mhurhangee/ep-ind-claims huggingface dataset:
A catalyst composition comprising a solution of at least one member selected from the group consisting of an alkali metal carboxylate and an alkaline earth metal carboxylate in a solvent which is nonreactive with the isocyanate groups of a polyisocyanate; wherein the carboxylate is derived from a linear carboxylic acid; wherein the carboxylate is present in an amount of from 10 to 90 percent by weight based on the total weight of the solution; wherein the solvent is an ester having no free hydroxyl groups derived from a mono, di- or poly-carboxylic acid with a monol, diol, triol or glycol ether, or a triglyceride derived from an aliphatic or aromatic acid with glycerol; wherein the solvent is present in an amount of from 10 to 90 percent by weight based on the total weight of the solution; and wherein water is present in an amount of less than 25 percent by weight of the catalyst composition. wherein the carboxylate is derived from a linear carboxylic acid; wherein the carboxylate is present in an amount of from 10 to 90 percent by weight based on the total weight of the solution; wherein the solvent is an ester having no free hydroxyl groups derived from a mono, di- or poly-carboxylic acid with a monol, diol, triol or glycol ether, or a triglyceride derived from an aliphatic or aromatic acid with glycerol; wherein the solvent is present in an amount of from 10 to 90 percent by weight based on the total weight of the solution; and wherein water is present in an amount of less than 25 percent by weight of the catalyst composition.
A cell supervision circuit for a battery pack, the cell supervision circuit comprising a circuit board, whereby the cell supervision circuit further comprises: a heat transfer unit, including a metal plate and a backing plate for supporting the metal plate, the heat transfer unit being fixedly connected to the circuit board by the backing plate, the metal plate being disposed adjacent to the circuit board, wherein the heat transfer unit dissipates heat through the metal plate; and a fixing plate connected to the heat transfer unit, wherein the fixing plate includes a body portion and an elastic portion formed on the body portion, the body portion is fixedly connected to the backing plate of the heat transfer unit, the elastic portion is recessed toward the metal plate and is in contact with the metal plate under its own elasticity, the elastic portion comprises two connecting members which are disposed to be spaced apart from each other, and each connecting member has one end which is hung with respect to the body portion. a heat transfer unit, including a metal plate and a backing plate for supporting the metal plate, the heat transfer unit being fixedly connected to the circuit board by the backing plate, the metal plate being disposed adjacent to the circuit board, wherein the heat transfer unit dissipates heat through the metal plate; and a fixing plate connected to the heat transfer unit, wherein the fixing plate includes a body portion and an elastic portion formed on the body portion, the body portion is fixedly connected to the backing plate of the heat transfer unit, the elastic portion is recessed toward the metal plate and is in contact with the metal plate under its own elasticity, the elastic portion comprises two connecting members which are disposed to be spaced apart from each other, and each connecting member has one end which is hung with respect to the body portion.
An implantable construct comprising: (a) a biocompatible substrate having a first surface; (b) a material surface comprising an alkyl acrylate polymer deposited on said first surface, wherein the alkyl acrylate polymer is capable of supporting the formation of a physiological fibrillar network of FN adsorbed on its surface; (c) fibronectin adsorbed on said material surface; and (d) a growth factor adsorbed on said FN, wherein said growth factor is capable of binding FNIII 12-14; wherein the FN forms a physiological fibrillar network of FN presenting colocalized growth factor binding domains and integrin binding domains. (a) a biocompatible substrate having a first surface; (b) a material surface comprising an alkyl acrylate polymer deposited on said first surface, wherein the alkyl acrylate polymer is capable of supporting the formation of a physiological fibrillar network of FN adsorbed on its surface; (c) fibronectin adsorbed on said material surface; and (d) a growth factor adsorbed on said FN, wherein said growth factor is capable of binding FNIII 12-14; wherein the FN forms a physiological fibrillar network of FN presenting colocalized growth factor binding domains and integrin binding domains.
