mhurhangee/ep-ind-claims huggingface dataset:
A method for producing material panels in a continuously operating press, in which a pressed material mat is subjected in the production direction to clamping and/or compression in an inlet region before a main pressing region by steel belts (2, 3) guided around deflection rollers and supported via roller bars, wherein inlet heating plates and/or hinge plates (12, 13) are adjustable and/or bendable in the inlet region with respect to their distance from each other for setting the geometry of the inlet gap in the production direction, characterized in that during the passage through the inlet region (I, II) the pressed material mat, in at least one section in the production direction, is clamped and/or compressed from one surface side by an inlet heating plate which is substantially linear transversely to the production direction or at least by two hinge plates (12, 13) which are substantially linear transversely to the production direction, and from the opposite surface side by an inlet heat plate which is bent at least in the region of the longitudinal center line in the direction of the pressed material mat transversely to the production direction.
A glass plate for a concrete conveying pump, comprising a steel base with two feeding through holes thereon, the end face of the steel base is embedded and welded with a wear-resistant material slide joint surface, shear rings are assembled in the two feeding through holes of the steel base, which are provided with openings, wherein grooves are formed on inner circular faces of the feeding through holes, and outer circular faces of the shear rings are provided with flanges matched with the grooves, characterized in that along the axial direction, a centrally dividing plane of the shear ring is taken as a symmetry plane, and the grooves and the flanges are symmetrically arranged with respect to the symmetry plane.
A hub for a tearaway sheath assembly, having a hub body having a distal end portion that is affixable to a proximal end portion of a sheath tube, a proximal end and a proximal end portion, a transition portion between the distal and proximal end portions, and a passageway extending therethrough, and the hub comprises two opposing sections (116,118) divided by a pair of opposing gaps alignable during assembly to the sheath tube with a pair of opposed frangible seams of the sheath tube, characterized in that: the transition portion is frustoconical, and the two opposing hub sections (116,118) are joined together within portions of the gaps by frangible webs, wherein the frangible webs of the hub are provided along the transition portion of the hub and wherein the frangible webs of the hub do neither traverse the gaps in the proximal end nor in the distal end portion. the transition portion is frustoconical, and the two opposing hub sections (116,118) are joined together within portions of the gaps by frangible webs, wherein the frangible webs of the hub are provided along the transition portion of the hub and wherein the frangible webs of the hub do neither traverse the gaps in the proximal end nor in the distal end portion.
An active filter device for a power supply comprising a source having a source current is and a voltage V E, a power converter presenting an input inductor L, a power switch T controlled by a chopper signal and delivering an output voltage V S, and a load, comprising an active filter converter for generating at its output a compensation current of the harmonics of the source current due to the chopping, in response to an input signal representative of the chopping of the power converter, said active filter converter presenting at least one filter module presenting in series from a first terminal of the filter converter an inductor L', and characterized in that the active filter converter further presents a first (C 0) and a second (C 1) capacitors and a first (T F1) and a second (T F2) switches that are controlled in opposition, that are connected respectively between a first and a second terminal of the second capacitor, and a second terminal of the filter converter, and also a DC-DC converter module (AL 1, AL 2) controlled at a chopper frequency to maintain at their reference values the voltages (U 0, U 1) at the terminals of the first capacitor (C 0) and of the second capacitor (C 1).
A benzyl phenyl ether derivative represented by formula (IA-1), or a pharmaceutically acceptable salt or a stereoisomer thereof; wherein: R 2 is selected from cyano and methylsulfonyl; R 3 is selected from substituted C 1 -C 8 saturated alkylamino, substituted C 2 -C 6 unsaturated alkylamino, substituted N-containing C 2 -C 6 heterocycle-1-yl, wherein each is mono-, di-, tri-, or tetra-substituted with substituent(s) selected from fluorine, chlorine, bromine, iodine, hydroxy, C 1 -C 5 alkyl, C 1 -C 5 alkoxy, amino, C 1 -C 6 alkylamino, acetylamino, cyano, ureido (-NH(C=O)NH 2), guanidino (-NH(C=NH)NH 2), ureido amino (-NH-NH(C=O)NH 2), guanidino amino (-NH-NH(C=NH)NH 2), sulfonylamino (-NHSO 3 H), sulfamoyl (-SO 2 NH 2), methanesulfonylamino (-NH-SO 2 CH 3), hydroxyformyl (-COOH), C 1 -C 8 alkoxyl carbonyl, sulfydryl, imidazolyl, thiazolyl, oxazolyl, tetrazolyl, X is selected from hydrogen, fluorine, chlorine, bromine, iodine, C 1 -C 4 alkyl, ethenyl, trifluoromethyl, and methoxy. R 2 is selected from cyano and methylsulfonyl; R 3 is selected from substituted C 1 -C 8 saturated alkylamino, substituted C 2 -C 6 unsaturated alkylamino, substituted N-containing C 2 -C 6 heterocycle-1-yl, wherein each is mono-, di-, tri-, or tetra-substituted with substituent(s) selected from fluorine, chlorine, bromine, iodine, hydroxy, C 1 -C 5 alkyl, C 1 -C 5 alkoxy, amino, C 1 -C 6 alkylamino, acetylamino, cyano, ureido (-NH(C=O)NH 2), guanidino (-NH(C=NH)NH 2), ureido amino (-NH-NH(C=O)NH 2), guanidino amino (-NH-NH(C=NH)NH 2), sulfonylamino (-NHSO 3 H), sulfamoyl (-SO 2 NH 2), methanesulfonylamino (-NH-SO 2 CH 3), hydroxyformyl (-COOH), C 1 -C 8 alkoxyl carbonyl, sulfydryl, imidazolyl, thiazolyl, oxazolyl, tetrazolyl, X is selected from hydrogen, fluorine, chlorine, bromine, iodine, C 1 -C 4 alkyl, ethenyl, trifluoromethyl, and methoxy.
