mhurhangee/ep-ind-claims huggingface dataset:
A process for the production of sulphuric acid, wherein a sulphur dioxide-containing feed gas is reacted, at least in part, with oxygen in at least two contact stages (6 1....6 n) of main contacts (2,3), arranged in series, to generate sulphur trioxide, and wherein the generated sulphur trioxide-containing gas is fed to an absorber (4, 5, 16) and reacted therein to sulphuric acid, characterized in that a partial stream of the sulphur dioxide and sulphur trioxide-containing gas is withdrawn from a contact stage (6 1...6 n-1. 22 1...22 n) located upstream of the last main contact stage 6 n), wherein the said partial stream is mixed with the feed gas to form a contact gas having a sulphur dioxide content of more than 13 % by volume, and then returned to a first contact stage (6 1, 22 1), wherein the volumetric portion of the partial stream supplied to the feed gas, amounts to between 15 and 35% of the contact gas, and wherein the amount of the gas re-circulated as partial stream is adjusted on the basis of the temperature at which the gas leaves the first contact stage (6 1,22 1) and that the partial stream, prior to being returned to the first contact stage (6 1, 22 1), is cooled to a temperature <500 °C.
A method for producing a composite oxide catalyst used for oxidation of olefin, wherein the composite oxide catalyst contains molybdenum and bismuth, characterized in that its specific surface area is in the range of 5-25 m 2 /g, and its pore volume is in the range of 0.2-0.7 cc/g, and that the pore diameter distribution is such that the volume of pores whose diameters are 0.03-0.1 μ m is 30% or over of the total pore volume, the volume of pores whose diameters are 0.1-1 μ m is 20% or over of the total pore volume, and the volume of pores whose diameters are less than 0.03 μ m is 10% or less, wherein the composite oxide catalyst is expressed by the following general formula: Mo a Bi b Co c Ni d Fe e X f Y g Z h Si i O j wherein X is at least one kind of element selected from the group consisting of magnesium (Mg), calcium (Ca), zinc (Zn), cerium (Ce), and samarium (Sm), Y is at least one of element selected from the group consisting of sodium (Na), potassium, rubidium (Rb), cesium (Cs) and thallium, Z is at least one kind of element selected from the group consisting of boron, phosphorus, arsenic (As) and tungsten, wherein the letters a to j are atomic ratios of the respective elements, where if a=12, then b=0.5-7, c=0-10, d=0-10 where c+d=1-10, e=0.05-3, f=0-2, g=0.04-2, h=0-3 and i=5-48, wherein j is a numeral which satisfies the oxidation state of the other elements, wherein the composite oxide catalyst is a compound containing the elements forming the composite oxide catalyst, wherein the method comprises the steps of dissolving or dispersing supply source compounds of the respective elements that can be made into an aqueous solution or suspension into water and drying, molding and calcining them, wherein, as the supply source compound for the silicon component, fumed silica is used, which has an average primary particle diameter of 20-50 nm, wherein 100 wt% of the supply source compound for silicon is said fumed silica, wherein the supply source compound for the bismuth component is selected among one of bismuth oxide and bismuth subcarbonate, bismuth subcarbonate containing at least part of predetermined Na in the form of a solid solution, a composite carbonate compound of Bi and X which contains at least part of the components, or a composite carbonate component of Bi, Na and X which contains at least part of predetermined Na and X components, wherein the pore volume and pore distribution are measured by a mercury charging method using Pore Sizer 9310-PC2 made by Shimadzu Corporation, wherein the specific surface area is a surface area of a catalyst per unit weight, which is measured by BET method using nitrogen absorption, wherein the pore volume and pore diameter distribution are the pore diameter, pore volume and its distribution as measured with a porosimeter using a mercury charging method, and wherein the average diameter of the primary particles of fumed silica is the average value of diameters of 1000-10000 primary particles as measured on an electron microscopic photo.
