mhurhangee/ep-ind-claims huggingface dataset:
A polymeric composition, comprising: a low density polyethylene; and an organic carboxylic ester comprising at least one aromatic ring and from 1 to 2 carboxylic alkyl ester substituents, wherein said organic carboxylic ester is selected from the group consisting of dioctyl phthalate, dinonyl phthalate, hexyl benzoate, and combinations thereof; and wherein said organic carboxylic ester is present in said polymeric composition in an amount ranging from 0.1 to 2 weight percent based on the combined weight of said low density polyethylene and said organic carboxylic ester. a low density polyethylene; and an organic carboxylic ester comprising at least one aromatic ring and from 1 to 2 carboxylic alkyl ester substituents, wherein said organic carboxylic ester is selected from the group consisting of dioctyl phthalate, dinonyl phthalate, hexyl benzoate, and combinations thereof; and wherein said organic carboxylic ester is present in said polymeric composition in an amount ranging from 0.1 to 2 weight percent based on the combined weight of said low density polyethylene and said organic carboxylic ester.
Vehicle, especially single-track vehicle, having at least one support device, wherein the support device is provided for the detachable connection to a sliding member, which is assigned to an attachment mounted on the vehicle, wherein the support device forms an interface for electrically contacting an electric line network of the vehicle, arranged within the structure of the vehicle and in which the interface is integrated, wherein electric conductor paths lead from the support device directly into the structure of the vehicle, wherein an electrical connection to the attachment is achievable in a connected condition of the sliding member and the support device by means of the interface via electric contacts of the sliding member, characterised in that the support device is integrated mechanically into a structure of the vehicle, wherein a mechanically firm, non-detachable connection exists between the support device and the structure of the vehicle, or a portion of the structure of the vehicle is formed as a support device.
A method of making an optical lens comprising: applying a spacer having a predetermined thickness to a first optical element; applying a curable material to the first optical element; debubbling the curable material; positioning a portion of the curable material onto an off-center location of a second optical element; mating the second optical element and the first optical element such that the curable material forms a layer having a thickness defined by the predetermined thickness of the spacer; further comprising at least partially curing the curable material to form a semi-cured material, wherein the semi-cured material is configured to be further selectively cured so as to define a pattern of refraction index in the optical element. applying a spacer having a predetermined thickness to a first optical element; applying a curable material to the first optical element; debubbling the curable material; positioning a portion of the curable material onto an off-center location of a second optical element; mating the second optical element and the first optical element such that the curable material forms a layer having a thickness defined by the predetermined thickness of the spacer; further comprising at least partially curing the curable material to form a semi-cured material, wherein the semi-cured material is configured to be further selectively cured so as to define a pattern of refraction index in the optical element.
A method for determining a sex chromosome karyotype for a fetus, comprising: (a) obtaining counts of sequence reads mapped to sections of a reference genome, which sequence reads are reads of circulating cell-free nucleic acid from a test sample from a pregnant female bearing a fetus, wherein the sections of the reference genome include sex chromosome genomic sections; (b) determining a guanine and cytosine bias coefficient for the test sample from a fitted relation between (i) the counts of the sequence reads mapped to each of the sections of the reference genome, and (ii) the GC content for each of the sections; (c) calculating a genomic section level for each of the sections of the reference genome from the counts of (a), the GC bias coefficient of (b), and a fitted relation, for each of the sections, between (i) a GC bias coefficient for each of multiple samples and (ii) counts of sequence reads mapped to each of the sections of the reference genome for the multiple samples, thereby providing calculated genomic section levels; and (d) determining sex chromosome karyotype for the fetus according to the calculated genomic section levels. (a) obtaining counts of sequence reads mapped to sections of a reference genome, which sequence reads are reads of circulating cell-free nucleic acid from a test sample from a pregnant female bearing a fetus, wherein the sections of the reference genome include sex chromosome genomic sections; (b) determining a guanine and cytosine bias coefficient for the test sample from a fitted relation between (i) the counts of the sequence reads mapped to each of the sections of the reference genome, and (ii) the GC content for each of the sections; (c) calculating a genomic section level for each of the sections of the reference genome from the counts of (a), the GC bias coefficient of (b), and a fitted relation, for each of the sections, between (i) a GC bias coefficient for each of multiple samples and (ii) counts of sequence reads mapped to each of the sections of the reference genome for the multiple samples, thereby providing calculated genomic section levels; and (d) determining sex chromosome karyotype for the fetus according to the calculated genomic section levels.
