mhurhangee/patent-ind-claim-en huggingface dataset:
A process to obtain a real-time measurement of a monomer concentration and/or a real-time measurement of a comonomer concentration in at least one process stream of a solution polymerization to form a polymer, said process comprising analyzing the amount of the monomer and/or the amount of the comonomer in a polymer solution downstream from the exit of at least one reactor, using at least one fiber optic sensor coupled to a light source, or using at least one flow cell coupled to a light source, and wherein the light source is connected to a spectrometer; and wherein at least one of the following takes place: A) a portion of the polymer solution exits the reactor, and then comes into contact with the fiber optic sensor or the flow cell, and a spectrum is generated, and then the solution flows through a densitometer; or B) a portion of the polymer solution exits the reactor, and then flows through a densitometer, and then the solution comes into contact with the fiber optic sensor or the flow cell, and a spectrum is generated; or C) a portion of the polymer solution exits the reactor, and is split into at least two streams, and wherein one stream flows through a densitometer, and wherein another stream comes into contact with the fiber optic sensor or flow cell, and a spectrum is generated; and wherein the process further comprises analyzing the amount of a monomer and/or the amount of a comonomer, in a recycled solvent stream, using at least one fiber optic sensor coupled to a light source, or using at least one flow cell coupled to a light source; and wherein this recycled solvent stream is downstream from a "solvent/monomer separator" and upstream from the injection of the monomer and/or the comonomer into a process stream fed to the at least one reactor. A) a portion of the polymer solution exits the reactor, and then comes into contact with the fiber optic sensor or the flow cell, and a spectrum is generated, and then the solution flows through a densitometer; or B) a portion of the polymer solution exits the reactor, and then flows through a densitometer, and then the solution comes into contact with the fiber optic sensor or the flow cell, and a spectrum is generated; or C) a portion of the polymer solution exits the reactor, and is split into at least two streams, and wherein one stream flows through a densitometer, and wherein another stream comes into contact with the fiber optic sensor or flow cell, and a spectrum is generated; and wherein the process further comprises analyzing the amount of a monomer and/or the amount of a comonomer, in a recycled solvent stream, using at least one fiber optic sensor coupled to a light source, or using at least one flow cell coupled to a light source; and wherein this recycled solvent stream is downstream from a "solvent/monomer separator" and upstream from the injection of the monomer and/or the comonomer into a process stream fed to the at least one reactor.
Method for producing a film web from thermoplastic material, in which the plastic material is extruded in one layer from a wide slot nozzle in an extrusion direction and later is guided off via a roller, whereby tensile forces are applied to the film web in the extrusion direction and transverse to the extrusion direction in order to stretch the film web longitudinally and transverse, and whereby the layer, alternatively, can assume a film-like or a melt-like state, whereby the film-like state is established upon the layer cooling below a melting range and/or whereby the melt-like state is established upon the layer being heated above a melting range, whereby the film web a. is initially extruded in melt-like form with an extrusion speed during and/or directly after exit from the wide slot nozzle , and b. the film web immediately thereafter is guided in the form of a melt onto a cooling roller arrangement, whereby the film web is guided about a cooling or smoothing roller at a circumferential speed that is higher than the extrusion speed such that the film web is subjected to a longitudinal stretching, c. the film web is later guided out of the cooling roller arrangement, and d. then is subjected to a transverse stretching, whereby both stretching steps are performed on the layer in the melt-like state such that both times the stretching takes place by drawing the melt. a. is initially extruded in melt-like form with an extrusion speed during and/or directly after exit from the wide slot nozzle , and b. the film web immediately thereafter is guided in the form of a melt onto a cooling roller arrangement, whereby the film web is guided about a cooling or smoothing roller at a circumferential speed that is higher than the extrusion speed such that the film web is subjected to a longitudinal stretching, c. the film web is later guided out of the cooling roller arrangement, and d. then is subjected to a transverse stretching,
A solenoid valve comprising: a ferromagnetic casing ; a coil positioned within said casing ; a ferromagnetic hydraulic body , said body having a central bore with an axial bearing surface with first and second ports and a conical valve seat positioned between said first and second ports , said body providing a flux return of said solenoid; an armature slidably mounted within said central bore having an outer diameter surface in contact with said body central bore and being aligned thereby, said armature having an integral poppet with a conical face having an angle shallower than an angle of said conical seat and with a ratio of a maximum outer contact diameter between the poppet and the valve seat to the diameter of the central bore being greater than 0.95, and wherein said armature has a through bore exposing an axial face of said armature generally opposite said body first port to hydraulic pressure of said body first port ; and a spring biasing said poppet of said armature against the conical seat to prevent flow from said body second port to said body first port until energization of said coil , and wherein said body is positioned within said coil and said valve seat is formed integral with said body . a ferromagnetic casing ; a coil positioned within said casing ; a ferromagnetic hydraulic body , said body having a central bore with an axial bearing surface with first and second ports and a conical valve seat positioned between said first and second ports , said body providing a flux return of said solenoid; an armature slidably mounted within said central bore having an outer diameter surface in contact with said body central bore and being aligned thereby, said armature having an integral poppet with a conical face having an angle shallower than an angle of said conical seat and with a ratio of a maximum outer contact diameter between the poppet and the valve seat to the diameter of the central bore being greater than 0.95, and wherein said armature has a through bore exposing an axial face of said armature generally opposite said body first port to hydraulic pressure of said body first port ; and a spring biasing said poppet of said armature against the conical seat to prevent flow from said body second port to said body first port until energization of said coil , and wherein said body is positioned within said coil and said valve seat is formed integral with said body .
