mhurhangee/ep-ind-claims huggingface dataset:
Punching shear reinforcement element, wherein the punching shear reinforcement element (3, 53) has at least one reinforcement bar (4, 5), wherein the reinforcement bar (4, 5) has an anchoring portion (13, 14) at its respective ends (11, 12), wherein the reinforcement bar (4, 5) comprises a first portion, a second portion and a third portion, and wherein the reinforcement bar (4, 5) has a first bending portion between the first portion and the second portion and a second bending portion between the second portion and the third portion, wherein the first portion encloses a first bending angle (α 1), which is from 30° to 50°, with the second portion in a first side view, that the second portion encloses a second bending angle (α 2), which is from 30° to 50°, with the third portion in the first side view, and that the first portion encloses an angle of 0° to 20° with the third portion in the first side view, wherein the punching shear reinforcement element (3, 53) comprises at least two fixedly interconnected reinforcement bars (4, 5), wherein the two reinforcement bars (4, 5) are configured to be mirror-symmetrical, wherein the first portions, the second portions and the third portions of the two reinforcement bars (4, 5) lie congruently over one another in the first side view, characterized in that, in a second side view which is perpendicular to the first side view, the second portion and the third portion of a reinforcement bar (4, 5) extend with respect to one another so as to be inclined by an angle (β) which is from 2° to 10°. wherein the first portion encloses a first bending angle (α 1), which is from 30° to 50°, with the second portion in a first side view, that the second portion encloses a second bending angle (α 2), which is from 30° to 50°, with the third portion in the first side view, and that the first portion encloses an angle of 0° to 20° with the third portion in the first side view, wherein the punching shear reinforcement element (3, 53) comprises at least two fixedly interconnected reinforcement bars (4, 5), wherein the two reinforcement bars (4, 5) are configured to be mirror-symmetrical, wherein the first portions, the second portions and the third portions of the two reinforcement bars (4, 5) lie congruently over one another in the first side view, characterized in that, in a second side view which is perpendicular to the first side view, the second portion and the third portion of a reinforcement bar (4, 5) extend with respect to one another so as to be inclined by an angle (β) which is from 2° to 10°.
A method for communication in a wireless network, comprising: a relay node receiving a data packet and determining whether to: transmit the packet without performing error checking; wherein the relay node determines a channel quality measurement, CQM, based on the received packet, and wherein the relay node modifies the transmission of the packet to an access node based on the CQM; wherein, if the CQM is not below a first threshold, but is below a second threshold, the second threshold being greater than the first threshold, the relay node demodulates, decodes, re-encodes, and re-modulates the packet, and wherein, if the CQM is not below the first threshold and is not below the second threshold, the relay node demodulates and re-modulates the packet but does not decode and re-encode the packet. a relay node receiving a data packet and determining whether to: transmit the packet without performing error checking; wherein the relay node determines a channel quality measurement, CQM, based on the received packet, and wherein the relay node modifies the transmission of the packet to an access node based on the CQM; wherein, if the CQM is not below a first threshold, but is below a second threshold, the second threshold being greater than the first threshold, the relay node demodulates, decodes, re-encodes, and re-modulates the packet, and wherein, if the CQM is not below the first threshold and is not below the second threshold, the relay node demodulates and re-modulates the packet but does not decode and re-encode the packet.
A subsea power umbilical (10, 110, 210, 310, 410) comprising a first independent 3-phase power supply circuit (14, 114, 414) comprising three insulated power cables rated at voltages between 1kV and 200 kV bundled together in a triplex formation for power distribution and twisted together to form a power cable triad (18,118, 418), and at least one termination (16, 116), characterized in that said first 3-phase power supply circuit (14, 114, 414) comprises at least six power cables, each phase (R, S, T) of said 3-phase power supply circuit (14, 114, 414) consisting of at least two power cables connected in parallel with each other, said power cables being connected in parallel in the at least one termination (16, 116) of the subsea power umbilical.
An engine (10, 20, 30) for an aircraft, comprising at least one front propeller with front propeller blades that is to be disposed at the front in the cruising direction and at least one rear propeller with rear propeller blades that is to be disposed behind the front propeller in the cruising direction, wherein the front and rear propellers (24, 26) are configured for counter-directional rotation, wherein at least one of the front propeller blades has at the rear edge region a toothing for reducing turbulences behind the propeller provided with the propeller blade, wherein the entire surface or at least a portion of the surface of at least one of the rear propeller blades has an acoustically effective surface compressibility and/or a pressure compensation device and/or a sound absorber, characterized in that the entire surface or the portion of the surface are configured to be porous, with pore openings leading into the inside of the propeller blade (32, 34).
