mhurhangee/ep-ind-claims huggingface dataset:
Air inlet shut-off device for a motor vehicle, the shut-off device comprising a support frame having a first and a second crossmember that are parallel to one another and connected by lateral uprights (21, 22) so as to define at least one opening for the passage of an incoming air flow, said device having at least one curtain that is able to move between a closed position in which the curtain at least partially covers the passage opening and an open position in which said curtain allows the incoming air flow to pass through the passage opening, said curtain having an edge fastened to a roller shaft extending on the support frame along one of the sides of the passage opening, the roller shaft being connected to a drive device so as to roll up the curtain around said roller shaft to bring it into the open position and so as to unroll the curtain to bring it into the closed position, the shut-off device also comprising an automatic return system for the curtain, characterized in that the automatic return system for the curtain has: - an element that is elastic in elongation along the rolling axis of the roller shaft, said elastic element being fastened at a first of its ends to the roller shaft so as to be driven in rotation by said roller shaft and vice versa, - a cylindrical slider intended to move in translation along the rolling axis of the roller shaft and in rotation about this same axis, said slider being fastened to a second end of the elastic element so as to be driven indirectly in rotation by the roller shaft and vice versa, said slider also having a helical groove on its outer surface, the support frame having a fixed finger configured to be inserted in the helical groove of the slider. - an element that is elastic in elongation along the rolling axis of the roller shaft, said elastic element being fastened at a first of its ends to the roller shaft so as to be driven in rotation by said roller shaft and vice versa, - a cylindrical slider intended to move in translation along the rolling axis of the roller shaft and in rotation about this same axis, said slider being fastened to a second end of the elastic element so as to be driven indirectly in rotation by the roller shaft and vice versa, said slider also having a helical groove on its outer surface, the support frame having a fixed finger configured to be inserted in the helical groove of the slider.
A water treatment installation for providing mineralized and decontaminated drinking water, said installation comprising at least: - a reverse osmosis unit comprising at least: ∘ a first inlet to bring in fresh or brackish water comprising ions and potentially micropollutants, ∘ a first outlet of a first permeate, ∘ a second outlet of a first retentate, - a reverse electrodialysis unit comprising at least: ∘ a second inlet connected to said first outlet, ∘ a third inlet connected to said second outlet, ∘ a third outlet of a first effluent, said first effluent comprising at least a part of said first permeate and at least a part of ions from said first retentate, ∘ a fourth outlet of a second effluent comprising at least a part of said potential micropollutants and a part of said first retentate, characterized in that said reverse electrodialysis unit is an assisted reverse electrodialysis unit. - a reverse osmosis unit comprising at least: ∘ a first inlet to bring in fresh or brackish water comprising ions and potentially micropollutants, ∘ a first outlet of a first permeate, ∘ a second outlet of a first retentate, ∘ a first inlet to bring in fresh or brackish water comprising ions and potentially micropollutants, ∘ a first outlet of a first permeate, ∘ a second outlet of a first retentate, - a reverse electrodialysis unit comprising at least: ∘ a second inlet connected to said first outlet, ∘ a third inlet connected to said second outlet, ∘ a third outlet of a first effluent, said first effluent comprising at least a part of said first permeate and at least a part of ions from said first retentate, ∘ a fourth outlet of a second effluent comprising at least a part of said potential micropollutants and a part of said first retentate, ∘ a second inlet connected to said first outlet, ∘ a third inlet connected to said second outlet, ∘ a third outlet of a first effluent, said first effluent comprising at least a part of said first permeate and at least a part of ions from said first retentate, ∘ a fourth outlet of a second effluent comprising at least a part of said potential micropollutants and a part of said first retentate,
An element for handling a heavy construction structure, comprising: - a rod, - a mobile element pivotably connected to the rod, capable of being retracted along the rod for inserting and removing said structure and of being extended along a determined inclination relatively to the rod for lifting said structure, - means for retracting or extending the mobile element, characterized in that the mobile element includes a hemispheric portion and in that the rod includes a seat having a hemispheric housing, so that, when the mobile element is in the extended position, its hemispheric portion is supported in said hemispheric housing of the seat. - a rod, - a mobile element pivotably connected to the rod, capable of being retracted along the rod for inserting and removing said structure and of being extended along a determined inclination relatively to the rod for lifting said structure, - means for retracting or extending the mobile element,