Needling machine to consolidate a fleece or web of fibres, in particular nonwoven, by needling, comprising: - one or more needle plates having an array or bank of needles, respectively; - one or more columns with longitudinal axes, in particular vertical, coupled to the needle plate or one respective needle plate; - drive systems configured to impart a to and fro motion to each needle plate and/or needles so that the needles have an elliptical path that passes first in one direction, then the other, over the fleece or web of fibres that is moved in front of them in the machine or drive MD direction to consolidate it; - a sealed housing containing part of each column and drive system; and - one or more guide pots fitted in an opening in the sealed housing, each column passing through the housing through a guide pot by sliding, characterised in that, the drive system comprises longitudinal drive systems configured to impart to each column a straight to and fro motion parallel to the longitudinal, in particular vertical axis; each-needle plate oscillates in relation to its respective column; and the drive system comprises a transverse drive system configured to impart at a point on each needle plate or part rigidly connected to each needle plate, a to and fro motion essentially parallel to the MD direction. - one or more needle plates having an array or bank of needles, respectively; - one or more columns with longitudinal axes, in particular vertical, coupled to the needle plate or one respective needle plate; - drive systems configured to impart a to and fro motion to each needle plate and/or needles so that the needles have an elliptical path that passes first in one direction, then the other, over the fleece or web of fibres that is moved in front of them in the machine or drive MD direction to consolidate it; - a sealed housing containing part of each column and drive system; and - one or more guide pots fitted in an opening in the sealed housing, each column passing through the housing through a guide pot by sliding, the drive system comprises longitudinal drive systems configured to impart to each column a straight to and fro motion parallel to the longitudinal, in particular vertical axis; each-needle plate oscillates in relation to its respective column; and the drive system comprises a transverse drive system configured to impart at a point on each needle plate or part rigidly connected to each needle plate, a to and fro motion essentially parallel to the MD direction.
A method for preparation of insoluble molecular imprinted polymers (MIPs), the method comprising: a. providing soluble or semi-soluble MIPs that 1) substantially all bind template agents and 2) have sizes which enable their separation in a chromatographic step utilizing packed bed chromatography, wherein the sizes of the soluble or semi-soluble MIPs are such that they will be filtrated through membrane filter having a 900 nm cutoff, b. cross-linking the template agent binding soluble MIPs provided in step a so as to obtain insoluble template agent binding MIPs, and c. optionally isolating, concentrating or purifying the MIPs obtained by the cross-linking in step b. a. providing soluble or semi-soluble MIPs that 1) substantially all bind template agents and 2) have sizes which enable their separation in a chromatographic step utilizing packed bed chromatography, wherein the sizes of the soluble or semi-soluble MIPs are such that they will be filtrated through membrane filter having a 900 nm cutoff, b. cross-linking the template agent binding soluble MIPs provided in step a so as to obtain insoluble template agent binding MIPs, and c. optionally isolating, concentrating or purifying the MIPs obtained by the cross-linking in step b.
A photonic apparatus comprising an integrated waveguide and an integrated resonator in the form of a microtoroid, said photonic apparatus further comprising a thermally reflowable film, said reflowable film comprising a first film area and a second film area, said reflowable film being one of a thin film and a stack of thin films, said first film area being thermally reflown, said microtoroid being formed in said thermally reflown first film area, said second film area not being reflown in the immediate vicinity of the microtoroid, said microtoroid being optically coupled to said integrated waveguide located on or located within one of or both of said first or second film areas (20, 22), said microtoroid having an edge extending along a circumference, characterized in that said first and second film areas (20, 22) are directely connected to each other.
An arrangement with a stacking device, comprising: - a stacking shaft which forms a stacking region, - at least one support unit for manufacturing compositions of product units in the form of stacks, wherein the support unit forms a support surface for the stacks to be formed, and the at least one support unit is led along a closed circulatory path of a circulatory arrangement, and by way of this can be moved into and out of the stacking region. characterised in that the stacking device comprises at least one adjustment means (25, 26, 27) for setting and adaption of the distance between the lateral outer edges (56a, 56b) of the at least one support unit to changed size formats of product units (9, 109, 209, 309) which are fed successively to the stacking device with a continued conveying operation. - a stacking shaft which forms a stacking region, - at least one support unit for manufacturing compositions of product units in the form of stacks,
Composition consisting of an aqueous phase and an oily phase, which are separate and transparent, comprising: - at least one surfactant that is liquid at room temperature (20-25°C) and at atmospheric pressure (760 mmHg or 1.013 × 10 5 Pa), with an HLB < 8 and chosen from fatty acid esters of sugar and alkyl polyglucosides, - at least one branched alkane comprising from 8 to 18 carbon atoms and preferably from 12 to 16 carbon atoms, and - from 0 to 4% by weight of silicone oils relative to the total weight of the composition. - at least one surfactant that is liquid at room temperature (20-25°C) and at atmospheric pressure (760 mmHg or 1.013 × 10 5 Pa), with an HLB < 8 and chosen from fatty acid esters of sugar and alkyl polyglucosides, - at least one branched alkane comprising from 8 to 18 carbon atoms and preferably from 12 to 16 carbon atoms, and - from 0 to 4% by weight of silicone oils relative to the total weight of the composition.
