mhurhangee/ep-ind-claims huggingface dataset:
A car audio output control device, comprising: a storage unit that stores an identification code for each output mode with respect to a plurality of output modes; an interface unit that receives a device acoustic source and an identification code defining an attribute of the device acoustic source from a peripheral device when an acoustic source generated from the peripheral device is detected; and a control unit that controls an output of a car audio such that when a device acoustic source and an identification code are received through the interface unit while a source acoustic source self-generated from the car audio is outputted, the control unit selects one output mode matched with the received identification code from among the plurality of output modes, and controls according to the selected output mode: an acoustic source path from the source acoustic source of the car audio to a car audio output unit; and an acoustic source path from the device acoustic source of the peripheral device to the car audio output unit, so as to output an acoustic source corresponding to a change in the acoustic source paths, wherein the acoustic source paths and acoustic source states of the output of the car audio are controlled so as to be different with respect to each of the plurality of output modes. a storage unit that stores an identification code for each output mode with respect to a plurality of output modes; an interface unit that receives a device acoustic source and an identification code defining an attribute of the device acoustic source from a peripheral device when an acoustic source generated from the peripheral device is detected; and a control unit that controls an output of a car audio such that when a device acoustic source and an identification code are received through the interface unit while a source acoustic source self-generated from the car audio is outputted, the control unit selects one output mode matched with the received identification code from among the plurality of output modes, and controls according to the selected output mode: an acoustic source path from the source acoustic source of the car audio to a car audio output unit; and an acoustic source path from the device acoustic source of the peripheral device to the car audio output unit, so as to output an acoustic source corresponding to a change in the acoustic source paths, an acoustic source path from the source acoustic source of the car audio to a car audio output unit; and an acoustic source path from the device acoustic source of the peripheral device to the car audio output unit, so as to output an acoustic source corresponding to a change in the acoustic source paths, wherein the acoustic source paths and acoustic source states of the output of the car audio are controlled so as to be different with respect to each of the plurality of output modes.
A system comprising: a repeater (125, 305) for relaying data between a base station and a handset (130, 320), the repeater configured to receive data from a plurality of base stations of (105, 110, 115, 120) cells in a network and relay at least a portion of the received data to a handset on a first channel; and a data processor coupled to the repeater, the data processor configured to extract, from the received data, network information characterizing different channels in a network being utilized by neighbor cells, the data processor configured to determine, from a set of supported channels that the repeater is capable of utilizing for relaying data and using the extracted network information including a neighbor cell list providing frequencies of channels utilized by the plurality of neighbor cells, a set of monitor channels including only frequencies provided by the neighbor cell list; wherein the repeater (125,305) is configured to monitor a channel characteristic of channels contained in the set of monitor channels; wherein the data processor is configured to reconfigure the repeater to relay the data signal on a second channel selected from the set of monitor channels, the reconfiguration is in response to a change in the first channel based at least in part on the channel characteristic of the channels contained in the set of monitor channels; and wherein the network information includes cell selection criteria broadcast by the network to the handset or cell reselection criteria broadcast by the network. a repeater (125, 305) for relaying data between a base station and a handset (130, 320), the repeater configured to receive data from a plurality of base stations of (105, 110, 115, 120) cells in a network and relay at least a portion of the received data to a handset on a first channel; and a data processor coupled to the repeater, the data processor configured to extract, from the received data, network information characterizing different channels in a network being utilized by neighbor cells, the data processor configured to determine, from a set of supported channels that the repeater is capable of utilizing for relaying data and using the extracted network information including a neighbor cell list providing frequencies of channels utilized by the plurality of neighbor cells, a set of monitor channels including only frequencies provided by the neighbor cell list; wherein the repeater (125,305) is configured to monitor a channel characteristic of channels contained in the set of monitor channels; wherein the data processor is configured to reconfigure the repeater to relay the data signal on a second channel selected from the set of monitor channels, the reconfiguration is in response to a change in the first channel based at least in part on the channel characteristic of the channels contained in the set of monitor channels; and wherein the network information includes cell selection criteria broadcast by the network to the handset or cell reselection criteria broadcast by the network.