A compound cycle engine (10; 110; 210) comprising: an output shaft; at least two rotary units with each unit defining an internal combustion engine including a rotor sealingly and rotationally received within a respective housing, each housing defining an inlet port and an exhaust port, the rotor of each unit being mounted on the output shaft and in driving engagement therewith; a velocity turbine including a rotor in driving engagement with the output shaft between two of the rotary units and supporting a circumferential array of blades extending across a flowpath, the exhaust port of each housing being in fluid communication with the flowpath upstream of the rotor of the velocity turbine; and a turbocharger including a compressor and a pressure turbine in driving engagement through a common shaft, an outlet of the compressor being in fluid communication with the inlet port of each housing, and an inlet of the pressure turbine being in fluid communication with the flowpath downstream of the rotor of the velocity turbine. an output shaft; at least two rotary units with each unit defining an internal combustion engine including a rotor sealingly and rotationally received within a respective housing, each housing defining an inlet port and an exhaust port, the rotor of each unit being mounted on the output shaft and in driving engagement therewith; a velocity turbine including a rotor in driving engagement with the output shaft between two of the rotary units and supporting a circumferential array of blades extending across a flowpath, the exhaust port of each housing being in fluid communication with the flowpath upstream of the rotor of the velocity turbine; and a turbocharger including a compressor and a pressure turbine in driving engagement through a common shaft, an outlet of the compressor being in fluid communication with the inlet port of each housing, and an inlet of the pressure turbine being in fluid communication with the flowpath downstream of the rotor of the velocity turbine.
A slurry for forming a diffusion coating on a surface of a component, the slurry comprising, by weight: between 10% and 40% metal powder; between 10% and 15% activator; between 10% and 20% polyethylene oxide; between 10% and 20% thickener; up to 30% ceramic; and up to 25% binder. between 10% and 40% metal powder; between 10% and 15% activator; between 10% and 20% polyethylene oxide; between 10% and 20% thickener; up to 30% ceramic; and up to 25% binder.
The baby bath for toddlers and infants between 500 and 1200 mm of size is characterized by at least four jets connected with a hydro-massage system and at least five jets connected with an air-massage system, the jets (2, 3) have outlet openings of the size 0,5 to 20 mm, connected to a water pump with the output 20 to 150 W and/or to an air ventilator with the output 4 to 60 W.
A test strip device for detecting the presence of a target analyte in a fluid applied to the device, the device comprising: i) a displacement area having a first immobilised marker which can be displaced by the presence of the target analyte to produce a first released marker, wherein the displacement occurs by disrupting the binding of a double stranded nucleic acid strand interaction, wherein one of the strands is immobilised, and wherein the first released marker comprises a protease; ii) a signal amplification area having further immobilised markers or detectable markers which can be released by the presence of the protease; iii) optionally one or more further signal amplification areas having further immobilised markers which can be released by the presence of a released marker, wherein one or more of the signal amplification areas releases a detectable marker; and iv) one or more detection areas which can identify the presence of any of the detectable markers released from the signal amplification area or areas; wherein the displacement area, signal amplification area(s) and detection area(s) are connected on a porous material such that fluid can flow from the displacement area through the signal amplification area(s) and into the detection area(s) upon application of the fluid to the device. i) a displacement area having a first immobilised marker which can be displaced by the presence of the target analyte to produce a first released marker, wherein the displacement occurs by disrupting the binding of a double stranded nucleic acid strand interaction, wherein one of the strands is immobilised, and wherein the first released marker comprises a protease; ii) a signal amplification area having further immobilised markers or detectable markers which can be released by the presence of the protease; iii) optionally one or more further signal amplification areas having further immobilised markers which can be released by the presence of a released marker, wherein one or more of the signal amplification areas releases a detectable marker; and iv) one or more detection areas which can identify the presence of any of the detectable markers released from the signal amplification area or areas; wherein the displacement area, signal amplification area(s) and detection area(s) are connected on a porous material such that fluid can flow from the displacement area through the signal amplification area(s) and into the detection area(s) upon application of the fluid to the device.