A transistor device, comprising: in a semiconductor body, a drift region, a body region, and a source region separated from the drift region by the body region and connected to a source node; a gate electrode dielectrically insulated from the body region by a gate dielectric; a drain region spaced apart from the body region; and a field electrode structure, comprising: a first field electrode connected to the source node and dielectrically insulated from the drift region by a first field electrode dielectric; a second field electrode dielectrically insulated from the drift region by a second field electrode dielectric; and a coupling circuit connected between the second field electrode and the source node and configured to connect the second field electrode to the source node dependent on a voltage between the source node and the second field electrode, wherein the second field electrode is located closer to the drain region than the first field electrode. in a semiconductor body, a drift region, a body region, and a source region separated from the drift region by the body region and connected to a source node; a gate electrode dielectrically insulated from the body region by a gate dielectric; a drain region spaced apart from the body region; and a field electrode structure, comprising: a first field electrode connected to the source node and dielectrically insulated from the drift region by a first field electrode dielectric; a second field electrode dielectrically insulated from the drift region by a second field electrode dielectric; and a coupling circuit connected between the second field electrode and the source node and configured to connect the second field electrode to the source node dependent on a voltage between the source node and the second field electrode, wherein the second field electrode is located closer to the drain region than the first field electrode. a first field electrode connected to the source node and dielectrically insulated from the drift region by a first field electrode dielectric; a second field electrode dielectrically insulated from the drift region by a second field electrode dielectric; and a coupling circuit connected between the second field electrode and the source node and configured to connect the second field electrode to the source node dependent on a voltage between the source node and the second field electrode, wherein the second field electrode is located closer to the drain region than the first field electrode.
A method for service deployment in a virtualized network performed by a virtualized network server based on a TOSCA specification, comprising: receiving a service deployment request from a service provider device, wherein the service deployment request comprises first service description of a to-be-deployed first service, the first service description comprises first node information, first connection information, and information about access to a deployed second service, wherein the information about access to the deployed second service comprises input information used for determining a second service identifier and a second instance identifier, and access point information of the second service; creating a first instance of the first service, comprising: creating multiple node instances according to the first node information, and establishing a connection used for data interaction between the multiple node instances of the first service according to the first connection information; and determining the second service identifier and the second instance identifier according to the input information, and further establishing a connection used for data interaction between the first instance of the first service and a second instance of the second service according to the second service identifier, the second instance identifier, and the access point information of the second service; sending a response indicating that the deployment succeeds to the service provider device. receiving a service deployment request from a service provider device, wherein the service deployment request comprises first service description of a to-be-deployed first service, the first service description comprises first node information, first connection information, and information about access to a deployed second service, wherein the information about access to the deployed second service comprises input information used for determining a second service identifier and a second instance identifier, and access point information of the second service; creating a first instance of the first service, comprising: creating multiple node instances according to the first node information, and establishing a connection used for data interaction between the multiple node instances of the first service according to the first connection information; and determining the second service identifier and the second instance identifier according to the input information, and further establishing a connection used for data interaction between the first instance of the first service and a second instance of the second service according to the second service identifier, the second instance identifier, and the access point information of the second service; sending a response indicating that the deployment succeeds to the service provider device.
A method of manufacturing an inspection reference standard comprising: positioning a tool, said tool comprising a tool first surface, said tool first surface comprising a non-planar characteristic; applying a first charge to the tool first surface; at least partially curing the first charge, said first charge comprising a first charge first surface and a first charge second surface, said first charge first surface positioned proximate to the tool first surface; removing the first charge from the tool; applying a second charge to the first charge first surface; and at least partially curing the second charge. positioning a tool, said tool comprising a tool first surface, said tool first surface comprising a non-planar characteristic; applying a first charge to the tool first surface; at least partially curing the first charge, said first charge comprising a first charge first surface and a first charge second surface, said first charge first surface positioned proximate to the tool first surface; removing the first charge from the tool; applying a second charge to the first charge first surface; and at least partially curing the second charge.