Dental implant assembly comprising an implant having an outer implant surface configured for osseointegration, a connector portion integrally formed with an implant, and an abutment comprising a prosthesis mounting portion for assembly of a dental prosthesis thereon and a connector mounting cavity, the connector portion comprising an abutment mounting portion for assembly in the connector mounting cavity of the abutment, wherein the abutment mounting portion of the connector portion comprises a conical upper attachment portion and a conical lower attachment portion connected to the upper attachment portion via a stepped transition, characterized in that the diameter of the bottom end of the upper attachment portion is greater than the diameter of the top end of the lower attachment portion, whereby the conical upper attachment portion comprises a cone taper angle configured for friction fit mounting in the connector mounting cavity of the abutment, and the lower attachment portion comprises a cone taper angle configured for friction fit mounting in the connector mounting cavity of the abutment when the upper attachment portion is cut off.
A containment assembly for a gas turbine engine, the containment assembly comprising: a casing; an outer impact structure disposed radially within the casing and comprising a material having a first compressive strength; and an inner impact structure disposed radially within the outer impact structure and comprising a material having a second compressive strength different to the first compressive strength; wherein the outer impact structure and the inner impact structure axially extend between a fan portion of the containment assembly corresponding to an axial location of a fan and a forward portion of the containment assembly axially forward of the fan portion; characterised in that at least one of the outer impact structure and the inner impact structure has a discontinuous profile between the forward portion and the fan portion so that there is a local reduction in compressive strength in the fan portion. a casing; an outer impact structure disposed radially within the casing and comprising a material having a first compressive strength; and an inner impact structure disposed radially within the outer impact structure and comprising a material having a second compressive strength different to the first compressive strength; wherein the outer impact structure and the inner impact structure axially extend between a fan portion of the containment assembly corresponding to an axial location of a fan and a forward portion of the containment assembly axially forward of the fan portion; characterised in that at least one of the outer impact structure and the inner impact structure has a discontinuous profile between the forward portion and the fan portion so that there is a local reduction in compressive strength in the fan portion.
Switch of a transport system for a plurality of movable transport elements, where the switch comprises a main track and a secondary track branching off, where one of the movable transport elements can be guided from a transition region, in which the secondary track branches off from the main track, optionally along the main track or transferred into the secondary track, where one or more linear motor sections (5a, 5b, 5c, 5d) are respectively provided at the main track and at the secondary track for moving the movable transport element, where a normal force is present between the movable transport element and the adjacent linear motor section or the adjacent linear motor sections (5a, 5b, 5c, 5d) which forms due to the magnetic reaction element at the movable transport element between the latter and the linear motor section or linear motor sections, where the normal force also is present without applying current to the linear motor sections due to the magnetic reaction element, where the force for selectively guiding the movable transport element along the main track or in direction of the secondary track is referred to as switching force, where the switching forces are superimposed onto the normal force in the switch region, and where disturbances are typically greater the greater the normal force is, characterised in that devices for changing the normal force are provided in the transition region, where the devices are provided to reduce the normal force, the transition region comprises a region in which each of the plurality of transport elements takes the same path, regardless of whether it is then guided further along the main track or into the secondary track and devices for reducing the normal force are already provided in the region, whereby even upstream of the separation of the paths either along the main track or into the secondary track a force effect on the transport element is ensured. characterised in that devices for changing the normal force are provided in the transition region, where the devices are provided to reduce the normal force, the transition region comprises a region in which each of the plurality of transport elements takes the same path, regardless of whether it is then guided further along the main track or into the secondary track and devices for reducing the normal force are already provided in the region, whereby even upstream of the separation of the paths either along the main track or into the secondary track a force effect on the transport element is ensured.
Method used for producing monobloc concrete staircases in situ using a closed mould comprising a lower mould and an upper mould or cover (3, 4), defining between each other a volume designed for filling with concrete, consisting in: ▪ Attaching and installing the lower mould in an operational position, that is, directly on the site in consideration; ▪ Positioning the upper mould or cover (3, 4) opposite the said lower mould and attaching it to the said lower mould; ▪ Injecting concrete into the volume formed by the two respectively lower mould and upper mould (3,4) until the said volume is full; Characterised: ▪ in that the type of concrete is of the self-levelling type, and injected from the lower base of the volume formed by the two moulds, respectively the lower and upper moulds; ▪ and in that, after the concrete is fully set, the upper mould and lower mould are released and the staircase thus built is turned out in its final location. ▪ Attaching and installing the lower mould in an operational position, that is, directly on the site in consideration; ▪ Positioning the upper mould or cover (3, 4) opposite the said lower mould and attaching it to the said lower mould; ▪ Injecting concrete into the volume formed by the two respectively lower mould and upper mould (3,4) until the said volume is full; ▪ in that the type of concrete is of the self-levelling type, and injected from the lower base of the volume formed by the two moulds, respectively the lower and upper moulds; ▪ and in that, after the concrete is fully set, the upper mould and lower mould are released and the staircase thus built is turned out in its final location.
