mhurhangee/ep-ind-claims huggingface dataset:
SHORT ROTATION SAFETY LOCK FOR CONTAINERS applicable to a container such as a bottle which opening or mouth is surrounded by an annular cordon or other adjacent prominent protrusion, comprising: - an internal structure that fits into said opening of the container, - an external structure which body is useful as command grip, - grip fingers elastically deformable that are able of clamping to the annular protrusion of the container, - mobile blocking members that act behind said grip fingers releasing or holding them against said annular protrusion, wherein: - the internal structure includes a clamping frame to the container, a lock cap and rotating assembly means for the external structure, - the internal structure comprises an internal body that, on one end, forms said clamping frame in which the grip fingers and intermediate spaces that surround the cap are alternated, - said cap, that fits forced into the upper opening of the container is in solidarity with the clamping frame formed by said grip fingers that are alternated with said intermediary spaces, - in said rotating assembly, said external structure has a rotation capacity limited by a rotation limiter device and - the rotation movement of said external structure determines the movement of some mobile blocking members, between an active position behind said grip fingers and a passive position in said intermediate spaces, characterised in that the internal body has, on its opposite end, some projecting upper members that, with the external structure, form said rotation limiter device. - an internal structure that fits into said opening of the container, - an external structure which body is useful as command grip, - grip fingers elastically deformable that are able of clamping to the annular protrusion of the container, - mobile blocking members that act behind said grip fingers releasing or holding them against said annular protrusion, wherein: - the internal structure includes a clamping frame to the container, a lock cap and rotating assembly means for the external structure, - the internal structure comprises an internal body that, on one end, forms said clamping frame in which the grip fingers and intermediate spaces that surround the cap are alternated, - said cap, that fits forced into the upper opening of the container is in solidarity with the clamping frame formed by said grip fingers that are alternated with said intermediary spaces, - in said rotating assembly, said external structure has a rotation capacity limited by a rotation limiter device and - the rotation movement of said external structure determines the movement of some mobile blocking members, between an active position behind said grip fingers and a passive position in said intermediate spaces, characterised in that the internal body has, on its opposite end, some projecting upper members that, with the external structure, form said rotation limiter device.
A method for receiving a radio resource control, RRC, message by a user equipment, UE, comprising: receiving an RRC connection reconfiguration message including secondary cell group, SCG, configuration parameters, wherein a master cell group, MCG, and a SCG are configured for dual connectivity, the RRC connection reconfiguration message is exchanged via the MCG, the MCG comprises at least a primary cell, PCell, and the SCG comprises at least a primary secondary cell, PSCell, wherein the RRC connection reconfiguration message has a structure to switch between a case that the SCG configuration parameters include a data radio bearer, DRB, configuration and a case that the SCG configuration parameters do not include a DRB configuration, wherein in the case that the SCG configuration parameters include a DRB configuration, a DRB corresponding to the DRB configuration is established to the SCG. receiving an RRC connection reconfiguration message including secondary cell group, SCG, configuration parameters, wherein a master cell group, MCG, and a SCG are configured for dual connectivity, the RRC connection reconfiguration message is exchanged via the MCG, the MCG comprises at least a primary cell, PCell, and the SCG comprises at least a primary secondary cell, PSCell, wherein the RRC connection reconfiguration message has a structure to switch between a case that the SCG configuration parameters include a data radio bearer, DRB, configuration and a case that the SCG configuration parameters do not include a DRB configuration, a case that the SCG configuration parameters include a data radio bearer, DRB, configuration and a case that the SCG configuration parameters do not include a DRB configuration, wherein in the case that the SCG configuration parameters include a DRB configuration, a DRB corresponding to the DRB configuration is established to the SCG.
A hybrid vehicle comprising an engine start control system and an engine and an electrically driven motor as the power sources, a first clutch is provided between the engine and the electrically driven motor for changing the torque transfer capacity, and a second clutch is provided between the electrically driven motor and the drive wheels for a change in the transmission torque transfer capacity; wherein the control system is adapted to select an electrically driven running mode by shutting down the engine, releasing the first clutch and, at the same time, engaging the second clutch, so that only power from the electrically driven motor is being used, and the control system is adapted to select the hybrid running mode by engaging both the first clutch and the second clutch, so that the power from the engine and the electrically driven motor are used for driving the vehicle; and the engine start control system has a first clutch engagement control means for starting the engine adapted to, when a mode switch is carried out from the electrically driven running mode to the hybrid running mode, as the engine is started with progressive engagement of the first clutch, increase the torque capacity of the first clutch by adding an added torque capacity needed for excluding the influence by a cranking compressive reactive force of the engine so that an engine rotational speed is increased within a prescribed time to a high-speed region, wherein at the time when the engine rotational speed reaches high-speed region, the torque capacity of the first clutch is decreased by the first clutch engagement control means, wherein the engine start control system is adapted to cause the second clutch to slip, characterized in that in the high-speed region, the increase in the engine rotational speed increasing torque caused by the compressive reactive force of the engine is ignored by the first clutch engagement control means and the first clutch engagement control means is adapted to not increase the torque capacity of the first clutch when a slip rotational speed of the second clutch is lower than a prescribed level and when a motor torque margin obtained by subtracting the motor torque from the motor upper torque limit is lower than a preset level.
