mhurhangee/ep-ind-claims huggingface dataset:
Electric household device, in particular dishwasher, having at least one electric and/or electronic assembly and a multiple connector with multiple electrical bonds for electrically contacting the assembly, wherein the assembly has a first electric contact, at which an electric signal is or can be applied during normal use of the electric household device, and a second electric contact, and wherein the multiple connector is embodied such that with its bonds it short-circuits the first electric contact and the second electric contact during normal bonding with the assembly, such that the electric signal of the first electric contact is available at the second electric contact, in particular for an evaluation.
A fuel cell, comprising: a first flow plate for the introduction of hydrogen fuel gas and water vapor, a porous anode, an electrolyte, a cathode, and a second flow plate for the introduction of an oxygen containing gas, wherein at least one of the first and second flow plate is made of metal or graphite and comprises a polymer-free nanostructured carbon material coating deposited thereon, wherein the nanostructured carbon material comprises carbon nanotubes oriented substantially parallel to the surface of the flow plate. a first flow plate for the introduction of hydrogen fuel gas and water vapor, a porous anode, an electrolyte, a cathode, and a second flow plate for the introduction of an oxygen containing gas, wherein at least one of the first and second flow plate is made of metal or graphite and comprises a polymer-free nanostructured carbon material coating deposited thereon, wherein the nanostructured carbon material comprises carbon nanotubes oriented substantially parallel to the surface of the flow plate.
Method for machining a sealing seat (24a, b), arranged at the end of a connection pipe (8a, b), of a shut-off valve mounted in a power plant or industrial plant, with the following steps: a) the valve upper part and the housing fittings are removed from the housing of the shut-off valve, with the result that a housing orifice is exposed, b) a fixture having a counterbearing is introduced through the housing orifice into the or a further connection pipe (8a, b) and is fastened to the inner wall of the latter such that fixture and counterbearing constitute a reference location in the shut-off valve which is geometrically exactly positionally fixed, c) a machine tool having a bearing is introduced through the housing orifice into the housing and is mounted with its bearing at the counterbearing, d) a machining step (B1-4) is carried out on the sealing seat (24a, b) by means of the machine tool, e) the machine tool is released from the counterbearing and removed through the housing orifice, f) if required, steps c) to e) are repeated with another or the same machine tool, g) the fixture is released from the connection pipe (8a, b) and removed through the housing orifice, h) the valve upper part and the fittings are attached to the housing. a) the valve upper part and the housing fittings are removed from the housing of the shut-off valve, with the result that a housing orifice is exposed, b) a fixture having a counterbearing is introduced through the housing orifice into the or a further connection pipe (8a, b) and is fastened to the inner wall of the latter such that fixture and counterbearing constitute a reference location in the shut-off valve which is geometrically exactly positionally fixed, c) a machine tool having a bearing is introduced through the housing orifice into the housing and is mounted with its bearing at the counterbearing, d) a machining step (B1-4) is carried out on the sealing seat (24a, b) by means of the machine tool, e) the machine tool is released from the counterbearing and removed through the housing orifice, f) if required, steps c) to e) are repeated with another or the same machine tool, g) the fixture is released from the connection pipe (8a, b) and removed through the housing orifice, h) the valve upper part and the fittings are attached to the housing.
A work vehicle comprising: a traveling vehicle body having a vehicle wheel; a mower device provided on the traveling vehicle body; a driver's seat provided in front of the traveling vehicle body; an engine provided in the rear part of the traveling vehicle body; and a hydraulic pump disposed behind the engine in order to transmit power of the engine to the vehicle wheel, characterized in that the work vehicle comprises a control device disposed behind the hydraulic pump and controlling the engine. a traveling vehicle body having a vehicle wheel; a mower device provided on the traveling vehicle body; a driver's seat provided in front of the traveling vehicle body; an engine provided in the rear part of the traveling vehicle body; and a hydraulic pump disposed behind the engine in order to transmit power of the engine to the vehicle wheel, characterized in that the work vehicle comprises a control device disposed behind the hydraulic pump and controlling the engine.