A fuel/oxygen solution for use in a combustion chamber which comprises: a first solvent which is a solution of ethanol and water including ethanol molecules having dipoles with a first polarity; a first solute including the metallic ions of a mineral selected from the group consisting of potassium, aluminum, boron and iron, the metallic ions having a permanent charge, wherein the first solute is dissolved in the first solvent to formulate a metallic ion solution, and wherein the metallic ion solution is radiated with an electromagnetic wave to create adducts therein for an additive, wherein the adducts in the additive have dipoles with a second polarity, wherein each adduct is an unbonded complex which comprises particles of the metallic ion contained in a shell of ethanol and water molecules and wherein the second polarity of dipoles in the additive is greater than the first polarity of dipoles in the first solvent; a hydrocarbon based fuel, wherein the additive is dissolved into the hydrocarbon based fuel to create a treated fuel; and air, including paramagnetic oxygen molecules, wherein the paramagnetic oxygen molecules are dissolved as a second solute in the treated fuel to form the fuel/oxygen solution when the treated fuel is atomized in air inside the combustion chamber. a first solvent which is a solution of ethanol and water including ethanol molecules having dipoles with a first polarity; a first solute including the metallic ions of a mineral selected from the group consisting of potassium, aluminum, boron and iron, the metallic ions having a permanent charge, wherein the first solute is dissolved in the first solvent to formulate a metallic ion solution, and wherein the metallic ion solution is radiated with an electromagnetic wave to create adducts therein for an additive, wherein the adducts in the additive have dipoles with a second polarity, wherein each adduct is an unbonded complex which comprises particles of the metallic ion contained in a shell of ethanol and water molecules and wherein the second polarity of dipoles in the additive is greater than the first polarity of dipoles in the first solvent; a hydrocarbon based fuel, wherein the additive is dissolved into the hydrocarbon based fuel to create a treated fuel; and air, including paramagnetic oxygen molecules, wherein the paramagnetic oxygen molecules are dissolved as a second solute in the treated fuel to form the fuel/oxygen solution when the treated fuel is atomized in air inside the combustion chamber.
A styrene-based resin composition comprising a resin composition and 5 to 20 parts by mass of flame retardant based on 100 parts by mass of the resin composition, wherein the resin composition comprising 30 to 51 % by mass of a graft copolymer obtained by graft polymerizing a diene-based rubbery polymer with an aromatic vinyl-based monomer and an unsaturated nitrile monomer, 10 to 55% by mass of a copolymer comprising two or more of monomers selecting from the group consisting of aromatic vinyl-based monomers, unsaturated nitrile monomers, and unsaturated carboxylic acid alkyl ester monomers, and 15 to 39% by mass of a copolymer comprising one kind of unsaturated carboxylic acid alkyl ester monomers, or two or more unsaturated carboxylic acid alkyl ester monomers (wherein + + = 100% by mass), and wherein a proportion of the diene-based rubbery polymer to the resin composition is 15 to 25% by mass.
A method comprising: receiving, by an evidentiary electronic processor, identifying data associated with respective ones of a plurality of communication devices (202, 204, 206, 222) associated with an incident; determining, by the evidentiary electronic processor, an assignment status of each communication device using respective identifying data, wherein the assignment status indicates that a communication device is one of assigned to the incident, unassigned to the incident and associated with a first profile that is relevant to the incident, or unassigned to the incident and associated with a second profile that is irrelevant to the incident; receiving, by the evidentiary electronic processor, sensor data associated with the incident from a sending communication device out of the plurality of communication devices; and processing, by the electronic processor, the sensor data based on a respective assignment status associated with the sending communication device. receiving, by an evidentiary electronic processor, identifying data associated with respective ones of a plurality of communication devices (202, 204, 206, 222) associated with an incident; determining, by the evidentiary electronic processor, an assignment status of each communication device using respective identifying data, wherein the assignment status indicates that a communication device is one of assigned to the incident, unassigned to the incident and associated with a first profile that is relevant to the incident, or unassigned to the incident and associated with a second profile that is irrelevant to the incident; receiving, by the evidentiary electronic processor, sensor data associated with the incident from a sending communication device out of the plurality of communication devices; and processing, by the electronic processor, the sensor data based on a respective assignment status associated with the sending communication device.
