mhurhangee/ep-ind-claims huggingface dataset:
A method for adjusting the height of a trailer to the height of a motor vehicle with a fifth-wheel plate, wherein the trailer has a trailer chassis, at least one axle (12, 13, 14) and a height adjustable suspension, having an actual inclination (α) of the trailer chassis relative to a chassis line, which runs in the direction of traffic and parallel to a road surface, having the following steps: a) Determining the actual inclination (α) of the trailer chassis relative to the chassis line, b) Comparison of the actual inclination (α) to a target inclination of the trailer chassis, c) Adjustment of the height adjustable suspension, until the actual inclination (α) of the target inclination, characterized in that at least signals of a sensor in the motor vehicle are evaluated to determine the actual inclination (a), wherein at least signals of a sensor are evaluated to determine the inclination of the fifth-wheel plate. a) Determining the actual inclination (α) of the trailer chassis relative to the chassis line, b) Comparison of the actual inclination (α) to a target inclination of the trailer chassis, c) Adjustment of the height adjustable suspension, until the actual inclination (α) of the target inclination,
A microporous membrane comprising: a first layer comprising a poly(vinylidene fluoride) polymeric matrix and a nucleating agent substantially uniformly dispersed throughout the polymeric matrix, wherein said first layer has a substantially uniform distribution of pores wherein the polymeric matrix comprises polymer spherulites and the nucleating agent is present within the polymer spherulites of the polymer characterized in that said nucleating agent comprises bicyclo[2.2.1]heptane-2,3-dicarboxylic acid, disodium salt and said pores have an average pore size greater than about 2.0 μm a first layer comprising a poly(vinylidene fluoride) polymeric matrix and a nucleating agent substantially uniformly dispersed throughout the polymeric matrix, wherein said first layer has a substantially uniform distribution of pores wherein the polymeric matrix comprises polymer spherulites and the nucleating agent is present within the polymer spherulites of the polymer characterized in that said nucleating agent comprises bicyclo[2.2.1]heptane-2,3-dicarboxylic acid, disodium salt and said pores have an average pore size greater than about 2.0 μm
Method to control a four stroke internal combustion engine, which internal combustion engine comprises, - at least one first and one second cylinder (C1, C4); - a first piston, arranged in the first cylinder; - a second piston, arranged in the second cylinder; - a first intake channel and a second exhaust channel connected with the first cylinder, - a first and a second valve (18, 19), arranged to open and close the connection between the first channel and the first cylinder, - a third valve, arranged to open and close the connection between the second channel and the first cylinder, wherein the method comprises the following steps: a) controlling the first valve to open at a bottom dead centre for the piston in the first cylinder, between an expansion stroke and an exhaust stroke, and to close at a top dead centre for the piston in the first cylinder, between an exhaust stroke and an inlet stroke, b) controlling the second valve to open when the first valve closes, and to close at the bottom dead centre, between the inlet stroke and a compression stroke, and c) controlling the third valve in such a way that it, and therefore the connection between the second channel and the first cylinder, remains closed during all the strokes of the engine, wherein the method is characterised by the additional steps: d) supplying fuel only to the second cylinder, e) reducing the air mass sucked into the second cylinder in relation to the air mass sucked into the first cylinder. - at least one first and one second cylinder (C1, C4); - a first piston, arranged in the first cylinder; - a second piston, arranged in the second cylinder; - a first intake channel and a second exhaust channel connected with the first cylinder, - a first and a second valve (18, 19), arranged to open and close the connection between the first channel and the first cylinder, - a third valve, arranged to open and close the connection between the second channel and the first cylinder, wherein a) controlling the first valve to open at a bottom dead centre for the piston in the first cylinder, between an expansion stroke and an exhaust stroke, and to close at a top dead centre for the piston in the first cylinder, between an exhaust stroke and an inlet stroke, b) controlling the second valve to open when the first valve closes, and to close at the bottom dead centre, between the inlet stroke and a compression stroke, and c) controlling the third valve in such a way that it, and therefore the connection between the second channel and the first cylinder, remains closed during all the strokes of the engine, wherein the method is d) supplying fuel only to the second cylinder, e) reducing the air mass sucked into the second cylinder in relation to the air mass sucked into the first cylinder.
