mhurhangee/ep-ind-claims huggingface dataset:
A method for revamping an ammonia production facility said ammonia production facility having a front end comprising one or more reformers fed with a hydrocarbon feedstock at a hydrocarbon feed stock feed rate and a high-temperature shift reactor fed with a reformed gas obtained from said one or more reformers, containing a fixed bed of iron-containing water-gas shift catalyst and operated at an inlet temperature in the range 280-500°C, said front end operating at a first steam-to-carbon ratio and a first pressure drop, said method comprising the steps of (i) replacing the iron-containing water-gas shift catalyst with a low-steam water-gas shift catalyst selected from the group consisting of an enhanced iron-containing high temperature shift catalyst and an iron-free high temperature shift catalyst to form a modified front end, (ii) operating the modified front end at a second steam-to-carbon ratio and a second pressure drop, wherein the second steam-to-carbon ratio is at least 0.2 less than the first steam-to-carbon ratio and the second pressure drop is less than the first pressure drop, and (iii) increasing the hydrocarbon feed stock feed rate to said one or more reformers, wherein the enhanced iron-containing high temperature shift catalyst is a precipitated iron-containing catalyst with an iron oxide content, expressed as Fe 2 O 3, of 60 to 95% by weight, either having a BET surface area in the range 20-40m 2 /g, or in the form of a cylindrical pellet having a length C and diameter D, wherein the surface of the cylindrical pellet has two or more flutes running along its length, said cylinder having domed ends of lengths A and B such that (A+B+C)/D is in the range 0.25 to 1.25, and (A+B)/C is in the range 0.03 to 0.3, or comprises one or more iron oxides stabilised with chromia and/or alumina and acicular iron oxide particles, and which may optionally contain zinc oxide and one or more copper compounds.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, by a radio resource control, RRC, layer of the UE from an eNodeB, eNB, system information including service specific access control, SSAC, barring information for a plurality of public land mobile networks, PLMNs and access class barring, ACB, skip bits per PLMN for all PLMNs of the plurality of PLMNs, wherein the SSAC barring information for the plurality of PLMNs includes information on a barring factor per PLMN for all PLMNs of the plurality of PLMNs and information on a barring time per PLMN for all PLMNs of the plurality of PLMNs, receiving, by the RRC layer of the UE, a request of a service from a non-access stratum, NAS, layer of the UE; selecting a specific PLMN among the PLMNs of the plurality of PLMNs, by the NAS layer of the UE, and selecting, by the RRC layer of the UE, specific SSAC barring information corresponding to the selected specific PLMN contained in the system information, skipping, by the RRC layer of the UE, performing the ACB check according to the ACB skip bits for the selected specific PLMN; and forwarding, by the RRC layer of the UE to a multimedia telephony, MMTEL, layer of the UE, the specific SSAC barring information corresponding to the selected specific PLMN, wherein the specific SSAC barring information corresponding to the selected specific PLMN includes information on a barring factor for the specific PLMN and information on a barring time for the specific PLMN receiving, by a radio resource control, RRC, layer of the UE from an eNodeB, eNB, system information including service specific access control, SSAC, barring information for a plurality of public land mobile networks, PLMNs and access class barring, ACB, skip bits per PLMN for all PLMNs of the plurality of PLMNs, wherein the SSAC barring information for the plurality of PLMNs includes information on a barring factor per PLMN for all PLMNs of the plurality of PLMNs and information on a barring time per PLMN for all PLMNs of the plurality of PLMNs, receiving, by the RRC layer of the UE, a request of a service from a non-access stratum, NAS, layer of the UE; selecting a specific PLMN among the PLMNs of the plurality of PLMNs, by the NAS layer of the UE, and selecting, by the RRC layer of the UE, specific SSAC barring information corresponding to the selected specific PLMN contained in the system information, skipping, by the RRC layer of the UE, performing the ACB check according to the ACB skip bits for the selected specific PLMN; and forwarding, by the RRC layer of the UE to a multimedia telephony, MMTEL, layer of the UE, the specific SSAC barring information corresponding to the selected specific PLMN, wherein the specific SSAC barring information corresponding to the selected specific PLMN includes information on a barring factor for the specific PLMN and information on a barring time for the specific PLMN