A method of extracting nucleic acids from a fluid, comprising: (a) providing a fluid sample extraction device (101, 200, 300, 352), comprising (i) a housing (140, 304) comprising an internal fluid passage (158, 307, 358), and (ii) a porous medium (184, 302, 370) within said internal fluid passage; (b) drawing fluid into said internal fluid passage (158, 307, 358) of said housing (140, 304) through a space adjacent to said porous medium (184, 302, 370), wherein upon drawing said fluid into said internal fluid passage, said porous medium moves from a first position to a second position to open said space adjacent to said porous medium; and (c) discharging said fluid from said internal fluid passage (158, 307, 358) through said porous medium (184, 302, 370) to capture nucleic acids from said fluid, wherein upon discharging said fluid from said internal fluid passage, said porous medium moves from said second position to said first position to close said space adjacent to said porous medium. (a) providing a fluid sample extraction device (101, 200, 300, 352), comprising (i) a housing (140, 304) comprising an internal fluid passage (158, 307, 358), and (ii) a porous medium (184, 302, 370) within said internal fluid passage; (i) a housing (140, 304) comprising an internal fluid passage (158, 307, 358), and (ii) a porous medium (184, 302, 370) within said internal fluid passage; (b) drawing fluid into said internal fluid passage (158, 307, 358) of said housing (140, 304) through a space adjacent to said porous medium (184, 302, 370), wherein upon drawing said fluid into said internal fluid passage, said porous medium moves from a first position to a second position to open said space adjacent to said porous medium; and (c) discharging said fluid from said internal fluid passage (158, 307, 358) through said porous medium (184, 302, 370) to capture nucleic acids from said fluid, wherein upon discharging said fluid from said internal fluid passage, said porous medium moves from said second position to said first position to close said space adjacent to said porous medium.
High strength steel plate with an ultimate tensile strength of 900 MPa or more which is excellent in hydrogen embrittlement resistance characterized in that the structure of the steel plate is formed of, (a) by volume fraction, ferrite being present in 10 to 50%, bainitic ferrite and/or bainite in 10 to 60%, and tempered martensite in 10 to 50%, (b) iron-based carbides which contain Si or Si and Al in 0.1% or more are present in 4×10 8 (particles/mm 3) or more, (c) optionally, by volume fraction, fresh martensite is present in 10% or less, (d) optionally, by volume fraction, retained austenite is present in 2 to 25%, (e) optionally, by volume fraction, pearlite and/or coarse cementite in 10% or less, and wherein the steel plate contains, by mass%, C: 0.07% to 0.25%, Si: 0.45 to 2.50%, Mn: 1.5 to 3.20%, P: 0.001 to 0.03%, S: 0.0001 to 0.01%, Al: 0.005 to 2.5%, N: 0.0001 to 0.0100%, and O: 0.0001 to 0.0080% and optionally one or more of, by mass-%, Ti: 0.005 to 0.09%, Nb: 0.005 to 0.09%, B: 0.0001 to 0.01%, Cr: 0.01 to 2.0%, Ni: 0.01 to 2.0%, Cu: 0.01 to 0.05%, Mo: 0.01 to 0.8%, V: 0.005 to 0.09%, Ca, Ce, Mg and REM, where Ca, Ce, Mg and REM are contained in a total of 0.0001 to 0.5%, and a balance of iron and unavoidable impurities. (a) by volume fraction, ferrite being present in 10 to 50%, bainitic ferrite and/or bainite in 10 to 60%, and tempered martensite in 10 to 50%, (b) iron-based carbides which contain Si or Si and Al in 0.1% or more are present in 4×10 8 (particles/mm 3) or more, (c) optionally, by volume fraction, fresh martensite is present in 10% or less, (d) optionally, by volume fraction, retained austenite is present in 2 to 25%, (e) optionally, by volume fraction, pearlite and/or coarse cementite in 10% or less, and
The finger spray pump for spraying a medium, comprising a pump head, an outlet nozzle and a pump chamber having an inlet valve and a pump piston, wherein the medium passes through a medium path between the pump chamber and the outlet nozzle, wherein, furthermore, the pump piston in cooperation with a piston rod forms an outlet valve and the pump piston runs in a pump cylinder, wherein further a latching part is connected to the pump cylinder on the upper side thereof and that that the latching part is formed for supporting a pump head spring which supports the pump head relative to the pump cylinder, characterized in that between the piston rod and the pump piston further an active piston spring is provided and that the piston spring and the pump head spring are supported on the latching part.
