots, wherein said probing pilots are pilots that are used for checking which one of several radio cell sectors is the best available radio cell sector for the at least one UE; determining the number of UEs that are capable of utilizing probing pilots; comparing the determined number of UEs with a first threshold value; determining that said probing pilots are to be utilized when the determined number of UEs is equal to or above said first threshold value; determining that said probing pilots are not to be utilized when the determined number of UEs is below said first threshold value; and transmitting said probing pilots to the UEs when it has been determined that there exists at least one UE that is capable of utilizing probing pilots. collecting information on UE capabilities of UEs that are present in the shared radio cell; based on the collected information, determining whether there exists at least one UE that is capable of utilizing probing pilots, wherein said probing pilots are pilots that are used for checking which one of several radio cell sectors is the best available radio cell sector for the at least one UE; determining the number of UEs that are capable of utilizing probing pilots; comparing the determined number of UEs with a first threshold value; determining that said probing pilots are to be utilized when the determined number of UEs is equal to or above said first threshold value; determining that said probing pilots are not to be utilized when the determined number of UEs is below said first threshold value; and transmitting said probing pilots to the UEs when it has been determined that there exists at least one UE that is capable of utilizing probing pilots.
A collaborative automation system encompassing production and control service providing distributed devices, such as transport and processing machines with associated device-agents (ST-AG, MA-AG) as well as products with associated product-agents (WP-AG), wherein the devices (ST, MA, WP) that provide production and control service are associated with a DPWS (Device Profile for Web-Services-Protocol)-based web service (ST-WS; MA-WS); wherein device functions are implemented as device service, and device agents, that describe agent functions, are implemented as agent service in the DPWS-based web service, characterized in that the automation system features a coordination unit that provides a communication platform, wherein the communication platform is operated as a uniform, DPWS (Device Profile for Web-Services)-oriented platform with service-oriented architecture, that within the coordination unit a configuration (layout) of the flexible product system as well as the state of the production at run time is implemented, and that the coordination unit comprises a support interface for connecting with an agent system that supports the selection of services and the optimal routing of products.
A method for manufacturing ferritic stainless steel, the method comprising subjecting a cold-rolled stainless steel sheet or an annealed cold-rolled stainless steel sheet having the chemical composition consisting of, by mass%, C: 0.001% or more and 0.05% or less, Si: 0.001% or more and 0.5% or less, Mn: 0.001% or more and 1.0% or less, Al: 0.001% or more and 0.5% or less, N: 0.001% or more and 0.05% or less, Cr: 17% or more and 23% or less, Mo: 0.1% or less; optionally one, or two or more of Ti: 0.6% or less, Nb: 0.6% or less, Zr: 0.6% or less, Cu: 1.00% or less and Ni: 1.00% or less, further optionally one, or two or more of V: 1.0% or less, W: 1.0% or less, Ca: 0.1% or less, Mg: 0.1% or less, REM (Rare Earth Metals): 0.1% or less and B: 0.1% or less and the balance being Fe and inevitable impurities, to an immersion treatment at a temperature of 50°C or higher and 70°C or lower and for a duration of 10 seconds or more and 300 seconds or less in a solution for the immersion treatment, said solution consisting of hydrofluoric acid or a liquid mixture of hydrofluoric acid and nitric acid and optionally one or two or more of hydrochloric acid, sulfuric acid, organic acid, an accelerator and an inhibitor, the concentration of hydrofluoric acid, mass%, being 3.0% or more and said solution being adjusted so that the relationship between the concentration of hydrofluoric acid, mass%, and the concentration of nitric acid, mass %, [HNO 3] becomes ≥[HNO 3], [HNO 3] includes zero.
A method in an electronic device for preventing an input error due to a bending of a touch screen, the method comprising: identifying coordinates of a touched area on a touch screen; determining whether the touched area satisfies a preset node range condition and a preset touch intensity condition, wherein the preset node range condition is that the coordinates of the touched area are within a preset node range comprising a preset number of nodes among a plurality of nodes of the touch screen, each node corresponding to a minimum sensable area on the touch screen, and wherein the preset touch intensity condition is that a touch intensity sensed through a pressure sensor is equal to or higher than a preset touch intensity; and if the touch input satisfies the preset node range condition and the preset touch intensity condition, skipping reading coordinates of the touched area outside the preset node range among the coordinates of the touched area, and reading coordinates of the touched area within the preset node range among the coordinates of the touched area. identifying coordinates of a touched area on a touch screen; determining whether the touched area satisfies a preset node range condition and a preset touch intensity condition, wherein the preset node range condition is that the coordinates of the touched area are within a preset node range comprising a preset number of nodes among a plurality of nodes of the touch screen, each node corresponding to a minimum sensable area on the touch screen, and wherein the preset touch intensity condition is that a touch intensity sensed through a pressure sensor is equal to or higher than a preset touch intensity; and if the touch input satisfies the preset node range condition and the preset touch intensity condition, skipping reading coordinates of the touched area outside the preset node range among the coordinates of the touched area, and reading coordinates of the touched area within the preset node range among the coordinates of the touched area. skipping reading coordinates of the touched area outside the preset node range among the coordinates of the touched area, and reading coordinates of the touched area within the preset node range among the coordinates of the touched area.
