mhurhangee/ep-ind-claims huggingface dataset:
Hand-held power tool with a tool chuck for receiving a tool on a working axis, a housing, a striking mechanism comprising a motor-driven exciter, a striker, a pneumatic chamber between exciter and striker which couples the movement of the exciter to the striker, and an intermediate striker, an impact stop for the striker or the intermediate striker, wherein the impact stop is moveable within the housing in a direction parallel to the working axis, an impact absorber having two axially offset and radially overlapping polymer-based absorber rings (25, 26), wherein a first of the absorber rings is supported against the housing in the direction and a second of the absorber rings is supported against the impact stop contrary to the direction characterised in that the impact absorber further has two iron-based discs (30, 31) arranged axially between the absorber rings (25, 26), and that the first of the discs rests against the first of the absorber rings in the direction and is supported against the impact stop contrary to the direction and the second of the discs is supported against the second of the absorber rings contrary to the direction and is supported against the housing in the direction.
Transporting device for transporting a laboratory diagnostic vessel carrier from a first line portion to a second line portion of a conveying line, wherein the laboratory diagnostic vessel carrier is configured to hold one or more laboratory diagnostic vessels and to be supplied through a conveying line, wherein the first line portion is arranged above the second line portion with respect to a direction of gravity, wherein the transporting device comprises a first transporting portion and a second transporting portion, wherein the first transporting portion is configured to be connected to the first line portion and the second transporting portion is configured to be connected to the second line portion, wherein the first transporting portion extends in a first direction and the second transporting portion extends in a second direction different from the first direction, wherein the first transporting portion and the second transporting portion are configured to transport the laboratory diagnostic vessel carrier by means of gravity, wherein first direction comprises at least a first component and the second direction comprises at least a second component, wherein the second component is opposite to the first component, wherein the transporting device further comprises two opposing side walls, wherein the first transporting portion comprises a sliding surface connected to the side walls and two sliding rails, wherein the sliding rails are respectively connected to one of the sidewalls such that an opening is formed between the sliding rails, wherein the first transporting portion comprises a first end, which is configured to be connected to the first line portion, and a second end, wherein the second transporting portion comprises a third end and a fourth end, which is configured to be connected to the second line portion, wherein the transporting device further comprises a stopping wall, wherein the second end faces and is spaced apart from the stopping wall, wherein the third end is arranged adjacent the stopping wall, and wherein the second end is spaced apart from the stopping wall with a distance larger than a width of the laboratory diagnostic vessel carrier, so that a gap is formed between the second end of the first transporting portion and the stopping wall and so that the laboratory diagnostic vessel carrier can fall downwards through this gap.
An internal combustion engine which has an EGR apparatus that recirculates a part of exhaust gas to an intake passage, and which, in accordance with an operating region, switches between a stoichiometric EGR mode in which operation is performed at a theoretical air-fuel ratio while executing recirculation by means of the EGR apparatus and a lean mode in which operation is performed at an air-fuel ratio that is leaner in fuel than the theoretical air-fuel ratio without performing EGR by means of the EGR apparatus, comprising: an intake air temperature adjustment apparatus (72, 30; 72, 50) configured to adjust a temperature of intake air that enters a combustion chamber, and a control apparatus configured to operate at least the intake air temperature adjustment apparatus; wherein the control apparatus is configured to operate the intake air temperature adjustment apparatus (72, 30; 72, 50) so that the temperature of intake air enters a first temperature region when the internal combustion engine operates in the stoichiometric EGR mode, and to operate the intake air temperature adjustment apparatus (72, 30; 72, 50) so that the temperature of intake air enters a second temperature region, which is a lower temperature region than the first temperature region, when the internal combustion engine operates in the lean mode. an intake air temperature adjustment apparatus (72, 30; 72, 50) configured to adjust a temperature of intake air that enters a combustion chamber, and a control apparatus configured to operate at least the intake air temperature adjustment apparatus; wherein the control apparatus is configured to operate the intake air temperature adjustment apparatus (72, 30; 72, 50) so that the temperature of intake air enters a first temperature region when the internal combustion engine operates in the stoichiometric EGR mode, and to operate the intake air temperature adjustment apparatus (72, 30; 72, 50) so that the temperature of intake air enters a second temperature region, which is a lower temperature region than the first temperature region, when the internal combustion engine operates in the lean mode.
