mhurhangee/ep-ind-claims huggingface dataset:
A method for pre-treating ore slurry to be provided to a leaching treatment in a hydrometallurgical process for nickel oxide ore, the method comprising: a first separation step for separating ore slurry into a coarse particle fraction and a fine particle fraction using at least one of a hydrocyclone and a density separator at one to three stages and supplying the fine particle fraction to the leaching treatment; wherein the coarse particle fraction is a fraction in which the percentage of particles having a particle diameter of less than 45 μm in the ore slurry is 35% by mass or less in a solid content; a second separation step for separating the coarse particle fraction separated in the first separation step into a heavy specific gravity fraction and a light specific gravity fraction using at least a spiral concentrator and supplying the heavy specific gravity fraction to the leaching treatment; and a vibration sieving step for separating, by a vibration sieve, the light specific gravity fraction separated in the second separation step into a fraction on the sieve and a fraction under the sieve and supplying the fraction under the sieve as ore slurry to the leaching treatment. a first separation step for separating ore slurry into a coarse particle fraction and a fine particle fraction using at least one of a hydrocyclone and a density separator at one to three stages and supplying the fine particle fraction to the leaching treatment; wherein the coarse particle fraction is a fraction in which the percentage of particles having a particle diameter of less than 45 μm in the ore slurry is 35% by mass or less in a solid content; a second separation step for separating the coarse particle fraction separated in the first separation step into a heavy specific gravity fraction and a light specific gravity fraction using at least a spiral concentrator and supplying the heavy specific gravity fraction to the leaching treatment; and a vibration sieving step for separating, by a vibration sieve, the light specific gravity fraction separated in the second separation step into a fraction on the sieve and a fraction under the sieve and supplying the fraction under the sieve as ore slurry to the leaching treatment.
A banknote handling device comprising: a banknote deposit/withdrawal unit for conducting giving and receiving of banknotes with a user; a banknote discrimination unit capable of discriminating the banknotes and reading serial numbers of the banknotes; a banknote storage unit for storing the banknotes; a conveyance path for conveying the banknotes input from the banknote deposit/withdrawal unit, to the banknote storage unit via the banknote discrimination unit; a detection sensor capable of detecting that a banknote passed through the banknote discrimination unit is stored in the banknote storage unit; and a control unit for controlling the banknote deposit/withdrawal unit, the banknote discrimination unit, the banknote storage unit, and the conveyance path, in a case where a deposit transaction with the user is not settled after the banknotes are input, the control unit controlling the banknote deposit/withdrawal unit, the banknote discrimination unit, the banknote storage unit, and the conveyance path to take out banknotes having same serial numbers as serial numbers read by the banknote discrimination unit and convey the banknotes taken out to the banknote deposit/withdrawal unit, characterized in including a fault notice unit for giving a notice of a serial number of a banknote that is input to the banknote deposit/withdrawal unit and detected by the detection sensor, to the user, in a case where a fault has occurred at time of a deposit transaction. a banknote deposit/withdrawal unit for conducting giving and receiving of banknotes with a user; a banknote discrimination unit capable of discriminating the banknotes and reading serial numbers of the banknotes; a banknote storage unit for storing the banknotes; a conveyance path for conveying the banknotes input from the banknote deposit/withdrawal unit, to the banknote storage unit via the banknote discrimination unit; a detection sensor capable of detecting that a banknote passed through the banknote discrimination unit is stored in the banknote storage unit; and a control unit for controlling the banknote deposit/withdrawal unit, the banknote discrimination unit, the banknote storage unit, and the conveyance path, in a case where a deposit transaction with the user is not settled after the banknotes are input, the control unit controlling the banknote deposit/withdrawal unit, the banknote discrimination unit, the banknote storage unit, and the conveyance path to take out banknotes having same serial numbers as serial numbers read by the banknote discrimination unit and convey the banknotes taken out to the banknote deposit/withdrawal unit, characterized in including a fault notice unit for giving a notice of a serial number of a banknote that is input to the banknote deposit/withdrawal unit and detected by the detection sensor, to the user, in a case where a fault has occurred at time of a deposit transaction.