Transmucosal base for receiving a dental prosthesis on a dental implant, extending in a longitudinal direction (I-I) between a proximal end and a distal end, comprising: - a proximal portion shaped to be received in or on a dental implant, - a distal portion shaped to support a dental prosthesis, - a longitudinal through-passage successively comprising an upstream cylindrical portion extending in the direction of the proximal end as far as a seating bounded by a seating peripheral wall and having a bearing surface intended to have the head of a screw bearing axially against it, and a downstream cylindrical portion bounded by a lateral wall and extending from and away from the seating in the direction of the proximal end, characterized in that the transmucosal base comprises, in the longitudinal through-passage, an internal radial housing formed in the peripheral wall of the seating and in the lateral wall of the downstream cylindrical portion. - a proximal portion shaped to be received in or on a dental implant, - a distal portion shaped to support a dental prosthesis, - a longitudinal through-passage successively comprising an upstream cylindrical portion extending in the direction of the proximal end as far as a seating bounded by a seating peripheral wall and having a bearing surface intended to have the head of a screw bearing axially against it, and a downstream cylindrical portion bounded by a lateral wall and extending from and away from the seating in the direction of the proximal end, characterized in that the transmucosal base comprises, in the longitudinal through-passage, an internal radial housing formed in the peripheral wall of the seating and in the lateral wall of the downstream cylindrical portion.
Process for producing an insulation body based on a fine- and open-celled polyurethane/polyisocyanurate foam in a cavity of a mold, comprising a. optionally inserting an optionally pre-molded insert into the cavity of the mold, b. inserting a barrier film into the cavity or, if present, onto or into the insert, c. applying a pressure of 8-30 bar in the cavity, d. injecting a polyurethane reactive mixture containing supercritical CO 2 into the pressurized cavity, e. decompressing to ambient pressure after a time of 1 to 40 s measured after the injection, f. curing the polyurethane reactive mixture, g. applying a vacuum of 0.001 mbar to 0.5 mbar in the cavity, h. sealing any holes in the barrier film i. and finally demolding the resulting insulation body. a. optionally inserting an optionally pre-molded insert into the cavity of the mold, b. inserting a barrier film into the cavity or, if present, onto or into the insert, c. applying a pressure of 8-30 bar in the cavity, d. injecting a polyurethane reactive mixture containing supercritical CO 2 into the pressurized cavity, e. decompressing to ambient pressure after a time of 1 to 40 s measured after the injection, f. curing the polyurethane reactive mixture, g. applying a vacuum of 0.001 mbar to 0.5 mbar in the cavity, h. sealing any holes in the barrier film i. and finally demolding the resulting insulation body.
A flexible reticular structure, comprising a movable surface for conveying goods, the movement of which is operated by operating means, said surface being formed by a plurality of modules linked to one another by means of attachment rods, each of said rods being housed in holes provided in at least two of said modules, each module comprising at least one wheel assembled in at least one of said rods, wherein each module comprises tabs wherein the holes are placed, two adjacent tabs defining a housing (8, 9) for placing a wheel, wherein said tabs define first housings and second housings, the length of the first housings being greater than the length of the second housings, whereby the tabs of the second housings can be placed between the tabs of the first housing of an adjacent module, thereby enabling the attachment rod of said modules to remain right at the intersection of said modules, characterized in that inside the same module said first housings are located frontally to each other, and said second housings are located frontally to each other. wherein each module comprises tabs wherein the holes are placed, two adjacent tabs defining a housing (8, 9) for placing a wheel, wherein said tabs define first housings and second housings, the length of the first housings being greater than the length of the second housings, whereby the tabs of the second housings can be placed between the tabs of the first housing of an adjacent module, thereby enabling the attachment rod of said modules to remain right at the intersection of said modules, characterized in that inside the same module said first housings are located frontally to each other, and said second housings are located frontally to each other.
