mhurhangee/ep-ind-claims huggingface dataset:
A power tool that moves an implement, comprising: (a) a terminal configured to receive an alternating current from an AC current source, which is electrically connected to earth ground; (b) an implement configured for movement; (c) an actuator operatively connected to the implement and electrically connected to the terminal to enable the actuator to operate and move the implement; and (d) a printed circuit card to which a sensing circuit (144, 146, 150, 140), which includes a clock source, a driver amplifier, a transformer and a controller, and a switching power supply are mounted, the switching power supply being electrically connected to the terminal to receive the AC current and being configured to generate DC electrical power for distribution to components (144, 146, 150, 140) on the printed circuit card, and (e) the sensing circuit (144, 146, 150, 140) being electrically connected to the switching power supply to receive the DC electrical power and being configured to generate a sensing current that is electrically coupled to the implement, (f) the printed circuit card being electrically connected to a signal ground, but not electrically connected to earth ground, wherein the power supply serves as a local ground for the components (144, 146, 150, 140) mounted to the printed circuit card, to enable the sensing circuit (144, 146, 150, 140) to detect discharge of the sensing current to an object by the implement. (a) a terminal configured to receive an alternating current from an AC current source, which is electrically connected to earth ground; (b) an implement configured for movement; (c) an actuator operatively connected to the implement and electrically connected to the terminal to enable the actuator to operate and move the implement; and (d) a printed circuit card to which a sensing circuit (144, 146, 150, 140), which includes a clock source, a driver amplifier, a transformer and a controller, and a switching power supply are mounted, the switching power supply being electrically connected to the terminal to receive the AC current and being configured to generate DC electrical power for distribution to components (144, 146, 150, 140) on the printed circuit card, and (e) the sensing circuit (144, 146, 150, 140) being electrically connected to the switching power supply to receive the DC electrical power and being configured to generate a sensing current that is electrically coupled to the implement, (f) the printed circuit card being electrically connected to a signal ground, but not electrically connected to earth ground, wherein the power supply serves as a local ground for the components (144, 146, 150, 140) mounted to the printed circuit card, to enable the sensing circuit (144, 146, 150, 140) to detect discharge of the sensing current to an object by the implement.
Exhaust-gas turbocharger, in particular for an internal combustion engine, said exhaust-gas turbocharger being equipped with a bypass valve which is arranged in a bypass duct of a turbine between an exhaust-gas pressure line and an outlet cross section of -the turbine of the exhaust-gas turbocharger, and being connected to an actuating means for controlling the throughflow of exhaust gas through the bypass duct, wherein, by means of the bypass valve, a partial stream of the exhaust gas can be conducted past the turbine as required, the bypass valve has a valve disk and a valve stem, the bypass valve is held in axially movable fashion by way of the valve stem, and the valve disk can, in a closed state of the bypass valve, be brought into contact with a valve seat in order to close off the bypass duct in gas-tight and pressure-tight fashion, wherein that side of the valve disk which is connected to the valve stem faces toward the exhaust-gas pressure line, characterized in that, on the bypass valve, there is formed a pressure plate which is held on the valve stem and which is movable in a recess of a housing of the exhaust-gas turbocharger.
A fourth toe processing apparatus comprising: a shield comprising a first side and a second side; a non-contact energy source emitting energy towards the first side of the shield; a shank restraint structure proximate the second side of the shield; and a fourth toe aperture extending through the first side and the second side of the shield, such that energy emitted towards the first side of the shield by the energy source passes through the fourth toe aperture in the absence of an obstruction located in the fourth toe aperture, whereby a fourth toe of a bird having its shank positioned in the fourth toe aperture is exposed to the energy, wherein the shank restraint structure is configured for receiving a shank of a bird located proximate the second side of the shield, characterized in that the shank restraint structure comprises a channel formed in the second side of the shield, wherein the fourth toe aperture is located in the channel; and the shank restraint structure comprises a suction opening, wherein suction can be delivered to retain a bird shank in the shank restraint structure. a shield comprising a first side and a second side; a non-contact energy source emitting energy towards the first side of the shield; a shank restraint structure proximate the second side of the shield; and a fourth toe aperture extending through the first side and the second side of the shield, such that energy emitted towards the first side of the shield by the energy source passes through the fourth toe aperture in the absence of an obstruction located in the fourth toe aperture, whereby a fourth toe of a bird having its shank positioned in the fourth toe aperture is exposed to the energy, wherein the shank restraint structure is configured for receiving a shank of a bird located proximate the second side of the shield, characterized in that the shank restraint structure comprises a channel formed in the second side of the shield, wherein the fourth toe aperture is located in the channel; and the shank restraint structure comprises a suction opening, wherein suction can be delivered to retain a bird shank in the shank restraint structure.