A capillary liquid conducting and atomizing unit, comprising a housing and an atomization assembly arranged in the housing; wherein at least one liquid inlet is provided in a side of the atomization assembly, and a capillary liquid absorbing channel communicating with the liquid inlet is provided between an inner side of the housing and a side of the atomization assembly where the liquid inlet is located; wherein a length direction of the capillary liquid absorbing channel extends along a height direction of the side where the liquid inlet is located, and two opposite ends of the capillary liquid absorbing channel respectively extend towards an upper side and a lower side of the liquid inlet, to absorb liquid into the liquid inlet by capillary action; wherein the atomization assembly comprises a liquid conducting member, a sleeve sleeved on the liquid conducting member, and at least one heating element arranged in the liquid conducting member, and the liquid inlet is arranged in the sleeve; and wherein an airflow hole is defined in the liquid conducting member and extends through two opposite ends of the liquid conducting member, and the heating element is located on an inner wall surface of the airflow hole. wherein a length direction of the capillary liquid absorbing channel extends along a height direction of the side where the liquid inlet is located, and two opposite ends of the capillary liquid absorbing channel respectively extend towards an upper side and a lower side of the liquid inlet, to absorb liquid into the liquid inlet by capillary action; wherein the atomization assembly comprises a liquid conducting member, a sleeve sleeved on the liquid conducting member, and at least one heating element arranged in the liquid conducting member, and the liquid inlet is arranged in the sleeve; and wherein an airflow hole is defined in the liquid conducting member and extends through two opposite ends of the liquid conducting member, and the heating element is located on an inner wall surface of the airflow hole.
A method of interrogating a sensor of the surface acoustic wave type that measures at least one physical parameter, characterised in that it comprises: a first step of generating and emitting an electromagnetic signal corresponding to the time reversal temporally dilated by a dilation coefficient k of a pulse response signature that is characteristic of said acoustic sensor, corresponding to the signal received from said sensor as an echo to a determined signal of the pulse type; a second step of gathering a signal received as an echo of the signal emitted during said first step; a third step of determining the maximum value of the amplitude or of the power of said signal received as an echo during said second step; said first step being applied as a new iteration with a dilation coefficient k that is increased or reduced by a step of a determined value, until said maximum value reaches a maximum value, the measurement of said at least one physical parameter then being determined by the dilation coefficient k, for which the maximum value is maximum, and a coefficient of said physical parameter of the propagation delay of the surface waves that is characteristic of said acoustic sensor. a first step of generating and emitting an electromagnetic signal corresponding to the time reversal temporally dilated by a dilation coefficient k of a pulse response signature that is characteristic of said acoustic sensor, corresponding to the signal received from said sensor as an echo to a determined signal of the pulse type; a second step of gathering a signal received as an echo of the signal emitted during said first step; a third step of determining the maximum value of the amplitude or of the power of said signal received as an echo during said second step; said first step being applied as a new iteration with a dilation coefficient k that is increased or reduced by a step of a determined value, until said maximum value reaches a maximum value, the measurement of said at least one physical parameter then being determined by the dilation coefficient k, for which the maximum value is maximum, and a coefficient of said physical parameter of the propagation delay of the surface waves that is characteristic of said acoustic sensor.
Trailer air supply and control module for a brake system of a motor vehicle with a trailer comprising a pneumatic brake system, configured to provide a preset brake control outlet pressure to said pneumatic brake system of the trailer, the trailer air supply and control module comprising: at least one brake supply pressure terminal, configured to provide the brake supply outlet pressure to the pneumatic brake system of the trailer, at least one brake control pressure terminal, configured to provide the preset brake control outlet pressure to the pneumatic brake system of the trailer, characterised by at least two electrical terminals (201a, 201b), configured to receive two independent but redundant electrical control input signals, which comprise the signal for a preset brake control outlet pressure, at least one valve, configured to adjust a constant air pressure from an air pressure source to the preset break outlet pressure, wherein said air pressure source is arranged within the trailer control module. at least one brake supply pressure terminal, configured to provide the brake supply outlet pressure to the pneumatic brake system of the trailer, at least one brake control pressure terminal, configured to provide the preset brake control outlet pressure to the pneumatic brake system of the trailer, characterised by at least two electrical terminals (201a, 201b), configured to receive two independent but redundant electrical control input signals, which comprise the signal for a preset brake control outlet pressure, at least one valve, configured to adjust a constant air pressure from an air pressure source to the preset break outlet pressure, wherein said air pressure source is arranged within the trailer control module.