An antimicrobial porous filter comprising: (a) a first porous membrane having an upstream surface and a downstream surface and a bulk between the upstream and downstream surfaces, the first porous membrane including particles comprising silver in the bulk, the particles having an average diameter in the range of from 0.2 micrometers to 20 micrometers; and (b) a second porous membrane having an upstream surface and a downstream surface and a bulk between the upstream and downstream surfaces, the second porous membrane having a mean flow pore size less than the average diameter of the particles in the first layer; wherein the downstream surface of the first porous membrane contacts the upstream surface of the second porous membrane. (a) a first porous membrane having an upstream surface and a downstream surface and a bulk between the upstream and downstream surfaces, the first porous membrane including particles comprising silver in the bulk, the particles having an average diameter in the range of from 0.2 micrometers to 20 micrometers; and (b) a second porous membrane having an upstream surface and a downstream surface and a bulk between the upstream and downstream surfaces, the second porous membrane having a mean flow pore size less than the average diameter of the particles in the first layer; wherein the downstream surface of the first porous membrane contacts the upstream surface of the second porous membrane.
A child-resistant closure for a container, the child-resistant closure comprising outer and inner nested caps (15, 25) each having a top panel (16, 26) and a side skirt (17, 27) depending generally peripherally therefrom, said outer cap loosely generally encompassing said inner cap to allow relative rotary and axial movement there between, the outer and inner caps (15, 25) having corresponding drive formations (19, 34) which can be brought into driving engagement when the outer and inner caps (15, 25) are moved axially towards one another to a first axial position, one of the inner and outer caps (15, 25) comprising one or more spring members for urging the inner and outer caps (15, 25) axially away from each other to a second axial position, the other of the inner and outer caps (15, 25) comprising one or more ramps, the one or more spring members providing a biasing force to maintain the outer and inner caps (15, 25) in the second axial position and drivingly engaging one or more ramps in the second axial position so as to drive the outer and inner caps (15, 25) together in a screwing direction, but slipping over the one or more ramps freely in an unscrewing direction, downward pressure on the outer cap overcoming the spring member bias to move the outer and inner caps (15, 25) to the first axial position to allow unscrewing of the child-resistant closure using the drive formations (19, 24), characterised in that: the external surface of the inner cap side skirt includes one or more axial ribs for allowing venting when the outer and inner caps (15, 25) are initially assembled together, the or each axial rib is formed integrally with a drive formation of the inner cap to strengthen the said drive formation, and the or each axial rib connects to an edge of the said drive formation of the inner cap which, in use, engages drivingly with a corresponding drive formation of the outer cap. the external surface of the inner cap side skirt includes one or more axial ribs for allowing venting when the outer and inner caps (15, 25) are initially assembled together, the or each axial rib is formed integrally with a drive formation of the inner cap to strengthen the said drive formation, and the or each axial rib connects to an edge of the said drive formation of the inner cap which, in use, engages drivingly with a corresponding drive formation of the outer cap.
A data processing method in a cache coherence directory architecture, the method comprising: allocating a tag entry in a tag array for a data block; allocating a data entry in a data array for the data block when the data block is actively shared, wherein the data block is actively shared at a particular time if the data block is cached by at least two cores, wherein when the data entry is allocated, the tag entry comprises a forward pointer for indicating a position of the data entry; and de-allocating the data entry when the data block is temporarily private or gets evicted in the data array, wherein the data block is temporarily private if the data block is currently cached by only one core, wherein when the data entry is de-allocated, the tag entry comprises an owner pointer for indicating an exclusive owner of the data block; wherein the data entry comprises a reverse pointer for indicating a position of the tag entry. allocating a tag entry in a tag array for a data block; allocating a data entry in a data array for the data block when the data block is actively shared, wherein the data block is actively shared at a particular time if the data block is cached by at least two cores, wherein when the data entry is allocated, the tag entry comprises a forward pointer for indicating a position of the data entry; and de-allocating the data entry when the data block is temporarily private or gets evicted in the data array, wherein the data block is temporarily private if the data block is currently cached by only one core, wherein when the data entry is de-allocated, the tag entry comprises an owner pointer for indicating an exclusive owner of the data block; wherein the data entry comprises a reverse pointer for indicating a position of the tag entry.
A window assembly comprising: a transparent pane; an electrical conductor contacting said transparent pane; an electrical connection element for energizing said electrical conductor; an electrically conductive solder joint connecting said electrical connection element and said electrical conductor for providing an electrical connection between said electrical connection element and said electrical conductor; an encapsulation over said electrical connection element and said electrical conductor: and a casing disposed between said encapsulation and said electrical conductor and surrounding said solder joint and contacting said encapsulation and said transparent pane to prevent contact between said encapsulation and said solder joint; wherein said casing is set apart in substantially all areas to form a layer of air between said encapsulation and said solder joint to prevent stress imparted on said casing from said encapsulation from being transferred to said solder joint to prevent said transparent pane from cracking. a transparent pane; an electrical conductor contacting said transparent pane; an electrical connection element for energizing said electrical conductor; an electrically conductive solder joint connecting said electrical connection element and said electrical conductor for providing an electrical connection between said electrical connection element and said electrical conductor; an encapsulation over said electrical connection element and said electrical conductor: and a casing disposed between said encapsulation and said electrical conductor and surrounding said solder joint and contacting said encapsulation and said transparent pane to prevent contact between said encapsulation and said solder joint; wherein said casing is set apart in substantially all areas to form a layer of air between said encapsulation and said solder joint to prevent stress imparted on said casing from said encapsulation from being transferred to said solder joint to prevent said transparent pane from cracking.