An ink set for ink-jet printing, comprising: a cyan ink-jet ink including from 2 wt% to 5 wt% of a cyan pigment admixed in a first ink vehicle; a magenta ink-jet ink including a magenta colorant comprising from 2 wt% to 5 wt% of a magenta pigment and 0.1 wt% to 1 wt% of a magenta dye with solubility of less than 5 wt% in water admixed in a second ink vehicle; and a yellow ink-jet ink including from 2 wt% to 5 wt% of a yellow pigment admixed in a third ink vehicle; wherein the first, second, and third ink vehicles individually comprise: 1 wt% to 30% of a solvent system including a glycol, a first cyclic amine, and a second cyclic amine, and 0.1 wt% to 3 wt% of a surfactant system; wherein the cyan pigment, magenta pigment, and yellow pigment are consisted of polymer-dispersed pigments, where the polymer is not covalently bonded to the pigment. a cyan ink-jet ink including from 2 wt% to 5 wt% of a cyan pigment admixed in a first ink vehicle; a magenta ink-jet ink including a magenta colorant comprising from 2 wt% to 5 wt% of a magenta pigment and 0.1 wt% to 1 wt% of a magenta dye with solubility of less than 5 wt% in water admixed in a second ink vehicle; and a yellow ink-jet ink including from 2 wt% to 5 wt% of a yellow pigment admixed in a third ink vehicle; wherein the first, second, and third ink vehicles individually comprise: 1 wt% to 30% of a solvent system including a glycol, a first cyclic amine, and a second cyclic amine, and 0.1 wt% to 3 wt% of a surfactant system; 1 wt% to 30% of a solvent system including a glycol, a first cyclic amine, and a second cyclic amine, and 0.1 wt% to 3 wt% of a surfactant system; wherein the cyan pigment, magenta pigment, and yellow pigment are consisted of polymer-dispersed pigments, where the polymer is not covalently bonded to the pigment.
An image processing method performed at a client device having one or more processors and memory for storing programs to be executed by the processors, the method comprising: detecting by the client device an image to be processed to obtain image information, and uploading the image information to a server, wherein the image information comprises a plurality of image capture parameters used for capturing the image, and the server is configured to: receive the plurality of image capture parameters, calculate a similarity between each case of stored cases and the image according to the plurality of image capture parameters, wherein each case refers to information related to image processing, select at least one case related to the image according to a descending order of the calculated similarities; identify a set of image modification parameters associated with the at least one case related to the image, and send the at least one case related to the image comprising the set of image modification parameters to the client device; receiving by the client device the at least one case related to the image; and processing the image to be processed by the client device according to the at least one case related to the image, and modifying the image using the set of image modification parameters. detecting by the client device an image to be processed to obtain image information, and uploading the image information to a server, wherein the image information comprises a plurality of image capture parameters used for capturing the image, and the server is configured to: receive the plurality of image capture parameters, calculate a similarity between each case of stored cases and the image according to the plurality of image capture parameters, wherein each case refers to information related to image processing, select at least one case related to the image according to a descending order of the calculated similarities; identify a set of image modification parameters associated with the at least one case related to the image, and send the at least one case related to the image comprising the set of image modification parameters to the client device; receive the plurality of image capture parameters, calculate a similarity between each case of stored cases and the image according to the plurality of image capture parameters, wherein each case refers to information related to image processing, select at least one case related to the image according to a descending order of the calculated similarities; identify a set of image modification parameters associated with the at least one case related to the image, and send the at least one case related to the image comprising the set of image modification parameters to the client device; receiving by the client device the at least one case related to the image; and processing the image to be processed by the client device according to the at least one case related to the image, and modifying the image using the set of image modification parameters.
A method comprising: at a device comprising a touch sensor panel comprising touch electrodes and processing circuitry, wherein the touch sensor panel comprises a plurality of first regions, each of the plurality of first regions including a plurality of the touch electrodes and wherein the processing circuitry comprises sense channels: performing a first detection scan of the touch sensor panel, the first detection scan comprising generating a touch value representative of an amount of touch at each of the plurality of first regions, wherein at least one of the sense channels is connected to a first number of the touch electrodes for the first detection scan; identifying, based on the first detection scan, a coarse location of an object touching or proximate to the touch sensor panel, the coarse location corresponding to a second region smaller than one of the plurality of first regions; performing a second detection scan, the second detection scan of a portion of the touch sensor panel corresponding to the second region, wherein performing the second detection scan comprises reconfiguring a connection between the touch electrodes of the touch sensor panel and the sense channels of the processing circuitry, wherein reconfiguring the connection comprises connecting the at least one of the sense channels to a second number of the touch electrodes, the second number of the touch electrodes less than the first number of the touch electrodes; and identifying, based on the second detection scan, a fine location of the object touching or proximate to the touch panel. performing a first detection scan of the touch sensor panel, the first detection scan comprising generating a touch value representative of an amount of touch at each of the plurality of first regions, wherein at least one of the sense channels is connected to a first number of the touch electrodes for the first detection scan; identifying, based on the first detection scan, a coarse location of an object touching or proximate to the touch sensor panel, the coarse location corresponding to a second region smaller than one of the plurality of first regions; performing a second detection scan, the second detection scan of a portion of the touch sensor panel corresponding to the second region, wherein performing the second detection scan comprises reconfiguring a connection between the touch electrodes of the touch sensor panel and the sense channels of the processing circuitry, wherein reconfiguring the connection comprises connecting the at least one of the sense channels to a second number of the touch electrodes, the second number of the touch electrodes less than the first number of the touch electrodes; and identifying, based on the second detection scan, a fine location of the object touching or proximate to the touch panel.
