mhurhangee/ep-ind-claims huggingface dataset:
Method for regenerating the capacity of a metal-ion electrochemical battery incorporating a regeneration component comprising at least one region for storing metal ions, the method comprising the following steps: a/ constituting the battery with the implementation of a regeneration component whose electrochemical potential is lower than that of the anode and/or of the cathode of the battery, and with the arrangement of an ion-insulating element between the electrodes and the regeneration component, b/ evaluating the quantity of exchangeable metal ions, comprising determining the time derivative of the potential of one of the two electrodes; c/ when the evaluated quantity of metal ions is smaller than or equal to a threshold value, applying a parameter to the element from outside the battery, so as to bring about ionic conduction and thus the disinsertion of metal ions from the component and insertion thereof into the active electrochemical material of the anode and/or the cathode of the battery. a/ constituting the battery with the implementation of a regeneration component whose electrochemical potential is lower than that of the anode and/or of the cathode of the battery, and with the arrangement of an ion-insulating element between the electrodes and the regeneration component, b/ evaluating the quantity of exchangeable metal ions, comprising determining the time derivative of the potential of one of the two electrodes; c/ when the evaluated quantity of metal ions is smaller than or equal to a threshold value, applying a parameter to the element from outside the battery, so as to bring about ionic conduction and thus the disinsertion of metal ions from the component and insertion thereof into the active electrochemical material of the anode and/or the cathode of the battery.
A filter assembly for a floor cleaner for cleaning a floor surface, comprising: a filter having an intake side and an exhaust side; a filter housing comprising a frame having an open area through which air may pass, the filter supported within the frame; a handle projecting from the filter housing; characterised by a mesh screen on the intake side of the filter, the mesh screen having a pore size configured to filter a larger particle size than the filter; a door pivotally coupled with the filter housing, the door having an open grid and the mesh screen covering the open grid; a seal on the filter housing, the seal extending around the exhaust side of the filter; and a permanent magnet disposed on the handle. a filter having an intake side and an exhaust side; a filter housing comprising a frame having an open area through which air may pass, the filter supported within the frame; a handle projecting from the filter housing; characterised by a mesh screen on the intake side of the filter, the mesh screen having a pore size configured to filter a larger particle size than the filter; a door pivotally coupled with the filter housing, the door having an open grid and the mesh screen covering the open grid; a seal on the filter housing, the seal extending around the exhaust side of the filter; and a permanent magnet disposed on the handle.
A method for cooling bulk material, in particular cement clinker, in a fine material cooler, comprising the following steps: - admitting bulk material to be cooled, which bulk material has a fine material proportion of 70% to 95%, in particular 75% to 85%, preferably 80%, and a coarse material proportion of 5% to 30%, in particular 25% to 15%, preferably 20%, into the fine material cooler through a material inlet, wherein the fine material has a grain size of for instance 10 -5 mm to 4 mm and the coarse material has a grain size of 4 mm to 100 mm, - conveying the coarse material by means of a first, mechanical or pneumatic conveying unit, and conveying the fine material by means of a second conveying unit in a conveying direction through the fine material cooler to a material outlet. - admitting bulk material to be cooled, which bulk material has a fine material proportion of 70% to 95%, in particular 75% to 85%, preferably 80%, and a coarse material proportion of 5% to 30%, in particular 25% to 15%, preferably 20%, into the fine material cooler through a material inlet, wherein the fine material has a grain size of for instance 10 -5 mm to 4 mm and the coarse material has a grain size of 4 mm to 100 mm, - conveying the coarse material by means of a first, mechanical or pneumatic conveying unit, and conveying the fine material by means of a second conveying unit in a conveying direction through the fine material cooler to a material outlet.
Control device for the movement of a hydraulic cylinder, comprising a body forming a first chamber and a second chamber adapted for receiving an actuating fluid, the said chambers (22, 24) being separated from each other by a piston which is movable in the body in a first direction, in which the volume of the first chamber increases while the volume of the second chamber decreases and in a second direction, in which the volume of the second chamber increases while the volume of the first chamber decreases, the control device comprising a valve comprising an internal volume intended to be connected to the first chamber of the cylinder by a first hydraulic connection and to the second chamber of the cylinder by a second hydraulic connection, the valve also comprising a first hydraulic line, intended to be connected to a first actuating fluid source and a second hydraulic line intended to be connected to a second actuating fluid source, the said hydraulic lines (42, 46) being in communication with the internal volume of the valve, the said valve also comprising a distribution device which is movable in the internal volume of the valve between a first position, in which the distribution device places the first hydraulic connection and the first hydraulic line in fluid communication and a second position, in which the distribution device places the second hydraulic connection and the second hydraulic line in fluid communication, characterised in that the distribution device prevents fluid communication between the first hydraulic connection and the second hydraulic line and between the second hydraulic connection and the first hydraulic line, irrespective of the position of the said distribution device.