A composition comprising 0.001 to 20 wt.-% of a water-soluble zinc salt selected from the group consisting of zinc-L-pyrrolidone-carboxylate, zinc acetate, zinc chloride, zinc histidine, zinc gluconate, zinc aspartate, zinc citrate, zinc sulfate, zinc lactate and mixtures thereof, 0.001 to 1 wt.-% of a total amount of anionic surfactants, comprising at least three anionic surfactants A, B and C in a weight ratio A/B from 10/1 to 1.1/1 and a weight ratio A/C from 27/1 to 1.1/1, wherein surfactant A is an alkyl sulfate and surfactant C is an alkyl sarcosinate, and surfactant B is an alkyl taurate, and 0.001 to 5 wt.-% of a polyalcohol selected from erythritol, arabitol, lactitol, maltitol, mannitol, sorbitol, xylitol, and mixtures thereof. 0.001 to 20 wt.-% of a water-soluble zinc salt selected from the group consisting of zinc-L-pyrrolidone-carboxylate, zinc acetate, zinc chloride, zinc histidine, zinc gluconate, zinc aspartate, zinc citrate, zinc sulfate, zinc lactate and mixtures thereof, 0.001 to 1 wt.-% of a total amount of anionic surfactants, comprising at least three anionic surfactants A, B and C in a weight ratio A/B from 10/1 to 1.1/1 and a weight ratio A/C from 27/1 to 1.1/1, wherein surfactant A is an alkyl sulfate and surfactant C is an alkyl sarcosinate, and surfactant B is an alkyl taurate, and 0.001 to 5 wt.-% of a polyalcohol selected from erythritol, arabitol, lactitol, maltitol, mannitol, sorbitol, xylitol, and mixtures thereof.
A method for adapting a plurality of views of a content delivered by an auto-stereoscopic display device, said method being executed by an image renderer, and comprising: - determining the number of views in the plurality of views based on information comprising: a list of at least one number of views supported by said auto-stereoscopic display device and at least an information indicative of a computing power of the image renderer needed to deliver content for each view; - obtaining a correspondence map between different sub-pixels of said auto-stereoscopic display device and different views of the plurality of views for said determined number of views; and - providing the different views to the different sub-pixels of said auto-stereoscopic display device according to said correspondence map; said method being characterized in that: - said image renderer and said auto-stereoscopic display device are not included in a same device; - said list of at least one supported number of views is received (601, 701) from the auto-stereoscopic display device; - said determined number of views is transmitted (602, 702) to said auto-stereoscopic display device; - said correspondence map is obtained based on data received (603, 703) from said auto-stereoscopic display device in response to the transmission of the determined number of views. - determining the number of views in the plurality of views based on information comprising: a list of at least one number of views supported by said auto-stereoscopic display device and at least an information indicative of a computing power of the image renderer needed to deliver content for each view; - obtaining a correspondence map between different sub-pixels of said auto-stereoscopic display device and different views of the plurality of views for said determined number of views; and - providing the different views to the different sub-pixels of said auto-stereoscopic display device according to said correspondence map; said method being characterized in that: - said image renderer and said auto-stereoscopic display device are not included in a same device; - said list of at least one supported number of views is received (601, 701) from the auto-stereoscopic display device; - said determined number of views is transmitted (602, 702) to said auto-stereoscopic display device; - said correspondence map is obtained based on data received (603, 703) from said auto-stereoscopic display device in response to the transmission of the determined number of views. - said image renderer and said auto-stereoscopic display device are not included in a same device; - said list of at least one supported number of views is received (601, 701) from the auto-stereoscopic display device; - said determined number of views is transmitted (602, 702) to said auto-stereoscopic display device; - said correspondence map is obtained based on data received (603, 703) from said auto-stereoscopic display device in response to the transmission of the determined number of views.
A magnetic marker detection method for detecting a magnetic marker laid on a road by using a plurality of, at least two or more, magnetic sensors (Cn, CnA, CnB) attached to a vehicle, the method including: a gradient generating process of generating a first magnetic gradient that can be calculated by first-order difference operation, second-order difference operation, or higher-order difference operation targeted on magnetic measurement values acquired in a same measurement period by two or more magnetic sensors (Cn, CnA, CnB) among the plurality of magnetic sensors (Cn, CnA, CnB); and a filter processing process of generating a filter output value by performing filter processing for suppressing or cutting off at least a low frequency component as to a change of a magnetic gradient in a travelling direction of the vehicle, the magnetic gradient being at least either of a second magnetic gradient, which is a difference between said first magnetic gradients with the targeting magnetic measurement values acquired in different measurement periods, and the first magnetic gradient, and at least part of input data of processing for detecting the magnetic marker being the filter output value. a gradient generating process of generating a first magnetic gradient that can be calculated by first-order difference operation, second-order difference operation, or higher-order difference operation targeted on magnetic measurement values acquired in a same measurement period by two or more magnetic sensors (Cn, CnA, CnB) among the plurality of magnetic sensors (Cn, CnA, CnB); and a filter processing process of generating a filter output value by performing filter processing for suppressing or cutting off at least a low frequency component as to a change of a magnetic gradient in a travelling direction of the vehicle, the magnetic gradient being at least either of a second magnetic gradient, which is a difference between said first magnetic gradients with the targeting magnetic measurement values acquired in different measurement periods, and the first magnetic gradient, and at least part of input data of processing for detecting the magnetic marker being the filter output value.