A system for validating an ablation result in a patient's brain, comprising: a computing device in communication with a magnetic resonance imaging device, the computing device operable to: obtain magnetic resonance data of the patient's brain, by use of a magnetic resonance imaging device; obtain first imaging data of the patient's brain, by use of the MRI device; extract first fiber tracts passing through an anatomy in the patient's brain based on the first imaging data; obtain, by use of the MRI device, second imaging data of the patient's brain after ablation of the anatomy in the patient's brain has started; extract second fiber tracts passing through the anatomy in the patient's brain based on the second imaging data; and output, to a display in communication with the computing device, a graphical representation of a comparison between the first fiber tracts and the second fiber tracts; characterized in that the computing device is further operable to: align the MR data and the second imaging data of the patient's brain, wherein the MR data includes MR data of the anatomy in the patient's brain; segment the MR data of the anatomy in the patient's brain into segments based on a three-dimensional brain model; and identify the second fiber tracts passing through the segments; wherein the computing device is further adapted to quantitatively compare a number, density or volume of the first fiber tracts and that of the second fiber tracts, and wherein the graphical representation is a percentage of reduction in number, density or volume. obtain magnetic resonance data of the patient's brain, by use of a magnetic resonance imaging device; obtain first imaging data of the patient's brain, by use of the MRI device; extract first fiber tracts passing through an anatomy in the patient's brain based on the first imaging data; obtain, by use of the MRI device, second imaging data of the patient's brain after ablation of the anatomy in the patient's brain has started; extract second fiber tracts passing through the anatomy in the patient's brain based on the second imaging data; and output, to a display in communication with the computing device, a graphical representation of a comparison between the first fiber tracts and the second fiber tracts; align the MR data and the second imaging data of the patient's brain, wherein the MR data includes MR data of the anatomy in the patient's brain; segment the MR data of the anatomy in the patient's brain into segments based on a three-dimensional brain model; and identify the second fiber tracts passing through the segments; wherein the computing device is further adapted to quantitatively compare a number, density or volume of the first fiber tracts and that of the second fiber tracts, and wherein the graphical representation is a percentage of reduction in number, density or volume.
A method for incorporating an array antenna in a medium, said antenna containing a plurality of radiating elements (ER T) ensuring the transition between the antenna and the medium, the reflectivity of each radiating element depending on at least one parameter, the reflectivity being represented by a complex number, the reflectivity of a first element being equal or close to that of the antenna, the reflectivity of a last radiating element being equal or close to that of the medium, said parameter varying from one radiating element to the next, and the method contains the following steps: - Step 1: calculation of a path represented in the complex plane and equal to the sum of the variations of the reflectivity from one radiating element to the next radiating element; - Step 2: optimisation of the variation of said at least one reflectivity parameter along said path calculated in the complex plane so that the equivalent radar cross-section of the antenna is the lowest possible or that at least one of the characteristics of the radiation of the antenna is reached; - Step 3: determination of the different radiating elements as a function of said parameter; - Step 4: simulation of the overall reflectivity and/or of the radiation of the antenna. - Step 1: calculation of a path represented in the complex plane and equal to the sum of the variations of the reflectivity from one radiating element to the next radiating element; - Step 2: optimisation of the variation of said at least one reflectivity parameter along said path calculated in the complex plane so that the equivalent radar cross-section of the antenna is the lowest possible or that at least one of the characteristics of the radiation of the antenna is reached; - Step 3: determination of the different radiating elements as a function of said parameter; - Step 4: simulation of the overall reflectivity and/or of the radiation of the antenna.
A process for making packaged food product portions for microwave heating, the food product portion being a pizza or focaccia and having an outside surface defined by an underside face on which it rests, a top face and a outer lateral face between the underside face and the top face, said portion of food product portion being in a parbaked condition and such that the food product portion has a uniform structure from the outer edge towards the centre of the portion; and being inserted in a pack; the food product portion is obtained from a mass of flour-based dough having an outside surface (II, I2, I3) and an inner bread, the outside surface of the mass having an underside face, an upper face and an edge face between the underside and upper faces (I1, 12); the mass being parbaked to a predetermined extent by heating the same mass in an oven which is not a microwave, in such a way as to give it a spongy structure and a brown and not hardened outside surface; characterized in that of obtaining from the mass one or more product portions that are without the edge face of the outside surface of the parbaked mass and have the porous, spongy inner bread that forms the entire outer lateral surface of the product portion.