A computer-implemented method for separating effects of multiple seismic sources in simultaneous shooting acquisition, comprising: obtaining seismic data recorded simultaneously in seismic streamers, acquired by activating approximately simultaneously two or more seismic sources towed at two or more positions in the vicinity of the seismic streamers; characterized by: iteratively updating a residual for an inversion solution of models for the activations of the two or more seismic sources, in which the iterative updating of the residual utilizes a sequence of overlapping temporal windows containing reflection events and utilizes normal moveout corrections based on largest reflection events in each temporal window; and adding a final updated residual to a final updated model result. obtaining seismic data recorded simultaneously in seismic streamers, acquired by activating approximately simultaneously two or more seismic sources towed at two or more positions in the vicinity of the seismic streamers; characterized by: iteratively updating a residual for an inversion solution of models for the activations of the two or more seismic sources, in which the iterative updating of the residual utilizes a sequence of overlapping temporal windows containing reflection events and utilizes normal moveout corrections based on largest reflection events in each temporal window; and adding a final updated residual to a final updated model result.
A molded surface fastener (1, 1a, 1b) made of synthetic resin in which a plurality of male engaging elements (10, 10a, 10b) are standing on an upper surface of a flat plate-shaped base portion and each engaging element (10, 10a, 10b) has a stem portion standing on the base portion and an engaging head portion bulging from an upper end of the stem portion toward an outside and formed integrally on the stem portion, wherein: the engaging head portion has a top end surface of head portion disposed parallel to the upper surface of the base portion, a back surface of head portion extending flatly from a boundary with the stem portion toward an outside disposed on an opposite side of the top end surface of head portion so as to oppose to the base portion, and an outer peripheral side surface disposed in a curved surface-shape from an outer periphery of the top end surface of head portion to the back surface of head portion, in at least a part of the engaging elements (10, 10a, 10b), at least one pawl portion having a pawl width dimension narrower than a width dimension at a boundary between the stem portion and the engaging head portion is protruded on a part of an outer peripheral edge part of the engaging head portion toward an outside, and a back surface of pawl disposed opposing to the base portion of the pawl portion is formed at different angles with respect to a back surface of head portion extending from the boundary of the engaging head portion to an outside. the engaging head portion has a top end surface of head portion disposed parallel to the upper surface of the base portion, a back surface of head portion extending flatly from a boundary with the stem portion toward an outside disposed on an opposite side of the top end surface of head portion so as to oppose to the base portion, and an outer peripheral side surface disposed in a curved surface-shape from an outer periphery of the top end surface of head portion to the back surface of head portion, in at least a part of the engaging elements (10, 10a, 10b), at least one pawl portion having a pawl width dimension narrower than a width dimension at a boundary between the stem portion and the engaging head portion is protruded on a part of an outer peripheral edge part of the engaging head portion toward an outside, and a back surface of pawl disposed opposing to the base portion of the pawl portion is formed at different angles with respect to a back surface of head portion extending from the boundary of the engaging head portion to an outside.