A bundled fiber optic cable, comprising: a plurality of cable units stranded at unit-stranding radius R U and unit-stranding angle α U; a first binder yarn stranded around said cable units at first binder-stranding radius R Y1 and first binder-stranding angle α Y1; and a second binder yarn stranded around said cable units at second binder-stranding radius R Y2 and second binder-stranding angle α Y2; wherein said first binder yarn and said second binder yarn are contra-helically stranded; wherein said first binder-stranding radius R Y1 is substantially equal to said second binder-stranding radius R Y2; wherein said first binder-stranding angle α Y1 is substantially equal to said second binder-stranding angle α Y2; and wherein: 2.5 R Y 1 ⋅ tan α Y 1 ≤ R U ⋅ tan α U ≤ 26.5 R Y 1 ⋅ tan α Y 1. a plurality of cable units stranded at unit-stranding radius R U and unit-stranding angle α U; a first binder yarn stranded around said cable units at first binder-stranding radius R Y1 and first binder-stranding angle α Y1; and a second binder yarn stranded around said cable units at second binder-stranding radius R Y2 and second binder-stranding angle α Y2; wherein said first binder yarn and said second binder yarn are contra-helically stranded; wherein said first binder-stranding radius R Y1 is substantially equal to said second binder-stranding radius R Y2; wherein said first binder-stranding angle α Y1 is substantially equal to said second binder-stranding angle α Y2; and wherein: 2.5 R Y 1 ⋅ tan α Y 1 ≤ R U ⋅ tan α U ≤ 26.5 R Y 1 ⋅ tan α Y 1.
A method for marking an exit side of a motor vehicle, comprising the steps of: - determining, by an analysis unit, an exit side of the motor vehicle; and - simulating, by a control unit, a door opening on the determined exit side, characterized in that for simulating the door opening, external noise is reproduced at least in a door area on the determined exit side or an air flow is generated at least in a door area on the determined exit side. - determining, by an analysis unit, an exit side of the motor vehicle; and - simulating, by a control unit, a door opening on the determined exit side,
A computer-implemented method of analysing the consistency of stool, comprising the steps of: - providing stool of an infant, - capturing, with a portable device comprising a camera, an image of the stool, - providing the captured image to an input layer of a pre-trained convolutional neural network, CNN; - processing, by the portable device, the captured image using the CNN to obtain, from a final layer of the CNN, a classification vector and to obtain information about a predicted score from the classification vector; wherein the CNN has been obtained by transfer learning, by customizing at least the final layer of the CNN so that each element of the classification vector corresponds to a respective score of a stool consistency analysis scale, and - storing information about the predicted score, - wherein the image is a colour image, and wherein the method further comprises automatically detecting, by the portable device, the colour of the stool and analysing the colour to provide additional information. - providing stool of an infant, - capturing, with a portable device comprising a camera, an image of the stool, - providing the captured image to an input layer of a pre-trained convolutional neural network, CNN; - processing, by the portable device, the captured image using the CNN to obtain, from a final layer of the CNN, a classification vector and to obtain information about a predicted score from the classification vector; wherein the CNN has been obtained by transfer learning, by customizing at least the final layer of the CNN so that each element of the classification vector corresponds to a respective score of a stool consistency analysis scale, and - storing information about the predicted score, - wherein the image is a colour image, and wherein the method further comprises automatically detecting, by the portable device, the colour of the stool and analysing the colour to provide additional information.
Joint arrangement comprising a journal which is mounted in a bearing bore of a joint yoke, wherein the journal is provided at its free axial end with a covering, and wherein the covering has an annular depression for facilitated entry of impurities during the rotation of the joint arrangement, wherein the depression comprises an opening and this opening is oriented in the direction of the axial free end of the journal, on the one hand, and in the direction of a radial bearing, on the other hand, which radial bearing is mounted, by means of a bearing shell, in a covering which coaxially surrounds the journal, wherein the annular depression has a wall radially at the inside, characterized in that the covering is provided with a lubricant opening, and a gap for the lubricant extending in a radial direction is formed between the axial free end of the wall and the bearing shell.