A method of manufacturing a reinforcing cord for rubber reinforcement, comprising: (i) applying, onto a reinforcing fiber, a coating liquid containing a rubber latex, a vulcanizing auxiliary, and a medium that contains at least 50 weight % of water; and (ii) drying the coating liquid to form a coating film on the reinforcing fiber; and characterized in that said rubber latex is a hydrogenated nitrile rubber latex, said vulcanizing auxiliary is a maleimide vulcanizing auxiliary present in the coating liquid in a weight ratio of solids contents of 30 to 70 parts for each 100 parts of rubber latex, the coating liquid does not contain formalin, and the coating film accounts for 12 to 22% of the weight of the reinforcing cord. (i) applying, onto a reinforcing fiber, a coating liquid containing a rubber latex, a vulcanizing auxiliary, and a medium that contains at least 50 weight % of water; and (ii) drying the coating liquid to form a coating film on the reinforcing fiber; and characterized in that said rubber latex is a hydrogenated nitrile rubber latex, said vulcanizing auxiliary is a maleimide vulcanizing auxiliary present in the coating liquid in a weight ratio of solids contents of 30 to 70 parts for each 100 parts of rubber latex, the coating liquid does not contain formalin, and the coating film accounts for 12 to 22% of the weight of the reinforcing cord.
A method for the production of cast bodies made of an electrically conductive material with the levitation melting method, wherein for the realization of the levitation state of a batch electromagnetic alternating fields are used which are generated with at least one pair of induction coils being oppositely arranged and having a core made of a ferromagnetic material, wherein the induction coils with their cores in each pair are arranged in a movable manner to each other and are moved between a melting position with low distance and a casting position with high distance, comprising the following steps of: - bringing the pairs of induction coils into the melting position with low distance, - introducing a batch of a starting material into the zone of influence of at least one electromagnetic alternating field so that the batch is hold in a levitation state, - melting the batch, - positioning a casting mold in a filling zone below the levitating batch, - casting the whole batch into the casting mold by moving the induction coils in at least one pair from the melting position with low distance into the casting position with high distance, - removing the solidified cast body from the casting mold. - bringing the pairs of induction coils into the melting position with low distance, - introducing a batch of a starting material into the zone of influence of at least one electromagnetic alternating field so that the batch is hold in a levitation state, - melting the batch, - positioning a casting mold in a filling zone below the levitating batch, - casting the whole batch into the casting mold by moving the induction coils in at least one pair from the melting position with low distance into the casting position with high distance, - removing the solidified cast body from the casting mold.
A transportation system for transporting packaging containers through a series of processing steps, comprising at least one endless conveyor following a path including guide elements and at least one drive element, base elements distributed along the length of the endless conveyor, wherein in an operational position the base elements are rigidly attached to the endless conveyor, and wherein the at least one drive element comprises recesses for receiving the base elements; characterized in that the base elements are releasably arranged in positions that are continuously adjustable along the length of the conveyor.
Flywheel arrangement for an internal combustion engine the arrangement comprising a starter motor having a pinion gear at an output shaft, which pinion gear is arranged in constant engagement with a corresponding crank gear of a crank wheel located between an engine block and a flywheel assembly of the engine, which crank wheel is operatively connected to a crankshaft of the engine via a one-way dutch unit, where the flywheel assembly comprises a first flywheel body adapted to be connected to the crankshaft of the engine, a second flywheel body which is rotatable relative to the first flywheel body and coupled thereto such that is able to move elastically through a limited angular distance relative to the first flywheel body, and an interlocking device including at least one locking arrangement adapted to produce an interlocking connection between the second flywheel body and the first flywheel body during cranking of the internal combustion engine, characterised in that the at least one locking arrangement is adapted to produce the interlocking connection between the second flywheel body and the first flywheel body when there is no relative rotational motion between the flywheel assembly and the crank wheel and release the interlocking connection between the second flywheel body and the first flywheel body in response to relative rotational motion between the flywheel assembly and the crank wheel.