Plug connector for plastic hollow profile ends (3, 4) of insulating glazing spacers, - wherein the plug connector has a connector centre and axial connector legs (14, 15) originating therefrom on both sides, - wherein the plug connector has a base with side walls at the edge and a centre locator and retaining elements (19, 24), - wherein the plug connector has a retaining element which projects outwards from the base on one or both longitudinal edges of the base and which is provided and designed for clawing against the pull-out direction with an axial, strip-like reinforcing element arranged on the corresponding longitudinal edge of a hollow profile base, - wherein the retaining element is preferably formed as a spring tongue, - wherein the retaining element is arranged in a channel-like recess on one or both longitudinal edges of the base, - wherein the recess is aligned axially, - wherein the recess is directed towards the interior or hollow space of the plug connector and wherein further retaining elements are arranged on the side walls, in particular on their free edges. - wherein the plug connector has a connector centre and axial connector legs (14, 15) originating therefrom on both sides, - wherein the plug connector has a base with side walls at the edge and a centre locator and retaining elements (19, 24), - wherein the plug connector has a retaining element which projects outwards from the base on one or both longitudinal edges of the base and which is provided and designed for clawing against the pull-out direction with an axial, strip-like reinforcing element arranged on the corresponding longitudinal edge of a hollow profile base, - wherein the retaining element is preferably formed as a spring tongue, - wherein the retaining element is arranged in a channel-like recess on one or both longitudinal edges of the base, - wherein the recess is aligned axially, - wherein the recess is directed towards the interior or hollow space of the plug connector and wherein further retaining elements are arranged on the side walls, in particular on their free edges.
Method for controlling a converter having at least two phase modules, which have an upper and a lower valve branch (T1, T6) which each have at least three series-connected two-pole subsystems, in the event of failure of at least one subsystem in one valve branch (T1,..., T6), with the valve branch (T1,..., T6) with the failed subsystem being determined, with one subsystem of a valve branch (T1,..., T6) which corresponds to the faulty valve branch (T1,..., T6) in each sound phase module in each case being driven such that ist terminal voltage (U x21) is in each case zero, with a subsystem of a valve branch (T1,..., T6) which corresponds to the faulty valve branch (T1,..., T6) in the faulty phase module being driven such that its terminal voltage (U x21) is equal to a capacitor voltage (U C of the subsystem, and in that in each case one subsystem of a valve branch (T1,..., T6) which corresponds to this valve branch (T1,..., T6) in each sound phase module is driven such that its terminal voltage (U x21) is in each case equal to a capacitor voltage (U C) of this subsystem.
An article comprising at least one spandex fiber comprising a polyurethaneurea which is the reaction product of: (a) a capped glycol comprising the reaction product of (i) a polyol selected from the group consisting of a polyether polyol, a polyester polyol, a polycarbonate polyol, and combinations thereof; and (ii) a diisocyanate; (b) a chain extender comprising at least a first diamine and a second diamine; and (c) a chain terminator composition consisting of monofunctional amines comprising cyclohexylamine; wherein said polyurethaneurea comprises a mole ratio of said first diamine to said second diamine of 75:25 to 85:15; and cyclohexylurea ends of 10 meq/Kg to 30 meq/Kg. (a) a capped glycol comprising the reaction product of (i) a polyol selected from the group consisting of a polyether polyol, a polyester polyol, a polycarbonate polyol, and combinations thereof; and (ii) a diisocyanate; (i) a polyol selected from the group consisting of a polyether polyol, a polyester polyol, a polycarbonate polyol, and combinations thereof; and (ii) a diisocyanate; (b) a chain extender comprising at least a first diamine and a second diamine; and (c) a chain terminator composition consisting of monofunctional amines comprising cyclohexylamine;
Valve device, in particular a wiper liquid valve, with a housing which comprises an inlet connection, an outlet connection and a media channel connecting the inlet connection to the outlet connection, and with a displaceable valve element, which is urged against a valve seat formed in the housing by a first spring element in order to close the media channel, and which is urged away from the valve seat in order to open the media channel by a second spring element, wherein the first spring element is made of a thermally activatable material and comprises, in a deactivated state, a first spring force which is smaller than that of the second spring element, and, in an activated state, a second spring force which is greater than that of the second spring element such that the valve element is displaced to close the media channel, wherein the first spring element is held at least partially in a hollow cylindrical housing projection protruding outwards from the housing, characterised in that the housing projection comprises, on its free front side facing away from the housing, a heat conducting mandrel which protrudes into the housing projection in the direction of the valve element and thereby forms an annular receiving pocket for a longitudinal section of the first spring element in the housing projection.