A pneumatic tire, comprising: an annular tread portion extending in a tire circumferential direction; a pair of sidewall portions disposed on both sides of the tread portion; a pair of bead portions disposed inward of the pair of sidewall portions in a tire radial direction; a carcass layer mounted between the pair of bead portions; a belt layer disposed radially outward of the carcass layer in the tread portion; an innerliner layer disposed on a tire inner surface along the carcass layer; and a partial tie rubber layer disposed between the carcass layer and the innerliner layer across an entire region excluding end portions near the pair of bead portions; characterised in that end surfaces of the partial tie rubber layer on both sides in a tire lateral direction are inclined surfaces that form an acute angle with respect to a surface of the partial tie rubber layer on the carcass layer side; and an inclination angle of the inclined surfaces with respect to the surface of the partial tie rubber layer on the carcass layer side is from 20° to 60°. an annular tread portion extending in a tire circumferential direction; a pair of sidewall portions disposed on both sides of the tread portion; a pair of bead portions disposed inward of the pair of sidewall portions in a tire radial direction; a carcass layer mounted between the pair of bead portions; a belt layer disposed radially outward of the carcass layer in the tread portion; an innerliner layer disposed on a tire inner surface along the carcass layer; and a partial tie rubber layer disposed between the carcass layer and the innerliner layer across an entire region excluding end portions near the pair of bead portions; characterised in that end surfaces of the partial tie rubber layer on both sides in a tire lateral direction are inclined surfaces that form an acute angle with respect to a surface of the partial tie rubber layer on the carcass layer side; and
A fuel injection control device for an internal combustion engine provided with an in-cylinder injection valve and a port injection valve for each cylinder of the internal combustion engine, the fuel injection control device comprising an electronic control unit configured to: change a port injection ratio in accordance with an operation state of the internal combustion engine, the port injection ratio being a ratio of an amount of fuel injection from the port injection valve to a total amount of fuel injection from the in-cylinder injection valve and the port injection valve; execute correction of the total fuel injection amount by applying a correction amount relative to a basic fuel injection amount depending on the operation state of the internal combustion engine when the port injection ratio is changed; calculate the correction amount as a positive value when the port injection ratio is changed to increase; calculate the correction amount as a negative value when the port injection ratio is changed to decrease; wherein the electronic control unit is configured to perform the calculation such that the correction amount gradually converges to zero; and when the electronic control unit changes the port injection ratio during execution of the correction of the total fuel injection amount and calculates a second correction amount that is the correction amount having one of the positive and negative values during the execution of the correction based on a first correction amount that is the correction amount having the other one of the positive and negative values, limit application of the first correction amount in the basic injection amount. change a port injection ratio in accordance with an operation state of the internal combustion engine, the port injection ratio being a ratio of an amount of fuel injection from the port injection valve to a total amount of fuel injection from the in-cylinder injection valve and the port injection valve; execute correction of the total fuel injection amount by applying a correction amount relative to a basic fuel injection amount depending on the operation state of the internal combustion engine when the port injection ratio is changed; calculate the correction amount as a positive value when the port injection ratio is changed to increase; calculate the correction amount as a negative value when the port injection ratio is changed to decrease; wherein the electronic control unit is configured to perform the calculation such that the correction amount gradually converges to zero; and when the electronic control unit changes the port injection ratio during execution of the correction of the total fuel injection amount and calculates a second correction amount that is the correction amount having one of the positive and negative values during the execution of the correction based on a first correction amount that is the correction amount having the other one of the positive and negative values, limit application of the first correction amount in the basic injection amount.
