mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle interior panel (14; 30) in which a surface layer member (20; 32) including an upholstery portion and a cushioning portion (18; 34) covers a front surface of a base material such that the upholstery portion faces an interior side of a vehicle, wherein a terminal portion of the base material includes an inward flange portion projecting toward the interior side of the vehicle, the upholstery portion includes a fold-back terminal portion that is formed by folding back a terminal portion of the upholstery portion toward an exterior side of the vehicle so as to tuck in the terminal portion of the upholstery portion around the terminal portion of the base material which includes the inward flange portion , characterized in that at the vehicle lower side of the vehicle interior panel (14; 30), and at a terminal portion of the panel (14;30) which is located on the upper side of the vehicle, the vehicle interior panel (14; 30) has a clearance between a terminal edge of the inward flange portion which is located on the interior side of the vehicle and the upholstery portion ; and a tip part of the terminal portion of the upholstery portion is folded back such that it extends parallel to an unfolded portion of the upholstery portion . a terminal portion of the base material includes an inward flange portion projecting toward the interior side of the vehicle, the upholstery portion includes a fold-back terminal portion that is formed by folding back a terminal portion of the upholstery portion toward an exterior side of the vehicle so as to tuck in the terminal portion of the upholstery portion around the terminal portion of the base material which includes the inward flange portion , at the vehicle lower side of the vehicle interior panel (14; 30), and at a terminal portion of the panel (14;30) which is located on the upper side of the vehicle, the vehicle interior panel (14; 30) has a clearance between a terminal edge of the inward flange portion which is located on the interior side of the vehicle and the upholstery portion ; and a tip part of the terminal portion of the upholstery portion is folded back such that it extends parallel to an unfolded portion of the upholstery portion .
A process for preparing a salt of Formula , comprising: (a) preparing a compound of Formula , or a salt thereof, comprising: contacting a compound of Formula , or a salt thereof, with a compound of Formula , or a salt thereof, (b) preparing a compound of Formula , or a salt thereof, comprising: contacting the compound of Formula , or a salt thereof, with a catalyst, and (c) contacting the compound of Formula , or a salt thereof, with a metal hydroxide, wherein: R 1 is H or an amine protecting group; R 2 is H, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; each R 3 is independently H, halogen, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; and A is a cation. (a) preparing a compound of Formula , or a salt thereof, comprising: contacting a compound of Formula , or a salt thereof, with a compound of Formula , or a salt thereof, (b) preparing a compound of Formula , or a salt thereof, comprising: contacting the compound of Formula , or a salt thereof, with a catalyst, and (c) contacting the compound of Formula , or a salt thereof, with a metal hydroxide, wherein: R 1 is H or an amine protecting group; R 2 is H, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; each R 3 is independently H, halogen, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; and A is a cation. R 1 is H or an amine protecting group; R 2 is H, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; each R 3 is independently H, halogen, C 1-10 alkyl, C 1-10 haloalkyl, or aryl; and A is a cation.
A bush for isolating vibrations, the bush comprising: a first anchor part that defines a longitudinal axis; a second anchor part spaced from the first anchor part; a resilient body extending between the first anchor part and the second anchor part and operably engaged with the first anchor part and the second anchor part to isolate vibrations therebetween, the resilient body comprising a plurality of radial arms spaced apart around the longitudinal axis, wherein each pair of adjacent arms is separated by a longitudinally extending passageway ; and a tuning element operably coupled to an outer surface of the resilient body, wherein the tuning element is configured to reduce dynamic stiffness increases associated with eigenmodes of the resilient body within a predetermined operational vibration frequency range, and characterised in that the tuning element comprises an upstanding wall on the outer surface of the resilient body, the upstanding wall bridging across each longitudinally extending passageway. a first anchor part that defines a longitudinal axis; a second anchor part spaced from the first anchor part; a resilient body extending between the first anchor part and the second anchor part and operably engaged with the first anchor part and the second anchor part to isolate vibrations therebetween, the resilient body comprising a plurality of radial arms spaced apart around the longitudinal axis, wherein each pair of adjacent arms is separated by a longitudinally extending passageway ; and a tuning element operably coupled to an outer surface of the resilient body, wherein the tuning element is configured to reduce dynamic stiffness increases associated with eigenmodes of the resilient body within a predetermined operational vibration frequency range, and characterised in that the tuning element comprises an upstanding wall on the outer surface of the resilient body, the upstanding wall bridging across each longitudinally extending passageway.
