mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a steel pipe, the method comprising: forming a steel plate into a cylindrical shape by a bending press method that presses down the steel plate with a punch having, at a leading edge thereof, an outer circumferential surface with a circular arcuate section so that edges in a width direction of the steel plate face each other; butting and welding together the edges in the width direction of the steel plate; and expanding the steel pipe from the inside using a pipe expanding machine in which a plurality of pipe expanding dies having an outer circumferential surface with a circular arcuate section are circumferentially arranged, characterized in that a pipe expanding R ratio that is a ratio of a curvature radius of the outer circumferential surface of each of the pipe expanding dies to a target radius of an inner surface of the steel pipe and a punch R ratio that is a ratio of a curvature radius of an outer circumferential surface of a leading end of the punch to the target radius of the inner surface of the steel pipe are both less than 1, and the pipe expanding R ratio and the punch R ratio satisfy Expression below: Pipe expanding R ratio ≥ − 0.3 × Punch R ratio + 1.18 forming a steel plate into a cylindrical shape by a bending press method that presses down the steel plate with a punch having, at a leading edge thereof, an outer circumferential surface with a circular arcuate section so that edges in a width direction of the steel plate face each other; butting and welding together the edges in the width direction of the steel plate; and expanding the steel pipe from the inside using a pipe expanding machine in which a plurality of pipe expanding dies having an outer circumferential surface with a circular arcuate section are circumferentially arranged, characterized in that a pipe expanding R ratio that is a ratio of a curvature radius of the outer circumferential surface of each of the pipe expanding dies to a target radius of an inner surface of the steel pipe and a punch R ratio that is a ratio of a curvature radius of an outer circumferential surface of a leading end of the punch to the target radius of the inner surface of the steel pipe are both less than 1, and the pipe expanding R ratio and the punch R ratio satisfy Expression below: Pipe expanding R ratio ≥ − 0.3 × Punch R ratio + 1.18
A processor-implemented method for automatically determining misalignment of an imaging device having a visible light sensor and an infrared sensor, the method comprising capturing by the visible light sensor a first visible light image at a first time; generating a visual indicator representing a measurement zone associated with the infrared sensor onto the first visible light image; capturing by the visible light sensor a second visible light image at a second time, the second time being subsequent to the first time; generating a visual indicator representing the measurement zone associated with the infrared sensor onto the second visible light image; comparing a location of the visual indicator representing the measurement zone of the imaging device in the first visible light image with a location of the visual indicator representing the measurement zone of the imaging device in the second visible light image; and automatically changing a position of the imaging device based on a change in horizontal or vertical position between the location of the visual indicator in the first visible light image and the location of the visual indicator in the second visible light image. capturing by the visible light sensor a first visible light image at a first time; generating a visual indicator representing a measurement zone associated with the infrared sensor onto the first visible light image; capturing by the visible light sensor a second visible light image at a second time, the second time being subsequent to the first time; generating a visual indicator representing the measurement zone associated with the infrared sensor onto the second visible light image; comparing a location of the visual indicator representing the measurement zone of the imaging device in the first visible light image with a location of the visual indicator representing the measurement zone of the imaging device in the second visible light image; and automatically changing a position of the imaging device based on a change in horizontal or vertical position between the location of the visual indicator in the first visible light image and the location of the visual indicator in the second visible light image.
A computer-implemented slide processing system for slide presentation, comprising: a separation component for separating a slide into individual slide layers, wherein the individual slide layers include a first content layer, a second content layer and a slide background layer, wherein the first content layer and the second content layer comprise transparent regions; and a transition component for: applying a first transition effect to the first content layer to transition the first content layer of the slide to a corresponding content layer of a next slide in a slide presentation, wherein the first transition effect is a fade, a wipe or a dissolve effect; and applying a second transition effect to the second content layer to transition the second content layer of the slide to a corresponding content layer of the next slide in the slide presentation, wherein the second transition effect is a fade, a wipe or a dissolve effect and different to the first transition effect. a separation component for separating a slide into individual slide layers, wherein the individual slide layers include a first content layer, a second content layer and a slide background layer, wherein the first content layer and the second content layer comprise transparent regions; and a transition component for: applying a first transition effect to the first content layer to transition the first content layer of the slide to a corresponding content layer of a next slide in a slide presentation, wherein the first transition effect is a fade, a wipe or a dissolve effect; and applying a second transition effect to the second content layer to transition the second content layer of the slide to a corresponding content layer of the next slide in the slide presentation, wherein the second transition effect is a fade, a wipe or a dissolve effect and different to the first transition effect. applying a first transition effect to the first content layer to transition the first content layer of the slide to a corresponding content layer of a next slide in a slide presentation, wherein the first transition effect is a fade, a wipe or a dissolve effect; and applying a second transition effect to the second content layer to transition the second content layer of the slide to a corresponding content layer of the next slide in the slide presentation, wherein the second transition effect is a fade, a wipe or a dissolve effect and different to the first transition effect.