An apparatus for executing a neural network, NN, inference program, comprising: an inference executor that is configured to execute a portion of the NN inference program loaded on a second memory from a first memory that stores the NN inference program, wherein the second memory is a tightly-coupled memory, TCM, or a static random access memory, SRAM, and wherein the first memory is a dynamic random access memory, DRAM, an on-bus SRAM, or a serial flash memory; and a dynamic loading agent coupled to the inference executor, the first memory, and the second memory, the dynamic loading agent being configured to load a next portion of the NN inference program stored in the first memory to the second memory, characterized in that the inference executor is further configured to generate a signal based on an execution of the portion of the NN inference program loaded in the second memory, and in that the dynamic loading agent is further configured to obtain information about when and how to load a portion of the NN inference program from the first memory to the second memory from an inference executing scheme stored in the second memory, and to manage power supplied to the first memory based on the signal from the inference executor and the inference executing scheme, by scaling a voltage and/or a frequency applied to the first memory. an inference executor that is configured to execute a portion of the NN inference program loaded on a second memory from a first memory that stores the NN inference program, wherein the second memory is a tightly-coupled memory, TCM, or a static random access memory, SRAM, and wherein the first memory is a dynamic random access memory, DRAM, an on-bus SRAM, or a serial flash memory; and a dynamic loading agent coupled to the inference executor, the first memory, and the second memory, the dynamic loading agent being configured to load a next portion of the NN inference program stored in the first memory to the second memory, characterized in that the inference executor is further configured to generate a signal based on an execution of the portion of the NN inference program loaded in the second memory, and in that the dynamic loading agent is further configured to obtain information about when and how to load a portion of the NN inference program from the first memory to the second memory from an inference executing scheme stored in the second memory, and to manage power supplied to the first memory based on the signal from the inference executor and the inference executing scheme, by scaling a voltage and/or a frequency applied to the first memory.
A method for standardized generation and/or isolation of cardiomyocytes derived from a starting cell composition comprising pluripotent and/or multipotent stem cells, the method comprising the steps a) Differentiating said pluripotent and/or multipotent stem cells into cardiovascular cells, thereby generating a sample comprising cardiomyocytes and non-cardiomyocytes; b) Labeling the non-cardiomyocytes of said sample with more than one antibody or antigen binding fragment thereof specific for antigens of non-cardiomyocytes, wherein said more than one antibody or antigen-binding fragment thereof is selected from the group consisting of antiCD10, antiCD105, antiCD140b, antiCD61, antiCD44, antiCD141, and antiCD51/61; c) Depleting said labeled non-cardiomyocytes from said sample; d) Labeling the cardiomyocytes of said sample after step c) with at least one antibody or antigen binding fragment thereof specific for antigen(s) of cardiomyocytes, wherein said at least one antibody or antigen binding fragment thereof is selected from the group consisting of antiPTK7, antiCD99, antiCD276, antiCD56, antiCD59, antiCD147, antiCD239, antiCD298, antiCD49f, antiCD262, antiCD81, antiTra-1-85, antiCD49e, antiCD24, antiCD47, antiCD46, antiCD49c, antiCD51, antiCD29, antiCD98, antiCD63, and antiCD146c, antiCD151; e) Enriching said labeled cardiomyocytes. a) Differentiating said pluripotent and/or multipotent stem cells into cardiovascular cells, thereby generating a sample comprising cardiomyocytes and non-cardiomyocytes; b) Labeling the non-cardiomyocytes of said sample with more than one antibody or antigen binding fragment thereof specific for antigens of non-cardiomyocytes, wherein said more than one antibody or antigen-binding fragment thereof is selected from the group consisting of antiCD10, antiCD105, antiCD140b, antiCD61, antiCD44, antiCD141, and antiCD51/61; c) Depleting said labeled non-cardiomyocytes from said sample; d) Labeling the cardiomyocytes of said sample after step c) with at least one antibody or antigen binding fragment thereof specific for antigen(s) of cardiomyocytes, wherein said at least one antibody or antigen binding fragment thereof is selected from the group consisting of antiPTK7, antiCD99, antiCD276, antiCD56, antiCD59, antiCD147, antiCD239, antiCD298, antiCD49f, antiCD262, antiCD81, antiTra-1-85, antiCD49e, antiCD24, antiCD47, antiCD46, antiCD49c, antiCD51, antiCD29, antiCD98, antiCD63, and antiCD146c, antiCD151; e) Enriching said labeled cardiomyocytes.