A control device (300, 400) for controlling flight vehicles (100, 200) having an antenna for forming a multi-cell (122, 160, 260) on ground to provide a wireless communication service to a user terminal in the multi-cell, the control device comprising a replacement control unit (144, 330) configured to control replacement of a first flight vehicle covering an object area on the ground by means of the multi-cell with a second flight vehicle, wherein the replacement control unit (144, 330) is further configured to send instructions to the first flight vehicle covering the object area on the ground by means of the multi-cell to cause the first flight vehicle to change the multi-cell into a virtual single cell; send instructions to the second flight vehicle to move to a location corresponding to a location of the first flight vehicle and form a single cell with a same frequency as that of the virtual single cell such that the locations of the virtual single cell and the formed single cell are aligned with each other; send instructions to the first vehicle and the second vehicle to start providing a wireless communication service by the second flight vehicle and the first flight vehicle to the user terminal by Coordinated Multiple Point transmission/reception Joint Transmission, CoMP JT, and then send instructions to the first flight vehicle to stop forming the virtual single cell and to the second flight vehicle to form a multi-cell by shrinking the formed single cell while forming a plurality of other cells, wherein the multi-cell of the second flight vehicle covers the object area that has been covered by the multi-cell of the first flight vehicle. a replacement control unit (144, 330) configured to control replacement of a first flight vehicle covering an object area on the ground by means of the multi-cell with a second flight vehicle, wherein the replacement control unit (144, 330) is further configured to send instructions to the first flight vehicle covering the object area on the ground by means of the multi-cell to cause the first flight vehicle to change the multi-cell into a virtual single cell; send instructions to the second flight vehicle to move to a location corresponding to a location of the first flight vehicle and form a single cell with a same frequency as that of the virtual single cell such that the locations of the virtual single cell and the formed single cell are aligned with each other; send instructions to the first vehicle and the second vehicle to start providing a wireless communication service by the second flight vehicle and the first flight vehicle to the user terminal by Coordinated Multiple Point transmission/reception Joint Transmission, CoMP JT, and then send instructions to the first flight vehicle to stop forming the virtual single cell and to the second flight vehicle to form a multi-cell by shrinking the formed single cell while forming a plurality of other cells, wherein the multi-cell of the second flight vehicle covers the object area that has been covered by the multi-cell of the first flight vehicle.
Method for preparing a doped mixed oxide for a composite material, wherein the mixed oxide has the molecular formula Mo x W 1-x M y O z, in which 0 < x < 1, 0.01 ≤ y ≤ 2 and 2.0 ≤ z ≤ 3.0, and M denotes a metal ion that is different from Mo and W, in which method at least the following steps are carried out: - dissolving and/or suspending at least one molybdenum compound and at least one tungsten compound in at least one liquid medium; - mixing the at least one molybdenum compound and the at least one tungsten compound in a predetermined mass ratio; and - drying the mixture of the at least one molybdenum compound and the at least one tungsten compound, wherein, for doping, foreign atoms M selected from the group comprising Na, Cu, Bi, V, Ti and Zn are incorporated into the mixed oxide. - dissolving and/or suspending at least one molybdenum compound and at least one tungsten compound in at least one liquid medium; - mixing the at least one molybdenum compound and the at least one tungsten compound in a predetermined mass ratio; and - drying the mixture of the at least one molybdenum compound and the at least one tungsten compound,
A process water supply unit for supplying a medical treatment unit with process water ( Betriebswasser- BW), comprising: a pressurized water container for holding process water; a container receptacle adapted to receive the pressurized water container; and a cylindrical lid part which encloses the container receptacle; wherein the container receptacle comprises: a pressurized air inlet which is adapted to connect the process water supply unit to a pressurized air source; a pressurized air port adapted to introduce the pressurized air ( Druckluft - DL) stemming from the pressurized air inlet into the pressurized water container; a process water port adapted to convey the process water out of the pressurized water container by the pressurized air introduced into the pressurized water container and to deliver it to the medical treatment unit; a sterile air filter integrated in a pressurized air path between the pressurized air inlet and the pressurized air port; and a plate-shaped, round base plate through