An image forming apparatus for forming an image on a recording material, comprising: a main assembly to which a cartridge including an image bearing member on which a latent image is formed and including a developing device for developing the latent image on said image bearing member is detachably mountable; and a transfer unit for transferring a developer image formed on said image bearing member, wherein said developing device includes a developer carrying member and is movable between a contact position (Fig. 9(a)) where said developer carrying member is contacted to said image bearing member and a spaced position (Fig. 9(b)) where said developer carrying member is spaced from said image bearing member, wherein said transfer unit is detachably mountable to said main assembly separately from said cartridge, said transfer unit includes a developing device contact-and-separation mechanism for moving said developing device between the contact position (Fig. 9(a)) and the spaced position (Fig. 9(b)), said transfer unit includes an endless belt, a roller (13, 14, 15) for supporting the endless belt, and a roller supporting member for supporting the roller (13, 14, 15), and wherein said contact-and-separation mechanism is provided between the roller supporting member and the endless belt. a main assembly to which a cartridge including an image bearing member on which a latent image is formed and including a developing device for developing the latent image on said image bearing member is detachably mountable; and a transfer unit for transferring a developer image formed on said image bearing member, wherein said developing device includes a developer carrying member and is movable between a contact position (Fig. 9(a)) where said developer carrying member is contacted to said image bearing member and a spaced position (Fig. 9(b)) where said developer carrying member is spaced from said image bearing member, wherein said transfer unit is detachably mountable to said main assembly separately from said cartridge, said transfer unit includes a developing device contact-and-separation mechanism for moving said developing device between the contact position (Fig. 9(a)) and the spaced position (Fig. 9(b)), said transfer unit includes an endless belt, a roller (13, 14, 15) for supporting the endless belt, and a roller supporting member for supporting the roller (13, 14, 15), and wherein said contact-and-separation mechanism is provided between the roller supporting member and the endless belt.
A sealed, disposable cartridge for a MEMS particle sorting system, comprising: a sample fluid disposed in a sample reservoir; a sample input passageway upstream of the microfabricated particle sorting structure, a sort passageway and a waste passageway downstream of the microfabricated particle sorting structure, which are in fluid communication with the sample reservoir, the microfabricated particle sorting structure, a sort reservoir and a waste reservoir, wherein the microfabricated particle sorting structure diverts a target particle from the sample passageway to the sort passageway and blocks the waste passageway when the target particle is detected at least one movable microfabricated particle sorting structure formed on a substrate and installed in the sealed, disposable cartridge; a quantity of biocompatible material with a plurality of fluid reservoirs disposed therein, with one or more fluidic passageways connecting the fluid reservoirs to the MEMS particle sorting system; a flexible gasket covering the reservoirs, wherein a plurality of holes formed in the gasket allows a fluid to flow between at least one of the reservoirs and the microfabricated particle sorting structure. a sample fluid disposed in a sample reservoir; a sample input passageway upstream of the microfabricated particle sorting structure, a sort passageway and a waste passageway downstream of the microfabricated particle sorting structure, which are in fluid communication with the sample reservoir, the microfabricated particle sorting structure, a sort reservoir and a waste reservoir, wherein the microfabricated particle sorting structure diverts a target particle from the sample passageway to the sort passageway and blocks the waste passageway when the target particle is detected at least one movable microfabricated particle sorting structure formed on a substrate and installed in the sealed, disposable cartridge; a quantity of biocompatible material with a plurality of fluid reservoirs disposed therein, with one or more fluidic passageways connecting the fluid reservoirs to the MEMS particle sorting system; a flexible gasket covering the reservoirs, wherein a plurality of holes formed in the gasket allows a fluid to flow between at least one of the reservoirs and the microfabricated particle sorting structure.
A hygienic thin-leaf paper comprising: a first sheet having front and back surfaces, on which a plurality of embossed protrusions and a plurality of embossed recesses corresponding to the plurality of embossed protrusions are respectively formed; and a second sheet having front and back surfaces, on which a plurality of embossed protrusions and a plurality of embossed recesses corresponding to the plurality of embossed protrusions are respectively formed, wherein the first sheet and the second sheet are integrated by facing the surfaces formed with the embossed protrusions (EC1, EC2) in a nested form, wherein each of the first sheet and the second sheet have an embossed portion (30, 40), on which the plurality of embossed protrusions (EC1, EC2) and a plurality of non-embossed-protrusion portions (NE1, NE2) are formed, wherein at least one of the first sheet and the second sheets have a non-embossed portion (50, 60), on which the plurality of embossed protrusions (EC1, EC2) and the plurality of non-embossed-protrusion portions (NE1, NE2) are not formed, wherein the non-embossed portion (50, 60) is in a shape that there is no intersection within the non-embossed portions (50,60) or that the non-embossed portions (50, 60) do not intersect each other in the first sheet and/or the second sheet, and wherein an area ratio of the area of the non-embossed portion (50, 60) to sheet surface on which the non-embossed portion (50, 60) is formed is 3 to 16%. a first sheet having front and back surfaces, on which a plurality of embossed protrusions and a plurality of embossed recesses corresponding to the plurality of embossed protrusions are respectively formed; and a second sheet having front and back surfaces, on which a plurality of embossed protrusions and a plurality of embossed recesses corresponding to the plurality of embossed protrusions are respectively formed, wherein the first sheet and the second sheet are integrated by facing the surfaces formed with the embossed protrusions (EC1, EC2) in a nested form, wherein each of the first sheet and the second sheet have an embossed portion (30, 40), on which the plurality of embossed protrusions (EC1, EC2) and a plurality of non-embossed-protrusion portions (NE1, NE2) are formed, wherein at least one of the first sheet and the second sheets have a non-embossed portion (50, 60), on which the plurality of embossed protrusions (EC1, EC2) and the plurality of non-embossed-protrusion portions (NE1, NE2) are not formed, wherein the non-embossed portion (50, 60) is in a shape that there is no intersection within the non-embossed portions (50,60) or that the non-embossed portions (50, 60) do not intersect each other in the first sheet and/or the second sheet, and wherein an area ratio of the area of the non-embossed portion (50, 60) to sheet surface on which the non-embossed portion (50, 60) is formed is 3 to 16%.