A system for ablation, the system comprising: a memory, which is configured to store a pre-determined relation between lesion size (70a, 72a, 74a) and amount of ablative energy, for each of one or more selected temperatures (T 1, T 2, T 3); and a processor which is configured to: receive user input indicating a selected lesion size and a tissue temperature; determine, based on the relation, an amount of energy that matches the selected lesion size and the tissue temperature; receive measurements of energy output from a generator; and control an ablation probe to apply from the generator the amount of ablative energy that matches the selected lesion size, wherein controlling the ablation probe to apply the amount of ablative energy comprises: monitoring actual tissue temperature; controlling ablation power to maintain the tissue temperature within a given tolerance; and controlling ablation time so that the amount of ablative energy is fully delivered. a memory, which is configured to store a pre-determined relation between lesion size (70a, 72a, 74a) and amount of ablative energy, for each of one or more selected temperatures (T 1, T 2, T 3); and a processor which is configured to: receive user input indicating a selected lesion size and a tissue temperature; determine, based on the relation, an amount of energy that matches the selected lesion size and the tissue temperature; receive measurements of energy output from a generator; and control an ablation probe to apply from the generator the amount of ablative energy that matches the selected lesion size, wherein controlling the ablation probe to apply the amount of ablative energy comprises: monitoring actual tissue temperature; controlling ablation power to maintain the tissue temperature within a given tolerance; and controlling ablation time so that the amount of ablative energy is fully delivered. receive user input indicating a selected lesion size and a tissue temperature; determine, based on the relation, an amount of energy that matches the selected lesion size and the tissue temperature; receive measurements of energy output from a generator; and control an ablation probe to apply from the generator the amount of ablative energy that matches the selected lesion size, wherein controlling the ablation probe to apply the amount of ablative energy comprises: monitoring actual tissue temperature; controlling ablation power to maintain the tissue temperature within a given tolerance; and controlling ablation time so that the amount of ablative energy is fully delivered. monitoring actual tissue temperature; controlling ablation power to maintain the tissue temperature within a given tolerance; and controlling ablation time so that the amount of ablative energy is fully delivered.
A multifunctional food processor comprising: a grinder housing having a mechanism for driving a grinding blade; and a bottom pan adapted to be detachably attached to the grinder housing, and incorporating the grinding blade, wherein the bottom pan, when attached to the grinder housing, gets coupled to the mechanism for driving the grinding blade; a top pan adapted to cover the bottom pan; wherein the top pan is coupled with at least one microwave producing device that acts as a source of microwaves; characterized in that the bottom pan incorporates one or more induction coils to heat the contents of the bottom pan by induction; and wherein the at least one microwave producing device and the one or more induction coils allow contents of the bottom pan to be heated in addition to any one or more of stirring, blending, grinding. a grinder housing having a mechanism for driving a grinding blade; and a bottom pan adapted to be detachably attached to the grinder housing, and incorporating the grinding blade, wherein the bottom pan, when attached to the grinder housing, gets coupled to the mechanism for driving the grinding blade; a top pan adapted to cover the bottom pan; wherein the top pan is coupled with at least one microwave producing device that acts as a source of microwaves; characterized in that the bottom pan incorporates one or more induction coils to heat the contents of the bottom pan by induction; and wherein the at least one microwave producing device and the one or more induction coils allow contents of the bottom pan to be heated in addition to any one or more of stirring, blending, grinding.
A method for producing fittings, side gratings, and food supports, in particular for high-temperature applications, whereby a metal blank is produced and a plasma polymer coating is applied to a surface of the metal blank, characterized in that - the blank is smoothed to a surface roughness of less than 400 nm, preferably less than 350 nm, before application of the plasma polymer layer, and - the coated blank is heated to a temperature of at least 400°Cafter the application of the plasma polymer coating; and is cooled afterwards. - the blank is smoothed to a surface roughness of less than 400 nm, preferably less than 350 nm, before application of the plasma polymer layer, and - the coated blank is heated to a temperature of at least 400°Cafter the application of the plasma polymer coating; and is cooled afterwards.
A production cell comprising at least one robot or manipulator arranged to handle products; at least one buffer area for intermediate storage of products inside the production cell; a vision system arranged to determine the identity and/or the location of objects in the production cell; and a plurality of production modules, each production module comprising at least one Hardware Module configured to process products; a plurality of module attachment locations, each module attachment location being configured to connect with an interface section of a production module through a power connection and optionally a physical connection, allowing the production cell to be reconfigured by interchanging production modules, characterised in that the production cell is configured to determine the identity and/or the location of Hardware Modules and products located inside the production cell and to generate, from these identities and the locations, a computer-based representation of the current state of the production cell.
