mhurhangee/ep-ind-claims huggingface dataset:
Method of image interference on winding a cross-wound bobbin, which is driven by a motor by means of a drive drum provided with a spiralled groove for yarn guiding, wherein in recurring image interference cycles the drive drum is accelerated and decelerated and by means of the acceleration and deceleration of the drive drum a variable slippage is produced between the drive drum and cross-wound bobbin, characterised in that the first time period (Δt) is determined between the maximum speed of the drive drum and the following maximum speed of the cross-wound bobbin, which corresponds with a first function section within the image interference cycle, and as a second period a time period dependent the winding parameters is determined, which corresponds to the time period of a different function section within an image interference cycle or the sum of the periods of function sections, that a quotient is formed from a first time period and a second time period and that the acceleration phase of the drive drum is adjusted as a function of a comparison of the quotient with at least one reference value.
A refrigerator comprising: a cabinet having a storage compartment; a main door pivotably mounted to the cabinet to allow access to the storage compartment, the main door having an opening for an auxiliary storage compartment within the main door; a sub door pivotably mounted to the main door to enable access to the auxiliary storage compartment; a support shelf pivotably mounted at a lower vicinity of the opening of the main door and includes a shelf having a rectangular shape and a first rotating shaft and a second rotating shaft laterally protruding respectively from both side surfaces of the shelf; a power transmission device provided at one side of the main door and connected to the first rotating shaft to horizontally rotate the shelf when the sub door is opened and to vertically rotate the shelf when the sub door is closed; a damper mounted in the power transmission device and configured to allow the support shelf to be gradually moved downward when the sub door is opened; and characterized in that: a mount is provided at a lower end of the opening formed in the main door and having shaft holes to receive the first rotating shaft and the second rotating shaft of the support shelf, the mount supporting the support shelf at the vertical position and at the horizontal position. a cabinet having a storage compartment; a main door pivotably mounted to the cabinet to allow access to the storage compartment, the main door having an opening for an auxiliary storage compartment within the main door; a sub door pivotably mounted to the main door to enable access to the auxiliary storage compartment; a support shelf pivotably mounted at a lower vicinity of the opening of the main door and includes a shelf having a rectangular shape and a first rotating shaft and a second rotating shaft laterally protruding respectively from both side surfaces of the shelf; a power transmission device provided at one side of the main door and connected to the first rotating shaft to horizontally rotate the shelf when the sub door is opened and to vertically rotate the shelf when the sub door is closed; a damper mounted in the power transmission device and configured to allow the support shelf to be gradually moved downward when the sub door is opened; and characterized in that: a mount is provided at a lower end of the opening formed in the main door and having shaft holes to receive the first rotating shaft and the second rotating shaft of the support shelf, the mount supporting the support shelf at the vertical position and at the horizontal position.
An amplitude shift keying, ASK, demodulator for demodulating an input signal, comprising: a frequency filter configured to receive the input signal, wherein the frequency filter includes adjustable components configured to adjust the frequency response of the frequency filter; a rectifier configured to rectify an output of the frequency filter, wherein the rectifier includes an adjustable current source configured to adjust the current consumption of the rectifier; a reference signal generator configured to produce a reference signal; a current to voltage converter configured to convert the current of the rectified signal to a rectified voltage and to convert the current of the reference signal to a reference voltage; and a comparator configured to compare the rectified voltage to the reference voltage and to produce a demodulated output signal. a frequency filter configured to receive the input signal, wherein the frequency filter includes adjustable components configured to adjust the frequency response of the frequency filter; a rectifier configured to rectify an output of the frequency filter, wherein the rectifier includes an adjustable current source configured to adjust the current consumption of the rectifier; a reference signal generator configured to produce a reference signal; a current to voltage converter configured to convert the current of the rectified signal to a rectified voltage and to convert the current of the reference signal to a reference voltage; and a comparator configured to compare the rectified voltage to the reference voltage and to produce a demodulated output signal.
