mhurhangee/ep-ind-claims huggingface dataset:
A flooded-type lead acid battery comprising: a plate group including: a negative plate having a negative active material filled in a negative electrode current collector; and a positive plate having a positive active material filled in a positive electrode current collector, the negative plate and the positive plate being stacked on each other through a separator and accommodated in a battery container together with an electrolyte solution, the flooded-type lead acid battery being discharged to a load in a partially charged state, characterized In that only the negative plate is contacted, throughout a plate surface, with a nonwoven fabric formed of at least one fiber material selected from a material group consisting of glass, pulp, and polyolefin, which is not integrated with the plate, and the negative plate contacted with the nonwoven fabric is accommodated in an envelope separator formed of a microporous synthetic resin sheet. a plate group including: a negative plate having a negative active material filled in a negative electrode current collector; and a positive plate having a positive active material filled in a positive electrode current collector, the negative plate and the positive plate being stacked on each other through a separator and accommodated in a battery container together with an electrolyte solution, the flooded-type lead acid battery being discharged to a load in a partially charged state, characterized In that only the negative plate is contacted, throughout a plate surface, with a nonwoven fabric formed of at least one fiber material selected from a material group consisting of glass, pulp, and polyolefin, which is not integrated with the plate, and the negative plate contacted with the nonwoven fabric is accommodated in an envelope separator formed of a microporous synthetic resin sheet. a negative plate having a negative active material filled in a negative electrode current collector; and a positive plate having a positive active material filled in a positive electrode current collector, the negative plate and the positive plate being stacked on each other through a separator and accommodated in a battery container together with an electrolyte solution, the flooded-type lead acid battery being discharged to a load in a partially charged state, characterized In that only the negative plate is contacted, throughout a plate surface, with a nonwoven fabric formed of at least one fiber material selected from a material group consisting of glass, pulp, and polyolefin, which is not integrated with the plate, and the negative plate contacted with the nonwoven fabric is accommodated in an envelope separator formed of a microporous synthetic resin sheet.
A compound of the following general formula in which a substituted bipyridyl group and a pyridoindole ring structure are bonded via a phenylene group, wherein Ar 1 and Ar 2 may be the same or different, and represent a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted aromatic heterocyclic group, or a substituted or unsubstituted condensed polycyclic aromatic group; R 1 to R 17 may be the same or different, and represent a hydrogen atom, a deuterium atom, a fluorine atom, a chlorine atom, cyano, trifluoromethyl, linear or branched alkyl of 1 to 6 carbon atoms, a substituted or unsubstituted aromatic hydrocarbon group, a substituted or unsubstituted aromatic heterocyclic group, or a substituted or unsubstituted condensed polycyclic aromatic group; and W, X, Y, and Z represent a carbon atom or a nitrogen atom, where only one of W, X, Y, and Z is a nitrogen atom, and, in this case, the nitrogen atom does not have the hydrogen atom or substituent for R 14 to R 17.
Device for manufacturing containers by blow moulding, this device comprising: - a mould having a wall defining a mould cavity and being provided with a conduit for the circulation of a heat-transfer fluid, this conduit having, on an external face of the mould, a heat-transfer fluid inlet port and a heat-transfer fluid outlet port; - a plug provided with a heat-transfer fluid supply duct and with a heat-transfer fluid discharge duct; the mould and the plug being provided with complementary coupling means (44, 56; 25, 26, 37) allowing removable fixing of the plug on the mould with simultaneous connection of the supply duct to the inlet port and of the discharge duct to the outlet port, the complementary fluid coupling means (44; 25, 26) being separate from the complementary mechanical coupling means (56; 37). - a mould having a wall defining a mould cavity and being provided with a conduit for the circulation of a heat-transfer fluid, this conduit having, on an external face of the mould, a heat-transfer fluid inlet port and a heat-transfer fluid outlet port; - a plug provided with a heat-transfer fluid supply duct and with a heat-transfer fluid discharge duct;