A nuclear plant, in particular a nuclear reactor plant or a reprocessing plant, with a building and a storage pool arranged within the building underneath a ceiling of the building, in which pool fuel elements are stored, wherein a protective cover spanning the storage pool is arranged underneath the building ceiling and above the storage pool, which protective cover protects the storage pool and the fuel elements stored in the latter, in the event of damage to the building from falling debris, in particular building debris, wherein in plan view the protective cover is designed in multiple parts, and consists of at least two individually transportable segments, which can be assembled inside the building to form the protective cover, wherein the segments consist of a multiplicity of steel beams (10, 11) that are welded and/or bolted together, and wherein on the upper face and/or the lower face of the steel beams (10, 11) the protective cover has a cover plate spanning one or a plurality of the steel beams (10, 11).
A multi-specific antibody molecule comprising or consisting of: a) a polypeptide chain of formula: V H -CH 1 -CH 2 -CH 3 -X-(V 1) p; and b) a polypeptide chain of formula: V L -C L -Y-(V 2) q; wherein: V H represents a heavy chain variable domain; CH 1 represents a domain of a heavy chain constant region, for example domain 1 thereof; CH 2 represents a domain of a heavy chain constant region, for example domain 2 thereof; CH 3 represents a domain of a heavy chain constant region, for example domain 3 thereof; X represents a bond or linker; Y represents a bond or linker; V 1 represents a dsFv; V L represents a variable domain, for example a light chain variable domain; C L represents a domain from a constant region, for example a light chain constant region domain, such as Ckappa; V 2 represents a dsFv; p represents 0 or 1; q represents 0 or 1; wherein at least one of p or q is 1, and when p is 1, q is 0, and Y is absent, and when q is 1, p is 0, and X is absent, and when q is 1 and V 2 is a dsFv, the VL domain of V 2 is attached to Y, and the molecule is provided as dimer with two heavy chains of formula and two associated light chains of formula. a) a polypeptide chain of formula: V H -CH 1 -CH 2 -CH 3 -X-(V 1) p; and b) a polypeptide chain of formula: V L -C L -Y-(V 2) q; wherein: V H represents a heavy chain variable domain; CH 1 represents a domain of a heavy chain constant region, for example domain 1 thereof; CH 2 represents a domain of a heavy chain constant region, for example domain 2 thereof; CH 3 represents a domain of a heavy chain constant region, for example domain 3 thereof; X represents a bond or linker; Y represents a bond or linker; V 1 represents a dsFv; V L represents a variable domain, for example a light chain variable domain; C L represents a domain from a constant region, for example a light chain constant region domain, such as Ckappa; V 2 represents a dsFv; p represents 0 or 1; q represents 0 or 1; wherein at least one of p or q is 1, and when p is 1, q is 0, and Y is absent, and when q is 1, p is 0, and X is absent, and when q is 1 and V 2 is a dsFv, the VL domain of V 2 is attached to Y, and the molecule is provided as dimer with two heavy chains of formula and two associated light chains of formula. V H represents a heavy chain variable domain; CH 1 represents a domain of a heavy chain constant region, for example domain 1 thereof; CH 2 represents a domain of a heavy chain constant region, for example domain 2 thereof; CH 3 represents a domain of a heavy chain constant region, for example domain 3 thereof; X represents a bond or linker; Y represents a bond or linker; V 1 represents a dsFv; V L represents a variable domain, for example a light chain variable domain; C L represents a domain from a constant region, for example a light chain constant region domain, such as Ckappa; V 2 represents a dsFv; p represents 0 or 1; q represents 0 or 1;
Hinge, in particular furniture hinge, comprising - an attachment part, with which the hinge can be fastened to a stationary furniture part, - at least one articulated lever, - a hinge cup, which is or can be pivotably arranged on the attachment part via the at least one articulated lever, wherein the at least one articulated lever is mounted with the hinge cup via at least one hinge pin, wherein the hinge cup can be fastened to a movable furniture part, - at least one damping device for damping a relative movement between the attachment part and the hinge cup between an open position and a closed position of the hinge, wherein the at least one damping device has a linear damper with a piston and a translationally movable piston rod, wherein the linear damper is arranged at least in areas, preferably completely, outside the hinge cup, and - at least one translationally movable actuating element, which is preferably one-piece and/or, particularly preferably at least in the open position spatially, separate from the at least one articulated lever, for actuating the at least one damping device, wherein the at least one actuating element is arranged predominantly, preferably completely, inside the hinge cup, characterized in that the hinge cup comprises a hinge