A method for manufacturing a reservoir of a first ophthalmic treatment fluid comprising the following steps: (i) supplying and placing in a closed enclosure: - a rigid cartridge comprising an opening, - a pouch valve comprising a pouch carried by a valve extended by a closure wall, (ii) injecting an intermediate fluid in compressed form into the cartridge via the opening, the intermediate fluid comprising a second ophthalmic treatment fluid; (iii) attaching the closure wall to the cartridge, at the level of the opening, in a hermetically sealed manner, so that the pouch is enclosed in the cartridge; (iv) injecting the first fluid into the pouch via the valve, so that it is maintained under pressure in the pouch by the intermediate fluid present in the cartridge around the pouch; characterized in that step (ii) comprises the following sub-steps: (ii.1) extracting air from the cartridge; (ii.2) injecting the second fluid in compressed form into the cartridge. (i) supplying and placing in a closed enclosure: - a rigid cartridge comprising an opening, - a pouch valve comprising a pouch carried by a valve extended by a closure wall, - a rigid cartridge comprising an opening, - a pouch valve comprising a pouch carried by a valve extended by a closure wall, (ii) injecting an intermediate fluid in compressed form into the cartridge via the opening, the intermediate fluid comprising a second ophthalmic treatment fluid; (iii) attaching the closure wall to the cartridge, at the level of the opening, in a hermetically sealed manner, so that the pouch is enclosed in the cartridge; (iv) injecting the first fluid into the pouch via the valve, so that it is maintained under pressure in the pouch by the intermediate fluid present in the cartridge around the pouch; characterized in that step (ii) comprises the following sub-steps: (ii.1) extracting air from the cartridge; (ii.2) injecting the second fluid in compressed form into the cartridge. (ii.1) extracting air from the cartridge; (ii.2) injecting the second fluid in compressed form into the cartridge.
Actuating device for a parking brake with a handbrake lever, which is pivotably mounted on a bearing block and which is fixable in a predetermined pivot setting by means of a fixing device, and with an actuating rod, which is guided in the handbrake lever and which is disposed in operative connection with the fixing device and mounted to be displaceable in the handbrake lever, wherein a switch is provided at the bearing block and the handbrake lever has an abutment segment, wherein the abutment segment actuates the switch in an end position of the handbrake lever, characterised in that provided at the bearing block is an end abutment which determines the end position of the handbrake lever by the bearing against the abutment element and that detent means and a spring element are provided at the bearing block for fastening the switch, wherein the detent means are insertable into detent mounts of the bearing block, whereby the switch is mounted on the bearing block to be secure against rotation, and wherein this mounting of the switch is secured by detenting the spring element at an abutment of the bearing block.
Method for installing an elongated element into a duct, comprising the steps of: - inserting the elongated element into the duct through a pressure chamber located at an entry of the duct, by applying a driving force ( F a) to the elongated element, resulting in an effective pushing force ( F 2eff) downstream the pressure chamber, - introducing pressurized fluid into the duct at a first pressure, through the pressure chamber, wherein after an instant when said elongated element has entered the duct and before an instant when said elongated element reaches a final position into the duct, the method comprises the steps of: - monitoring at least fluid pressure ( p d) into said duct at the entry of the duct or in the pressure chamber, and said driving force ( F a), - calculating an axial outward pressure force ( F i) applied to the elongated element, - reducing said fluid pressure ( p d) to a predetermined value lower than the first pressure, in relation to said driving force ( F a), wherein the driving force ( F a) is applied upstream an entry of the elongated element into the pressure chamber so as to push the elongated element into the pressure chamber with a external pushing force ( F 2), and wherein the fluid pressure ( p d) is reduced if the fluid pressure ( p d) results in the calculated axial outward pressure force applied to the elongated element susceptible to be equal or greater than the external pushing force ( F 2). - inserting the elongated element into the duct through a pressure chamber located at an entry of the duct, by applying a driving force ( F a) to the elongated element, resulting in an effective pushing force ( F 2eff) downstream the pressure chamber, - introducing pressurized fluid into the duct at a first pressure, through the pressure chamber, wherein after an instant when said elongated element has entered the duct and before an instant when said elongated element reaches a final position into the duct, the method comprises the steps of: - monitoring at least fluid pressure ( p d) into said duct at the entry of the duct or in the pressure chamber, and said driving force ( F a), - calculating an axial outward pressure force ( F i) applied to the elongated element, - reducing said fluid pressure ( p d) to a predetermined value lower than the first pressure, in relation to said driving force ( F a), - monitoring at least fluid pressure ( p d) into said duct at the entry of the duct or in the pressure chamber, and said driving force ( F a), - calculating an axial outward pressure force ( F i) applied to the elongated element, - reducing said fluid pressure ( p d) to a predetermined value lower than the first pressure, in relation to said driving force ( F a), wherein the driving force ( F a) is applied upstream an entry of the elongated element into the pressure chamber so as to push the elongated element into the pressure chamber with a external pushing force ( F 2), and wherein the fluid pressure ( p d) is reduced if the fluid pressure ( p d) results in the calculated axial outward pressure force applied to the elongated element susceptible to be equal or greater than the external pushing force ( F 2).