A solar cell, comprising: a substrate; a first electrode on the substrate; a second electrode; and at least one photoelectric transformation unit (120, 230, 440, 1300, 6000) positioned between the first electrode and the second electrode, the at least one photoelectric transformation unit including a p-type semiconductor layer, an intrinsic, i-type, semiconductor layer, an n-type semiconductor layer, and a buffer layer positioned between the p-type semiconductor layer and the i-type semiconductor layer, a hydrogen content of the buffer layer being more than a hydrogen content of the i-type semiconductor layer, wherein the i-type semiconductor layer is formed of microcrystalline silicon, characterized in that: a crystallinity of the i-type semiconductor layer at a middle position of the i-type semiconductor layer is larger than a crystallinity of the i-type semiconductor layer in a first junction position between the buffer layer and the i-type semiconductor layer and smaller than a crystallinity of the i-type semiconductor layer in a second junction position between the i-type semiconductor layer and the n-type semiconductor layer. a substrate; a first electrode on the substrate; a second electrode; and at least one photoelectric transformation unit (120, 230, 440, 1300, 6000) positioned between the first electrode and the second electrode, the at least one photoelectric transformation unit including a p-type semiconductor layer, an intrinsic, i-type, semiconductor layer, an n-type semiconductor layer, and a buffer layer positioned between the p-type semiconductor layer and the i-type semiconductor layer, a hydrogen content of the buffer layer being more than a hydrogen content of the i-type semiconductor layer, a crystallinity of the i-type semiconductor layer at a middle position of the i-type semiconductor layer is larger than a crystallinity of the i-type semiconductor layer in a first junction position between the buffer layer and the i-type semiconductor layer and smaller than a crystallinity of the i-type semiconductor layer in a second junction position between the i-type semiconductor layer and the n-type semiconductor layer.
A method implemented at a network device for facilitating device-to-device (D2D) communication between terminal devices, comprising: determining status information of a network where a first terminal device locates; determining length of different parts of an identifier to be used by the first terminal device in the D2D communication; generating an indication of the status information and the length; and sending the indication to the terminal device to enable the terminal device to generate the identifier for the D2D communication, wherein the identifier is a ProSe terminal identifier. determining status information of a network where a first terminal device locates; determining length of different parts of an identifier to be used by the first terminal device in the D2D communication; generating an indication of the status information and the length; and sending the indication to the terminal device to enable the terminal device to generate the identifier for the D2D communication, wherein the identifier is a ProSe terminal identifier.
Support structure for a sliding door having a running rail extending in a longitudinal direction for guiding the sliding door, and a cover for optically covering the running rail at least in part, wherein the running rail has one groove or a plurality of grooves (11, 13), each groove (11, 13) extending in the longitudinal direction of the running rail, wherein the cover has a flange extending in the longitudinal direction of the cover, the flange having a first rib extending in the longitudinal direction of the cover, and wherein, when the cover is in a state mounted to the running rail, the first rib engages into said groove or one of said grooves (11, 13) and at least one fastening element can be fastened in the groove, the fastening element fixing the cover on the running rail, characterized in that the cover forms a derailment stop for a carriage guided in the running rail.
A diagnostic method for a disease accompanied by an increased cell death, the method comprising the steps of: a) in vitro isothermic nucleic acids amplification of blood plasma from a patient, wherein the isothermic nucleic acids amplification of blood plasma is carried out without preliminary nucleic acids isolation from blood plasma; b) nucleic acids purification from the reaction mixture produced as per item a); c) carrying out of freely circulating nucleic acid quantification by real-time polymerase chain reaction method and determination of coefficient K in samples, as follows: K=C 1 or or or Where C 1 = Ct for gene coding for glycolysis enzyme Ct for mitochondrial gene, C 2 = Ct for NC 018923.2 12 th chromosome fragment Ct for mitochondrial gene, C 3 = Ct for M 6 PRBP gene Ct for mitochondrial gene, Ct - value of polymerase chain reaction threshold cycle, wherein the gene coding for glycolysis enzyme is a gene coding for pyruvate kinase; d) comparison of coefficient K with reference value; e) diagnostics of a disease accompanied by the increased cell death while the coefficient K value is less than the reference value. a) in vitro isothermic nucleic acids amplification of blood plasma from a patient, wherein the isothermic nucleic acids amplification of blood plasma is carried out without preliminary nucleic acids isolation from blood plasma; b) nucleic acids purification from the reaction mixture produced as per item a); c) carrying out of freely circulating nucleic acid quantification by real-time polymerase chain reaction method and determination of coefficient K in samples, as follows: K=C 1 or or or Where C 1 = Ct for gene coding for glycolysis enzyme Ct for mitochondrial gene, C 2 = Ct for NC 018923.2 12 th chromosome fragment Ct for mitochondrial gene, C 3 = Ct for M 6 PRBP gene Ct for mitochondrial gene, Ct - value of polymerase chain reaction threshold cycle, wherein the gene coding for glycolysis enzyme is a gene coding for pyruvate kinase; d) comparison of coefficient K with reference value; e) diagnostics of a disease accompanied by the increased cell death while the coefficient K value is less than the reference value.