A system of at least two distribution body elements for a chemical and/or electrolytic surface treatment of a substrate , wherein each distribution body element has a plate shape, wherein each distribution body element comprises jet openings for distributing a process fluid from inside the distribution body element to the substrate to be treated and drain openings for draining the process fluid and an electric current through the distribution body element, wherein the process fluid is configured to return from the substrate as a cathode to an anode, whereas the electric current is configured to flow from the anode to the substrate as cathode, wherein the drain openings extend throughout, from one side to an opposite side of the distribution body element and the jet openings extend from an interior of the distribution body element to a surface of the distribution body element facing the substrate , wherein each drain opening is surrounded by several jet openings , wherein each distribution body element has a connecting area configured to be connected to a connecting area of another distribution body element to form a modular distribution body comprising at least two distribution body elements , and wherein the distribution body elements are connectable next to each other, such that, when connected, the process fluid and/or electric current is configured to be provided through the connecting areas to an active surface surrounded by the connecting areas wherein each distribution body element has a plate shape, wherein each distribution body element comprises jet openings for distributing a process fluid from inside the distribution body element to the substrate to be treated and drain openings for draining the process fluid and an electric current through the distribution body element, wherein the process fluid is configured to return from the substrate as a cathode to an anode, whereas the electric current is configured to flow from the anode to the substrate as cathode, wherein the drain openings extend throughout, from one side to an opposite side of the distribution body element and the jet openings extend from an interior of the distribution body element to a surface of the distribution body element facing the substrate , wherein each drain opening is surrounded by several jet openings , wherein each distribution body element has a connecting area configured to be connected to a connecting area of another distribution body element to form a modular distribution body comprising at least two distribution body elements , and wherein the distribution body elements are connectable next to each other, such that, when connected, the process fluid and/or electric current is configured to be provided through the connecting areas to an active surface surrounded by the connecting areas
A method for the diagnosis of Alzheimer disease in a subject at risk of having or developing the cognitive disorder, comprising: (a) detecting a level of expression in a ncRNA signature in a biological sample from said subject; (b) comparing the level of expression in the sample to a level of expression in a reference, wherein an increased or decreased level of expression in the sample compared to the level in the reference identifies the subject having Alzheimer disease or being at risk of developing Alzheimer disease, wherein the biological sample is selected from blood, plasma, and serum, and wherein the ncRNA signature comprises: 13 lncRNAs of lnc-DLG5-1:1, lnc-EBLN1-1:4, lnc-FAT1-7:2, lnc-PRR5-5:1, lnc-RBKS-6:1, lnc-FOXD4L5-35:1, lnc-TENM3-3:3, lnc-FAM133B-2:1, lnc-ZNF726-1:3, lnc-AP3M1-1:1, lnc-DUSP10-6:1, lnc-TPPP-1:2, and LINC01206:20. (a) detecting a level of expression in a ncRNA signature in a biological sample from said subject; (b) comparing the level of expression in the sample to a level of expression in a reference, wherein an increased or decreased level of expression in the sample compared to the level in the reference identifies the subject having Alzheimer disease or being at risk of developing Alzheimer disease, wherein the biological sample is selected from blood, plasma, and serum, and wherein the ncRNA signature comprises: 13 lncRNAs of lnc-DLG5-1:1, lnc-EBLN1-1:4, lnc-FAT1-7:2, lnc-PRR5-5:1, lnc-RBKS-6:1, lnc-FOXD4L5-35:1, lnc-TENM3-3:3, lnc-FAM133B-2:1, lnc-ZNF726-1:3, lnc-AP3M1-1:1, lnc-DUSP10-6:1, lnc-TPPP-1:2, and LINC01206:20. wherein an increased or decreased level of expression in the sample compared to the level in the reference identifies the subject having Alzheimer disease or being at risk of developing Alzheimer disease, wherein the biological sample is selected from blood, plasma, and serum, and wherein the ncRNA signature comprises: 13 lncRNAs of lnc-DLG5-1:1, lnc-EBLN1-1:4, lnc-FAT1-7:2, lnc-PRR5-5:1, lnc-RBKS-6:1, lnc-FOXD4L5-35:1, lnc-TENM3-3:3, lnc-FAM133B-2:1, lnc-ZNF726-1:3, lnc-AP3M1-1:1, lnc-DUSP10-6:1, lnc-TPPP-1:2, and LINC01206:20.