A method performed in a network node of a cellular network also comprising a wireless device, the wireless device being in a discontinuous reception mode comprising receiving periods and idle periods, the method comprising the steps of: transmitting a first control signal to the wireless device during a receiving period for the wireless device; determining that the first control signal is likely to have failed to be correctly received by the wireless device; determining that a second control signal needs to be transmitted to the wireless device, the second control signal corresponding to the first control signal; applying a more robust transmission procedure for the second control signal compared to a corresponding transmission procedure for the first control signal, which comprises using a Single Input Single Output, SISO, or Single Input Multiple Output, SIMO, transmission for the second control signal, wherein the more robust transmission procedure implies a transmission procedure which can better withstand negative radio interface influences, wherein the step of applying a more robust transmission procedure comprises selecting a DCI format 1A as defined in 3GPP TS 36.212 and using a Control Channel Element, CCE, aggregation level which is more robust; and transmitting the second control signal to the wireless device. transmitting a first control signal to the wireless device during a receiving period for the wireless device; determining that the first control signal is likely to have failed to be correctly received by the wireless device; determining that a second control signal needs to be transmitted to the wireless device, the second control signal corresponding to the first control signal; applying a more robust transmission procedure for the second control signal compared to a corresponding transmission procedure for the first control signal, which comprises using a Single Input Single Output, SISO, or Single Input Multiple Output, SIMO, transmission for the second control signal, wherein the more robust transmission procedure implies a transmission procedure which can better withstand negative radio interface influences, wherein the step of applying a more robust transmission procedure comprises selecting a DCI format 1A as defined in 3GPP TS 36.212 and using a Control Channel Element, CCE, aggregation level which is more robust; and transmitting the second control signal to the wireless device.
A system for reducing flammability comprising: a tank; a heat exchanger that cools ullage mixture from a tank, condenses vapors within the ullage, and returns the cooled ullage and vapors to the tank; characterized by: a turbine for receiving high pressure and moderate temperature air exhausting from the heat exchanger, wherein the turbine extracts energy from the air and inputs the energy into a gear box; and a cooling fan obtaining power through the gear box to which the turbine provides power, the gear box driving the cooling fan and an ullage mixture fan. a tank; a heat exchanger that cools ullage mixture from a tank, condenses vapors within the ullage, and returns the cooled ullage and vapors to the tank; characterized by: a turbine for receiving high pressure and moderate temperature air exhausting from the heat exchanger, wherein the turbine extracts energy from the air and inputs the energy into a gear box; and a cooling fan obtaining power through the gear box to which the turbine provides power, the gear box driving the cooling fan and an ullage mixture fan. a turbine for receiving high pressure and moderate temperature air exhausting from the heat exchanger, wherein the turbine extracts energy from the air and inputs the energy into a gear box; and a cooling fan obtaining power through the gear box to which the turbine provides power, the gear box driving the cooling fan and an ullage mixture fan.
A press hardening method comprises the following steps: A. the provision of a carbon steel sheet coated with a barrier pre-coating comprising nickel and chromium wherein the weight ratio Ni/Cr is between 1.5 and 9, B. the cutting of the coated carbon steel sheet to obtain a blank, C. the thermal austenitizing treatment of the blank in an atmosphere having an oxidizing power equal or higher than that of an atmosphere consisting of 1% by volume of oxygen and equal or smaller than that of an atmosphere consisting of 50% by volume of oxygen, such atmosphere having a dew point between -30 and +30°C, D. the transfer of the blank into a press tool, E. the hot-forming of the blank to obtain a part, F. the cooling of the part obtained at step E) in order to obtain a microstructure in steel being martensitic or martensito-bainitic or made of at least 75wt.% of equiaxed ferrite, from 5 to 20wt.% of martensite and bainite in amount less than or equal to 10wt.%. A. the provision of a carbon steel sheet coated with a barrier pre-coating comprising nickel and chromium wherein the weight ratio Ni/Cr is between 1.5 and 9, B. the cutting of the coated carbon steel sheet to obtain a blank, C. the thermal austenitizing treatment of the blank in an atmosphere having an oxidizing power equal or higher than that of an atmosphere consisting of 1% by volume of oxygen and equal or smaller than that of an atmosphere consisting of 50% by volume of oxygen, such atmosphere having a dew point between -30 and +30°C, D. the transfer of the blank into a press tool, E. the hot-forming of the blank to obtain a part, F. the cooling of the part obtained at step E) in order to obtain a microstructure in steel being martensitic or martensito-bainitic or made of at least 75wt.% of equiaxed ferrite, from 5 to 20wt.% of martensite and bainite in amount less than or equal to 10wt.%.