which the process water port and the pressurized air port at least partially pass. a pressurized water container for holding process water; a container receptacle adapted to receive the pressurized water container; and a cylindrical lid part which encloses the container receptacle; wherein the container receptacle comprises: a pressurized air inlet which is adapted to connect the process water supply unit to a pressurized air source; a pressurized air port adapted to introduce the pressurized air ( Druckluft - DL) stemming from the pressurized air inlet into the pressurized water container; a process water port adapted to convey the process water out of the pressurized water container by the pressurized air introduced into the pressurized water container and to deliver it to the medical treatment unit; a sterile air filter integrated in a pressurized air path between the pressurized air inlet and the pressurized air port; and a plate-shaped, round base plate through which the process water port and the pressurized air port at least partially pass. a pressurized air inlet which is adapted to connect the process water supply unit to a pressurized air source; a pressurized air port adapted to introduce the pressurized air ( Druckluft - DL) stemming from the pressurized air inlet into the pressurized water container; a process water port adapted to convey the process water out of the pressurized water container by the pressurized air introduced into the pressurized water container and to deliver it to the medical treatment unit; a sterile air filter integrated in a pressurized air path between the pressurized air inlet and the pressurized air port; and a plate-shaped, round base plate through which the process water port and the pressurized air port at least partially pass.
An HVAC system for a vehicle, said HVAC system comprising ducting, a heater element and at least one air outlet (53 1, 53 2,...53 n), the ducting is arranged so that an airstream passing through said HVAC system is split into a first airstream portion passing through said heater element and a second airstream portion by-passing said heater element, the ducting is further arranged so that an outlet airstream going through said at least one air outlet (53 1, 53 2,...53 n) is a combination of air from said first and second airstream portions, said heater element comprising a heat exchanger and a PTC element, characterized in that a first temperature sensor is located downstream of said PTC element for determining the temperature in said first airstream portion, the first temperature sensor being located upstream of where said first and second airstream portions are combined.
A die coater shim for simultaneously applying an electrode slurry and an insulating coating liquid on a current collector, the die coater shim comprising: a base configured to extend in a width direction; first and second guides (311, 312) disposed on each end of the base in the width direction, wherein the first and second guides (311, 312) protrude and extend from the base in a direction orthogonal to the width direction; characterized in that a first electrode slurry slit including a first step portion is disposed between the first and second guides (311, 312) in the width direction, wherein a thickness of the first step portion is smaller than a thickness of the base, wherein the thickness of the first step portion forms a first stepped space relative to a first surface of the base, wherein the first stepped space forms an electrode slurry discharge path; and in that first and second insulating coating liquid slits (341, 342) including a groove are formed on a surface of each of the first and second guides (311, 312) disposed on a second surface of the base, wherein one end of each of the grooves forms an insulating coating liquid discharge path. a base configured to extend in a width direction; first and second guides (311, 312) disposed on each end of the base in the width direction, wherein the first and second guides (311, 312) protrude and extend from the base in a direction orthogonal to the width direction; characterized in that a first electrode slurry slit including a first step portion is disposed between the first and second guides (311, 312) in the width direction, wherein a thickness of the first step portion is smaller than a thickness of the base, wherein the thickness of the first step portion forms a first stepped space relative to a first surface of the base, wherein the first stepped space forms an electrode slurry discharge path; and in that first and second insulating coating liquid slits (341, 342) including a groove are formed on a surface of each of the first and second guides (311, 312) disposed on a second surface of the base, wherein one end of each of the grooves forms an insulating coating liquid discharge path.
A composition comprising an insoluble polyelectrolyte complex of a polyanion selected from the group consisting of a lignin compound such as lignosulfonate, humic acid, chondroitin sulphate, and poly(acrylic acid), and a polycation, wherein said polyanion and said polycation are present in relative amounts of from 1:2 to 10:1 (w/w), said composition further comprising at least one biocide.