A DEH cable, or power umbilical, comprising: a number of electric cables for transfer of large quantities of electric power/energy; filler material in the form of stiff elongate polymer elements (6, 7, 8) located at least partially around and between the number of electric cables, the number of electric cables and stiff elongate polymer elements (6, 7, 8) being gathered in a twisted bundle by means of a laying operation; a protective sheath that encompasses the electric cables and the filler material; and at least one load carrying element at a predetermined location in the cross section of the DEH power cable /power umbilical, the number of electric cables, the stiff elongate polymer elements and the at least one load carrying element, are either laid in a continuous helix, or alternately laid by continuously alternating direction, in the entire or part of the longitudinal extension of the DEH power cable /power umbilical to form a bundle, and characterized in that each stiff elongate polymer filler element (6, 7, 8) is manufactured of said polymer material, which polymer material has been added at least one constituent that transforms the filler material to be substantially more heat conducting and heat dissipating. a number of electric cables for transfer of large quantities of electric power/energy; filler material in the form of stiff elongate polymer elements (6, 7, 8) located at least partially around and between the number of electric cables, the number of electric cables and stiff elongate polymer elements (6, 7, 8) being gathered in a twisted bundle by means of a laying operation; a protective sheath that encompasses the electric cables and the filler material; and at least one load carrying element at a predetermined location in the cross section of the DEH power cable /power umbilical, the number of electric cables, the stiff elongate polymer elements and the at least one load carrying element, are either laid in a continuous helix, or alternately laid by continuously alternating direction, in the entire or part of the longitudinal extension of the DEH power cable /power umbilical to form a bundle, and characterized in that each stiff elongate polymer filler element (6, 7, 8) is manufactured of said polymer material, which polymer material has been added at least one constituent that transforms the filler material to be substantially more heat conducting and heat dissipating.
A method for solidification of a waste material, comprising: providing a waste material having a first volume; dewatering the waste material; drying the dewatered waste material; storing and metering the waste material to a mixer; metering a polymer to the mixer; mixing the polymer with the waste material to provide a polymer-waste mixture; curing the polymer in the polymer-waste mixture to provide a solidified monolith waste form having a continuous polymer matrix encapsulating the waste material; and wherein the dewatered waste material has a reduced volume from about 50% to about 95% of the original sluice volume of the waste material. providing a waste material having a first volume; dewatering the waste material; drying the dewatered waste material; storing and metering the waste material to a mixer; metering a polymer to the mixer; mixing the polymer with the waste material to provide a polymer-waste mixture; curing the polymer in the polymer-waste mixture to provide a solidified monolith waste form having a continuous polymer matrix encapsulating the waste material; and wherein the dewatered waste material has a reduced volume from about 50% to about 95% of the original sluice volume of the waste material.
System for providing 3D model parameters for fabricating a physical 3D anatomical model, comprising: - an imaging system configured to acquire three dimensional image data of an anatomical structure; - a reconstructor for reconstructing the acquired three dimensional image data into 3D model parameters; - a 3D model providing unit for directly or indirectly providing the 3D model parameters to a device for fabricating the physical 3D anatomical model, - a parameter provider for providing imaging acquisition parameters of the imaging system and/or reconstruction input parameters of the reconstructor, characterized in that said imaging acquisition parameters and/or reconstruction input parameters are optimized for maximum geometry precision. - an imaging system configured to acquire three dimensional image data of an anatomical structure; - a reconstructor for reconstructing the acquired three dimensional image data into 3D model parameters; - a 3D model providing unit for directly or indirectly providing the 3D model parameters to a device for fabricating the physical 3D anatomical model, - a parameter provider for providing imaging acquisition parameters of the imaging system and/or reconstruction input parameters of the reconstructor, characterized in that said imaging acquisition parameters and/or reconstruction input parameters are optimized for maximum geometry precision.
Drive system for a linearly movable extendable furniture component of a piece of furniture, in particular for an extendable drawer of a pharmacy cabinet, the drive system comprising a stationary component which can be fastened to the piece of furniture, a drive motor and a rail which is linearly movable relative to the stationary component in a extension direction and which has a rotatably mounted first guide roller on a first side of the rail and a rotatably mounted second guide roller on a second side of the rail, wherein a first pulling means which is fastened to the stationary component is placed around the first guide roller and the second guide roller and is in contact with an output shaft which can be driven by the drive motor in such a way that the rail can be moved in the extension direction by the drive motor, characterized in that the drive motor is fastened to the stationary component and the rail has a rotatably mounted third guide roller on the first side and a rotatably mounted fourth guide roller on the second side, around which a second pulling means is arranged in such a way that a movement of the rail in the extension direction causes a movement of the second pulling means relative to the rail in the extension direction, wherein the second pulling means is couplable to the linearly movable extendable furniture component.