cup opening, through which the piston rod projects from an exterior space of the hinge cup into the interior space of the hinge cup separated by a hinge cup side wall of the hinge cup and wherein the at least one actuating element comprises at least one bar, which protrudes transversely from the at least one actuating element and/or is bent, for contacting the piston rod. - an attachment part, with which the hinge can be fastened to a stationary furniture part, - at least one articulated lever, - a hinge cup, which is or can be pivotably arranged on the attachment part via the at least one articulated lever, wherein the at least one articulated lever is mounted with the hinge cup via at least one hinge pin, wherein the hinge cup can be fastened to a movable furniture part, - at least one damping device for damping a relative movement between the attachment part and the hinge cup between an open position and a closed position of the hinge, wherein the at least one damping device has a linear damper with a piston and a translationally movable piston rod, wherein the linear damper is arranged at least in areas, preferably completely, outside the hinge cup, and - at least one translationally movable actuating element, which is preferably one-piece and/or, particularly preferably at least in the open position spatially, separate from the at least one articulated lever, for actuating the at least one damping device,
A method of operation of a wireless device in a wireless network to detect a predetermined signal in the presence of interference, comprising: detecting (100; 200; 300) one or more first cells; determining (102; 202) one or more sets of combining weights for spatially filtering transmissions from one or more perceived directions of the one or more first cells; and detecting (204; 304) one or more predetermined signals from a second cell by using the spatially filtered transmissions from one or more perceived directions of the one or more first cells, respectively, using the one or more sets of combining weights. detecting (100; 200; 300) one or more first cells; determining (102; 202) one or more sets of combining weights for spatially filtering transmissions from one or more perceived directions of the one or more first cells; and detecting (204; 304) one or more predetermined signals from a second cell by using the spatially filtered transmissions from one or more perceived directions of the one or more first cells, respectively, using the one or more sets of combining weights.
Cooling device for providing cooling capability of adjacent structures comprising: • a hollow chamber, • an inlet, and • a chamber outlet, wherein the inlet, the chamber and the chamber outlet are configured such that fluid flow may enter via the inlet, pass through the chamber, and exit via the chamber outlet, wherein the chamber is divided into a distribution chamber and a cooling chamber by a partitioning member, wherein the inlet is fluidly connected to the distribution chamber and the chamber outlet is fluidly connected to the cooling chamber, and wherein the partitioning member comprises at least a first and a second constriction passage, wherein the first constriction passage has a first predefined cross sectional flow area, and wherein the second constriction passage has a second predefined cross sectional flow area, and wherein the sizes of the predefined first and second cross sectional flow areas of the first and second constriction passages are controllable, whereby the distribution of fluid flow from the distribution chamber to the cooling chamber via the respective constriction passage is controllable, characterized in that the cooling device further comprises: • a gas drainage cavity, wherein the gas drainage cavity is arranged such that gas in the fluid flow is collected in the gas drainage cavity, • an outlet, wherein an outlet conduit fluidly connects the outlet to the chamber outlet, and • a deaeration device comprising a deaeration conduit provided with a venturi tube, wherein the deaeration device is fluidly connected to the gas drainage cavity at one end of the deaeration conduit and fluidly connected to the outlet conduit at the other end of the deaeration conduit. • a hollow chamber, • an inlet, and • a chamber outlet, • a gas drainage cavity, wherein the gas drainage cavity is arranged such that gas in the fluid flow is collected in the gas drainage cavity, • an outlet, wherein an outlet conduit fluidly connects the outlet to the chamber outlet, and • a deaeration device comprising a deaeration conduit provided with a venturi tube, wherein the deaeration device is fluidly connected to the gas drainage cavity at one end of the deaeration conduit and fluidly connected to the outlet conduit at the other end of the deaeration conduit.
Homeoprotein whose homeodomain has at least 98% sequence identity with residues 38-97 of the sequence SEQ ID NO: 1 and contains a lysine residue at position 50 of said homeodomain and whose overall polypeptide sequence has at least 90% identity with the sequence SEQ ID NO: 1 or the sequence SEQ ID NO: 2, for use as a medicament for the prevention or treatment of retinal ganglion neuron degeneration.