A method for controlling a portable terminal apparatus, the method comprising: registering an execution condition based on at least one of category information, the category information comprising at least one of a time base, a location base, a time and location base, a peripheral device base, a body information base or a weather base (S1310); registering an execution command corresponding to the execution condition ; obtaining context information comprising at least one of current time information, location information of the portable terminal apparatus, information on communication with the at least one peripheral device, body information or weather information; based on the context information being corresponding to the registered execution condition, displaying an icon (S1320); and based on the icon being selected by a user input (S1330), transmitting to at least one peripheral device the execution command corresponding to the registered execution condition (S1340). registering an execution condition based on at least one of category information, the category information comprising at least one of a time base, a location base, a time and location base, a peripheral device base, a body information base or a weather base (S1310); registering an execution command corresponding to the execution condition ; obtaining context information comprising at least one of current time information, location information of the portable terminal apparatus, information on communication with the at least one peripheral device, body information or weather information; based on the context information being corresponding to the registered execution condition, displaying an icon (S1320); and based on the icon being selected by a user input (S1330), transmitting to at least one peripheral device the execution command corresponding to the registered execution condition (S1340).
Apparatus for applying a negative pressure to a wound site in the application of topical negative pressure at a wound site, the apparatus comprising: a source of negative pressure coupled to a dressing ; a processing element; and a memory comprising instructions configured to, when executed on the processing element, cause the apparatus to perform the steps of: (i) operate the source of negative pressure to establish a first desired negative pressure under the dressing ; (ii) deactivate the source of the negative pressure when the first desired negative pressure has not been generated under the dressing after re-activating the source of negative pressure for a first number of times exceeding a first threshold. a source of negative pressure coupled to a dressing ; a processing element; and a memory comprising instructions configured to, when executed on the processing element, cause the apparatus to perform the steps of: (i) operate the source of negative pressure to establish a first desired negative pressure under the dressing ; (ii) deactivate the source of the negative pressure when the first desired negative pressure has not been generated under the dressing after re-activating the source of negative pressure for a first number of times exceeding a first threshold. (i) operate the source of negative pressure to establish a first desired negative pressure under the dressing ; (ii) deactivate the source of the negative pressure when the first desired negative pressure has not been generated under the dressing after re-activating the source of negative pressure for a first number of times exceeding a first threshold.
Positioning device, for positioning blanks for a forming die, comprising a positioning guide having a sloped positioning face , the positioning face being designed to allow a peripheral edge of a blank to be positioned in a transverse direction (Q) by contact with the positioning face , wherein the positioning device comprises a housing module , the positioning guide being mounted in the housing module so as to be linearly displaceable in the transverse direction (Q), the housing module having a spring system , the spring system preloading the positioning guide in the transverse direction (Q), characterized in that the positioning guide comprises a positioning guide bracket and a receiving plate , the positioning guide bracket having the positioning face , the receiving plate being designed to be guided linearly in the housing module , wherein the positioning device comprises a base plate , the housing module being fastened on the base plate , the receiving plate of the positioning guide being arranged between the base plate and the housing module .
A method comprising: impregnating an inorganic fiber porous preform with a first slurry composition, wherein the first slurry composition comprises ceramic particles, a solvent, and a pre-gellant material; initiating gelation of the pre-gellant material in the first slurry composition to substantially immobilize the ceramic particles and yield a gelled article; heating the gelled article to substantially remove the gel formed in the gelation step and to open pores of the porous preform; impregnating the particle-filled porous article with a second solution, wherein the second solution comprises only a high char-yielding component, a solvent and optionally a polymer interrupter, an acid catalyst and/or a secondary polymer; pyrolyzing the high char-yielding component to yield carbon and form a green composite article; and infiltrating the green composite article with a molten metal or alloy to form a final composite article, wherein at least some of the molten metal or alloy reacts with the carbon to form a metal carbide. impregnating an inorganic fiber porous preform with a first slurry composition, wherein the first slurry composition comprises ceramic particles, a solvent, and a pre-gellant material; initiating gelation of the pre-gellant material in the first slurry composition to substantially immobilize the ceramic particles and yield a gelled article; heating the gelled article to substantially remove the gel formed in the gelation step and to open pores of the porous preform; impregnating the particle-filled porous article with a second solution, wherein the second solution comprises only a high char-yielding component, a solvent and optionally a polymer interrupter, an acid catalyst and/or a secondary polymer; pyrolyzing the high char-yielding component to yield carbon and form a green composite article; and infiltrating the green composite article with a molten metal or alloy to form a final composite article, wherein at least some of the molten metal or alloy reacts with the carbon to form a metal carbide.