A load capping arrangement for stabilising a load which comprises a plurality of articles, wherein the load capping arrangement comprises a central region for engaging at least some of the articles, and a rim arrangement extending around the central region, the rim arrangement being deformable from a non-deformed condition to a deformed condition around the load, characterised in that the rim arrangement comprises a plurality of elongate torsion bars extending along a periphery of the central region..
A composition comprising an oncolytic virus for use in treating cancer in a mammal identified as having cancer cells that have a virotherapy permissive interferon -stimulated gene signature, wherein said ISG signature comprises at least 6 ISGs selected from the group consisting of HLA-A, HLA-B, HLA-C, HLA-E, HLA-G, IFI27, IFI35, IFI6, IFITI, IFIT3, IRF1, IRF2, IRF9, ISG15, MX1, MX2, OAS1, OAS2, OAS3, OASL, SOCS1, and STAT2, wherein one of the genes is HLA-A, wherein said virotherapy permissive ISG signature comprises decreased levels of expression as compared to control cells, and wherein said cancer is glioblastoma or ovarian cancer. wherein one of the genes is HLA-A, wherein said virotherapy permissive ISG signature comprises decreased levels of expression as compared to control cells, and wherein said cancer is glioblastoma or ovarian cancer.
An energy collector for obtaining electrical energy from mechanical vibrations, comprising: a. a housing b. a coupling element, which is connected in a frictionlocked and/or formfitting manner to the housing, so that mechanical vibrations of the housing are transferred to the coupling element; c. a structure capable of oscillating comprising at least two spring elements and an oscillating mass, d. an electromechanical transducer, wherein the electromechanical transducer and the structure capable of oscillating are configured to generate electrical energy during an oscillation of the structure capable of oscillating, characterized in that the energy collector comprises a clamping element and an actuator, which are configured for a switchable clamp connection between each of the at least two spring elements of the structure capable of oscillating and the coupling element. a. a housing b. a coupling element, which is connected in a frictionlocked and/or formfitting manner to the housing, so that mechanical vibrations of the housing are transferred to the coupling element; c. a structure capable of oscillating comprising at least two spring elements and an oscillating mass, d. an electromechanical transducer, wherein the electromechanical transducer and the structure capable of oscillating are configured to generate electrical energy during an oscillation of the structure capable of oscillating,
An implantable device adapted for implantation in the human or animal body, the device including tissue anchoring means for fixation in tissue where the tissue anchoring means comprises a permanent topographical patterning on at least an area of a surface of the device characterized in, that the device is further: - equipped with indentations where the dimensions of the indentations is having a width in the range from 100-5000 μm and a depth in the range between 50-500 μm and where - the topographical patterning is formed as structures in the form of pillars/islands protruding out of the surface of the indentation or wells/pits into the surface of the indentation and where the width of the structures is in the range from 1 to 10 μm with a height/depth of 1 to 50 μm, and edge-to-edge spacing between 1 to 10 μm and where - the permanent topographical patterning is imprinted physically by an injection mould, alternatively by hot embossing. - equipped with indentations where the dimensions of the indentations is having a width in the range from 100-5000 μm and a depth in the range between 50-500 μm and where - the topographical patterning is formed as structures in the form of pillars/islands protruding out of the surface of the indentation or wells/pits into the surface of the indentation and where the width of the structures is in the range from 1 to 10 μm with a height/depth of 1 to 50 μm, and edge-to-edge spacing between 1 to 10 μm and where - the permanent topographical patterning is imprinted physically by an injection mould, alternatively by hot embossing.
A dual-phase mouthwash comprising: a hydrophilic phase; a hydrophobic phase comprising at least two oils, one of said oils being coconut oil in an amount of from 0.05% - 2% by weight of the dual-phase mouthwash, and mineral oil, silicone oil or mixtures thereof in an amount of from 5% - 15% by weight of the dual-phase mouthwash; and a hydrotrope component comprising glycerin, sorbitol, or combinations thereof; wherein the mouthwash is prepared by a process comprising the steps of: a) dispersing coconut oil in a hydrophobic composition comprising an oil to form a mixture; and b) combining the mixture with the hydrophilic phase and the hydrotrope component. a hydrophilic phase; a hydrophobic phase comprising at least two oils, one of said oils being coconut oil in an amount of from 0.05% - 2% by weight of the dual-phase mouthwash, and mineral oil, silicone oil or mixtures thereof in an amount of from 5% - 15% by weight of the dual-phase mouthwash; and a hydrotrope component comprising glycerin, sorbitol, or combinations thereof; wherein the mouthwash is prepared by a process comprising the steps of: a) dispersing coconut oil in a hydrophobic composition comprising an oil to form a mixture; and b) combining the mixture with the hydrophilic phase and the hydrotrope component. a) dispersing coconut oil in a hydrophobic composition comprising an oil to form a mixture; and b) combining the mixture with the hydrophilic phase and the hydrotrope component.