An amino-modified chip, comprising: a substrate modified with an epoxy group; a polymer attached to the substrate via the epoxy group, wherein at least one structural unit of the polymer comprises an amino group, and the amino group is a primary amino group and/or a secondary amino group; and a probe attached to the polymer, wherein the probe is attached to the polymer via a linker compound, and the linker compound has a molecular structure comprising a first linker compound and a second linker compound; the first linker compound is bonded to the probe, and the second linker compound is attached to the polymer through the amino group, wherein the second linker compound is selected from at least one of an -NHS group, an epoxy group and an isocyanate group, wherein the second linker compound is made of NHS-PEG n -DBCO or NHS-PEG n -N 3, wherein n is 3 to 2000, and group -NHS in NHS-PEG n -DBCO or NHS-PEG n -N 3 is attached to the amino group via reaction. a substrate modified with an epoxy group; a polymer attached to the substrate via the epoxy group, wherein at least one structural unit of the polymer comprises an amino group, and the amino group is a primary amino group and/or a secondary amino group; and a probe attached to the polymer, wherein the probe is attached to the polymer via a linker compound, and the linker compound has a molecular structure comprising a first linker compound and a second linker compound; the first linker compound is bonded to the probe, and the second linker compound is attached to the polymer through the amino group, wherein the second linker compound is selected from at least one of an -NHS group, an epoxy group and an isocyanate group, wherein the second linker compound is made of NHS-PEG n -DBCO or NHS-PEG n -N 3, wherein n is 3 to 2000, and group -NHS in NHS-PEG n -DBCO or NHS-PEG n -N 3 is attached to the amino group via reaction.
A method of wireless communication at a first user equipment, UE, comprising: establishing (706, 802, 902) one or more unicast links with a second UE; changing (708, 709, 804, 904) a connection state with the second UE from a sidelink disconnected state to a sidelink connected state based on an establishment of a first unicast link of the one or more unicast links; changing (716, 812, 912) the connection state with the second UE from the sidelink connected state to the sidelink disconnected state when each of the one or more unicast links with the second UE is released or when a configured timer expires; and the method is characterised by, sending, to a serving base station, over a radio resource control, RRC, connection with the serving base station, an indication of the change in the connection state with the second UE from the sidelink connected state to the sidelink disconnected state. establishing (706, 802, 902) one or more unicast links with a second UE; changing (708, 709, 804, 904) a connection state with the second UE from a sidelink disconnected state to a sidelink connected state based on an establishment of a first unicast link of the one or more unicast links; changing (716, 812, 912) the connection state with the second UE from the sidelink connected state to the sidelink disconnected state when each of the one or more unicast links with the second UE is released or when a configured timer expires; and the method is characterised by, sending, to a serving base station, over a radio resource control, RRC, connection with the serving base station, an indication of the change in the connection state with the second UE from the sidelink connected state to the sidelink disconnected state.
A method for controlling an air conditioner, comprising: receiving a turning-on remote control signal sent by an air conditioner socket through a signal sending component built in the air conditioner socket, wherein the turning-on remote control signal is generated and sent by the air conditioner socket after a signal receiving component built in the air conditioner socket or power statistic component built in the air conditioner socket determines that an air conditioner is turned on, wherein the turning-on remote control signal contains an identifier of the air conditioner socket, and wherein a plug of the air conditioner has been plugged into the air conditioner socket; querying whether a rapid working mode of the air conditioner is in an enabled state according to a corresponding relationship between the identifier of the air conditioner socket and a working state of the air conditioner, the rapid working mode being a turning-on rapid cooling mode or a turning-on rapid heating mode; and when the rapid working mode of the air conditioner is in the enabled state, sending a first remote control signal to the air conditioner socket, wherein the first remote control signal is configured to instruct the air conditioner socket to control the air conditioner to run with a working parameter of the rapid working mode when receiving the first remote control signal through the signal receiving component. receiving a turning-on remote control signal sent by an air conditioner socket through a signal sending component built in the air conditioner socket, wherein the turning-on remote control signal is generated and sent by the air conditioner socket after a signal receiving component built in the air conditioner socket or power statistic component built in the air conditioner socket determines that an air conditioner is turned on, wherein the turning-on remote control signal contains an identifier of the air conditioner socket, and wherein a plug of the air conditioner has been plugged into the air conditioner socket; querying whether a rapid working mode of the air conditioner is in an enabled state according to a corresponding relationship between the identifier of the air conditioner socket and a working state of the air conditioner, the rapid working mode being a turning-on rapid cooling mode or a turning-on rapid heating mode; and when the rapid working mode of the air conditioner is in the enabled state, sending a first remote control signal to the air conditioner socket, wherein the first remote control signal is configured to instruct the air conditioner socket to control the air conditioner to run with a working parameter of the rapid working mode when receiving the first remote control signal through the signal receiving component.
