mhurhangee/ep-ind-claims huggingface dataset:
A microchannel structure comprising: a continuous-phase introduction channel which communicates with a continuous-phase introduction inlet; a discharge channel which communicates with a discharge outlet; a fine-particle formation channel; and a plurality of branch channels for dispersed-phase introduction which are microchannels; wherein one end of the fine-particle formation channel in a fluid traveling direction communicates with the continuous-phase introduction channel whereas the other end thereof communicates with the discharge channel, and wherein the cross sectional area of the fine-particle formation channel gradually increases from a communication position thereof with the continuous-phase introduction channel to a communication position thereof with the discharge channel, characterized by a dispersed-phase introduction channel which communicates with a dispersed-phase introduction inlet and has a closed end, wherein a side part of the dispersed-phase introduction channel and a side part of the fine-particle formation channel communicate via the plurality of branch channels for dispersed-phase introduction, and wherein lengths of the branch channels for dispersed-phase introduction gradually increase as the communication positions of the branch channels for dispersed-phase introduction with the dispersed-phase introduction channel depart from the dispersed-phase introduction inlet. a continuous-phase introduction channel which communicates with a continuous-phase introduction inlet; a discharge channel which communicates with a discharge outlet; a fine-particle formation channel; and a plurality of branch channels for dispersed-phase introduction which are microchannels; wherein one end of the fine-particle formation channel in a fluid traveling direction communicates with the continuous-phase introduction channel whereas the other end thereof communicates with the discharge channel, and wherein the cross sectional area of the fine-particle formation channel gradually increases from a communication position thereof with the continuous-phase introduction channel to a communication position thereof with the discharge channel, characterized by a dispersed-phase introduction channel which communicates with a dispersed-phase introduction inlet and has a closed end, wherein a side part of the dispersed-phase introduction channel and a side part of the fine-particle formation channel communicate via the plurality of branch channels for dispersed-phase introduction, and wherein lengths of the branch channels for dispersed-phase introduction gradually increase as the communication positions of the branch channels for dispersed-phase introduction with the dispersed-phase introduction channel depart from the dispersed-phase introduction inlet.
An image forming system comprising: an image forming unit adapted to form images based on a plurality of document pages on a plurality of recording media to form one printed matter; a special sheet feeding unit adapted to store special sheet groups (Tb1, Tb2, Tb3), each special sheet group constituting one set in which a plurality of different types of special sheets are arranged in a predetermined order; a special sheet setting input unit adapted to receive the number of the special sheets constituting the one set and a page number at which the special sheet is to be inserted into the plurality of recording media; a post-processing unit adapted to carry out a post-processing of the printed matter; a division setting input unit adapted to receive an instruction for dividing the one printed matter into a plurality of groups by carrying out the post-processing of the printed matter with the post-processing unit such that the printed recording media of different document pages belong to different groups of the printed matter and a control unit adapted to set a special sheet to be inserted into a first place in each of the plurality of groups to be a special sheet arranged at a top of the one set of the respective special sheet group when the special sheet setting input unit receives the page number at which the special sheet is to be inserted and when the division setting input unit receives the instruction for dividing the one printed matter into the plurality of groups. an image forming unit adapted to form images based on a plurality of document pages on a plurality of recording media to form one printed matter; a special sheet feeding unit adapted to store special sheet groups (Tb1, Tb2, Tb3), each special sheet group constituting one set in which a plurality of different types of special sheets are arranged in a predetermined order; a special sheet setting input unit adapted to receive the number of the special sheets constituting the one set and a page number at which the special sheet is to be inserted into the plurality of recording media; a post-processing unit adapted to carry out a post-processing of the printed matter; a division setting input unit adapted to receive an instruction for dividing the one printed matter into a plurality of groups by carrying out the post-processing of the printed matter with the post-processing unit such that the printed recording media of different document pages belong to different groups of the printed matter and a control unit adapted to set a special sheet to be inserted into a first place in each of the plurality of groups to be a special sheet arranged at a top of the one set of the respective special sheet group when the special sheet setting input unit receives the page number at which the special sheet is to be inserted and when the division setting input unit receives the instruction for dividing the one printed matter into the plurality of groups.
A heated seat for vehicles, means of transport and agricultural or building machinery consisting of a seat bottom and a backrest, which are on the sides of the seat delimited by a side surface of the seat, and a support surface is formed on the front side of the seat serving as a support for a seated person, the support surface of the seat is divided into a central zone and an edge zone, whereby a manually switched heating element is arranged in the central zone and the edge zone is situated between the central zone and the side surface of the seat, characterized in that in the edge zone of the support surface of the seat are located autonomous heating elements provided with an independent pressure switch, whereby the autonomous heating elements are arranged in rows surrounding the heating element of the central zone of the support surface of the seat from at least three sides, whereby they are arranged in a U-shape or in concentric circles.