A display assembly, comprising: an array substrate ; a package substrate adhered to the array substrate , wherein the package substrate includes inorganic and organic package layers ; and a photosensitive device ; wherein the array substrate includes a pixel unit for emitting light to an object to be recognized on a displaying side of the display assembly; the photosensitive device is provided on a layer of said package substrate for generating an optical signal based on received light reflected by the object to be recognized and converting the generated optical signal into an electric signal for recognizing the object to be recognized, characterised in that the package substrate includes a first inorganic package layer , an organic package layer , and a second inorganic package layer laminated sequentially, wherein the photosensitive device is arranged between the organic package layer and one of the first and second inorganic package layers. an array substrate ; a package substrate adhered to the array substrate , wherein the package substrate includes inorganic and organic package layers ; and a photosensitive device ; wherein the array substrate includes a pixel unit for emitting light to an object to be recognized on a displaying side of the display assembly; the photosensitive device is provided on a layer of said package substrate for generating an optical signal based on received light reflected by the object to be recognized and converting the generated optical signal into an electric signal for recognizing the object to be recognized, characterised in that the package substrate includes a first inorganic package layer , an organic package layer , and a second inorganic package layer laminated sequentially, wherein the photosensitive device is arranged between the organic package layer and one of the first and second inorganic package layers.
A motion arrangement for moving a load with six degrees of freedom, the motion arrangement comprising: first, second and third primary link elements , each primary link element being (i) rotatably attached to a respective linearly movable driver element and (ii) slidably and rotatably attached to the load ; a first intermediate link element attached to the first primary link element and to a fourth linearly movable drive element ; a second intermediate link element attached to the second primary link element and to a fifth linearly movable drive element ; the first intermediate link element being attached to the first primary link element at a location between the locations where the first primary link element is attached to its respective driver element and to the load, and the second intermediate link element being attached to the second primary link element at a location between the locations where the second primary link element is attached to its respective driver element and to the load. first, second and third primary link elements , each primary link element being (i) rotatably attached to a respective linearly movable driver element and (ii) slidably and rotatably attached to the load ; a first intermediate link element attached to the first primary link element and to a fourth linearly movable drive element ; a second intermediate link element attached to the second primary link element and to a fifth linearly movable drive element ;
A polyaspartic coating composition, comprising: (A) an aspartic acid ester compound of formula (I); and (B2) a polyisocyanate composition comprising a triisocyanate compound (b1) of formula (VIII), wherein a content of the triisocyanate compound (b1), relative to a total mass of the polyisocyanate composition (B2), is 40% by mass to 100% by mass, in the formula (I), X is an n-valent organic group obtained by removing a primary amino group from an n-valent polyamine, R 1 and R 2 are identical or different organic groups inactive against an isocyanate group under reaction conditions, and n is an integer of 2 or more, in the formula (VIII), plural Y 1 each independently represents a single bond, or a C1-20 divalent hydrocarbon group which may have at least one selected from the group consisting of an ester structure and an ether structure, the plural Y 1 are identical to or different from each other, and R 3 is a hydrogen atom or a C1-12 monovalent hydrocarbon group. (A) an aspartic acid ester compound of formula (I); and (B2) a polyisocyanate composition comprising a triisocyanate compound (b1) of formula (VIII), wherein a content of the triisocyanate compound (b1), relative to a total mass of the polyisocyanate composition (B2), is 40% by mass to 100% by mass, in the formula (I), X is an n-valent organic group obtained by removing a primary amino group from an n-valent polyamine, R 1 and R 2 are identical or different organic groups inactive against an isocyanate group under reaction conditions, and n is an integer of 2 or more, in the formula (VIII), plural Y 1 each independently represents a single bond, or a C1-20 divalent hydrocarbon group which may have at least one selected from the group consisting of an ester structure and an ether structure, the plural Y 1 are identical to or different from each other, and R 3 is a hydrogen atom or a C1-12 monovalent hydrocarbon group.