A method comprising: performing asynchronous incremental transfers of data of a storage object from a first node to a replicated storage object at a second node; logging, by the first node, metadata operations, executed by the first node upon the storage object, into a metadata log, associated with the first node, during a last asynchronous incremental transfer, wherein sequence numbers are assigned by the first node to the metadata operations based upon an order of the first node executing the metadata operations upon the storage object, and wherein metadata operations are sorted within the metadata log according to the sequence numbers; replicating, by the first node, the metadata operations in the metadata log to the replicated storage object for execution by the second node in an execution order according to the sequence numbers; replicating dirty regions of the storage object, identified by a dirty region log based upon incoming writes targeting the storage object being logged into the dirty region log, to the replicated storage object upon the metadata operations being replicated; and transitioning to a synchronous replication state where incoming operations targeting the storage object are synchronously replicated to the replicated storage object. performing asynchronous incremental transfers of data of a storage object from a first node to a replicated storage object at a second node; logging, by the first node, metadata operations, executed by the first node upon the storage object, into a metadata log, associated with the first node, during a last asynchronous incremental transfer, wherein sequence numbers are assigned by the first node to the metadata operations based upon an order of the first node executing the metadata operations upon the storage object, and wherein metadata operations are sorted within the metadata log according to the sequence numbers; replicating, by the first node, the metadata operations in the metadata log to the replicated storage object for execution by the second node in an execution order according to the sequence numbers; replicating dirty regions of the storage object, identified by a dirty region log based upon incoming writes targeting the storage object being logged into the dirty region log, to the replicated storage object upon the metadata operations being replicated; and transitioning to a synchronous replication state where incoming operations targeting the storage object are synchronously replicated to the replicated storage object.
A method of transmitting power headroom reports from a wireless terminal to a base station, wherein a primary component carrier and at least one secondary component carrier are provided for uplink transmissions from the wireless terminal to the base station, the method comprising: generating respective power headroom reports for the primary component carrier and for each of the at least one secondary component carriers; generating a MAC control element including the power headroom reports for the primary and secondary component carriers, characterized in that a respective component carrier index is assigned to each of the component carriers provided for the wireless terminal, wherein, in the MAC control element, a Type 2 power headroom report for the primary component carrier is provided first, and then Type 1 power headroom reports for the primary component carrier and each of the at least one secondary component carriers are added in an order according to the component carrier indices for the respective component carriers, wherein a Type 1 power headroom report is a power headroom report for the Physical Uplink Shared Channel, PUSCH, and a Type 2 power headroom report is a power headroom report for the Physical Uplink Control Channel, PUCCH, and for the PUSCH; and transmitting the MAC control element including the power headroom reports for the primary and secondary component carriers from the wireless terminal to the base station over one of the component carriers. generating respective power headroom reports for the primary component carrier and for each of the at least one secondary component carriers; generating a MAC control element including the power headroom reports for the primary and secondary component carriers, characterized in that a respective component carrier index is assigned to each of the component carriers provided for the wireless terminal, wherein, in the MAC control element, a Type 2 power headroom report for the primary component carrier is provided first, and then Type 1 power headroom reports for the primary component carrier and each of the at least one secondary component carriers are added in an order according to the component carrier indices for the respective component carriers, wherein a Type 1 power headroom report is a power headroom report for the Physical Uplink Shared Channel, PUSCH, and a Type 2 power headroom report is a power headroom report for the Physical Uplink Control Channel, PUCCH, and for the PUSCH; and transmitting the MAC control element including the power headroom reports for the primary and secondary component carriers from the wireless terminal to the base station over one of the component carriers.
A composition for nucleic acid amplification, comprising: a nucleic acid amplification reaction mixture, wherein the nucleic acid amplification reaction mixture comprises, a T7 DNA polymerase, thioredoxin, a recombinase, and one or more solid supports or semi-solid supports, and wherein the T7 DNA polymerase has reduced 3'-5' exonuclease activity as compared to the corresponding wild type polymerase or lacks detectable 3'-5' exonuclease activity, and wherein at least one of the one or more supports is attached to one or more instances of a first primer including a first primer sequence. a nucleic acid amplification reaction mixture, wherein the nucleic acid amplification reaction mixture comprises, a T7 DNA polymerase, thioredoxin, a recombinase, and one or more solid supports or semi-solid supports, and wherein the T7 DNA polymerase has reduced 3'-5' exonuclease activity as compared to the corresponding wild type polymerase or lacks detectable 3'-5' exonuclease activity, and wherein at least one of the one or more supports is attached to one or more instances of a first primer including a first primer sequence.