A medicament comprising a caspase inhibitor for use in treating or preventing a corneal endothelial condition, disorder, or disease due to a transforming growth factor-β (TGF-β) signal in corneal endothelial cells, wherein the condition, disorder, or disease is selected from the group consisting of Fuchs' endothelial corneal dystrophy, post-corneal transplant disorder, corneal endotheliitis, trauma, ophthalmic surgery, post-ophthalmic laser surgery disorder, aging, posterior polymorphous dystrophy, congenital hereditary endothelial dystrophy (CHED), and idiopathic corneal endothelial disorder.
A medical apparatus for delivering at least two drug agents from separate reservoirs, comprising: - a first part, - a membrane being held against said first part and - a second part, - wherein said second part comprises a valve area with a first opening and a second opening, and - wherein said valve area is configured to allow for a fluidic communication between said first opening and said second opening, characterized in - that the first part comprises a sealing structure (302, 304), - that the second part is attached to said membrane, - that said valve area is located in the area of said sealing structure (302, 304), and that said sealing structure (302, 304) is configured to allow for an interruption of said fluidic communication between said first opening and said second opening. - a first part, - a membrane being held against said first part and - a second part, - wherein said second part comprises a valve area with a first opening and a second opening, and - wherein said valve area is configured to allow for a fluidic communication between said first opening and said second opening, - that the first part comprises a sealing structure (302, 304), - that the second part is attached to said membrane, - that said valve area is located in the area of said sealing structure (302, 304), and
A method for consolidating location-dependent information in a two-way radio system, the method comprising: determining a geographic location of each subscriber unit in a group of subscriber units active within a radio frequency, RF, coverage area of a base station, BS; determining a single representative geographic location for the group of subscriber units as a function of the geographic location of each subscriber unit in the group; requesting, from a content provider, location-dependent information using the representative geographic location; and in response to receiving the requested location-dependent information, causing the location-dependent information to be broadcast to the subscriber units in the group within the RF coverage area. determining a geographic location of each subscriber unit in a group of subscriber units active within a radio frequency, RF, coverage area of a base station, BS; determining a single representative geographic location for the group of subscriber units as a function of the geographic location of each subscriber unit in the group; requesting, from a content provider, location-dependent information using the representative geographic location; and in response to receiving the requested location-dependent information, causing the location-dependent information to be broadcast to the subscriber units in the group within the RF coverage area.
Electrical device, in particular a converter, having a housing and a cover part, wherein the cover part is pivotably mounted on the housing of the electrical device, wherein the cover part, in a first pivot angle position, is detachable from the housing, wherein the cover part, in a second pivot angle position, can be locked onto the housing, by the cover part having a pin which is received in a bearing portion, in particular a depression, of the housing, wherein the pin is shaped so as to be extended further in a transverse direction with respect to the pivot axis direction than in a direction perpendicular to the transverse direction and to the pivot axis direction, characterized in that the housing has an insertion guide part, into which a rating plate can be inserted, wherein the cover part has a groove, wherein, in the second pivot angle position, the rating plate is arranged in the groove, in particular is accommodated therein, wherein, in the second pivot angle position, the rating plate can be inserted into the insertion guide part in a manner guided by the groove and is accommodated in the groove.