A method for producing a fertilizer which comprises urea and/or at least one ammonium compound, wherein ammonia is obtained as an impurity in the production process, characterized in that the ammonia is decomposed photocatalytically by irradiation with UV radiation and that ammonia bound or dissolved in a urea melt or in a concentrated urea solution is destroyed photocatalytically.
Method for the production of drinking water with high silicate content, comprising the steps: mixing of demineralized raw water and a waterglass solution, comprising sodium and/or potassium silicate, subjecting at least one part of the mixture to an ion exchange process to reduce the concentration of sodium and/or potassium. mixing of demineralized raw water and a waterglass solution, comprising sodium and/or potassium silicate, subjecting at least one part of the mixture to an ion exchange process to reduce the concentration of sodium and/or potassium.
A polyester resin comprising a diol structural unit and a dicarboxylic acid structural unit, wherein: the diol structural unit comprises a structural unit derived from a diol having a cyclic acetal skeleton represented by Formula and/or Formula below; a content of the structural unit derived from the diol having the cyclic acetal skeleton is 1 to 80 mol% based on the total amount of the diol structural unit; and an amount of crosslinking points in the resin chain is 1.0 wt% or less, wherein the crosslinking points refer to a sum of a mass of structural unit derived from dioxane triol, which is produced by the reaction of one hydroxypivalaldehyde with pentaerythritol, and a mass of structural unit derived from trimethylolpropane, with respect to the total amount of the polyester resin; wherein R 1 and R 2 each independently represent an organic group selected from the group consisting of aliphatic groups having 1 to 10 carbon atoms, alicyclic groups having 3 to 10 carbon atoms, and aromatic groups having 6 to 10 carbon atoms, and wherein R 3 and R 4 each independently represent an organic group selected from the group consisting of aliphatic groups having 1 to 10 carbon atoms, alicyclic groups having 3 to 10 carbon atoms, and aromatic groups having 6 to 10 carbon atoms. the diol structural unit comprises a structural unit derived from a diol having a cyclic acetal skeleton represented by Formula and/or Formula below; a content of the structural unit derived from the diol having the cyclic acetal skeleton is 1 to 80 mol% based on the total amount of the diol structural unit; and an amount of crosslinking points in the resin chain is 1.0 wt% or less, wherein the crosslinking points refer to a sum of a mass of structural unit derived from dioxane triol, which is produced by the reaction of one hydroxypivalaldehyde with pentaerythritol, and a mass of structural unit derived from trimethylolpropane, with respect to the total amount of the polyester resin; wherein R 1 and R 2 each independently represent an organic group selected from the group consisting of aliphatic groups having 1 to 10 carbon atoms, alicyclic groups having 3 to 10 carbon atoms, and aromatic groups having 6 to 10 carbon atoms, and wherein R 3 and R 4 each independently represent an organic group selected from the group consisting of aliphatic groups having 1 to 10 carbon atoms, alicyclic groups having 3 to 10 carbon atoms, and aromatic groups having 6 to 10 carbon atoms.
A system for controlling a tool comprising at least said tool and at least one fixed anchor , said tool being at least provided with a radio communication means of the ultra-wideband type, and with a memory, said at least one fixed anchor being provided with a radio communication means of the ultra-wideband type, with a control means, and with a memory, the radio communication means of said tool and of said at least one anchor communicating information bidirectionally to determine the location of the tool, said system including a hub provided with a Wi-Fi communication means with said tool, said Wi-Fi communication means transmitting data tolerant of high latency and of a size greater than 100 kilobytes, said hub and said fixed anchor being connected by a wired network, and the system being characterised in that the radio communication means of the ultra-wideband type of said tool and of said at least one fixed anchor are configured to additionally transmit control or command information for the tool . said at least one fixed anchor being provided with a radio communication means of the ultra-wideband type, with a control means, and with a memory, the radio communication means of said tool and of said at least one anchor communicating information bidirectionally to determine the location of the tool, said system including a hub provided with a Wi-Fi communication means with said tool, said Wi-Fi communication means transmitting data tolerant of high latency and of a size greater than 100 kilobytes, said hub and said fixed anchor being connected by a wired network, and the system being characterised in that the radio communication means of the ultra-wideband type of said tool and of said at least one fixed anchor are configured to additionally transmit control or command information for the tool .