A composition comprising: a water swellable, water permeable interpenetrating polymer network (IPN) or semi-IPN member comprising: (a) a first polymer network comprising a hydrophobic thermoset or thermoplastic polymer having multiple subsets of polymer segments; (b) a second polymer network comprising a non-ionic polymer; (c) a third polymer network comprising an ionic polymer comprising sulfonic acid functional groups; and wherein the water swellable, water permeable IPN or semi-IPN member includes a compositional gradient between a first surface and a second surface, and the second polymer network and third polymer network are each formed within the same subset of polymer segments of the hydrophobic thermoset or thermoplastic polymer. a water swellable, water permeable interpenetrating polymer network (IPN) or semi-IPN member comprising: (a) a first polymer network comprising a hydrophobic thermoset or thermoplastic polymer having multiple subsets of polymer segments; (b) a second polymer network comprising a non-ionic polymer; (c) a third polymer network comprising an ionic polymer comprising sulfonic acid functional groups; and (a) a first polymer network comprising a hydrophobic thermoset or thermoplastic polymer having multiple subsets of polymer segments; (b) a second polymer network comprising a non-ionic polymer; (c) a third polymer network comprising an ionic polymer comprising sulfonic acid functional groups; and wherein the water swellable, water permeable IPN or semi-IPN member includes a compositional gradient between a first surface and a second surface, and the second polymer network and third polymer network are each formed within the same subset of polymer segments of the hydrophobic thermoset or thermoplastic polymer.
A mobile terminal comprising: an input unit ; a storage unit ; a display unit ; and a controller configured to: control the storage unit to store a plurality of contacts including a first contact and a second contact; link a first object with a second object based on a first user input received via the input unit , wherein the first object includes the first contact and the second object includes the second contact; link the second object with a social networking website selected from among a plurality of social networking websites, based on a second user input received via the input unit ; and if a request to view information regarding the first object is received, control the display unit to provide, based on the link between the first object and the second object, information regarding the second object, and to provide, based on the link between the second object and the social networking website, information from the social networking website related to the second object; wherein the first object, the second object and the social networking website are selectable by a user input. an input unit ; a storage unit ; a display unit ; and a controller configured to: control the storage unit to store a plurality of contacts including a first contact and a second contact; link a first object with a second object based on a first user input received via the input unit , wherein the first object includes the first contact and the second object includes the second contact; link the second object with a social networking website selected from among a plurality of social networking websites, based on a second user input received via the input unit ; and if a request to view information regarding the first object is received, control the display unit to provide, based on the link between the first object and the second object, information regarding the second object, and to provide, based on the link between the second object and the social networking website, information from the social networking website related to the second object; control the storage unit to store a plurality of contacts including a first contact and a second contact; link a first object with a second object based on a first user input received via the input unit , wherein the first object includes the first contact and the second object includes the second contact; link the second object with a social networking website selected from among a plurality of social networking websites, based on a second user input received via the input unit ; and if a request to view information regarding the first object is received, control the display unit to provide, based on the link between the first object and the second object, information regarding the second object, and to provide, based on the link between the second object and the social networking website, information from the social networking website related to the second object; wherein the first object, the second object and the social networking website are selectable by a user input.
Shelving system formed from module parts arranged one beside the other, having closable compartments for dispensing unpackaged products, in particular baked products such as bread, rolls or the like, and having supports , on which brackets are arranged in an interchangeable manner, wherein the closable compartments are provided with a horizontally mounted flap , wherein each flap has at least one opening device , wherein the flap encloses a dispensing space and wherein shelves and/or trays are provided, wherein each flap is mounted in a rotatable manner, wherein a damping element is also provided, as a result of which the flap can be opened as far as an at least first opening range (BÖ1) with a first opening resistance (WÖ1), wherein the damping element also allows damped closure of the flap , and the closing range can be subdivided at least into a first closing range (BS1) and a second closing range (BS2), wherein a second opening range (BÖ2) with a second opening resistance (WÖ2) is provided, and wherein a third opening range (BÖ3) with a third opening resistance (WÖ3) is provided. wherein a second opening range (BÖ2) with a second opening resistance (WÖ2) is provided, and wherein a third opening range (BÖ3) with a third opening resistance (WÖ3) is provided.