A method for the power supply of a lighting means for a motor vehicle lamp with at least one LED as a light source, with the method steps: - maintaining a constant current feed (W A) of the at least one LED, at least within a specified temperature range, which comprises at least one design temperature (T A) of the at least one LED in a design condition during continuous operation, - detecting the temperature (T LED) of the at least one LED, as well as - decreasing the current feed (W K) at a temperature (T LED) of the at least one LED, which temperature is below a threshold value (T S) for the temperature, wherein the threshold value is preferentially less than the design temperature (T A), and wherein an at least approximately same brightness of the at least one LED is maintained in cold conditions as in the design condition when the current feed (W K) is decreased, characterised by the use of a temperature-dependent characteristic curve of the electrical resistance of the at least one LED for the purpose of detecting the temperature (TL ED) of the LED, wherein a calibration of the characteristic curve is carried out in cold conditions under ambient temperature by way of determining an ambient temperature for the LED effective in cold conditions and simultaneously determining the electrical resistance of the LED by applying a known voltage or, as the case may be, a known current to the LED briefly, without lighting up, and by measuring the current or, as the case may be, the voltage drop. - maintaining a constant current feed (W A) of the at least one LED, at least within a specified temperature range, which comprises at least one design temperature (T A) of the at least one LED in a design condition during continuous operation, - detecting the temperature (T LED) of the at least one LED, as well as - decreasing the current feed (W K) at a temperature (T LED) of the at least one LED, which temperature is below a threshold value (T S) for the temperature, wherein the threshold value is preferentially less than the design temperature (T A), and wherein an at least approximately same brightness of the at least one LED is maintained in cold conditions as in the design condition when the current feed (W K) is decreased,
A blow molding apparatus comprising a supporting frame including a horizontal base; a mold carriage assembly mounted to the base and movable in a path between an extruder station and a blow-fill station; a mold carriage positioning drive operably associated with the mold carriage; first and second adjacent mold assemblies (68, 88) in the mold carriage, each mold assembly (68, 88) comprising opposed mold halves (70, 72, 90, 92) together defining a mold cavity and being independently actuatable to open and close the mold cavity along said path; a mold actuator operably associated with each mold assembly (68, 88) for opening and closing the mold cavity; an extruder die head mounted to the frame above the extruder station for vertical reciprocal movement; a blow-and-fill head mounted to the frame above the blow-and-fill station; and a controller operably associated with the mold carriage positioning drive for positioning the mold assemblies (68, 88) at the extruder station and the blow-and-fill station; characterized in that each said mold assembly (68, 88) comprises a fixed mold half (70, 90) fixed to the mold carriage and a mold half (72, 92) movable along said path. a supporting frame including a horizontal base; a mold carriage assembly mounted to the base and movable in a path between an extruder station and a blow-fill station; a mold carriage positioning drive operably associated with the mold carriage; first and second adjacent mold assemblies (68, 88) in the mold carriage, each mold assembly (68, 88) comprising opposed mold halves (70, 72, 90, 92) together defining a mold cavity and being independently actuatable to open and close the mold cavity along said path; a mold actuator operably associated with each mold assembly (68, 88) for opening and closing the mold cavity; an extruder die head mounted to the frame above the extruder station for vertical reciprocal movement; a blow-and-fill head mounted to the frame above the blow-and-fill station; and a controller operably associated with the mold carriage positioning drive for positioning the mold assemblies (68, 88) at the extruder station and the blow-and-fill station; characterized in that each said mold assembly (68, 88) comprises a fixed mold half (70, 90) fixed to the mold carriage and a mold half (72, 92) movable along said path.
Method for producing a trench wall element in the ground, in which a trench is produced in the ground through removal of ground material by means of a removal device and a hardening medium is introduced into the trench in order to form the trench wall element, characterized in that - between the removal device and a carrier device at least two ropes are tensioned, for which the respective positions of at least two vertically spaced rope points of a rope are ascertained through angle and distance measurements by means of a tachymeter as measuring device spaced from the carrier device, and - in that the ascertained positions of the rope points are used to determine a location of the removal device in the ground. - between the removal device and a carrier device at least two ropes are tensioned, for which the respective positions of at least two vertically spaced rope points of a rope are ascertained through angle and distance measurements by means of a tachymeter as measuring device spaced from the carrier device, and - in that the ascertained positions of the rope points are used to determine a location of the removal device in the ground.