Electrical brake system for vehicles, comprising a brake value transmitter, at least one first axle having at least two wheels (221, 222), and a second axle having at least two wheels (231, 232), comprising a first axle modulator which is associated with the first axle and at least one second axle modulator which is associated with the second axle, a single central control unit, which is designed to generate and output a first braking signal for the first axle modulator and a second braking signal for the second axle modulator depending on a braking signal from the brake value transmitter or depending on a further braking request, the first and the second axle modulator (120, 130) each being designed to decelerate the wheels (221, 222; 231, 232) of the first and the second axle (220, 230) via brake modulator signals (122a, 132a, 142a) depending on the first and the second braking signal (111, 112) from the central control unit, characterized in that the axle modulators (120, 130, 140) receive the braking signal from the brake value generator as an input signal in addition to the first or the second braking signal (111, 112, 113) from the central control unit and are each designed, in the event of a fault in or at the central control unit, to use the braking signal from the brake value generator as an input signal for generating the brake modulator signals (122a, 132a, 142a). a first axle modulator which is associated with the first axle and at least one second axle modulator which is associated with the second axle, a single central control unit, which is designed to generate and output a first braking signal for the first axle modulator and a second braking signal for the second axle modulator depending on a braking signal from the brake value transmitter or depending on a further braking request, the first and the second axle modulator (120, 130) each being designed to decelerate the wheels (221, 222; 231, 232) of the first and the second axle (220, 230) via brake modulator signals (122a, 132a, 142a) depending on the first and the second braking signal (111, 112) from the central control unit, characterized in that the axle modulators (120, 130, 140) receive the braking signal from the brake value generator as an input signal in addition to the first or the second braking signal (111, 112, 113) from the central control unit and are each designed, in the event of a fault in or at the central control unit, to use the braking signal from the brake value generator as an input signal for generating the brake modulator signals (122a, 132a, 142a).
A distributed feedback fibre laser element for producing laser light including: an active medium excited by optical pumping means to produce stimulated emission of light; and a Bragg grating structure for providing optical feedback for said active medium at the Bragg wavelength λ B, the Bragg grating structure having a complex coupling coefficient κ ( z) characterised by the relationship κ ( z)= π Δ n ( z) e -iφ ( z) / λ where z is a measure of the longitudinal distance along the distributed feedback fibre laser element having an overall device length L, Δ n ( z) is a refractive index modulation of the Bragg grating structure and φ ( z) is a change in phase of the grating in a phase transition region of said Bragg grating structure, wherein said change in phase φ ( z) of the grating of said phase transition region is adjusted to continuously change over an extended region of the distributed feedback fibre laser element with a maximum phase change ΔΦ greater than π to reduce out of band reflection r ( v) of the Bragg grating structure of said distributed feedback fibre laser element relative to a Bragg grating structure having a localized π phase shift, the out of band reflection r ( v) of the Bragg grating structure characterised by the relationship: r v = − ∫ 0 L κ z ⋅ exp − i 2 π v z d z where v is the detuning from the Bragg frequency defined by v = 2 n e f f ⋅ 1 λ − 1 λ B for v >| κ | and n eff is the effective refractive index of the fibre mode. an active medium excited by optical pumping means to produce stimulated emission of light; and a Bragg grating structure for providing optical feedback for said active medium at the Bragg wavelength λ B, the Bragg grating structure having a complex coupling coefficient κ ( z) characterised by the relationship κ ( z)= π Δ n ( z) e -iφ ( z) / λ where z is a measure of the longitudinal distance along the distributed feedback fibre laser element having an overall device length L, Δ n ( z) is a refractive index modulation of the Bragg grating structure and φ ( z) is a change in phase of the grating in a phase transition region of said Bragg grating structure, wherein said change in phase φ ( z) of the grating of said phase transition region is adjusted to continuously change over an extended region of the distributed feedback fibre laser element with a maximum phase change ΔΦ greater than π to reduce out of band reflection r ( v) of the Bragg grating structure of said distributed feedback fibre laser element relative to a Bragg grating structure having a localized π phase shift, the out of band reflection r ( v) of the Bragg grating structure characterised by the relationship: r v = − ∫ 0 L κ z ⋅ exp − i 2 π v z d z where v is the detuning from the Bragg frequency defined by v = 2 n e f f ⋅ 1 λ − 1 λ B for v >| κ | and n eff is the effective refractive index of the fibre mode.
