mhurhangee/ep-ind-claims huggingface dataset:
Method for the production of an activated carbon impregnated with at least one metal-organic framework (MOF material) in the form of discrete activated carbon particles, preferably for the production of an activated carbon with catalytic equipment, wherein the metal-organic framework is prepared in situ in the pores and/or in the porous system of the activated carbon from at least one metal precursor compound containing at least one metal and at least one ligand precursor, wherein the metal precursor compound and the ligand precursor are introduced into the pores and/or into the porous system of the activated carbon, wherein the metal precursor compound and the ligand precursor, together or independently of one another, are used in the form of at least one aqueous, aqueous-alcoholic or alcoholic solution and/or dispersion, wherein the introduction of the metal precursor compound and the ligand precursor, together or independently of one another, takes place in the pores and/or the porous system of the activated carbon by impregnating the activated carbon with the at least one solution and/or dispersion of the metal precursor compound and the ligand precursor, wherein, following the introduction of the metal precursor compound and/or of the ligand precursor, at least one drying of the activated carbon is carried out for at least substantially complete removal of the solution and/or dispersion from the pores and/or the porous system of the activated carbon, wherein the drying is carried out at temperatures in the range from 0 °C to 50 °C, wherein following the introduction of the metal precursor compound and the ligand precursor and following drying of the activated carbon, at least one thermal after-treatment is carried out for the transformation of the metal precursor compound with the ligand precursor to the metal-organic framework (MOF material), wherein the thermal after-treatment is carried out at a temperature in the range from 50 °C to 500 °C, and wherein the metal-organic framework (MOF material) is in crystalline form, wherein the particles of the metal-organic framework (MOF material) have an average particle size in the range from 0.1 nm to 500 nm.
A touch panel comprising: a first sheet; a second sheet, the first sheet and the second sheet opposing each other with a gap therebetween; a main conductive path formed on an inner surface of the second sheet; a supplementary conductive path (115a-115i) formed on the inner surface of the second sheet and spaced apart from the main conductive path as viewed in a normal direction of the first sheet; and a structure (545a-505i) disposed between the first sheet and the second sheet and configured to form a contact point (5233a-5233i), the contact point (5233a-5233i) overlapping the main conductive path and the supplementary conductive path (115a-115i) as viewed in the normal direction, characterized in that the structure (505a-505i) is supported by a supporting member (5231a-5231i, 5232a-5232i) in a state in which the contact point (5233a-5233i) is not in contact with either the main conductive path or the supplementary conductive path (115a-115i), and upon downward pressing of an edge of the structure (505a-505i) through the second sheet, the structure (505a-505i) pivots using the supporting member (5231a-5231i, 5232a-5232i) as a fulcrum point to cause the contact point (5233a-5233i) to contact the main conductive path and the supplementary conductive path (115a-115i). a first sheet; a second sheet, the first sheet and the second sheet opposing each other with a gap therebetween; a main conductive path formed on an inner surface of the second sheet; a supplementary conductive path (115a-115i) formed on the inner surface of the second sheet and spaced apart from the main conductive path as viewed in a normal direction of the first sheet; and a structure (545a-505i) disposed between the first sheet and the second sheet and configured to form a contact point (5233a-5233i), the contact point (5233a-5233i) overlapping the main conductive path and the supplementary conductive path (115a-115i) as viewed in the normal direction, characterized in that the structure (505a-505i) is supported by a supporting member (5231a-5231i, 5232a-5232i) in a state in which the contact point (5233a-5233i) is not in contact with either the main conductive path or the supplementary conductive path (115a-115i), and upon downward pressing of an edge of the structure (505a-505i) through the second sheet, the structure (505a-505i) pivots using the supporting member (5231a-5231i, 5232a-5232i) as a fulcrum point to cause the contact point (5233a-5233i) to contact the main conductive path and the supplementary conductive path (115a-115i).