A forging apparatus comprising: an upper die; a lower die facing the upper die; a heating mechanism configured to be able to heat the upper die and the lower die; and a housing in which the upper die, the lower die, and the heating mechanism are arranged, the upper die and the lower die being configured to be movable relative to each other in a facing direction of the upper die and the lower die so as to be able to forge a forging material between the upper die and the lower die, wherein the housing is integrally formed so as to surround the upper die, the lower die, and the heating mechanism, and comprises a housing body having a charging port opened so as to allow the forging material to pass therethrough, and a door configured to be able to open and close the charging port of the housing body, wherein the heating mechanism is disposed so as to partially or entirely face outer peripheral side surfaces (21, 31) of the upper die and the lower die, the forging apparatus being characterized in that the housing body has an upper die passage port that is opened to allow the upper die to be inserted therethrough so as to be movable in the facing direction, and a lower die passage port that is opened to allow the lower die to be inserted therethrough so as to be movable in the facing direction, in that the housing is configured to be movable in the die facing direction, and in that the heating mechanism is configured to move in the facing direction relatively with respect to the upper die and the lower die moving relatively. an upper die; a lower die facing the upper die; a heating mechanism configured to be able to heat the upper die and the lower die; and a housing in which the upper die, the lower die, and the heating mechanism are arranged, the upper die and the lower die being configured to be movable relative to each other in a facing direction of the upper die and the lower die so as to be able to forge a forging material between the upper die and the lower die, wherein the housing is integrally formed so as to surround the upper die, the lower die, and the heating mechanism, and comprises a housing body having a charging port opened so as to allow the forging material to pass therethrough, and a door configured to be able to open and close the charging port of the housing body, wherein the heating mechanism is disposed so as to partially or entirely face outer peripheral side surfaces (21, 31) of the upper die and the lower die,
A method for tessellating patches of surfaces in a tile based three-dimensional computer graphics rendering system comprising the steps of; performing a geometry processing phase comprising: performing domain tessellation to generate domain points for a patch; performing domain shading using the generated domain points to produce position data for the tessellated primitives making up the patch; and deriving a per tile list of primitive indices for the tessellated primitives making up a patch using the position data; and performing a rasterization phase comprising, for each tile: re-performing domain tessellation to generate domain points and performing domain shading to produce position data for the tessellated primitives making up the patch indicated by the list of primitive indices for the tile; performing hidden surface removal on the tessellated primitives in the patch; re-performing domain tessellation to generate domain points for tessellated primitives which remain after hidden surface removal and performing domain shading to produce position data and vertex attribute data for the tessellated primitives which remain after hidden surface removal; and shading the tessellated primitives which remain after hidden surface removal for display. performing domain tessellation to generate domain points for a patch; performing domain shading using the generated domain points to produce position data for the tessellated primitives making up the patch; and deriving a per tile list of primitive indices for the tessellated primitives making up a patch using the position data; and re-performing domain tessellation to generate domain points and performing domain shading to produce position data for the tessellated primitives making up the patch indicated by the list of primitive indices for the tile; performing hidden surface removal on the tessellated primitives in the patch; re-performing domain tessellation to generate domain points for tessellated primitives which remain after hidden surface removal and performing domain shading to produce position data and vertex attribute data for the tessellated primitives which remain after hidden surface removal; and shading the tessellated primitives which remain after hidden surface removal for display.
A method for transmitting data by a communications device in a wireless communications network, the method comprising: allocating a fraction of the data for transmitting to a first infrastructure equipment of the wireless communications network using a first carrier frequency, allocating a remainder of the data for transmitting to a second infrastructure equipment of the wireless communications network different from the first infrastructure equipment using a second carrier frequency, the second carrier frequency differing from the first carrier frequency, transmitting the fraction of data using the first carrier frequency and the remainder of data using the second carrier frequency, determining an attribute associated with communicating the data from the communications device to the first infrastructure equipment using the first carrier frequency including measuring or estimating the attribute based on acknowledgement information in respect of the data communicated from the communications device to the first infrastructure equipment using the first carrier frequency, the acknowledgement information being included in signals received from the first infrastructure equipment, modifying the fraction based on at least the determined attribute, and transmitting subsequent data using at least one of the first and second carrier frequencies according to the modified fraction. allocating a fraction of the data for transmitting to a first infrastructure equipment of the wireless communications network using a first carrier frequency, allocating a remainder of the data for transmitting to a second infrastructure equipment of the wireless communications network different from the first infrastructure equipment using a second carrier frequency, the second carrier frequency differing from the first carrier frequency, transmitting the fraction of data using the first carrier frequency and the remainder of data using the second carrier frequency, determining an attribute associated with communicating the data from the communications device to the first infrastructure equipment using the first carrier frequency including measuring or estimating the attribute based on acknowledgement information in respect of the data communicated from the communications device to the first infrastructure equipment using the first carrier frequency, the acknowledgement information being included in signals received from the first infrastructure equipment, modifying the fraction based on at least the determined attribute, and transmitting subsequent data using at least one of the first and second carrier frequencies according to the modified fraction.
