mhurhangee/ep-ind-claims huggingface dataset:
A yarn winding apparatus being adapted for cheese-shaped packages on cylindrical bobbins as well as for conical packages on conical bobbins of various conicity comprising: a bobbin installation device that includes a bobbin gripping section adapted to perform a bobbin supplying operation by gripping the bobbin, onto which a yarn is to be wound, and supplying the bobbin to a target position; and a rocker shaft adapted to swing to bring the bobbin gripping section to the target position; and a bobbin holding section that includes two holding mechanisms adapted to hold the bobbin at two ends in an axial direction of the bobbin to thereby hold the bobbin supplied from the bobbin installation device, the bobbin holding section adapted to define the target position of the bobbin, in an orientation depending on a taper angle of the package to be formed, wherein an axis of the rocker shaft is substantially parallel to a line passing through centers of the holding mechanism, the bobbin installation device further includes a path adjusting plate adapted to adjust a path along which the bobbin is to be supplied by the bobbin gripping section to the target position by adjusting an orientation of the rocker shaft, characterized in that, the bobbin installation device includes a cradle operating arm adapted to operate the bobbin holding section to perform a dismounting operation, the dismounting operation being an operation of dismounting the bobbin from the bobbin holding section, and is adapted so that the bobbin supplying operation performed by the bobbin gripping section and the dismounting operation performed by the cradle operating arm are independently operable. a bobbin installation device that includes a bobbin gripping section adapted to perform a bobbin supplying operation by gripping the bobbin, onto which a yarn is to be wound, and supplying the bobbin to a target position; and a rocker shaft adapted to swing to bring the bobbin gripping section to the target position; and a bobbin holding section that includes two holding mechanisms adapted to hold the bobbin at two ends in an axial direction of the bobbin to thereby hold the bobbin supplied from the bobbin installation device, the bobbin holding section adapted to define the target position of the bobbin, in an orientation depending on a taper angle of the package to be formed, wherein an axis of the rocker shaft is substantially parallel to a line passing through centers of the holding mechanism, the bobbin installation device further includes a path adjusting plate adapted to adjust a path along which the bobbin is to be supplied by the bobbin gripping section to the target position by adjusting an orientation of the rocker shaft, characterized in that, the bobbin installation device includes a cradle operating arm adapted to operate the bobbin holding section to perform a dismounting operation, the dismounting operation being an operation of dismounting the bobbin from the bobbin holding section, and is adapted so that the bobbin supplying operation performed by the bobbin gripping section and the dismounting operation performed by the cradle operating arm are independently operable.
A water heater containing a water tank featuring an external jacket and a pipe coil wound spirally around the water tank in the space between the said external jacket and a wall of the water tank, the water tank is closed at the bottom with a bottom wall fitted with an outlet stub pipe for the heated water, and open, at least partially, at the top providing access to the space between the water tank and the external jacket of the water tank, where the external jacket is fitted at the bottom with an inlet stub pipe for cold water, while the pipe coil is made up of at least two pipes twisted together spirally and wound around the said water tank, where the pipes feature collectors at their both ends, i.e. at the inlet and outlet, and where a working agent flows inside the pipes, while the outlet from the pipe coil for the working agent is positioned at the bottom of the external jacket of the water tank, wherein the inlet end through which the working agent flows into the pipe coil pierces the bottom of the water tank.