Operating unit for a mobile radio telephone, wherein - the operating unit is constructed separately from the mobile radio telephone and can be connected to the mobile radio telephone, and wherein - the operating unit comprises a memory module which stores a first set of standardized functions for mobile radio telephones which contains the functions for setting up a fixed data link to the mobile radio telephone and for transmitting a model name of the mobile radio telephone, characterized in that the operating unit is designed a) to use functions in said first set to set up a fixed data link to the mobile radio telephone and to query a model name of the mobile radio telephone via said data link, b) to use the model name to check whether a second set of specialized functions of the mobile radio telephone is stored in the memory module, c) to use said first and second sets of functions to make it possible to operate the mobile radio telephone if said check reveals that the second set is stored in the memory module. - the operating unit is constructed separately from the mobile radio telephone and can be connected to the mobile radio telephone, and wherein - the operating unit comprises a memory module which stores a first set of standardized functions for mobile radio telephones which contains the functions for setting up a fixed data link to the mobile radio telephone and for transmitting a model name of the mobile radio telephone, characterized in that the operating unit is designed a) to use functions in said first set to set up a fixed data link to the mobile radio telephone and to query a model name of the mobile radio telephone via said data link, b) to use the model name to check whether a second set of specialized functions of the mobile radio telephone is stored in the memory module, c) to use said first and second sets of functions to make it possible to operate the mobile radio telephone if said check reveals that the second set is stored in the memory module. a) to use functions in said first set to set up a fixed data link to the mobile radio telephone and to query a model name of the mobile radio telephone via said data link, b) to use the model name to check whether a second set of specialized functions of the mobile radio telephone is stored in the memory module, c) to use said first and second sets of functions to make it possible to operate the mobile radio telephone if said check reveals that the second set is stored in the memory module.
A touch liquid crystal display device, comprising a first substrate and a second substrate arranged oppositely, a touch layer being formed on the first substrate, the touch layer being provided with a plurality of drive electrodes and sensing electrodes thereon, the second substrate being provided with a plurality of transverse drive lines and vertical drive lines thereon, characterised in that each of the drive electrode and the sensing electrode being composed of a plurality of transverse metal wires and vertical metal wires interlaced with each other, wherein the number of the transverse metal wires is less than the number of the transverse drive lines, or the number of the vertical metal wires is less than the number of the vertical drive lines.
A composition comprising: A group 2 metal imidazolate complex comprising: an imidazolate comprising: at least one selected from the group consisting of: 2,4,5-tri-tert-butylimidazolate; 2-tert-butyl-4,5-di-(1,1-dimethylpropyl) imidazolate; 2-(1,1-dimethylbutyl)-4,5-di-tert-butylimidazolate; 2-(1,1-dimethylbutyl)-4,5-di-(1,1-dimethylpropyl)imidazolate; 2-tert-butyl-4,5-di-(1,1-dimethylbutyl)imidazolate; 2,4,5-tri-(1,1-dimethylbutyl)imidazolate; 2,4,5-tri-(1,1-dimethylpropyl)imidazolate; 2-(1,1-dimethylpropyl)-4,5-di-(1,1-dimethylbutyl)imidazolate;and 2-(1,1-dimethylpropyl)-4,5-di-tert-butylimidazolate; a group 2 metal selected from barium, strontium, magnesium, radium, and calcium; and a ligand which coordinates to the group 2 metal imidazolate complex wherein the ligand is at least one selected from the group consisting of a nitrogen-containing monodentate C 4 to C 12 cyclic molecule, an oxygen-containing monodentate C 4 to C 12 cyclic molecule, a nitrogen-containing C 4 to C 12 bidentate ligand, an oxygen-containing C 4 to C 12 bidentate ligand, and a C 4 to C 12 bidentate ligand comprising nitrogen and oxygen; and a hydrocarbon solvent having a boiling point of 100°C or greater. A group 2 metal imidazolate complex comprising: an