A gas turbine engine blade comprising: a platform arranged between a root and an airfoil, a cooling passage (92;94) extending from the root through the platform to the airfoil, the cooling passage (92;94) including an inlet passage (96;108) that splits into first and second branches (102,104; 112,114) that rejoin one another in a platform passage (106;116) arranged in the platform, and an airfoil passage (98;110) extending from the platform passage (106;116) and arranged in the platform, wherein the first and second branches are formed by a casting process, characterised in that the inlet passage (96;108) splits in a circumferential direction into the first and second branches (102;104;112;114). a platform arranged between a root and an airfoil, a cooling passage (92;94) extending from the root through the platform to the airfoil, the cooling passage (92;94) including an inlet passage (96;108) that splits into first and second branches (102,104; 112,114) that rejoin one another in a platform passage (106;116) arranged in the platform, and an airfoil passage (98;110) extending from the platform passage (106;116) and arranged in the platform, wherein the first and second branches are formed by a casting process, characterised in that the inlet passage (96;108) splits in a circumferential direction into the first and second branches (102;104;112;114).
A process for producing an aliphatic amine, comprising the step of contacting a linear or branched, or cyclic aliphatic alcohol having 6 to 22 carbon atoms with ammonia and hydrogen in the presence of a catalyst formed by supporting a ruthenium component on a carrier, wherein the ruthenium component is prepared by adding a carrier to a medium to prepare a suspension, adding a solution prepared by dissolving a ruthenium compound in an aqueous medium, to the suspension, adding an alkali to said suspension, to adjust the pH to 4 to 12, to perform a hydrolysis of the ruthenium compound.
An electric actuator comprising a high speed shutdown device, comprising: an electric motor; a lead screw drivably coupled to the electric motor; a lead screw nut threadably coupled to the lead screw; a drive body operably coupled to the lead screw nut and configured to linearly translate in conjunction with the lead screw nut but not to rotate in conjunction with the lead screw nut; a brake operatively coupled between the drive body and the lead screw nut such that the brake enables and prevents rotation of the lead screw nut; an output shaft drivably coupled to the drive body; and a return spring in contact with one of the output shaft or the drive body and configured to apply a return force on one of the output shaft or drive body to position the output shaft in a failsafe state, wherein the lead screw nut is allowed to rotate when the brake does not apply a braking force, wherein the lead screw nut is allowed to linearly translate along the lead screw under operation of the return force from the return spring when the lead screw is not being rotated by the electric motor in order to return the output shaft to the failsafe position, characterized in that the shutdown device further comprises a soft stop spring positioned to engage one of the drive body or output shaft to slow its linear translation over-travel beyond the return of the output shaft to the failsafe position. an electric motor; a lead screw drivably coupled to the electric motor; a lead screw nut threadably coupled to the lead screw; a drive body operably coupled to the lead screw nut and configured to linearly translate in conjunction with the lead screw nut but not to rotate in conjunction with the lead screw nut; a brake operatively coupled between the drive body and the lead screw nut such that the brake enables and prevents rotation of the lead screw nut; an output shaft drivably coupled to the drive body; and a return spring in contact with one of the output shaft or the drive body and configured to apply a return force on one of the output shaft or drive body to position the output shaft in a failsafe state, wherein the lead screw nut is allowed to rotate when the brake does not apply a braking force, wherein the lead screw nut is allowed to linearly translate along the lead screw under operation of the return force from the return spring when the lead screw is not being rotated by the electric motor in order to return the output shaft to the failsafe position, characterized in that the shutdown device further comprises a soft stop spring positioned to engage one of the drive body or output shaft to slow its linear translation over-travel beyond the return of the output shaft to the failsafe position.