A method for receiving, by a user equipment, UE (10, 900), system information in a wireless communication system, the method comprising: receiving, by the UE, a request for transmission of information indicating a support of a reception of the system information, wherein the request for transmission of the information indicating the support of the reception of the system information is received via a radio resource control, RRC, connection reconfiguration message; transmitting, by the UE, the information indicating support of the reception of the system information to a source eNB, wherein the information indicating the support of the reception of the system information indicates which type of the system information the UE supports, wherein the UE supported type of the system information is related to one or more system information block, SIB, numbers other than SIB 1 to SIB 7, wherein the information indicating the support of the reception of the system information further includes indicating support of a public warning system, PWS, capability or an extended access barring, EAB, capability; and receiving, by the UE, the system information based on the information indicating the support of the reception of the system information. receiving, by the UE, a request for transmission of information indicating a support of a reception of the system information, wherein the request for transmission of the information indicating the support of the reception of the system information is received via a radio resource control, RRC, connection reconfiguration message; transmitting, by the UE, the information indicating support of the reception of the system information to a source eNB, wherein the information indicating the support of the reception of the system information indicates which type of the system information the UE supports, wherein the UE supported type of the system information is related to one or more system information block, SIB, numbers other than SIB 1 to SIB 7, wherein the information indicating the support of the reception of the system information further includes indicating support of a public warning system, PWS, capability or an extended access barring, EAB, capability; and receiving, by the UE, the system information based on the information indicating the support of the reception of the system information.
An aero-contouring apparatus comprising: a housing assembly; a motor assembly disposed within the housing assembly, the motor assembly comprising a motor unit and a drive unit; an engagement force/tilt limiting member coupled to the housing assembly, the engagement force/tilt limiting member having a central opening and having a bottom end configured to contact a surface to be aero-contoured of an aerodynamically functional coating applied to a structure; and, an abrading unit coupled to the drive unit and inserted through the central opening in non-contact communication with the engagement force/tilt limiting member, the abrading unit driven by the drive unit in a random orbit motion on the surface, wherein the engagement force/tilt limiting member mechanically limits both an engagement force and any tilting motion of the abrading unit with respect to the surface. a housing assembly; a motor assembly disposed within the housing assembly, the motor assembly comprising a motor unit and a drive unit; an engagement force/tilt limiting member coupled to the housing assembly, the engagement force/tilt limiting member having a central opening and having a bottom end configured to contact a surface to be aero-contoured of an aerodynamically functional coating applied to a structure; and, an abrading unit coupled to the drive unit and inserted through the central opening in non-contact communication with the engagement force/tilt limiting member, the abrading unit driven by the drive unit in a random orbit motion on the surface, wherein the engagement force/tilt limiting member mechanically limits both an engagement force and any tilting motion of the abrading unit with respect to the surface.
An apparatus for mobile device localization comprising: a primary device comprising a filter and configured to: transmit a signal at a transmission power level to a secondary device; receive a response signal from the secondary device that comprises a link quality indicator, which indicates a reception quality of the signal as received by the secondary device; adjust the transmission power level based on the link quality indicator; generate a filtered transmission power level value based on the link quality indicator by filtering the transmission power level by the filter; and determine a distance between the primary device and the secondary device based on the filtered transmission power level value. transmit a signal at a transmission power level to a secondary device; receive a response signal from the secondary device that comprises a link quality indicator, which indicates a reception quality of the signal as received by the secondary device; adjust the transmission power level based on the link quality indicator; generate a filtered transmission power level value based on the link quality indicator by filtering the transmission power level by the filter; and determine a distance between the primary device and the secondary device based on the filtered transmission power level value.