A compound of Formula I or a pharmaceutically acceptable ester, amide, solvate, or salt thereof, or a salt of such an ester or amide or a solvate of such an ester amide or salt, wherein: R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, and R 11 are chosen independently from hydrogen, halogen, hydroxyl, cyano, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, C 1 -C 6 haloalkyl, and C 1 -C 6 haloalkoxy; R 12 is hydrogen, C 1 -C 6 alkyl, or C 1 -C 6 haloalkyl; L 1 is -(CH 2) m - wherein m is an integer from 0 to 12, wherein each CH 2 can be individually replaced with -O-, -NH -, or - -NH-, providing no two adjacent CH 2 groups are replaced; L 2 is -(CH 2) n - wherein n is an integer from 0 to 12, wherein each CH 2 can be individually replaced with -O-, -NH -, or - -NH-, providing no two adjacent CH 2 groups are replaced; L 3 is -(CH 2) p - wherein p is an integer from 0 to 12, wherein each CH 2 can be individually replaced with -O-, -NH -, or - -NH-, providing no two adjacent CH 2 groups are replaced; and R 13 is a chelating group selected from a crown ether, a cyclodextrin, or a porphyrin. R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, and R 11 are chosen independently from hydrogen, halogen, hydroxyl, cyano, C 1 -C 6 alkyl, C 1 -C 6 alkoxy, C 1 -C 6 haloalkyl, and C 1 -C 6 haloalkoxy; R 12 is hydrogen, C 1 -C 6 alkyl, or C 1 -C 6 haloalkyl; L 1 is -(CH 2) m - wherein m is an integer from 0 to 12, wherein each CH 2 can be individually replaced with -O-, -NH -, or - -NH-, providing no two adjacent CH 2 groups are replaced; L 2 is -(CH 2) n - wherein n is an integer from 0 to 12, wherein each CH 2 can be individually replaced with -O-, -NH -, or - -NH-, providing no two adjacent CH 2 groups are replaced; L 3 is -(CH 2) p - wherein p is an integer from 0 to 12, wherein each CH 2 can be individually replaced with -O-, -NH -, or - -NH-, providing no two adjacent CH 2 groups are replaced; and R 13 is a chelating group selected from a crown ether, a cyclodextrin, or a porphyrin.
A system for optical coherence tomography, comprising: - an optical detection unit (200, 201, 209) for optically acquiring a measurement depth-dependent optical backscattering profile, wherein the optical detection unit (200, 201, 209; 601, 602, 209) is designed to generate an analog measurement signal of the acquired measurement depth-dependent optical backscattering profile, wherein the optical detection unit comprises a controllable analog signal processing unit, which is designed to perform selective weighting of the portions of the analog measurement signal belonging to different measurement depths, depending on an acquired control signal; - a signal converter unit, which is designed to acquire the analog measurement signal of the optical detection unit, and to convert the signal into a digital signal; and - a data acquisition and processing unit, which is to detect overshoots and/or undershoots of a dynamic range of the signal converter unit, to control the analog signal processing unit by means of the control signal such that a detected overshoot and/or undershoot of the dynamic range of the signal converter unit is counteracted, and to perform a correction of the digital signal such that thereby the weighting of different signal portions performed by the signal processing unit, is compensated. - an optical detection unit (200, 201, 209) for optically acquiring a measurement depth-dependent optical backscattering profile, wherein the optical detection unit (200, 201, 209; 601, 602, 209) is designed to generate an analog measurement signal of the acquired measurement depth-dependent optical backscattering profile, wherein the optical detection unit comprises a controllable analog signal processing unit, which is designed to perform selective weighting of the portions of the analog measurement signal belonging to different measurement depths, depending on an acquired control signal; - a signal converter unit, which is designed to acquire the analog measurement signal of the optical detection unit, and to convert the signal into a digital signal; and - a data acquisition and processing unit, which is to detect overshoots and/or undershoots of a dynamic range of the signal converter unit, to control the analog signal processing unit by means of the control signal such that a detected overshoot and/or undershoot of the dynamic range of the signal converter unit is counteracted, and to perform a correction of the digital signal such that thereby the weighting of different signal portions performed by the signal processing unit, is compensated.
A monitoring system for a gas engine, the engine is a reciprocating internal combustion engine using gas as fuel, the engine is connected to an outlet channel for conducting the exhaust gases out of the engine, there is a fan arranged in connection with the outlet channel for flushing the outlet channel with air in case of non-started engine and when there may be unburned fuel gas accumulated in the outlet channel, characterized in that there is at least one NOx-sensor located in the outlet channel in a location where unburned fuel gas may accumulate.
A method for identifying a smart device, comprising: determining a first data randomness degree of inter-packet difference data in a network data packet, characterized in that the data packet is sent by a smart device to be identified (step 201, 301); and determining an identity of the smart device to be identified based on a comparison result between the first data randomness degree and a second data randomness degree, wherein the second data randomness degree is a data randomness degree of inter-packet difference data in a network data packet sent by an identified smart device (step 202, 302), the data randomness degree indicates an randomness degree of generating the inter-packet difference data. determining a first data randomness degree of inter-packet difference data in a network data packet, characterized in that the data packet is sent by a smart device to be identified (step 201, 301); and determining an identity of the smart device to be identified based on a comparison result between the first data randomness degree and a second data randomness degree, wherein the second data randomness degree is a data randomness degree of inter-packet difference data in a network data packet sent by an identified smart device (step 202, 302), the data randomness degree indicates an randomness degree of generating the inter-packet difference data.