A load accumulator for a cellular base station antenna, the load accumulator comprising: a plurality of input terminals configured to receive a plurality of input voltages; a plurality of output terminals configured to be coupled to a respective plurality of tower top equipment and configured to supply output voltages to the tower top equipment; a plurality of switches coupled to respective ones of the plurality of input terminals and the plurality of output terminals; a voltage sensor coupled to at least one input terminal of the plurality of input terminals and configured to sense a level of one of the plurality of input voltages received at the at least one input terminal; a supplemental input terminal configured to receive a supplemental voltage; and a control logic coupled to the voltage sensor and to the plurality of switches and configured to detect that the supply voltage supplied to the at least one input terminal has fallen below a threshold voltage, and in response to detecting that the supply voltage supplied to the at least one of the plurality of input terminals has fallen below the threshold voltage, to supply the supplemental voltage to a respective one of the plurality of output terminals. a plurality of input terminals configured to receive a plurality of input voltages; a plurality of output terminals configured to be coupled to a respective plurality of tower top equipment and configured to supply output voltages to the tower top equipment; a plurality of switches coupled to respective ones of the plurality of input terminals and the plurality of output terminals; a voltage sensor coupled to at least one input terminal of the plurality of input terminals and configured to sense a level of one of the plurality of input voltages received at the at least one input terminal; a supplemental input terminal configured to receive a supplemental voltage; and a control logic coupled to the voltage sensor and to the plurality of switches and configured to detect that the supply voltage supplied to the at least one input terminal has fallen below a threshold voltage, and in response to detecting that the supply voltage supplied to the at least one of the plurality of input terminals has fallen below the threshold voltage, to supply the supplemental voltage to a respective one of the plurality of output terminals.
An electric power tool comprising a motor that includes: a stator having a plurality of teeth formed circumferentially at equal intervals and axially extending groove-like slots between each tooth; and a rotor coaxially surrounding the stator, the rotor having a permanent magnet of a plurality of poles on an inner peripheral surface that faces radial distal end surfaces of the teeth of the stator, characterized in that winding wires are wound around each tooth by use of the slots; the number of poles of the permanent magnet of the rotor and the number of slots of the stator are respectively twelve and nine, or sixteen and twelve; the stator is supported by a stator-support fitting member located within a motor case that houses the motor; the stator-support fitting member including a disc portion that covers an opening of the motor case and a tubular portion that axially protrudes at the center of the disc portion; the stator is coaxially connected to a distal end of the tubular portion; and the stator-support member is fixed to a housing of a speed reduction mechanism that reduces a rotational speed of the motor. a stator having a plurality of teeth formed circumferentially at equal intervals and axially extending groove-like slots between each tooth; and a rotor coaxially surrounding the stator, the rotor having a permanent magnet of a plurality of poles on an inner peripheral surface that faces radial distal end surfaces of the teeth of the stator, characterized in that winding wires are wound around each tooth by use of the slots; the number of poles of the permanent magnet of the rotor and the number of slots of the stator are respectively twelve and nine, or sixteen and twelve; the stator is supported by a stator-support fitting member located within a motor case that houses the motor; the stator-support fitting member including a disc portion that covers an opening of the motor case and a tubular portion that axially protrudes at the center of the disc portion; the stator is coaxially connected to a distal end of the tubular portion; and the stator-support member is fixed to a housing of a speed reduction mechanism that reduces a rotational speed of the motor.
An apparatus, comprising: a first tray member defining a first volume and an opening providing access to the first volume; a second tray member defining a second volume, a wall of the second tray member including a retainer configured to retain at least a portion of a medicament delivery device within the second volume, wherein the second tray member is disposed within the first volume such that the wall of the second tray member and a wall of the first tray member enclose the medicament delivery device within the first volume when at least the portion of the medicament delivery device is retained by the retainer; and a cover member coupled to the first tray member about the opening, the cover member configured to maintain sterility of the first volume. a first tray member defining a first volume and an opening providing access to the first volume; a second tray member defining a second volume, a wall of the second tray member including a retainer configured to retain at least a portion of a medicament delivery device within the second volume, wherein the second tray member is disposed within the first volume such that the wall of the second tray member and a wall of the first tray member enclose the medicament delivery device within the first volume when at least the portion of the medicament delivery device is retained by the retainer; and a cover member coupled to the first tray member about the opening, the cover member configured to maintain sterility of the first volume.