imidazolate comprising: at least one selected from the group consisting of: 2,4,5-tri-tert-butylimidazolate; 2-tert-butyl-4,5-di-(1,1-dimethylpropyl) imidazolate; 2-(1,1-dimethylbutyl)-4,5-di-tert-butylimidazolate; 2-(1,1-dimethylbutyl)-4,5-di-(1,1-dimethylpropyl)imidazolate; 2-tert-butyl-4,5-di-(1,1-dimethylbutyl)imidazolate; 2,4,5-tri-(1,1-dimethylbutyl)imidazolate; 2,4,5-tri-(1,1-dimethylpropyl)imidazolate; 2-(1,1-dimethylpropyl)-4,5-di-(1,1-dimethylbutyl)imidazolate;and 2-(1,1-dimethylpropyl)-4,5-di-tert-butylimidazolate; a group 2 metal selected from barium, strontium, magnesium, radium, and calcium; and a ligand which coordinates to the group 2 metal imidazolate complex wherein the ligand is at least one selected from the group consisting of a nitrogen-containing monodentate C 4 to C 12 cyclic molecule, an oxygen-containing monodentate C 4 to C 12 cyclic molecule, a nitrogen-containing C 4 to C 12 bidentate ligand, an oxygen-containing C 4 to C 12 bidentate ligand, and a C 4 to C 12 bidentate ligand comprising nitrogen and oxygen; and a hydrocarbon solvent having a boiling point of 100°C or greater.
Method of adjusting at least one sensor of installed building service sensors of a building service system, the method comprising the step of: automatically adjusting a sensor aperture or opening angle of said at least one sensor, the adjusting of the sensor aperture or opening angle of each of said at least one sensor being based on information on a position of the installed sensor relative to at least one other sensor of the installed building service sensors. automatically adjusting a sensor aperture or opening angle of said at least one sensor, the adjusting of the sensor aperture or opening angle of each of said at least one sensor being based on information on a position of the installed sensor relative to at least one other sensor of the installed building service sensors.
A method for producing a gasoline fuel formulation, which method comprises combining together (a) a biologically-derived alcohol and (b) a mixture of C 4 to C 12 hydrocarbon fuel components, the method comprising deriving all of said hydrocarbon fuel components whether directly or indirectly, from the catalytic conversion of a biologically-derived oxygenate component, in order to produce a gasoline fuel formulation that contains 60% v/v or more of the combination of (a) and (b) and from 0.1 to 30% v/v of the alcohol (a).
Method for operating an internal combustion engine, in particular an internal combustion engine of a motor vehicle, having a multi-channel fresh gas system for the supply of fresh gas to cylinders of the internal combustion engine, which fresh gas system has a plurality of fresh gas lines which lead to different cylinder groups which have in each case at least one cylinder, wherein in each of the fresh gas lines there is arranged at least one shut-off element which is coupled to a control and/or regulating device by means of which the supply of fresh gas to the internal combustion engine can be enabled or shut off to a defined extent in a controlled or regulated manner as a function of defined internal combustion engine operating parameters, having a multi-channel exhaust system for the discharge of exhaust gas out of the cylinders, which exhaust system has a plurality of exhaust lines, in particular corresponding in number to the number of fresh gas lines, which lead away from the different cylinder groups, and having a multi-channel exhaust-gas recirculation system, which is formed with a plurality of exhaust-gas recirculation lines, for recirculating exhaust gas from the exhaust system to the fresh gas system, wherein at least one exhaust-gas recirculation line branches off, and leads back to the fresh gas system, from at least a part of the exhaust lines, characterized in that crossed-channel exhaust-gas recirculation takes place, in which the exhaust-gas recirculation lines (21, 22) branching off from the exhaust lines (16, 17) of a certain channel lead back in each case to fresh gas lines (8a, 8b) of a different channel, wherein the shut-off elements of the individual fresh gas lines (8a, 8b) are actuated such that a fresh gas line (8a, 8b) which is shut off from the fresh gas supply by means of a shut-off element (11, 12) is supplied with exhaust gas from an exhaust line (16, 17) of a different channel, whose associated fresh gas line (8a, 8b) is not shut off from the fresh gas supply, via an exhaust-gas recirculation line (21, 22).