A color temperature adjustable light source device, comprising: a substrate; a plurality of light-emitting units arranged in a preset area on a surface of the substrate, wherein the plurality of light-emitting units comprise first light-emitting units configured to generate full spectrum white light or yellow light and monochromatic light-emitting units configured to generate light having spectrums of three primary colors respectively; and a control circuit integrated in the substrate and configured to control the first light-emitting units and the monochromatic light-emitting units to emit light, to control the generated spectrums of three primary colors to compensate the white light or yellow light to form mixed light, wherein the number of the first light-emitting units is greater than one; wherein the first light-emitting units are arranged at a center of the preset area, and the monochromatic light-emitting units are dispersedly distributed in the preset area. a substrate; a plurality of light-emitting units arranged in a preset area on a surface of the substrate, wherein the plurality of light-emitting units comprise first light-emitting units configured to generate full spectrum white light or yellow light and monochromatic light-emitting units configured to generate light having spectrums of three primary colors respectively; and a control circuit integrated in the substrate and configured to control the first light-emitting units and the monochromatic light-emitting units to emit light, to control the generated spectrums of three primary colors to compensate the white light or yellow light to form mixed light, wherein the number of the first light-emitting units is greater than one; wherein the first light-emitting units are arranged at a center of the preset area, and the monochromatic light-emitting units are dispersedly distributed in the preset area.
Use of sulfonic acid esters of the following Formula 1 and/or Formula 2, individually or as a mixture of more than one thereof, as regulators in polymerisation reactions of radically polymerisable, ethylenically unsaturated monomers: in which A in each case independently is selected from H, CN, linear, branched or cyclic aliphatic or aromatic C 1 -C 30 hydrocarbon residues that are optionally substituted with one or more substituents, wherein the aliphatic hydrocarbon residues are optionally interrupted by one or more urethane groups, ester groups, O and/or S; X in each case independently is -COO- or -CON(R 1)-, wherein the bonding to A occurs through O or N, or is absent if A is an aromatic hydrocarbon residue or CN; B in each case independently is selected from OH, linear, branched or cyclic aliphatic or aromatic C 1 -C 30 hydrocarbon residues that are optionally substituted with one or more substituents, wherein the aliphatic hydrocarbon residues are optionally interrupted by one or more urethane groups, ester groups, O and/or S; R 1 in each case independently is selected from hydrogen and linear, branched or cyclic aliphatic or aromatic C 1 -C 10 hydrocarbon residues that are optionally substituted with one or more OH groups, wherein the aliphatic hydrocarbon residues are optionally interrupted by one or more oxygen atoms; and n in each case independently is an integer from 1 to 6 and wherein the ethylenically unsaturated monomers are selected from (meth)acrylates, vinyl esters and mixtures thereof. A in each case independently is selected from H, CN, linear, branched or cyclic aliphatic or aromatic C 1 -C 30 hydrocarbon residues that are optionally substituted with one or more substituents, wherein the aliphatic hydrocarbon residues are optionally interrupted by one or more urethane groups, ester groups, O and/or S; X in each case independently is -COO- or -CON(R 1)-, wherein the bonding to A occurs through O or N, or is absent if A is an aromatic hydrocarbon residue or CN; B in each case independently is selected from OH, linear, branched or cyclic aliphatic or aromatic C 1 -C 30 hydrocarbon residues that are optionally substituted with one or more substituents, wherein the aliphatic hydrocarbon residues are optionally interrupted by one or more urethane groups, ester groups, O and/or S; R 1 in each case independently is selected from hydrogen and linear, branched or cyclic aliphatic or aromatic C 1 -C 10 hydrocarbon residues that are optionally substituted with one or more OH groups, wherein the aliphatic hydrocarbon residues are optionally interrupted by one or more oxygen atoms; and n in each case independently is an integer from 1 to 6 and wherein the ethylenically unsaturated monomers are selected from (meth)acrylates, vinyl esters and mixtures thereof.
Particle trap for capturing particles from a hollow body, especially from a tubular duct element, having a closure cap comprising a wall which is closed around its circumference and a base region which closes the wall at one end, wherein the wall and the base region enclose an interior region of the closure cap; and an adhesive element which is arranged on the closure cap and serves for permanent fixing of the particles, characterised in that the adhesive element is in the form of a double-sided adhesive film.