A polyester resin obtained by using an aluminum compound and a phosphorus compound as a polymerization catalyst, containing greater than or equal to 85% by mol of an ethylene terephthalate structural unit, wherein the content of an aluminum-based contaminant is less than or equal to 100 ppb, and the content of a phosphorus compound represented by the following structure is 5 to 11 ppm, with respect to the mass of the polyester resin, wherein the content of the aluminum-based contaminant and the content of the phosphorous compound represented by the following structure are determined according to the methods indicated in the description, wherein the phosphorous compound represented by is a thermolysis product at the time of polymerization of the polyester using an aluminum compound and a phosphorous compound represented by the following chemical formula as a catalyst: (wherein in (Formula A), X1 and X2 each represent hydrogen, an alkyl group having 1 to 4 carbon atoms, or a metal having a valence of greater than or equal to 1), and wherein the polyester resin has a Tc1 of greater than or equal to 170°C and a Tc2 of less than or equal to 175°C, wherein Tc1 and Tc2 are determined according to the method indicated in the description, wherein Tc1 is the crystallization temperature at the time of elevating the temperature, and Tc2 is the crystllization temperature at the time of reducing the temperature. (wherein in (Formula A), X1 and X2 each represent hydrogen, an alkyl group having 1 to 4 carbon atoms, or a metal having a valence of greater than or equal to 1), and wherein the polyester resin has a Tc1 of greater than or equal to 170°C and a Tc2 of less than or equal to 175°C, wherein Tc1 and Tc2 are determined according to the method indicated in the description, wherein Tc1 is the crystallization temperature at the time of elevating the temperature, and Tc2 is the crystllization temperature at the time of reducing the temperature.
A preparation method of a polyarylene sulfide, comprising: a first step of preparing a sulfur source comprising a sulfide of an alkali metal and a mixed solvent of water and an amide-based compound by dehydrating a hydrosulfide of an alkali metal and a hydroxide of an alkali metal in the presence of an organic acid salt of an alkali metal and an acidic compound in a mixed solvent of water and an amide-based compound, wherein the acidic compound is at least one selected from the group consisting of hydrochloric acid, sulfuric acid, and nitric acid; and a second step of adding a dihalogenated aromatic compound and an amide-based compound to a reactor containing the sulfur source, and performing a polymerization reaction to prepare a polyarylene sulfide. a first step of preparing a sulfur source comprising a sulfide of an alkali metal and a mixed solvent of water and an amide-based compound by dehydrating a hydrosulfide of an alkali metal and a hydroxide of an alkali metal in the presence of an organic acid salt of an alkali metal and an acidic compound in a mixed solvent of water and an amide-based compound, wherein the acidic compound is at least one selected from the group consisting of hydrochloric acid, sulfuric acid, and nitric acid; and a second step of adding a dihalogenated aromatic compound and an amide-based compound to a reactor containing the sulfur source, and performing a polymerization reaction to prepare a polyarylene sulfide.
Oscillatingly drivable machine tool, with a tool spindle pivotably mounted about its longitudinal axis, with a drive motor, wherein the machine tool is configured to drive the tool spindle in a rotationally oscillating manner at a frequency of 5000 to 30000 oscillations per minute and with a pivoting angle of ± 1° to ± 5° from reversal point to reversal point, wherein the machine tool is characterized in that the drive motor is coupled to a hydraulic generator for generating an oscillating fluid flow, which drives a hydraulic motor in the form of a rotary vane motor in order to drive the tool spindle in a oscillating manner about its longitudinal axis.