Centrifugal pump for conveying a gaseous fiber pulp suspension, which has a pump impeller with at least one opening in the base plate and ribs on its rear side, where a separator unit is provided consisting of a separator housing with a wall and of a disc that rotates together with the pump shaft, where the separator unit is arranged in the pump housing adjoining the pump impeller on its rear side when viewing the pump impeller in axial direction and where the separator housing has a gas collecting chamber with a gas discharge pipe, where the disc rotating together with the pump shaft has a closed surface without openings, characterized by the wall being formed as a stationary disc and having ribs.
A method of automated testing of hardware and software systems comprising: receiving a formalized architecture description describing an architecture of a system being designed, wherein the formalized architecture description includes at least components of the system and links between the components of the system; receiving a formalized threat description describing threats to systems similar to the system being designed based on comparisons of purposes or goals for which the systems are designed; building, by a processor, a use model based on the formalized architecture description; building, by a processor, a threat model based on the formalized threat description; determining, by a processor, kinds of use of the system by comparing the threat model to the use model; and determining, by a processor, components of the system based on the kinds of use of the system. receiving a formalized architecture description describing an architecture of a system being designed, wherein the formalized architecture description includes at least components of the system and links between the components of the system; receiving a formalized threat description describing threats to systems similar to the system being designed based on comparisons of purposes or goals for which the systems are designed; building, by a processor, a use model based on the formalized architecture description; building, by a processor, a threat model based on the formalized threat description; determining, by a processor, kinds of use of the system by comparing the threat model to the use model; and determining, by a processor, components of the system based on the kinds of use of the system.
A method for wireless communication by a base station, BS, comprising: receiving one or more sounding reference signal, SRS, resources from a user equipment, UE, wherein each SRS resource is associated with one or more precoded SRS ports; determining, based on the one or more SRS resources, at least one of a transmission rank or a set of precoders for an uplink transmission; and signaling an indication of at least one of the one or more SRS resources to the UE; wherein the indication of the at least one of the one or more SRS resources indicates the set of precoders and the transmission rank. receiving one or more sounding reference signal, SRS, resources from a user equipment, UE, wherein each SRS resource is associated with one or more precoded SRS ports; determining, based on the one or more SRS resources, at least one of a transmission rank or a set of precoders for an uplink transmission; and signaling an indication of at least one of the one or more SRS resources to the UE;
Method for generating a 3D reconstruction of an object, including: illuminating the object; capturing image data in relation to the object; calculating the 3D reconstruction of the object from the image data; wherein the image data comprise first image data and second image data, and wherein the first image data are captured from different recording directions (30', 32', 34', 36', 38') when the object is illuminated with illumination light, at least some of which, in relation to an object imaging beam path (32, 34, 36, 38), is reflected light which illuminates the object, characterized in that the second image data are captured from different recording directions (30', 32', 34', 36', 38') when the object is illuminated with illumination light, at least some of which, in relation to an object imaging beam path (32, 34, 36, 38), is background light which illuminates the object; and the 3D reconstruction of the object is calculated from the first image data and the second image data. illuminating the object; capturing image data in relation to the object; calculating the 3D reconstruction of the object from the image data; wherein the image data comprise first image data and second image data, and wherein the first image data are captured from different recording directions (30', 32', 34', 36', 38') when the object is illuminated with illumination light, at least some of which, in relation to an object imaging beam path (32, 34, 36, 38), is reflected light which illuminates the object, characterized in that the second image data are captured from different recording directions (30', 32', 34', 36', 38') when the object is illuminated with illumination light, at least some of which, in relation to an object imaging beam path (32, 34, 36, 38), is background light which illuminates the object; and the 3D reconstruction of the object is calculated from the first image data and the second image data.