An electrode comprising an electrode active material layer which comprises an electrode active material and a conductive agent, the conductive agent comprising multi-walled carbon nanotube units, and carbon nanotube structures in which 2 to 5,000 single-walled carbon nanotube units are arranged side by side and bonded to each other in each carbon nanotube structure, wherein the carbon nanotube structures are contained in the electrode active material layer in an amount of 0.01 wt% to 0.5 wt%. multi-walled carbon nanotube units, and carbon nanotube structures in which 2 to 5,000 single-walled carbon nanotube units are arranged side by side and bonded to each other in each carbon nanotube structure, wherein the carbon nanotube structures are contained in the electrode active material layer in an amount of 0.01 wt% to 0.5 wt%.
A failed battery cell handling method, wherein the handling method comprises the following step: injecting a conductive material into a failed battery cell, wherein the conductive material is in a molten state when being injected, and is in a solid state after cooling, wherein the conductive material is configured to electrically connect a positive terminal and a negative terminal of the failed battery cell. injecting a conductive material into a failed battery cell, wherein the conductive material is in a molten state when being injected, and is in a solid state after cooling, wherein the conductive material is configured to electrically connect a positive terminal and a negative terminal of the failed battery cell.
A laminate having alcohol repellency properties, the laminate comprising: a meltblown web; a first spunbond web bonded to the meltblown web, wherein the first spunbond web defines a first surface; and a fluorinated polymeric coating attached to the surface of the first spunbond web, wherein the fluorinated polymeric coating comprises a perfluoroalkyl(alkyl) (meth)acrylate monomer polymerized with a comonomer on the surface of the first spunbond web via exposure to a low frequency energy source, wherein the perfluoroalkyl(alkyl) (meth)acrylate monomer has a perfluoroalkyl side groups comprising -(CF 2) z -F, where z is an integer from 1 to 6; wherein the comonomer comprises a diacrylic fluoroalkyl monomer; and wherein the laminate has an alcohol repellency of greater than 80%, as determined by the test procedure defined herein. a meltblown web; a first spunbond web bonded to the meltblown web, wherein the first spunbond web defines a first surface; and a fluorinated polymeric coating attached to the surface of the first spunbond web, wherein the fluorinated polymeric coating comprises a perfluoroalkyl(alkyl) (meth)acrylate monomer polymerized with a comonomer on the surface of the first spunbond web via exposure to a low frequency energy source, wherein the perfluoroalkyl(alkyl) (meth)acrylate monomer has a perfluoroalkyl side groups comprising -(CF 2) z -F, where z is an integer from 1 to 6;
An energy-saving loop heat pipe apparatus, comprising a capillary pump assembly and an evaporation unit assembly, characterized in that the apparatus further comprises at least one heat exchanger arranged between the capillary pump assembly and the evaporation unit assembly, and the at least one heat exchanger is configured to heat a circulating working medium that is about to enter the evaporation unit assembly by using heat of the circulating working medium itself in a loop heat pipe.
Method for estimating in real time the temperature of a stator and of a rotor of a rotating electrical machine, notably to equip a motor vehicle, the method being intended to be implemented by a digital computer, the rotating electrical machine comprising at least the following components: - a fixed stator; - a rotating rotor; - the stator and/or the rotor bearing at least one winding (40, 44) of associated electrical conductors which is intended to be passed through by an electric current; the temperatures of the stator (θ s) and of the rotor (θ r) being estimated by the digital computer in iterations of the method by the solving of at least one equation (EQ8, EQ9, EQ10), involving - thermal resistances (R th-sr, R th-exts) between the stator and adjacent media (38, θ ext); - thermal resistances (R th-sr, R th-extr) between the rotor and adjacent media; - the heat capacity (Cs) of the stator; - the heat capacity (Cr) of the rotor; characterized in that, on each iteration of the estimation method, said thermal resistances (R th-sr, R th-exts, R th-extr) and the heat capacity (Cs, Cr) of each element (36, 38) are calculated as a function of the temperatures of the stator and of the rotor estimated on the preceding iteration and in that it comprises a cutoff step (Ef) which is triggered when the computer is deactivated, and during which the latest estimated values of the state vector ({θ} f) and the latest collected values of the excitation vector ({θ} f) are stored by the computer before its complete deactivation. - a fixed stator; - a rotating rotor; - the stator and/or the rotor bearing at least one winding (40, 44) of associated electrical conductors which is intended to be passed through by an electric current; - thermal resistances (R th-sr, R th-exts) between the stator and adjacent media (38, θ ext); - thermal resistances (R th-sr, R th-extr) between the rotor and adjacent media; - the heat capacity (Cs) of the stator; - the heat capacity (Cr) of the rotor;