A system for identifying vulnerability exploitation, comprising: one or more processors; memory; and one or more programs stored in the memory, the one or more programs comprising instructions to: compare a first version of a software module with a second version of a software module; determine one or more differences between the first version and the second version, wherein determining one or more differences includes disassembling both the first and second versions of the software module into CPU instructions, converting the CPU instructions into an intermediate language or representation "IR", and using differences found in IR form to construct symbolic constraints; represent the one or more differences as symbolic constraints, and generate a firewall for identifying exploitative input using the symbolic constraints. one or more processors; memory; and one or more programs stored in the memory, the one or more programs comprising instructions to: compare a first version of a software module with a second version of a software module; determine one or more differences between the first version and the second version, wherein determining one or more differences includes disassembling both the first and second versions of the software module into CPU instructions, converting the CPU instructions into an intermediate language or representation "IR", and using differences found in IR form to construct symbolic constraints; represent the one or more differences as symbolic constraints, and generate a firewall for identifying exploitative input using the symbolic constraints. compare a first version of a software module with a second version of a software module; determine one or more differences between the first version and the second version, wherein determining one or more differences includes disassembling both the first and second versions of the software module into CPU instructions, converting the CPU instructions into an intermediate language or representation "IR", and using differences found in IR form to construct symbolic constraints; represent the one or more differences as symbolic constraints, and generate a firewall for identifying exploitative input using the symbolic constraints.
A device for the exchange of heat between a first fluid intended to be vaporized and a second fluid intended to be cooled and/or condensed, comprising: - a shell defining an interior volume to receive the first fluid extending along a longitudinal axis (A-A'); - a tube bundle arranged inside the shell, the tube bundle extending longitudinally in the interior volume to receive the second fluid; - a disengagement member, able to perform liquid vapor separation in the fluid carried from the interior volume, the disengagement member being arranged above the tube bundle; in at least one plane perpendicular to the longitudinal axis (A-A'), the disengagement member including at least two separate fluid passage regions (90, 92, 94) and at least one intermediate region (88, 89) preventing fluid from passing, each fluid passage region (90, 92, 94) being formed by an open-worked partition, and the fluid passage region (90, 92, 94) defining a downstream gas recovery space, located opposite the interior volume relative to the disengagement member, characterized in that the disengagement member comprises at least a first horizontal fluid passage region located at a first height and at least a second horizontal fluid passage region located at a second height above the first height. - a shell defining an interior volume to receive the first fluid extending along a longitudinal axis (A-A'); - a tube bundle arranged inside the shell, the tube bundle extending longitudinally in the interior volume to receive the second fluid; - a disengagement member, able to perform liquid vapor separation in the fluid carried from the interior volume, the disengagement member being arranged above the tube bundle;
A computer-implemented method, comprising: receiving a signal from a catheter, the signal indicative of a location of the catheter in a heart cavity of a patient over a period of time; determining at least one geometric feature of a three-dimensional surface model of the heart cavity, the three-dimensional surface model constructed based, at least in part, on multiple locations visited by the catheter in the heart cavity; and determining a display view of the three-dimensional surface model based, at least in part, on (i) the location of the catheter in the heart cavity, (ii) one or more previous locations of the catheter in the heart cavity, and (iii) the at least one determined geometric feature of the three-dimensional surface model, wherein determining the display view includes processing the received signal such that a transition from a previous display view to the determined display view is smooth and is perceived as continuous motion of the three-dimensional surface representation, and/or processing the display view such that the determined display view is based on one or more previous display views. receiving a signal from a catheter, the signal indicative of a location of the catheter in a heart cavity of a patient over a period of time; determining at least one geometric feature of a three-dimensional surface model of the heart cavity, the three-dimensional surface model constructed based, at least in part, on multiple locations visited by the catheter in the heart cavity; and determining a display view of the three-dimensional surface model based, at least in part, on (i) the location of the catheter in the heart cavity, (ii) one or more previous locations of the catheter in the heart cavity, and (iii) the at least one determined geometric feature of the three-dimensional surface model, wherein determining the display view includes processing the received signal such that a transition from a previous display view to the determined display view is smooth and is perceived as continuous motion of the three-dimensional surface representation, and/or processing the display view such that the determined display view is based on one or more previous display views. processing the received signal such that a transition from a previous display view to the determined display view is smooth and is perceived as continuous motion of the three-dimensional surface representation, and/or processing the display view such that the determined display view is based on one or more previous display views.