Cylinder lock (1; 21; 41), comprising a substantially cylindrical core unit (2; 22; 42) formed around a longitudinal axis (4; 24; 44) and arranged rotationally within a casing unit (3; 23; 43), wherein the casing unit (3; 23; 43) comprises a rib (5; 25; 45) that protrudes radially, wherein the core unit (2; 22; 42) comprises a bolt (7; 27; 47) that protrudes radially from a remaining part of the core unit (2; 22; 42), wherein depending on the rotational position of the core unit (2; 22; 42) with respect to the casing unit (3; 23; 43) the bolt (7; 27; 47) can be housed in a space (8; 28; 48) of the cylinder lock (1; 21; 41) or protrude from the cylinder lock (1; 21; 41), the cylinder lock (1; 21; 41) further comprising at least one body supplement (11; 31; 51) placed within the space (8; 28; 48), the at least one body supplement (11; 31; 51) is longitudinally interchangeable with the bolt (7; 27; 47) so that the bolt (7; 27; 47) and the at least one body supplement (11; 31; 51) can be assembled in at least two relative positions, wherein the cylinder lock (1; 21; 41) is characterised in that it comprises: - at least two threaded pinning holes (9; 29; 49) arranged parallel to each other, transversally crossing the cylinder lock (1; 21; 41) in a perpendicular direction to the longitudinal axis (4; 24; 44), arranged in a row parallel to the longitudinal axis (4; 24; 44), and positioned radially aligned with and outward from the space (8; 28; 48) of the bolt (7; 27; 47) housing; and - whereby the bolt (7; 27; 47) is radially aligned with a different threaded pinning hole (9; 29; 49) depending on the relative position of the bolt (7; 27; 47) and the at least one body supplement (11; 31; 51). - at least two threaded pinning holes (9; 29; 49) arranged parallel to each other, transversally crossing the cylinder lock (1; 21; 41) in a perpendicular direction to the longitudinal axis (4; 24; 44), arranged in a row parallel to the longitudinal axis (4; 24; 44), and positioned radially aligned with and outward from the space (8; 28; 48) of the bolt (7; 27; 47) housing; and - whereby the bolt (7; 27; 47) is radially aligned with a different threaded pinning hole (9; 29; 49) depending on the relative position of the bolt (7; 27; 47) and the at least one body supplement (11; 31; 51).
An optical system, comprising: a fixed assembly (1-FA), having a main axis (1-AX); a movable element, movable relative to the fixed assembly (1-FA) and having a movable element surface facing a first optical element (1-OE), wherein the first optical element is a liquid lens element, and the movable element is configured to be connected to the first optical element (1-OE) through a deforming member; a driving module (1-DM), configured to drive the movable element to move relative to the fixed assembly (1-FA); a movable assembly (1-MA), including a first movable member to a fourth movable member; and a connecting assembly (1-CA), including a first connecting member to a fourth connecting member, wherein each of the first connecting member to the fourth connecting member has an elastic portion, and the elastic portion has a plate-shaped structure; wherein the first movable member to the fourth movable member are connected to the movable element via the elastic portions of the first connecting member to the fourth connecting member, respectively, wherein the driving module (1-DM) includes a first driving assembly (1-DA1) to a fourth driving assembly (1-DA4), configured to independently move the first movable member to the fourth movable member, respectively, thereby driving the movable element to drive the deforming member to push a bottom of the first optical element (1-OE) so that optical properties of the liquid lens element is changed. a fixed assembly (1-FA), having a main axis (1-AX); a movable element, movable relative to the fixed assembly (1-FA) and having a movable element surface facing a first optical element (1-OE), wherein the first optical element is a liquid lens element, and the movable element is configured to be connected to the first optical element (1-OE) through a deforming member; a driving module (1-DM), configured to drive the movable element to move relative to the fixed assembly (1-FA); a movable assembly (1-MA), including a first movable member to a fourth movable member; and a connecting assembly (1-CA), including a first connecting member to a fourth connecting member, wherein each of the first connecting member to the fourth connecting member has an elastic portion, and the elastic portion has a plate-shaped structure; wherein the first movable member to the fourth movable member are connected to the movable element via the elastic portions of the first connecting member to the fourth connecting member, respectively, wherein the driving module (1-DM) includes a first driving assembly (1-DA1) to a fourth driving assembly (1-DA4), configured to independently move the first movable member to the fourth movable member, respectively, thereby driving the movable element to drive the deforming member to push a bottom of the first optical element (1-OE) so that optical properties of the liquid lens element is changed.
A cache system for use with a plurality of clients in communication with at least one server across a communications network, wherein each client is associated with a respective client cache memory and configured to store in said respective cache memory at least some data blocks that are, in use, transmitted between said client and said at least one server, the cache system comprising a plurality of cache managers including a respective client cache manager for managing each client cache memory, wherein one or more of said cache managers is arranged to maintain, in respect of each client cache memory, a respective data profile containing data that is indicative of the relative significance of data blocks stored in the respective client cache memory, and wherein said one or more of said cache managers is arranged to cause data that identifies data blocks stored in the respective client cache memory of each of the other client cache managers that are determined from the respective data profile to be relatively significant to be communicated to each of said client cache managers, and wherein said client cache managers are arranged to share at least some of said relatively significant data blocks.