An external charger (60'; 70') configured to provide power to an implantable medical device, IMD, comprising: a charging coil (68a; 68b) configured when excited to provide a magnetic charging field; a three-axis magnetic field sensor within the charging coil (68a; 68b); and control circuitry, wherein the control circuity is configured to determine a position of the IMD in three-dimensional space using measurements provided by the three-axis magnetic field sensor. a charging coil (68a; 68b) configured when excited to provide a magnetic charging field; a three-axis magnetic field sensor within the charging coil (68a; 68b); and control circuitry, wherein the control circuity is configured to determine a position of the IMD in three-dimensional space using measurements provided by the three-axis magnetic field sensor.
A mold for a directional solidification process, the mold comprising: a graded facecoat structure comprising an innermost layer for contacting molten metal during the directional solidification process and a delamination layer in contact with a mold body, wherein the delamination layer is configured to fracture upon directional solidification of the casting metal; wherein the innermost layer and delamination layer comprise a binder and refractory metal or metal oxides; and wherein the delamination layer is at a thickness of 1 to 100 microns with a porosity of 10 to 40 percent or is at a thickness of 10 to 500 microns with a porosity of 30 to 60 percent. a graded facecoat structure comprising an innermost layer for contacting molten metal during the directional solidification process and a delamination layer in contact with a mold body, wherein the delamination layer is configured to fracture upon directional solidification of the casting metal; wherein the innermost layer and delamination layer comprise a binder and refractory metal or metal oxides; and wherein the delamination layer is at a thickness of 1 to 100 microns with a porosity of 10 to 40 percent or is at a thickness of 10 to 500 microns with a porosity of 30 to 60 percent.
A composition comprising dispersed particles in an aqueous medium, wherein said dispersed particles comprise one or more fatty amide and one or more fatty acid, wherein 50 mole% or more of said fatty acid is in the carboxylate form, wherein the weight ratio of said fatty amide to said fatty acid is from 0.12:1 to 2.3:1; wherein said dispersed particles constitute 30% or more by weight based on the weight of said composition and the median size of said particles is 50 micrometers or smaller; wherein said fatty acid has the chemical formula R 1 -COOH, where R 1 is a substituted or unsubstituted hydrocarbyl group that contains 8 or more carbon atoms; and wherein said fatty amide has the chemical formula R 2 -C NHR 3, where R 2 is a substituted or unsubstituted hydrocarbyl group that contains 8 or more carbon atoms, and where R 3 is selected from the following: R 3 is hydrogen; R 3 is an aliphatic unsubstituted hydrocarbyl group; or R 3 has the structure -CH 2 CH 2 -NHC -R 4, where R 4 is a substituted or unsubstituted hydrocarbyl group that contains 8 or more carbon atoms. R 3 is hydrogen; R 3 is an aliphatic unsubstituted hydrocarbyl group; or R 3 has the structure -CH 2 CH 2 -NHC -R 4, where R 4 is a substituted or unsubstituted hydrocarbyl group that contains 8 or more carbon atoms.
In vitro method for quantifying nano-objects of mammalian skin cells comprising the following steps: a) Providing mammalian corneocytes; b) Analysing the surface topography of corneocytes at nanoscale resolution; c) Identifying subcellular objects of height smaller than 500 nm with a circularity index > 0.5 (circular nano-objects, CNOs) and having an area less than 1 μm 2; d) Counting these CNOs by an automated software routine; e) Relating the number of CNOs to a unit area for obtaining a density parameter, especially a structural index in the form of a dermal topographic Index, DTI. a) Providing mammalian corneocytes; b) Analysing the surface topography of corneocytes at nanoscale resolution; c) Identifying subcellular objects of height smaller than 500 nm with a circularity index > 0.5 (circular nano-objects, CNOs) and having an area less than 1 μm 2; d) Counting these CNOs by an automated software routine; e) Relating the number of CNOs to a unit area for obtaining a density parameter, especially a structural index in the form of a dermal topographic Index, DTI.