A working fluid supply device of an electric discharge machine, wherein the electric discharge machine is configured to machine a workpiece attached to a working tank in such a manner that the workpiece is immersed in a working fluid in the working tank by the working fluid supply device, and the working fluid supply device comprises: a cleaned-fluid tank; an ion-exchange resin; a refrigerator; a pump configured to draw up a cleaned fluid from the cleaned-fluid tank; characterised in that the working fluid supply device further comprises a first fluid circuit configured to supply the cleaned fluid drawn up by the pump to the working tank; a second fluid circuit configured to supply the cleaned fluid drawn up by the pump to the ion-exchange resin and the refrigerator; a first valve provided in the first fluid circuit; a second valve provided in the second fluid circuit; and a controller configured to performs open/close control of each of the first and second valves (18, 19) so that the cleaned fluid drawn up by the pump is supplied to the first or second fluid circuit. a cleaned-fluid tank; an ion-exchange resin; a refrigerator; a pump configured to draw up a cleaned fluid from the cleaned-fluid tank; characterised in that the working fluid supply device further comprises a first fluid circuit configured to supply the cleaned fluid drawn up by the pump to the working tank; a second fluid circuit configured to supply the cleaned fluid drawn up by the pump to the ion-exchange resin and the refrigerator; a first valve provided in the first fluid circuit; a second valve provided in the second fluid circuit; and a controller configured to performs open/close control of each of the first and second valves (18, 19) so that the cleaned fluid drawn up by the pump is supplied to the first or second fluid circuit.
A terminal comprising: a measuring unit configured to execute sensing of a resource set with which signals from one or more other terminals are transmitted; a control unit configured to determine, based on a measurement result of the resource set by the sensing, whether to operate as a first device that allocates a resource in the resource set associated with a cluster or to operate as a second device to which a resource is allocated by the first device in the cluster formed of a plurality of units of terminals; and a communication unit configured to execute communication with the one or more other terminals wherein the terminal is configured to transmit information regarding the measurement result of the resource set by sensing to a base station apparatus, and to receive information indicating whether to operate as the first device or the second device from the base station apparatus. a measuring unit configured to execute sensing of a resource set with which signals from one or more other terminals are transmitted; a control unit configured to determine, based on a measurement result of the resource set by the sensing, whether to operate as a first device that allocates a resource in the resource set associated with a cluster or to operate as a second device to which a resource is allocated by the first device in the cluster formed of a plurality of units of terminals; and a communication unit configured to execute communication with the one or more other terminals wherein the terminal is configured to transmit information regarding the measurement result of the resource set by sensing to a base station apparatus, and to receive information indicating whether to operate as the first device or the second device from the base station apparatus.
A computer-implemented method, comprising: determining an equation of state, i.e., EOS for each of more than one regions of a reservoir based on results of one or more pressure, volume, or temperature, i.e., PVT experiments conducted on samples of downhole fluids obtained from the regions of the reservoir, wherein the one or more PVT experiments include at least one of a differential liberation test, a constant mass expansion test, a constant vapor depletion test, a swelling test, or fluid density measurements; determining compositions of the samples of the downhole fluids; spatially mapping the determined compositions of the samples of the downhole fluids based on interpolations between the regions of the reservoir; simulating one or more PVT experiments for the spatially mapped compositions of the downhole fluids using the determined EOS to create a compositional database of the reservoir; training one or more machine-learning algorithms using the compositional database; and using the trained one or more machine-learning algorithms to predict phase stability and perform flash calculations for compositional reservoir simulation. determining an equation of state, i.e., EOS for each of more than one regions of a reservoir based on results of one or more pressure, volume, or temperature, i.e., PVT experiments conducted on samples of downhole fluids obtained from the regions of the reservoir, wherein the one or more PVT experiments include at least one of a differential liberation test, a constant mass expansion test, a constant vapor depletion test, a swelling test, or fluid density measurements; determining compositions of the samples of the downhole fluids; spatially mapping the determined compositions of the samples of the downhole fluids based on interpolations between the regions of the reservoir; simulating one or more PVT experiments for the spatially mapped compositions of the downhole fluids using the determined EOS to create a compositional database of the reservoir; training one or more machine-learning algorithms using the compositional database; and using the trained one or more machine-learning algorithms to predict phase stability and perform flash calculations for compositional reservoir simulation.