Closing assisted electric lock for opening of automobile comprising: - a bolt including first and second notches, said bolt interacting with a strike and being capable of rotating between an open position, a position closed at the first notch of the lock and a position closed at the second notch of the lock, - a pivoting ratchet capable of interacting with said bolt for preventing the rotation thereof into a closed position at the first and second notches of the lock, - a driving lever of said bolt in order to drive said bolt in rotation between the closed position at the first notch and the closed position at the second notch of the lock, said lever comprising a first arm intended to be connected to an electrical actuator and a second arm bearing a protrusion, intended to interact with an actuating member integral in rotation with said bolt, with the protrusion being formed in a first branch forming a fork with a second branch, at the free end of the second arm of said lever and the actuating member comprising a protuberance able to interact with the fork, characterised in that, in open position of the lock, the driving lever is disengaged from the bolt and in that the protrusion is arranged in such a way that said bolt is able to pivot said lever when said bolt rotates from the open position to the closed position at the first notch of the lock in order to drive the lever into an engaged position with the bolt wherein the lever is placed in the useful travel of the actuator of the lever. - a bolt including first and second notches, said bolt interacting with a strike and being capable of rotating between an open position, a position closed at the first notch of the lock and a position closed at the second notch of the lock, - a pivoting ratchet capable of interacting with said bolt for preventing the rotation thereof into a closed position at the first and second notches of the lock, - a driving lever of said bolt in order to drive said bolt in rotation between the closed position at the first notch and the closed position at the second notch of the lock, said lever comprising a first arm intended to be connected to an electrical actuator and a second arm bearing a protrusion, intended to interact with an actuating member integral in rotation with said bolt, with the protrusion being formed in a first branch forming a fork with a second branch, at the free end of the second arm of said lever and the actuating member comprising a protuberance able to interact with the fork,
A method by an access point of a wireless network for triggering a registrar protocol interaction, used for performing a wireless simple configuration between an access point and a plurality of stations, wherein the method comprises: receiving, by the access point, a probe request sent by the at least one station of the plurality of stations, wherein the probe request comprises an identifier of a target access point; characterized in that the method further comprises: determining, by the access point, a first station of the plurality of stations according to the probe request sent by the at least one station wherein the identifier of the target access point comprised in the probe request sent by the first station matches an identifier of the access point, and if a signal strength of the probe request sent by the first station is greater than a signal strength threshold; and automatically triggering, by the access point in response to the determining, a registrar protocol interaction between the access point and the first station. receiving, by the access point, a probe request sent by the at least one station of the plurality of stations, wherein the probe request comprises an identifier of a target access point; characterized in that the method further comprises: determining, by the access point, a first station of the plurality of stations according to the probe request sent by the at least one station wherein the identifier of the target access point comprised in the probe request sent by the first station matches an identifier of the access point, and if a signal strength of the probe request sent by the first station is greater than a signal strength threshold; and automatically triggering, by the access point in response to the determining, a registrar protocol interaction between the access point and the first station. determining, by the access point, a first station of the plurality of stations according to the probe request sent by the at least one station wherein the identifier of the target access point comprised in the probe request sent by the first station matches an identifier of the access point, and if a signal strength of the probe request sent by the first station is greater than a signal strength threshold; and automatically triggering, by the access point in response to the determining, a registrar protocol interaction between the access point and the first station.
A method for preparing a branched polycarbonate via a continuous two-phase phosgenation interfacial process, comprising the steps of: a) dissolving a branching agent into an aqueous solution of alkali metal hydroxide to form a first aqueous phase, then conducting a pre-reaction between the first aqueous phase and phosgene in the existence of an inert organic solvent to prepare a prepolymer; wherein the mole ratio of the phosgene to the phenolic hydroxyl group of the branching agent is from 0.1:1 to 2:1; preferably from 0.25:1 to 1:1; in the pre-reaction the pH value of the first aqueous phase is maintained in the range of 12 to 14; a residence time of the pre-reaction is in the range of 0.1 s to 10 s; b) dissolving a bisphenol into an aqueous solution of alkali metal hydroxide to form a second aqueous phase, then conducting the reaction among the prepolymer prepared by step a), the second aqueous phase and phosgene in the existence of an inert organic solvent to prepare a branched polycarbonate oligomer; c) adding an end capping agent and a catalyst into the oligomer prepared by step b) to carry out the chain extension and end capping reaction to obtain a solution of a high molecular weight branched polycarbonate, and finally obtaining the branched polycarbonate by separating and purifying. a) dissolving a branching agent into an aqueous solution of alkali metal hydroxide to form a first aqueous phase, then conducting a pre-reaction between the first aqueous phase and phosgene in the existence of an inert organic solvent to prepare a prepolymer; wherein the mole ratio of the phosgene to the phenolic hydroxyl group of the branching agent is from 0.1:1 to 2:1; preferably from 0.25:1 to 1:1; in the pre-reaction the pH value of the first aqueous phase is maintained in the range of 12 to 14; a residence time of the pre-reaction is in the range of 0.1 s to 10 s; b) dissolving a bisphenol into an aqueous solution of alkali metal hydroxide to form a second aqueous phase, then conducting the reaction among the prepolymer prepared by step a), the second aqueous phase and phosgene in the existence of an inert organic solvent to prepare a branched polycarbonate oligomer; c) adding an end capping agent and a catalyst into the oligomer prepared by step b) to carry out the chain extension and end capping reaction to obtain a solution of a high molecular weight branched polycarbonate, and finally obtaining the branched polycarbonate by separating and purifying.