A method for preparing porous recombinant gelatin microcarriers, comprising: (a) a step of generating a first emulsion by mixing a composition containing water, recombinant gelatin, a non-water-soluble liquid, and an emulsifier; (b) a step of generating a second emulsion by mixing the first emulsion with a non-water-soluble liquid at a temperature higher than a gelation temperature of gelatin; and (c) a step of cooling the second emulsion at a temperature at which gelatin coagulates, wherein the non-water-soluble liquid used in the step (b) contains an emulsifier having a HLB value of less than 8 in an amount of less than 0.5% by weight, wherein the microcarriers have a mean particle size of 20 to 800 μm. (a) a step of generating a first emulsion by mixing a composition containing water, recombinant gelatin, a non-water-soluble liquid, and an emulsifier; (b) a step of generating a second emulsion by mixing the first emulsion with a non-water-soluble liquid at a temperature higher than a gelation temperature of gelatin; and (c) a step of cooling the second emulsion at a temperature at which gelatin coagulates, wherein the non-water-soluble liquid used in the step (b) contains an emulsifier having a HLB value of less than 8 in an amount of less than 0.5% by weight,
A device for use with apparatus for heating smokable material to volatilise at least one component of the smokable material, the device comprising: a support; and smokable material arranged on the support, wherein a first portion of the smokable material is arranged on a first portion of the support and comprises particles of the smokable material having a first mean particle size, characterized in that a second portion of the smokable material is arranged on a second portion of the support and comprises particles of the smokable material having a second mean particle size, and wherein the second mean particle size is greater than the first mean particle size. a support; and smokable material arranged on the support, wherein a first portion of the smokable material is arranged on a first portion of the support and comprises particles of the smokable material having a first mean particle size, characterized in that a second portion of the smokable material is arranged on a second portion of the support and comprises particles of the smokable material having a second mean particle size, and wherein the second mean particle size is greater than the first mean particle size.
A compound sample needle (34,90) for liquid chromatography, comprising: a rigid needle having a coupling end and an internal channel for passage of a sample fluid; a flexible tubing having a coupling end and an internal channel for passage of the sample fluid, the coupling ends (96,108) of the rigid needle and flexible tubing being secured to each other by a weld, the internal channel of the rigid needle being collinear with the internal channel of the flexible tubing at the coupling ends (96,108); and a rigid sleeve disposed over the coupling end of the rigid needle and the coupling end of the flexible tubing, wherein the coupling end of one of the rigid needle and flexible tubing has a face and a counterbore; and the other of the rigid needle and flexible tubing has an outer surface and the coupling end is disposed in the counterbore and has a face in contact with a base of the counterbore, and wherein the weld is along a circumference of the outer surface of one and the face of the other of the rigid needle and flexible tubing. a rigid needle having a coupling end and an internal channel for passage of a sample fluid; a flexible tubing having a coupling end and an internal channel for passage of the sample fluid, the coupling ends (96,108) of the rigid needle and flexible tubing being secured to each other by a weld, the internal channel of the rigid needle being collinear with the internal channel of the flexible tubing at the coupling ends (96,108); and a rigid sleeve disposed over the coupling end of the rigid needle and the coupling end of the flexible tubing, wherein the coupling end of one of the rigid needle and flexible tubing has a face and a counterbore; and the other of the rigid needle and flexible tubing has an outer surface and the coupling end is disposed in the counterbore and has a face in contact with a base of the counterbore, and wherein the weld is along a circumference of the outer surface of one and the face of the other of the rigid needle and flexible tubing.
Device for testing the presence of an electrical direct current voltage and also of an electrical alternating current voltage in a possibly live part of an electrical system, with a contact electrode which can be brought into contact with the part to be tested or with a coupling electrode which can be brought close to the part to be tested, wherein the device comprises an integrator device for integrating the electrical signal which changes due to bringing the contact electrode into contact or due to bringing the coupling electrode close, and wherein the integrator device operates as a charge detector in which a compensating current flowing when the contact electrode is brought into contact or when the coupling electrode is brought close can be stored in a charge storage device, characterised in that the device is configured as a single-pole voltage tester, in particular for medium voltage and/or high voltage power supply networks, and thus detects whether direct current or alternating current voltage is applied to the part to be tested, in that the output signal of the integrator device is evaluated by means of an evaluation device and it is decided by comparison with a threshold value whether the part to be tested is live, in that at least one first threshold value for a direct current voltage applied to the part to be tested and at least one second threshold value for an alternating current voltage applied to the part to be tested is stored in the evaluation device of the device, and in that the evaluation device takes into account different threshold values depending on whether a direct current voltage or an alternating current voltage is applied to the part to be tested.