A method of determining aerial vehicle status, performed by a base unit (1300, 110), the method comprising: receiving location information of a mobile unit (105, 1200); judging whether the mobile unit (105, 1200) is a registered aerial vehicle or an unregistered aerial vehicle, wherein: in the condition that air-borne assistance information for the mobile unit (105, 1200) is stored at the base unit, judging that the mobile unit is a registered aerial vehicle, even if the air-borne assistance information is empty; and in the condition that air-borne assistance information for the mobile unit (105, 1200) is not stored at the base unit, judging that the mobile unit is an unregistered aerial vehicle; determining whether the mobile unit (105, 1200) is in a state of flying based on the location information of the mobile unit (105, 1200); and identifying the mobile unit as a misused aerial vehicle in the condition that the mobile unit (105, 1200) is determined as being in the state of flying and is judged as being an unregistered aerial vehicle. receiving location information of a mobile unit (105, 1200); judging whether the mobile unit (105, 1200) is a registered aerial vehicle or an unregistered aerial vehicle, wherein: in the condition that air-borne assistance information for the mobile unit (105, 1200) is stored at the base unit, judging that the mobile unit is a registered aerial vehicle, even if the air-borne assistance information is empty; and in the condition that air-borne assistance information for the mobile unit (105, 1200) is not stored at the base unit, judging that the mobile unit is an unregistered aerial vehicle; in the condition that air-borne assistance information for the mobile unit (105, 1200) is stored at the base unit, judging that the mobile unit is a registered aerial vehicle, even if the air-borne assistance information is empty; and in the condition that air-borne assistance information for the mobile unit (105, 1200) is not stored at the base unit, judging that the mobile unit is an unregistered aerial vehicle; determining whether the mobile unit (105, 1200) is in a state of flying based on the location information of the mobile unit (105, 1200); and identifying the mobile unit as a misused aerial vehicle in the condition that the mobile unit (105, 1200) is determined as being in the state of flying and is judged as being an unregistered aerial vehicle.
Safety barrier installable in a gate leading to a potentially dangerous area, characterized in that it comprises: - at least one laterally-radiating, light-emitting tube, arranged along a portion of the periphery of the gate, - an electronic circuit connected to drive said light-emitting tube with a controlled signal variable over time, whereby the light emitted from said tube is also variable over time, - a camera substantially arranged on the periphery of the gate in front of the light-emitting tube for detecting the image of the light-emitting tube, - a control unit programmed for comparing, instant by instant, the current image detected by the camera with a reference image representing the light-emitting tube in a clear condition, and also comparing, instant by instant, said current image with said controlled signal, and for generating an alarm signal whenever the current image differs from the reference image and from said controlled signal by a predetermined, minimum number of pixels. - at least one laterally-radiating, light-emitting tube, arranged along a portion of the periphery of the gate, - an electronic circuit connected to drive said light-emitting tube with a controlled signal variable over time, whereby the light emitted from said tube is also variable over time, - a camera substantially arranged on the periphery of the gate in front of the light-emitting tube for detecting the image of the light-emitting tube, - a control unit programmed for comparing, instant by instant, the current image detected by the camera with a reference image representing the light-emitting tube in a clear condition, and also comparing, instant by instant, said current image with said controlled signal, and for generating an alarm signal whenever the current image differs from the reference image and from said controlled signal by a predetermined, minimum number of pixels.