A display device comprising: a display panel including a front substrate and a back substrate; a plurality of first brackets attached to a non-display area of a back surface of the back substrate using an adhesive; a frame disposed in the rear of the display panel; and a second bracket disposed on the plurality of first brackets; wherein the display device further comprises: a connection frame connecting the first brackets and the second bracket; and an optical layer disposed between the frame and the second bracket, wherein an air gap is provided between the optical layer and the display panel, wherein at least one edge of a front surface of the display panel is exposed, wherein the second bracket comprises a horizontal part extending in a direction parallel to the display panel, wherein the optical layer is disposed on the horizontal part, and wherein a first distance between the back substrate and the optical layer is greater than a second distance between the back substrate and the horizontal part. a display panel including a front substrate and a back substrate; a plurality of first brackets attached to a non-display area of a back surface of the back substrate using an adhesive; a frame disposed in the rear of the display panel; and a second bracket disposed on the plurality of first brackets; a connection frame connecting the first brackets and the second bracket; and an optical layer disposed between the frame and the second bracket, wherein an air gap is provided between the optical layer and the display panel, wherein at least one edge of a front surface of the display panel is exposed, wherein the second bracket comprises a horizontal part extending in a direction parallel to the display panel, wherein the optical layer is disposed on the horizontal part, and wherein a first distance between the back substrate and the optical layer is greater than a second distance between the back substrate and the horizontal part.
Method for controlling at least one functional component (5, 9) of a motor vehicle, the at least one functional component (5, 9) being able to operate in a high-beam driving mode designed for travel in the absence of an overtaking vehicle and a low-beam driving mode designed for the presence of an overtaking vehicle, the method comprising the steps of: a. detecting an overtaking vehicle in a rear lateral region, b. switching (105, 111) from the high-beam driving operating mode to the low-beam driving operating mode when an overtaking vehicle is detected in the rear lateral region, the at least one functional component (5, 9) comprising a headlight device of the vehicle, the high-beam driving mode being the high-beam mode, and the low-beam driving mode being the low-beam mode, and the switch from the high-beam mode to the low-beam mode when an overtaking vehicle is detected in the rear lateral region being performed gradually, the rear lateral region comprising a blind spot of the vehicle, characterized in that there is a switch from the high-beam driving operating mode to the low-beam driving operating mode when the overtaking vehicle is in the blind spot of the vehicle. a. detecting an overtaking vehicle in a rear lateral region, b. switching (105, 111) from the high-beam driving operating mode to the low-beam driving operating mode when an overtaking vehicle is detected in the rear lateral region,
An oil pipe assembly for a gas turbine engine having an oil system, the oil pipe assembly comprising: a first pipe defining, in use, a first fluid passage between an oil supply and a bearing chamber of the gas turbine engine; a second pipe that houses the first pipe and defines a second fluid passage between the first pipe and the second pipe that, in use, is supplied with cooling air; a restrictor that extends from the second pipe and for restricting the passage of fluid from the second fluid passage before it flows, in use, into a breather of the gas turbine engine; a pressure sensor and a temperature sensor which are located adjacent the restrictor to detect and measure changes in air pressure and air temperature adjacent the restrictor; and a controller configured to signal that a leak has occurred in the first pipe or the second pipe when the pressure sensor and the temperature sensor detect an increase in air pressure and air temperature adjacent the restrictor. a first pipe defining, in use, a first fluid passage between an oil supply and a bearing chamber of the gas turbine engine; a second pipe that houses the first pipe and defines a second fluid passage between the first pipe and the second pipe that, in use, is supplied with cooling air; a restrictor that extends from the second pipe and for restricting the passage of fluid from the second fluid passage before it flows, in use, into a breather of the gas turbine engine; a pressure sensor and a temperature sensor which are located adjacent the restrictor to detect and measure changes in air pressure and air temperature adjacent the restrictor; and a controller configured to signal that a leak has occurred in the first pipe or the second pipe when the pressure sensor and the temperature sensor detect an increase in air pressure and air temperature adjacent the restrictor.
An interception device for moving articles or persons based on thermoplastic polyurethane which is obtained via the reaction in each case of at least one of the following starting materials: (a) isocyanate (b) compound which is reactive toward isocyanate and which has a number-average molar mass (Mn) of from 500 g/mol to 10 x 10 3 g/mol (c) chain extender which has a molar mass of from 50 g/mol to 499 g/mol, wherein the interception device comprises a foil or a network made of the thermoplastic polyurethane and retention devices between which the foil or the network has been stretched flat, and the thermoplastic polyurethane is transparent. (a) isocyanate (b) compound which is reactive toward isocyanate and which has a number-average molar mass (Mn) of from 500 g/mol to 10 x 10 3 g/mol (c) chain extender which has a molar mass of from 50 g/mol to 499 g/mol,