A method of wireless communication by a user equipment, UE, comprising: transmitting a local operation notification to a base station, the local operation notification indicating a local operation that is local to the UE, without involving communication with another network entity, wherein the local operation is a self-calibration; receiving, from the base station, a resource indicator indicating one or more resources available for the local operation; and performing the local operation using the one or more resources, wherein the performing the local operation comprises: transmitting a reference signal using the one or more resources; determining one or more parameters based on the transmitted reference signal; and performing the local operation based on the determined one or more parameters, wherein the determining the one or more parameters comprises: measuring the one or more parameters from the transmitted reference signal; and wherein the local operation is performed based on the one or more parameters and based on one or more standard parameters. transmitting a local operation notification to a base station, the local operation notification indicating a local operation that is local to the UE, without involving communication with another network entity, wherein the local operation is a self-calibration; receiving, from the base station, a resource indicator indicating one or more resources available for the local operation; and performing the local operation using the one or more resources, wherein the performing the local operation comprises: transmitting a reference signal using the one or more resources; determining one or more parameters based on the transmitted reference signal; and performing the local operation based on the determined one or more parameters, wherein the determining the one or more parameters comprises: measuring the one or more parameters from the transmitted reference signal; and wherein the local operation is performed based on the one or more parameters and based on one or more standard parameters. transmitting a reference signal using the one or more resources; determining one or more parameters based on the transmitted reference signal; and performing the local operation based on the determined one or more parameters, wherein the determining the one or more parameters comprises: measuring the one or more parameters from the transmitted reference signal; and wherein the local operation is performed based on the one or more parameters and based on one or more standard parameters. measuring the one or more parameters from the transmitted reference signal; and wherein the local operation is performed based on the one or more parameters and based on one or more standard parameters.
Charging device for a battery of a motor-driven machine adapted to be powered by a single-phase input alternating current and adapted to be powered by a multi-phase input alternating current, said charging device comprising: - a first conversion module; - a second conversion module; the first conversion module being adapted to convert an alternating current into at least one direct intermediate current and to supply the second conversion module with said intermediate current; the second conversion module being adapted to convert the intermediate current into a direct output current, and to supply the battery with said output current; the charging device further comprising: - a switching module which is adapted to switch the first conversion module between a first configuration which is adapted to a single-phase input alternating current and a second configuration which is adapted to a multi-phase input alternating current; wherein the first conversion module comprises a plurality of first conversion module units (3a, 3b, 3c), each first conversion module unit (3a, 3b, 3c) being adapted to convert a single-phase alternating current into a direct current, and the switching module being adapted, in the second configuration, to separate the multi-phase input alternating current into single-phase alternating currents and to supply the first conversion module units (3a, 3b, 3c) with these respective single-phase alternating currents. - a first conversion module; - a second conversion module; - a switching module which is adapted to switch the first conversion module between a first configuration which is adapted to a single-phase input alternating current and a second configuration which is adapted to a multi-phase input alternating current;
A control system of an induction alternating-current motor 7 rotational speed with correction of turning on of a Mosfet transistor 4 characterised in that it consists of a shaping circuit of the signal 50 Hz derived from the mains voltage connected with the input of the microprocessor and a temperature sensor is connected with the input of the microprocessor of temperature measurement, whereas output of the microprocessor 2 of the relay control is connected with the coil of relay K1, and the other pole of the coil of relay K1 is connected with the cathode of the photocoupler OK1 diode and the input of the microprooessor, whereas the anode of the photocoupler OK1 diode is connected with the output of the microprocessor of rotational speed control, the pole of supply voltage L is connected with the S1 contact of the relay K1 and with the pole of the capacitor C3, and the other pole of the capacitor C3 is connected with the pole N of the supply voltage pole of the motor and with the resistor R1, whereas the other terminal of the resistor R1 is connected with the cathode of the Zener diode D2, the anode of the diode D3 and the resistor R6, and the cathode of the diode D3 is connected with the capacitor C1 and the resistor R3, the other pole of the capacitor C1 is connected with the anode of the Zener diode D2, the resistor R5, the source of the Mosfet transistor 4, the anodes of the diodes D4 and D7, the emitter of the photocoupler transistor and the emitter of the transistor T1, whereas the collector of the transistor T1 is connected with the collector of the photocoupler transistor 3 OK1 and resistors R2 and R3, and the base of the transistor T1 is connected with the resistor R4 and the other terminal of the resistor R5, and the cathode of the diode D6 is connected with the cathode of the diode D5, the drain of the Mosfet transistor 4, the other terminal of the resistor R4 and the other terminal of the resistor R6, and the anode of the diode D6 is connected with the cathode of the diode D4, the capacitor C and the contact P1 of the relay K1, whereas the other pole of the capacitor C is connected with the anode of the diode D5 and the cathode of the diode D7 and the other pole of the motor.