A method for the measurement of an insulation resistance of a system having a ground capacitance, the method comprising: - providing a DC voltage generator, and connecting it to the system; - supplying a first, higher voltage level to the system, thereby injecting a current into the system and charging the ground capacitance; - frequently or continuously determining the charging state of the ground capacitance; - when a boundary condition is met, switching the DC voltage generator from supplying the higher voltage level to supplying a second, lower voltage level to the system; - measuring the current injected into the system at the lower voltage level; - determining the value of the insulation resistance of the device, based on the measured injected current at the lower voltage level, characterised in that the boundary condition is defined in that the actual charging state of the ground capacitance, at the higher voltage level, has a value which corresponds to a fully charged state of the ground capacitance at the lower voltage level. - providing a DC voltage generator, and connecting it to the system; - supplying a first, higher voltage level to the system, thereby injecting a current into the system and charging the ground capacitance; - frequently or continuously determining the charging state of the ground capacitance; - when a boundary condition is met, switching the DC voltage generator from supplying the higher voltage level to supplying a second, lower voltage level to the system; - measuring the current injected into the system at the lower voltage level; - determining the value of the insulation resistance of the device, based on the measured injected current at the lower voltage level, characterised in that the boundary condition is defined in that the actual charging state of the ground capacitance, at the higher voltage level, has a value which corresponds to a fully charged state of the ground capacitance at the lower voltage level.
A UV-curable acrylate-based ink, particularly a UV-curable inkjet ink, containing pigment(s), radical photoinitiators, dispersant(s) and optionally further additives, characterised in that it contains at least two radical photoinitiators of Norrish Type I and at least one radically curable monomer in the form of a polyfunctional, alkoxylated and/or polyalkoxylated acrylate monomer, which includes one or more di- and/or tri-acrylates, wherein the molar ratio of all acrylates to all initiators is 7:1 to 19:1, particularly 7:1 to 15:1, and it has a viscosity (measured with the Bohlin apparatus at 45°C) of 5 to 15 mPa.s and wherein at least one of the radical photoinitiators of Norrish Type I is a bifunctional initiator, which includes two potential cleavage sites.
A method for wireless communication by a wireless device, comprising: identifying a plurality of downlink carriers for a transmission time interval, TTI; identifying a period of inactivity for one or more downlink carriers of the plurality of downlink carriers during the TTI; determining that a minimum bandwidth criteria for the wireless device is not satisfied; and transmitting narrowband reference signals, NB-RSs, over the one or more downlink carriers during the period of inactivity according to a channel reservation narrowband reference signal, NB-RS, pattern, the channel reservation NB-RS pattern comprising a first set of time-frequency resources associated with a baseline NB-RS pattern and a second set of supplemental time-frequency resources associated with the period of inactivity, wherein transmitting the second set of supplemental time-frequency resources during the period of inactivity allows the wireless device to satisfy the minimum bandwidth criteria for the wireless device during the period of inactivity. identifying a plurality of downlink carriers for a transmission time interval, TTI; identifying a period of inactivity for one or more downlink carriers of the plurality of downlink carriers during the TTI; determining that a minimum bandwidth criteria for the wireless device is not satisfied; and transmitting narrowband reference signals, NB-RSs, over the one or more downlink carriers during the period of inactivity according to a channel reservation narrowband reference signal, NB-RS, pattern, the channel reservation NB-RS pattern comprising a first set of time-frequency resources associated with a baseline NB-RS pattern and a second set of supplemental time-frequency resources associated with the period of inactivity, wherein transmitting the second set of supplemental time-frequency resources during the period of inactivity allows the wireless device to satisfy the minimum bandwidth criteria for the wireless device during the period of inactivity.