A method for manufacturing a physical security element having a spatially appearing pattern, comprising the steps of: - providing a carrier, - providing at least one see-through transparent cover layer (7, 8), - applying a design layer onto the carrier, - wherein either the carrier has a lower dimensional stability under heat than the cover layer, or a cover layer has a lower dimensional stability under heat than the carrier, - wherein the design layer is deformable under pressure, - arranging a see-through transparent structural layer between carrier and cover layer forming the pattern, wherein the structural layer has a higher or a similar dimensional stability under heat than the carrier or a cover layer (7, 8), - laminating the carrier and the layers (3, 5, 7, 8) under pressure and heat, wherein during lamination the structural layer is pressed into the carrier or via the carrier into a cover layer, whereby the design layer is deformed in accordance with the pattern formed by the structural layer, and whereby the structural layer in its edge regions is reshaped in such a way that, in cross-section, the surfaces (17, 18) of the structural layer converge tangentially, characterized in that the thickness of the design layer is not changed at all or at most slightly, i.e. by max. 10%, by the deformation. - providing a carrier, - providing at least one see-through transparent cover layer (7, 8), - applying a design layer onto the carrier, - wherein either the carrier has a lower dimensional stability under heat than the cover layer, or a cover layer has a lower dimensional stability under heat than the carrier, - wherein the design layer is deformable under pressure, - arranging a see-through transparent structural layer between carrier and cover layer forming the pattern, wherein the structural layer has a higher or a similar dimensional stability under heat than the carrier or a cover layer (7, 8), - laminating the carrier and the layers (3, 5, 7, 8) under pressure and heat,
A boot program to be executed by a computer of an information processing apparatus before firmware is started, the boot program causing the computer to function as: identification information acquisition means for acquiring identification information of the firmware, the identification information being a version information; and key usability setting means (2, 62) for, based on a range corresponding to the identification information, setting each of a plurality of pieces of key data to be used for the firmware and stored in storage means to either of useable key data and unusable key data; characterized in that the plurality of pieces of key data vary with respect to each version, and the key usability setting means are configured to set, among the plurality of pieces of key data, a piece of key data corresponding to a version newer than the version acquired by the identification information acquisition means to be unusable. identification information acquisition means for acquiring identification information of the firmware, the identification information being a version information; and key usability setting means (2, 62) for, based on a range corresponding to the identification information, setting each of a plurality of pieces of key data to be used for the firmware and stored in storage means to either of useable key data and unusable key data; characterized in that the plurality of pieces of key data vary with respect to each version, and the key usability setting means are configured to set, among the plurality of pieces of key data, a piece of key data corresponding to a version newer than the version acquired by the identification information acquisition means to be unusable.
A kit comprising an elongated guide (100; 1100), a visor (300; 1302) and a carriage (200; 1200), the elongated guide (100; 1100) being removably attachable to a hardhat so that a long axis of the elongated guide (100; 1100) is at least generally coincident with a sagittal plane of the hardhat, wherein the elongated guide (100; 1100) is configured to slidably support the visor (300; 1302), which visor (300; 1302) is removably mountable to the elongated guide (100; 1100) so that the visor (300; 1302) is slidably movable along the long axis of the elongated guide (100; 1100) between at least a first, shielding position and a second, retracted position; and, wherein the visor (300; 1302) is removably mounted to, and slidably supported by, the elongated guide (100; 1100), by way of the carriage (200; 1200), which carriage (200; 1200) is non-removably connected to the visor (300; 1302) and is removably engaged with, and slidably supported, by the elongated guide (100; 1100).
Weapon coupling for use in the barrel of a weapon, wherein the weapon coupling comprises a loading block, a housing and at least one fixing device arranged on the housing, wherein the fixing device is designed for fixing a weapon, wherein the weapon coupling has a longitudinal direction, wherein the weapon coupling comprises a first actuator that is movable in the longitudinal direction, wherein the first actuator is designed for releasing and fixing the at least one fixing device, characterized in that the first actuator is movable by means of a first manipulator and a second manipulator, wherein the first manipulator is arranged in the vicinity of the weapon to be coupled on and the second manipulator is arranged away from the weapon to be coupled on.