A method, comprising: modifying access rights for a Wi-Fi network in response to a condition, the access rights having a prior state in which at least one user is not enabled to access to the Wi-Fi network, wherein modifying the access rights for the Wi-Fi network allows the at least one user without a Wi-Fi subscription to access the Wi-Fi network to enable traffic between the at least one user and a mobile network to be offloaded to the Wi-Fi network; returning the access rights back to their prior state when the condition is no longer met; wherein the condition is cell congestion within the mobile network. modifying access rights for a Wi-Fi network in response to a condition, the access rights having a prior state in which at least one user is not enabled to access to the Wi-Fi network, wherein modifying the access rights for the Wi-Fi network allows the at least one user without a Wi-Fi subscription to access the Wi-Fi network to enable traffic between the at least one user and a mobile network to be offloaded to the Wi-Fi network; returning the access rights back to their prior state when the condition is no longer met;
A process for recovering aroma from tea leaf comprising the steps of: a. incubating fresh tea leaf at a temperature in the range 4°C to 80°C under anaerobic conditions for a period of 4 to 72 hours; b. subjecting the incubated leaf to comminution to produce dhool; c. fermenting the comminuted dhool; and d. recovering aroma from the dhool while partially drying the dhool in a low-convection dryer; wherein the fermentation is carried out by keeping the dhool at a temperature in the range of 10°C to 60°C for 15 minutes to 5 hours. a. incubating fresh tea leaf at a temperature in the range 4°C to 80°C under anaerobic conditions for a period of 4 to 72 hours; b. subjecting the incubated leaf to comminution to produce dhool; c. fermenting the comminuted dhool; and d. recovering aroma from the dhool while partially drying the dhool in a low-convection dryer;
Electric plug configured to be connected to a vehicle camera, comprising a plug head and at least one electric signal contact and at least one ground contact, which are configured on the plug head, wherein the plug head comprises a carrier block for the signal contact and the ground contact, and the carrier block comprises a jacket wall, on which a cover collar projecting outwardly from the outer peripheral surface of the jacket wall and extending circumferentially on the jacket wall is arranged, wherein an outwardly projecting shielding flap (10, 11) of the plug is integrally formed with the cover collar, wherein the shielding flap (10, 11) is connected to a connecting element, which is electrically connected to the cover collar and the ground contact and the carrier block is configured as cuboid, wherein the cuboid comprises a front wall, on which the ground contact and the signal contact are arranged.
A system for acquiring aircraft landing conditions comprising: (a) a plurality of acceleration sensors; (b) a plurality of gyroscopes selected from the group consisting of angle sensors and angular rate sensors; (c) a means for measuring and storing data from said acceleration sensors and gyroscopes at high data rates coupled to each of the sensors; and (d) means for comparing the stored data with at least one threshold parameter, the threshold parameter when exceeded indicates that the data received from the acceleration sensors and gyroscopes must be further analysed to ascertain if a hard landing has taken place, the means for comparing the stored data being adapted to couple to said sensors for receiving data therefrom. (a) a plurality of acceleration sensors; (b) a plurality of gyroscopes selected from the group consisting of angle sensors and angular rate sensors; (c) a means for measuring and storing data from said acceleration sensors and gyroscopes at high data rates coupled to each of the sensors; and (d) means for comparing the stored data with at least one threshold parameter, the threshold parameter when exceeded indicates that the data received from the acceleration sensors and gyroscopes must be further analysed to ascertain if a hard landing has taken place, the means for comparing the stored data being adapted to couple to said sensors for receiving data therefrom.
A device for checking lack of voltage in an electric circuit, comprising a pair of flexible and insulating gloves (1a, 1b), a lack of voltage checking device comprising at least one display screen and two contact points, characterized in that the lack of voltage checking device is formed in a flexible electronic circuit, comprising a flexible substrate, and embedded in a first glove of the pair of flexible and insulating gloves (1a, 1b), said display screen being flush on the surface of said glove.