A method of manufacturing a high-hardness steel sheet, the method of manufacturing a steel sheet, having a microstructure comprising 95 vol.% or more of a martensite phase and a Brinell hardness of 500 HB or more, comprising: finishing hot-rolling at 870°C to 930°C and cooling a steel slab consisting of carbon: 0.05 wt% to 0.3 wt%, silicon (Si): more than 0 wt% to 0.5 wt% or less, manganese (Mn): more than 0 wt% to 2.5 wt% or less, chrome (Cr): more than 0 wt% to 1.5 wt% or less, molybdenum (Mo): more than 0 wt% to 1.0 wt% or less, nickel (Ni): more than 0 wt% to 1.0 wt% or less, niobium (Nb): more than 0 wt% to 0.1 wt% or less, titanium (Ti): more than 0 wt% to 0.1 wt% or less, vanadium: more than 0 wt% to 0.1 wt% or less, boron: more than 0 wt% to 0.01 wt% or less, aluminum (Al): more than 0 wt% to 0.1 wt% or less, a balance of iron (Fe) and other unavoidable impurities, as a hot-rolled steel sheet, wherein a content of carbon satisfies Relation, wherein a cooling rate during the cooling the hot-rolled steel sheet is 20°C/sec to 150°C/sec, wherein a cooling end temperature during the cooling the hot-rolled steel sheet is the Ms point, which is a martensite transformation start temperature, or below, C a content of carbon C ≥ 0.481 − 0.104 Mn − 0.035 Si − 0.088 Cr − 0.054 Ni − 0.035 Mo − 0.0003 C. R. where Mn, Si, Cr, Ni, and Mo are values representing the content of each element by wt%, C.R. is a value representing a cooling rate during the cooling a hot-rolled steel sheet, and the unit thereof is °C/sec. molybdenum (Mo): more than 0 wt% to 1.0 wt% or less, nickel (Ni): more than 0 wt% to 1.0 wt% or less, niobium (Nb): more than 0 wt% to 0.1 wt% or less, titanium (Ti): more than 0 wt% to 0.1 wt% or less, vanadium: more than 0 wt% to 0.1 wt% or less, boron: more than 0 wt% to 0.01 wt% or less, aluminum (Al): more than 0 wt% to 0.1 wt% or less, a balance of iron (Fe) and other unavoidable impurities, as a hot-rolled steel sheet, wherein a content of carbon satisfies Relation, wherein a cooling rate during the cooling the hot-rolled steel sheet is 20°C/sec to 150°C/sec, wherein a cooling end temperature during the cooling the hot-rolled steel sheet is the Ms point, which is a martensite transformation start temperature, or below, C a content of carbon C ≥ 0.481 − 0.104 Mn − 0.035 Si − 0.088 Cr − 0.054 Ni − 0.035 Mo − 0.0003 C. R. where Mn, Si, Cr, Ni, and Mo are values representing the content of each element by wt%, C.R. is a value representing a cooling rate during the cooling a hot-rolled steel sheet, and the unit thereof is °C/sec.
Mobile working machine, in particular industrial truck, with a braking device which is configured as a hydraulically releasable spring-loaded brake and as a two-circuit service brake, by means of which a driver can brake the moving working machine in measured form, wherein the spring-loaded brake is chargeable in the direction of a release position by means of a hydraulic brake release pressure present in a brake release pressure chamber and is chargeable in the direction of a braking position by means of a hydraulic brake pressure present in a brake pressure chamber, characterized in that a first brake circuit of the service brake is formed by a manual brake which has a manually actuable brake cylinder by means of which, in the event of a manual actuation, the brake pressure present in the brake pressure chamber can be generated, and a second brake circuit of the service brake is formed by a power brake which has a pressure control valve by means of which the brake release pressure present in the brake release pressure chamber is reducible in measured form, wherein the pressure control valve is configured as a proportional pressure control valve, wherein the pressure control valve is connected to a pressure supply line of a pressure supply device, to a brake release pressure line guided to the brake release pressure chamber of the spring-loaded brake, and to a container, and wherein the pressure control valve is charged by an actuating device in the direction of a braking position connecting the brake release pressure line to the container and is charged by means of a control line, which is connected to the brake release pressure line, counter to the actuating device by the brake release pressure present in the brake release pressure line in the direction of a release position connecting the brake release pressure line to the pressure supply line.