A method for channel state information assisted multimedia transmission in a multiple in multiple out MIMO system for wireless network, comprising the steps of: making a MIMO system channel H from a receiver available at a transmitter; decomposing an estimated matrix H n for the MIMO channel H; pre-equalizing the signal with a unitary matrix of the decomposing step; separating the pre-equalized signal into a plurality of different source coded streams; and mapping each of the plurality of different source coded streams onto an antenna for transmission; wherein said decomposing step further comprises decomposing the estimated channel matrix H n by means of a singular value decomposition, SVD; wherein said decomposing step by SVD decomposes H n such that H n = U n ⁢ D n ⁢ V n ⁢ ʹ, where (a) U n and V n are unitary complex matrices of dimensions R x M and M x L respectively, and (b) D n is a real diagonal matrix of dimension M x M containing, in descending order, the non-negative singular values of H n, which are in fact the square roots of the eigen-values of H n H n ' or H n ' H n, wherein a received signal Y can then be expressed in terms of a transmitted signal X as Y = HX + N = U n ⁢ D n ⁢ V n ⁢ ʹX + N where N is the white Gaussian noise with a zero mean and a variance σ 2 characterised in that said separating step further comprises the step of using the diagonal matrix D n to separate the signal X into a plurality of different source coded streams. making a MIMO system channel H from a receiver available at a transmitter; decomposing an estimated matrix H n for the MIMO channel H; pre-equalizing the signal with a unitary matrix of the decomposing step; separating the pre-equalized signal into a plurality of different source coded streams; and mapping each of the plurality of different source coded streams onto an antenna for transmission; wherein said decomposing step further comprises decomposing the estimated channel matrix H n by means of a singular value decomposition, SVD; wherein said decomposing step by SVD decomposes H n such that H n = U n ⁢ D n ⁢ V n ⁢ ʹ, where (a) U n and V n are unitary complex matrices of dimensions R x M and M x L respectively, and (b) D n is a real diagonal matrix of dimension M x M containing, in descending order, the non-negative singular values of H n, which are in fact the square roots of the eigen-values of H n H n ' or H n ' H n, wherein a received signal Y can then be expressed in terms of a transmitted signal X as Y = HX + N = U n ⁢ D n ⁢ V n ⁢ ʹX + N where N is the white Gaussian noise with a zero mean and a variance σ 2 characterised in that said separating step further comprises the step of using the diagonal matrix D n to separate the signal X into a plurality of different source coded streams. (a) U n and V n are unitary complex matrices of dimensions R x M and M x L respectively, and (b) D n is a real diagonal matrix of dimension M x M containing, in descending order, the non-negative singular values of H n, which are in fact the square roots of the eigen-values of H n H n ' or H n ' H n,
A multilayer ceramic substrate obtained by laminating and sintering pluralities of ceramic green sheets, and having conductor patterns and via-conductors inside, said via-conductors being formed by a conductive paste filled into via-holes of the substrate and containing 88-94% by mass of Ag powder having an average particle size of 2.5 μm or less and 0.1-3% by mass of Pd powder having an average particle size of 1 μm or less, the total amount of said Ag powder and said Pd powder in said conductive paste being 88.1-95% by mass, the conductive paste being free of a glass component, and the via-conductors having a porosity of 10% or less, the porosity being calculated by Sv/S 0 × 100%, wherein S 0 is the cross-sectional area of a via-conductor and Sv is the total area of voids; the Ag crystal particles in the via-conductors having an average particle size of 12-20 μm, the particle size being expressed by the diameter of a circle having the same area as the Ag crystal particle; the area ratio of Ag crystal particles having a particle size of 25 μm or more being 5-50%, the area ratio being calculated by S/S 0 × 100%, wherein S 0 is the cross-sectional area of a via-conductor and S is the total area of Ag crystals having a particle size of 25 μm or more; and the via-holes after sintering having diameters of 150 μm or less and an aspect ratio (length/diameter) of 0.2-1.
A method for the vacuum-based leak testing of objects fed in a continuous flow, wherein a test body with an object is carried along a test section, characterised in that a reaction to a test of the object is detected by means of a sensor, in order to establish whether the object meets a quality criterion, wherein the test body is a sealing body, wherein for the vacuum-based leak testing of the objects fed in the continuous flow along with the test section, the sealing body is carried along with an object and subjected to a vacuum and a reaction of the object being acted upon by the vacuum is detected by means of the sensor, in order to establish whether the object is tight or leaky or dimensionally stable or functioning.