A portable gas detector test fixture (102, 152), comprising: a test chamber; a processor; a docking connector communicatively coupled to the processor; an output device communicatively coupled to the processor; a memory communicatively coupled to the processor; an application stored in the memory that, when executed by the processor, is configured to conduct a bump test on a portable gas detector plugged into the docking connector and to output a bump test result to the output device; and an inflow line configured to connect to a test gas source line of a test gas container (118, 154), where the inflow line is coupled to the test chamber; the portable gas detector test fixture (102, 152) being characterized by: an outflow line configured to connect to a test gas return line of the test gas container (118, 154), where the outflow line is coupled to the test chamber, whereby test gas is returned to the test gas container and reused. a test chamber; a processor; a docking connector communicatively coupled to the processor; an output device communicatively coupled to the processor; a memory communicatively coupled to the processor; an application stored in the memory that, when executed by the processor, is configured to conduct a bump test on a portable gas detector plugged into the docking connector and to output a bump test result to the output device; and an inflow line configured to connect to a test gas source line of a test gas container (118, 154), where the inflow line is coupled to the test chamber; the portable gas detector test fixture (102, 152) being characterized by: an outflow line configured to connect to a test gas return line of the test gas container (118, 154), where the outflow line is coupled to the test chamber, whereby test gas is returned to the test gas container and reused.
A method comprising rubbing a powder comprising titanium dioxide particles against a surface of an aluminum substrate to form a layer bonded to the surface of the aluminum substrate, wherein the powder is essentially free of organic particles, and wherein the layer comprises titanium dioxide and elemental titanium.
A hook for bearing cables or hose pipes, said hook being made from a plastic, characterised in that said plastic is a translucent plastic and comprises a phosphorescent compound.
A process for treating a tailings stream comprising water, solids, and optionally polyacrylamide, comprising: (a) contacting the tailings stream with a silicate or silica source to form a mixture; b) after a pre-determined period of time of at least 5 minutes, contacting the mixture with an activator to initiate gel formation, wherein the gel entraps the solids within the gel; and c) allowing the gel to strengthen and solidify; wherein the silicate or silica source comprises an alkali metal silicate, a polysilicate microgel, a deionized silicate solution having a molar ratio of Si:M of at least 2.6 wherein M is an alkali metal, colloidal silica, or combinations thereof.
An aqueous suspension composition comprising i) at least one water soluble salt selected from water soluble fertilizers, water soluble pesticide salts, and combinations thereof, and having at least 20% solubility at 25°C in water, ii) at least one electrolyte water thickening polymer capable of thickening the composition selected from the group consisting of guar gum, hydroxyl propyl guar gum, quaternary guar gum, anionic guar gum, amphoteric guar gum, and mixtures thereof, iii) at least one solid agrochemical selected from the group consisting of methylethyl hydroxyethyl cellulose, a water insoluble pesticide having less than 2 wt% solubility at 25°C in water, a water insoluble growth regulator having less than 2 wt% solubility at 25°C in water, a water insoluble micronutrient having less than 2 wt% solubility at 25°C in water, and combinations and mixtures thereof, and the remainder water, wherein the composition displays shear thinning property and has a viscosity of less than 30000 mPa*s at 25°C as measured by a Brookfield viscometer DV-II Pro with a spindle #64 at 60 RPM, and wherein the concentration of the water soluble salt is from 15 to 70 wt%, the concentration of the electrolyte water thickening polymer is from 0.1 to 2 wt%, the concentration of the solid agrochemical is from 3 to 50 wt%, balanced with water to 100 wt%.
Compounds of the formula I in which R 1 denotes H or methyl, R 2 denotes A or Het, A denotes unbranched or branched alkyl with 1 - 8 C-Atoms, wherein one or two non-adjacent CH- and/or CH 2 -groups may be replaced by N- or O-atoms and/or wherein 1-7 H-atoms may be replaced by F or Cl, Het denotes pyrimidyl, pyridyl, pyridazinyl, pyrazinyl, piperidinyl, pyrrolidinyl, pyrazolyl, thiazolyl, imidazolyl, furanyl, thiophenyl, pyrrolyl, oxazolyl, triazolyl, oxadiazolyl or thiadiazolyl, each of which is unsubstituted or mono- or disubstituted by Hal, A, CN, OH and/or OA, Hal denotes F, Cl, Br or I, with the proviso that, if R 1 is H, then R 2 is not 4-OMe, and pharmaceutically acceptable salts, tautomers and stereoisomers thereof, including mixtures thereof in all ratios. R 1 denotes H or methyl, R 2 denotes A or Het, A denotes unbranched or branched alkyl with 1 - 8 C-Atoms, wherein one or two non-adjacent CH- and/or CH 2 -groups may be replaced by N- or O-atoms and/or wherein 1-7 H-atoms may be replaced by F or Cl, Het denotes pyrimidyl, pyridyl, pyridazinyl, pyrazinyl, piperidinyl, pyrrolidinyl, pyrazolyl, thiazolyl, imidazolyl, furanyl, thiophenyl, pyrrolyl, oxazolyl, triazolyl, oxadiazolyl or thiadiazolyl, each of which is unsubstituted or mono- or disubstituted by Hal, A, CN, OH and/or OA, Hal denotes F, Cl, Br or I,