Flexographic printing method wherein a coating fluid - is directly transferred from a screen roller to a rubber-elastic circumferential surface of a transfer cylinder, - is directly transferred from the rubber-elastic circumferential surface to a non-rubber-elastic circumferential surface of a first cylinder, - is directly transferred from the non-rubber-elastic circumferential surface to a flexographic printing forme on a second cylinder, and - is directly transferred from the flexographic printing forme to the printing material. - is directly transferred from a screen roller to a rubber-elastic circumferential surface of a transfer cylinder, - is directly transferred from the rubber-elastic circumferential surface to a non-rubber-elastic circumferential surface of a first cylinder, - is directly transferred from the non-rubber-elastic circumferential surface to a flexographic printing forme on a second cylinder, and - is directly transferred from the flexographic printing forme to the printing material.
Device for positioning a power semiconductor on a receiving body, wherein the power semiconductor has an edge region, and wherein a positioning means is provided which is configured to receive the edge region of the power semiconductor such that a movement of the power semiconductor in the region of an inner angle is limited, characterised in that the positioning means is a stop plate which is arranged on the surface of the receiving body and has a curved edge receiving the edge region of the power semiconductor, wherein the inner angle is predefined by two legs (102, 104) which, starting from end points of the curved edge, meet at the centre point of the power semiconductor.
A method for processing an autonomous transmission of a User Equipment, UE, applied in the UE, the method comprising: reporting (210, 310) capability information, wherein the capability information comprises a capability to support the autonomous transmission and a collision handling capability of supporting handling of resource collision scenarios comprising any one or more of Dynamic Grant, DG, vs Configured Grant, CG, CG vs CG, DG vs DG, and Uplink, UL,-Shared Channel, SCH, vs Uplink Control Information, UCI, in which a de-prioritized Medium Access Control, MAC, Protocol Data Unit, PDU, is present; receiving, by the UE, first information comprising autonomous transmission information or information indicating activation or configuration of the autonomous transmission, wherein the first information comprises a first time length, the first time length being used for determining time for the UE to perform the autonomous transmission; and performing (214, 315) the autonomous transmission based on the first information, in response to determining (212, 313) from the first information that the autonomous transmission is configured or activated. reporting (210, 310) capability information, wherein the capability information comprises a capability to support the autonomous transmission and a collision handling capability of supporting handling of resource collision scenarios comprising any one or more of Dynamic Grant, DG, vs Configured Grant, CG, CG vs CG, DG vs DG, and Uplink, UL,-Shared Channel, SCH, vs Uplink Control Information, UCI, in which a de-prioritized Medium Access Control, MAC, Protocol Data Unit, PDU, is present; receiving, by the UE, first information comprising autonomous transmission information or information indicating activation or configuration of the autonomous transmission, wherein the first information comprises a first time length, the first time length being used for determining time for the UE to perform the autonomous transmission; and performing (214, 315) the autonomous transmission based on the first information, in response to determining (212, 313) from the first information that the autonomous transmission is configured or activated.
A charger for an electric vehicle, the charger comprising: a light emitting unit displaying charging operation information of the charger; a communication unit performing near-field wireless communication with an external device; and a control unit controlling operations of the light emitting unit and the communication unit, characterized in that the charger further comprises a guide (125,126) guiding visible light of the light emitting unit, wherein the guide comprises a reflective layer (125R,126R) surrounding a portion of the outside of the guide to reflect the visible light toward the inside of the guide. a light emitting unit displaying charging operation information of the charger; a communication unit performing near-field wireless communication with an external device; and a control unit controlling operations of the light emitting unit and the communication unit, characterized in that the charger further comprises a guide (125,126) guiding visible light of the light emitting unit, wherein the guide comprises a reflective layer (125R,126R) surrounding a portion of the outside of the guide to reflect the visible light toward the inside of the guide.