A building block to be aligned with other building blocks to build a modular barrier adapted to stop vehicles that are moving on a ground, wherein the building block comprises: a connector having two receiving pockets, wherein one of said receiving pockets is laterally directed and one of said receiving pockets is directed in a predetermined angle of more than 90° relative to the receiving pocket that is laterally directed, wherein the connector is provided with a pointing element that provides a thrust point; two poles, wherein one of the poles is configured to be received within one of the two receiving pockets that is laterally directed so that the pole is substantially parallel to the ground and wherein the other one of the poles is configured to be received within one of the two receiving pockets that is directed in the predetermined angle so as to allow the modular barrier to stop the vehicles; and a rotating bar that is connected to one of the poles through a flange, wherein the rotating bar is adapted to connect the pole to a pole of an adjacent building block. a connector having two receiving pockets, wherein one of said receiving pockets is laterally directed and one of said receiving pockets is directed in a predetermined angle of more than 90° relative to the receiving pocket that is laterally directed, wherein the connector is provided with a pointing element that provides a thrust point; two poles, wherein one of the poles is configured to be received within one of the two receiving pockets that is laterally directed so that the pole is substantially parallel to the ground and wherein the other one of the poles is configured to be received within one of the two receiving pockets that is directed in the predetermined angle so as to allow the modular barrier to stop the vehicles; and a rotating bar that is connected to one of the poles through a flange, wherein the rotating bar is adapted to connect the pole to a pole of an adjacent building block.
A method for the simultaneous slicing of a plurality of food products into portions respectively comprising a plurality of product slices, in which - the products are sliced using a common slicing apparatus, in particular a high-performance slicer, which has at least one cutting blade which rotates in a cutting plane about a blade axis and/or revolves in planetary motion about a center axis and to which the products are supplied on multiple tracks; and - incomplete part portions respectively present after slicing a product are completed by slices of a subsequent product, wherein the completion of part portions takes place in separate tracks which each comprise at least two conveyor units (25, 27) following one another, with first conveyor units of the tracks and second conveyor units of the tracks each being operable independently of one another; wherein, with part portions created consecutively in time, the portion completions are coordinated in the individual tracks such that in each case, on the creation of a part portion in one track, work is continued with the slicing in the remaining other tracks and the completion of the part portions is only started after creation of the last part portion; and wherein the completion of the part portions present in the individual tracks is started simultaneously. - the products are sliced using a common slicing apparatus, in particular a high-performance slicer, which has at least one cutting blade which rotates in a cutting plane about a blade axis and/or revolves in planetary motion about a center axis and to which the products are supplied on multiple tracks; and - incomplete part portions respectively present after slicing a product are completed by slices of a subsequent product,
A safety thermostat for gas cooking ovens comprising a body provided with an inlet fluidically connectable to a gas feeding source, and within said body: - a first cavity fluidically communicating with said inlet and housing a normally closed safety valve inside, - a second cavity fluidically communicating with said first cavity and housing therein an adjustment valve of the gas flow coming from said first cavity, said adjustment valve comprising a slider axially movable within said second cavity between a first closing position of a passage towards a third cavity and a second opening position of said passage, - elastic means acting on said slider to push it towards said second opening position, - at least one third cavity (56,80), which houses a normally closed cut-off valve (58,82) and which fluidically communicates with at least one burner (68,90) of the oven, - a heat sensitive element acting on said slider, as a function of the temperature intended to be detected by a sensor applicable to said oven, to push said slider towards said first closing position in contrast with said elastic means, - means (24,38,39,48,61,92) for causing the opening of said safety valve and of said cut-off valve (58,82) and the adjustment of the position of said slider to control the gas flow through said at least one third cavity (56,80) in this manner. - a first cavity fluidically communicating with said inlet and housing a normally closed safety valve inside, - a second cavity fluidically communicating with said first cavity and housing therein an adjustment valve of the gas flow coming from said first cavity, said adjustment valve comprising a slider axially movable within said second cavity between a first closing position of a passage towards a third cavity and a second opening position of said passage, - elastic means acting on said slider to push it towards said second opening position, - at least one third cavity (56,80), which houses a normally closed cut-off valve (58,82) and which fluidically communicates with at least one burner (68,90) of the oven, - a heat sensitive element acting on said slider, as a function of the temperature intended to be detected by a sensor applicable to said oven, to push said slider towards said first closing position in contrast with said elastic means, - means (24,38,39,48,61,92) for causing the opening of said safety valve and of said cut-off valve (58,82) and the adjustment of the position of said slider to control the gas flow through said at least one third cavity (56,80) in this manner.