Lighting device for vehicles containing an electro-optical component, characterised in that the electro-optical component contains a liquid-crystalline medium which comprises one or more compounds of the formula CC: in which R C denotes an alkyl, alkenyl or alkoxy radical having 1 to 15 C atoms, in which a methylene group may be replaced by and in which in each case one or more H atoms may be replaced by F, X C denotes F, Cl, a halogenated alkyl radical, a halogenated alkenyl radical, a halogenated alkoxy radical or a halogenated alkenyloxy radical having up to 6 C atoms, Z C1 , Z C2 , independently of one another, denote -CH 2 CH 2 - or a single bond, L C1 and L C2 , independently of one another, denote H or F, L C3 und L C4 independently of one another, denote H or methyl, and characterised in that the medium has a clearing point of 120°C or more, where the total concentration of the one or more compounds of the formula CC in the medium is 55% by weight or more. R C denotes an alkyl, alkenyl or alkoxy radical having 1 to 15 C atoms, in which a methylene group may be replaced by and in which in each case one or more H atoms may be replaced by F, X C denotes F, Cl, a halogenated alkyl radical, a halogenated alkenyl radical, a halogenated alkoxy radical or a halogenated alkenyloxy radical having up to 6 C atoms, Z C1 , Z C2 , independently of one another, denote -CH 2 CH 2 - or a single bond, L C1 and L C2 , independently of one another, denote H or F, L C3 und L C4 independently of one another, denote H or methyl,
A computer-implemented method comprising performing computer-implemented operations for: intercepting , by a first monitor , an application programming interface (106; 202), API, call made by an application executing external to a restricted application execution environment , wherein the API call is directed toward a secure resource ; determining , by the first monitor , if the API call is blocked by a second monitor in the restricted application execution environment; in response to said determining that the API call is blocked in the restricted application execution environment, modifying the API call so that the API call can be executed within the restricted application execution environment, comprising: creating a shadow resource , wherein the shadow resource comprises a version of the secure resource that is accessible to the API within the restricted application execution environment; and causing the modified API call to be executed against the shadow resource in the restricted application execution environment. intercepting , by a first monitor , an application programming interface (106; 202), API, call made by an application executing external to a restricted application execution environment , wherein the API call is directed toward a secure resource ; determining , by the first monitor , if the API call is blocked by a second monitor in the restricted application execution environment; in response to said determining that the API call is blocked in the restricted application execution environment, modifying the API call so that the API call can be executed within the restricted application execution environment, comprising: creating a shadow resource , wherein the shadow resource comprises a version of the secure resource that is accessible to the API within the restricted application execution environment; and causing the modified API call to be executed against the shadow resource in the restricted application execution environment. creating a shadow resource , wherein the shadow resource comprises a version of the secure resource that is accessible to the API within the restricted application execution environment; and causing the modified API call to be executed against the shadow resource in the restricted application execution environment.
A process for treating an object comprising a first material which is a thermoplastic polymer and a second material selected from the group consisting of silicones, polyurethanes, fluorinated polymers, rubbers and polyvinylchloride bound to the first material, wherein the density of the first material is different from the density of the second material, said process comprising the following steps: (i) physically treating the object to obtain micronized particles, (ii) suspending the micronized particles in an acidic or alkaline solution to at least partially separate the first material from the second material, (iii) recovering the solids from the suspension obtained in step (ii) and suspending the recovered solids in a liquid composed of water and dissolved salt and having a density which is between the density of the first material and the density of the second material, and (iv) Separating the first material from the second material by applying a centrifugal force to the suspension obtained in step (iii). (i) physically treating the object to obtain micronized particles, (ii) suspending the micronized particles in an acidic or alkaline solution to at least partially separate the first material from the second material, (iii) recovering the solids from the suspension obtained in step (ii) and suspending the recovered solids in a liquid composed of water and dissolved salt and having a density which is between the density of the first material and the density of the second material, and (iv) Separating the first material from the second material by applying a centrifugal force to the suspension obtained in step (iii).
An apparatus , comprising: a plurality of antenna arrays , each array comprising antenna elements , each array being located on a polygonal antenna body such that each array is directed toward a different direction; a radio-frequency, RF, network comprising: a first duplexer configured to split a received multifrequency drive signal into a first component having a first frequency and a second component having a second frequency; a divider configured to split said first component into attenuated portions, and to direct one of said attenuated portions to a first of said plurality of antenna arrays; a second duplexer configured to combine another of said attenuated portions with said second drive signal component to form a combined drive signal component, and to direct said combined drive signal component to a second of said antenna arrays.