A density gradient biopolymeric matrix implant, the implant comprising: a first homogeneous matrix layer having a first density, the first homogeneous matrix layer being formed of first biopolymeric fibers and having a first surface and a second surface opposed to the first surface; and a second homogeneous matrix layer having a second density different from the first density, the second homogeneous matrix layer formed of second biopolymeric fibers and having a first surface and a second surface opposed to the first surface, wherein the first biopolymeric fibers at the first surface of the first homogeneous matrix layer are physically in contact with and cross-linked to the second biopolymeric fibers at the first surface of the second homogeneous matrix layer, and the second surface of the first homogeneous matrix layer is not in contact with the second homogeneous matrix, the first homogeneous matrix layer has a pore size less than 3 μm, the second homogeneous matrix layer has a pore size of 50 μm to 500 μm, and the first density is 0.3 g/cm 3 to 1.0 g/cm 3 and the second density is 0.02 g/cm 3 to 0.3 g/cm 3. a first homogeneous matrix layer having a first density, the first homogeneous matrix layer being formed of first biopolymeric fibers and having a first surface and a second surface opposed to the first surface; and a second homogeneous matrix layer having a second density different from the first density, the second homogeneous matrix layer formed of second biopolymeric fibers and having a first surface and a second surface opposed to the first surface, wherein the first biopolymeric fibers at the first surface of the first homogeneous matrix layer are physically in contact with and cross-linked to the second biopolymeric fibers at the first surface of the second homogeneous matrix layer, and the second surface of the first homogeneous matrix layer is not in contact with the second homogeneous matrix, the first homogeneous matrix layer has a pore size less than 3 μm, the second homogeneous matrix layer has a pore size of 50 μm to 500 μm, and the first density is 0.3 g/cm 3 to 1.0 g/cm 3 and the second density is 0.02 g/cm 3 to 0.3 g/cm 3.
Adaptive projectile having a housing which comprises guide fins, wherein the housing has a cavity for receiving an inner casing, wherein the inner casing is filled with at least one pyrotechnic active charge (11, 12), having a powder chamber which provides a propellant charge for the adaptive projectile, having a delay composition which can ignite the active charge (11, 12) and having a contact which can initiate the propellant charge in the powder chamber and also the delay charge, wherein the housing comprises bolt receiving means, a compensating ring is attached to the housing, the housing comprises a receiving means for the compensating ring and the housing comprises shoulders which point in the longitudinal direction of the adaptive projectile. wherein the housing has a cavity for receiving an inner casing, wherein the inner casing is filled with at least one pyrotechnic active charge (11, 12), having a powder chamber which provides a propellant charge for the adaptive projectile, having a delay composition which can ignite the active charge (11, 12) and having a contact which can initiate the propellant charge in the powder chamber and also the delay charge, wherein the housing comprises bolt receiving means, a compensating ring is attached to the housing, the housing comprises a receiving means for the compensating ring and the housing comprises shoulders which point in the longitudinal direction of the adaptive projectile.
A method for producing hydrotalcite having a BET value of 1 m 2 /g to 30 m 2 /g and a Zr content of 50 ppm or lower from materials including an aluminum compound and including a magnesium compound and/or a zinc compound, the method comprising: a slurry preparation step of preparing a slurry that contains a material selected from the group consisting of hydroxides, oxides, and carbonates of aluminum, and further contains at least one material selected from the group consisting of hydroxides, oxides and carbonates of magnesium and of zinc; a wet grinding step of subjecting the slurry to wet grinding with zirconia beads or zirconia silica beads while maintaining the temperature of the slurry at 50°C or lower, so as to give particles in the slurry an average secondary particle size D50 of 1.5 μm or smaller and D90 of 10 μm or smaller; and a step of synthesizing the hydrotalcite from the materials via hydrothermally treating a slurry obtained with the wet grinding step. a slurry preparation step of preparing a slurry that contains a material selected from the group consisting of hydroxides, oxides, and carbonates of aluminum, and further contains at least one material selected from the group consisting of hydroxides, oxides and carbonates of magnesium and of zinc; a wet grinding step of subjecting the slurry to wet grinding with zirconia beads or zirconia silica beads while maintaining the temperature of the slurry at 50°C or lower, so as to give particles in the slurry an average secondary particle size D50 of 1.5 μm or smaller and D90 of 10 μm or smaller; and a step of synthesizing the hydrotalcite from the materials via hydrothermally treating a slurry obtained with the wet grinding step.