An apparatus for extracorporeal removal of protein-bound toxins from blood plasma comprising a first line device, a second line device, a third line device and a fourth line device, a dialyzer or hemofilter arranged between the first line device and the second line device and/or an adsorber, means for generating a field at least partially surrounding the first line device and/or the dialyzer or hemofilter and/or the adsorber, a controllable fluid conveyance device arranged in the first line device and/or the second line device, and at least one controllable body fluid conveyance unit arranged in the third line device and/or the fourth line device, a plasma filter, wherein the permeate side of the plasma filter is connected to the first line device and the second line device and the unfiltered side of the plasma filter is connected at its inlet to the third line device which can be connected to a patient and is connected at its outlet to the fourth line device which can be connected to the patient, wherein a controllable flow of fluid through the line devices (10, 12, 24, 27) and the dialyzer or hemofilter and/or the adsorber can be generated by means of the fluid conveyance devices, characterized in that the means generates a high-frequency electric field having a frequency of 100 kHz to 2 GHz and/or a high-frequency electromagnetic field having a frequency of 100 kHz to 2 GHz and/or an electric DC field having a field strength between 10 V/m and 400 V/m.
Method for manufacturing an industrial food cutting machine with a single-part machine housing having a housing base and a motor tower which is formed in one piece on the base and protrudes upwards from the base and is designed for holding a blade protective ring and, in its interior, defines a construction space for accommodating a cutting motor, wherein the machine housing is manufactured from an aluminium alloy by casting, characterized in that the housing is produced from an aluminium alloy with a silicon content of at least 5% by diecasting by the housing being formed integrally by diecasting and a housing surface subsequently being provided with a polymer-containing surface coating, wherein the coating of the housing surface comprises the following steps: - applying a liquid coating containing, as components, an oxide ceramic, a binder and Teflon as the polymer, - drying and baking the coating in a temperature-controlled process, and wherein - prior to the application of the liquid coating the machine housing is tempered at a temperature which is at least 20°C higher than the maximum temperature of the temperature-controlled process. - applying a liquid coating containing, as components, an oxide ceramic, a binder and Teflon as the polymer, - drying and baking the coating in a temperature-controlled process, and wherein - prior to the application of the liquid coating the machine housing is tempered at a temperature which is at least 20°C higher than the maximum temperature of the temperature-controlled process.
A substrate transferring system, comprising: an elongated substrate transfer chamber having an evacuated section (Va) and an atmospheric section (A T); a vacuum partition between the evacuated section (Va) and the atmospheric section (A T); a first linear track affixed to the transfer chamber within the evacuated section (Va); a second linear track affixed to the transfer chamber at the atmospheric section (A T); a first base linearly riding on the first linear track; a second base linearly riding on the second linear track; a magnetically-coupled follower; a magnetic driver in the atmospheric section (A T); a rotary motor mounted onto the second base and rotating the magnetic driver, the magnetic driver imparting a rotational motion to the magnetically-coupled follower across the vacuum partition; and, a robot arm; characterised by: a speed reducer mounted onto the first base and having the magnetically-coupled follower as its input and providing a slower rotational speed at its output, the robot arm being coupled to the output of the speed reducer. an elongated substrate transfer chamber having an evacuated section (Va) and an atmospheric section (A T); a vacuum partition between the evacuated section (Va) and the atmospheric section (A T); a first linear track affixed to the transfer chamber within the evacuated section (Va); a second linear track affixed to the transfer chamber at the atmospheric section (A T); a first base linearly riding on the first linear track; a second base linearly riding on the second linear track; a magnetically-coupled follower; a magnetic driver in the atmospheric section (A T); a rotary motor mounted onto the second base and rotating the magnetic driver, the magnetic driver imparting a rotational motion to the magnetically-coupled follower across the vacuum partition; and, a robot arm; characterised by: a speed reducer mounted onto the first base and having the magnetically-coupled follower as its input and providing a slower rotational speed at its output, the robot arm being coupled to the output of the speed reducer.
A method of enabling access to data by a requesting party (24A,24B), the method comprising: generating a plurality of sets of data, each set identifying one or more data portions and at least one data portion being identified in two or more sets; using a one-way function to generate a plurality of keys each associated with a respective one of the plurality of sets, wherein information associated with a said set of data is used as an input to the one-way function when generating a key associated with the set; arranging for the keys to be available for distribution to one or more requesting parties (24A,24B), wherein distribution of the keys is controlled to restrict access to the plurality of sets of data portions; receiving a data access request comprising one of the generated keys associated with the plurality of sets and information associated with said set from said requesting party (24A,24B); and enabling access, by the requesting party (24A,24B), to data in a said set, based on the received key. generating a plurality of sets of data, each set identifying one or more data portions and at least one data portion being identified in two or more sets; using a one-way function to generate a plurality of keys each associated with a respective one of the plurality of sets, wherein information associated with a said set of data is used as an input to the one-way function when generating a key associated with the set; arranging for the keys to be available for distribution to one or more requesting parties (24A,24B), wherein distribution of the keys is controlled to restrict access to the plurality of sets of data portions; receiving a data access request comprising one of the generated keys associated with the plurality of sets and information associated with said set from said requesting party (24A,24B); and enabling access, by the requesting party (24A,24B), to data in a said set, based on the received key.