A bearing unit, in particular for axle systems of commercial vehicles, comprising a holding element, a sleeve element and a bearing element, wherein the holding element has a first engagement region which is designed in order to substantially enclose the bearing element in one plane, wherein the bearing element has a first recess which is directed transversely with respect to the plane and in which the sleeve element is arranged, wherein the sleeve element is mounted resiliently in the plane relative to the holding element via the bearing element, wherein the holding element has a second engagement region, in which a fixing element engages, in order to fix the first engagement region frictionally on the bearing element, wherein the first engagement region and/or the bearing element have/has a non-circular shape so that a rotational movement of the bearing element relative to the holding element is prevented, and wherein the bearing element has a nose-shaped projection extending in the direction of the transitional region between the first and second engagement regions (22, 24) of the holding element in order to secure the bearing element against rotation in the plane relative to the holding element.
A compound having the structure: wherein the internucleoside linkages of the oligonucleotide comprise at least one N3' → P5' thiophosphoramidate linkage; or a pharmaceutically acceptable salt thereof.
A method for producing high-quality feedstock for a steam cracking process, said method comprising the following steps: i) providing an aromatics and naphthenes containing hydrocarbon feedstock; ii) contacting said hydrocarbon feedstock with a solvent at a dosage effective to remove aromatics and naphthenes from said feedstock forming a refined feedstock and one or more aromatics and naphthenes containing streams, wherein said solvent is chosen from the group of n-methyl-2-pyrrolidone, furfural and phenol and mixtures thereof, including the presence of cosolvents; iii) processing said refined feedstock in a steam cracking process, wherein step ii) comprises two sub steps, namely a step iia) comprising separation of aromatics from said hydrocarbon feedstock of step i) thereby forming a naphthenes containing intermediate stream and an aromatics containing stream, and a step iib) comprising separation of naphthenes from said intermediate stream thereby forming a naphthenes containing stream and said refined feedstock, wherein said hydrocarbon feedstock is a paraffinic crude oil and step iia) comprises a temperature range of 50 to 125 °C, preferably within a range of 60 to 85 °C and a solvent dosage within a range of 50 to 450 percent, preferably 100 to 340 percent, or said hydrocarbon feedstock is a naphthenic crude oil and step iia) comprises a temperature range of 10 to 95 °C, preferably 20 to 65 °C, and a solvent dosage within a range of 50 to 300 percent, preferably 75 to 200 percent. i) providing an aromatics and naphthenes containing hydrocarbon feedstock; ii) contacting said hydrocarbon feedstock with a solvent at a dosage effective to remove aromatics and naphthenes from said feedstock forming a refined feedstock and one or more aromatics and naphthenes containing streams, wherein said solvent is chosen from the group of n-methyl-2-pyrrolidone, furfural and phenol and mixtures thereof, including the presence of cosolvents; iii) processing said refined feedstock in a steam cracking process, wherein step ii) comprises two sub steps, namely a step iia) comprising separation of aromatics from said hydrocarbon feedstock of step i) thereby forming a naphthenes containing intermediate stream and an aromatics containing stream, and a step iib) comprising separation of naphthenes from said intermediate stream thereby forming a naphthenes containing stream and said refined feedstock, wherein said hydrocarbon feedstock is a paraffinic crude oil and step iia) comprises a temperature range of 50 to 125 °C, preferably within a range of 60 to 85 °C and a solvent dosage within a range of 50 to 450 percent, preferably 100 to 340 percent, or said hydrocarbon feedstock is a naphthenic crude oil and step iia) comprises a temperature range of 10 to 95 °C, preferably 20 to 65 °C, and a solvent dosage within a range of 50 to 300 percent, preferably 75 to 200 percent.
Roller having a rubber-elastic roller cover with a hardness of 10 to 100 Shore A, which roller cover is substantially composed of an elastomeric or elastic plastic material based on natural rubber, synthetic rubber, elastic thermoplastic material, thermoplastic elastomeric material or a single-component or multi-component polyester or polyurethane system, including combinations and/or mixtures thereof, characterized in that the rubber-elastic roller cover displays at least one reinforcement, selectively disposed in a casing-like, belt-like or radially helical manner, from a two-dimensional or three-dimensional textile planar formation of threads, and the threads at least in part intersect, entwine or touch one another, and the intersection or contact points formed thereby are fixed in a substantially displacement-resistant manner, wherein the textile planar formation, irrespective of the usual additives, filler materials and optional functional additives in the selected elastomeric or elastic plastic material, forms the exclusive or at least substantial mechanical reinforcement of the rubber-elastic roller cover, and wherein the textile planar formation is penetrated by the elastomeric or elastic plastic material and the textile planar formation is thus embedded in the plastic material.