Amorphous precious metal alloy, characterized by the following composition: A a B b C c, whereby - A designates at least one precious metal of a group consisting of platinum and palladium, - B designates at least one element of a group consisting of Al, Au, Ag and Cu, - C designates at least one element of a group consisting of Ga and Ge, whereby the mass amount a is in the range of 45-60 mass percent, preferably in the range of 45-59 mass percent, further preferably in the range of 48 to 54 mass percent, the mass amount b is in the range between 39-55 mass percent, preferably in the range of 39-49 mass percent, further preferably in the range of 40 to 47 mass percent, and the mass amount c is in the range of 0-13 mass percent, preferably in the range of 1-13 mass percent, further preferably in the range of 2 to 10 mass percent, and in particular preferably in the range of 2 to 5 mass percent, whereby preferably, when platinum and palladium are simultaneously present, the amorphous precious metal alloy does not contain aluminum as a single alloy component of the group B, and wherein the afore-mentioned mass amounts a, b and c, apart from usual admixtures, impurities and alloy tolerances, supplement to 100 mass percent. - A designates at least one precious metal of a group consisting of platinum and palladium, - B designates at least one element of a group consisting of Al, Au, Ag and Cu, - C designates at least one element of a group consisting of Ga and Ge,
Conductor connection terminal - with an insulating material housing, - with a spring-loaded clamping connection in the insulating material housing with at least one clamping spring bent in the form of a loop and with a busbar, the clamping spring having an abutment leg resting against the busbar, a spring bend adjoining the abutment leg and a clamping leg adjoining the spring bend and pointing with a free clamping end towards the busbar to form a clamping point, - with an actuating lever as actuating element, characterized in that the actuating lever is pivotably accommodated in the insulating material housing for opening the clamping point, - the abutment leg is bent in a U-shape to form a conductor receiving pocket for receiving a stripped free end of an electrical conductor which can be clamped to the spring-loaded terminal connection, - a web is formed in the section of the abutment leg opposite the busbar by at least one indentation, - a portion of the actuating element is received in the free space of the indentation in the abutment leg. - with an insulating material housing, - with a spring-loaded clamping connection in the insulating material housing with at least one clamping spring bent in the form of a loop and with a busbar, the clamping spring having an abutment leg resting against the busbar, a spring bend adjoining the abutment leg and a clamping leg adjoining the spring bend and pointing with a free clamping end towards the busbar to form a clamping point, - with an actuating lever as actuating element, characterized in that the actuating lever is pivotably accommodated in the insulating material housing for opening the clamping point, - the abutment leg is bent in a U-shape to form a conductor receiving pocket for receiving a stripped free end of an electrical conductor which can be clamped to the spring-loaded terminal connection, - a web is formed in the section of the abutment leg opposite the busbar by at least one indentation, - a portion of the actuating element is received in the free space of the indentation in the abutment leg.
A production method for producing a setpoint signal representative of a flow rate of fuel that a fuel metering device having a slide valve is to supply to a system for injecting fuel into a combustion chamber of a turbine engine, the position of the valve of the metering device being determined on the basis of the setpoint signal and said method comprising: · a step of obtaining a first signal representative of a measurement as delivered by a flow meter of a flow rate of fuel injected into the combustion chamber; · a step of evaluating a second signal representative of the flow rate of fuel injected into the combustion chamber on the basis of a measurement of the position of the valve of the metering device; · a step of estimating a third signal representative of the measurement delivered by the flow meter by applying a digital model of the flow meter to the second signal; and · a step of producing the setpoint signal by adding a compensation signal to the first signal, the compensation signal being obtained by subtracting the third signal from the second signal. · a step of obtaining a first signal representative of a measurement as delivered by a flow meter of a flow rate of fuel injected into the combustion chamber; · a step of evaluating a second signal representative of the flow rate of fuel injected into the combustion chamber on the basis of a measurement of the position of the valve of the metering device; · a step of estimating a third signal representative of the measurement delivered by the flow meter by applying a digital model of the flow meter to the second signal; and · a step of producing the setpoint signal by adding a compensation signal to the first signal, the compensation signal being obtained by subtracting the third signal from the second signal.
A ship comprising: a hull; and an ammonia storage tank capable of storing ammonia therein; an inert gas supply device that supplies an inert gas to a circulation path for the ammonia, which communicates with the ammonia storage tank; a vent pipe that leads the ammonia in the circulation path together with the inert gas supplied by the inert gas supply device to an outside; and a treatment tank which is provided in a middle of the vent pipe and stores water therein, and into which the inert gas and the ammonia are introduced from the vent pipe below a water surface (Wf) of the water. a hull; and an ammonia storage tank capable of storing ammonia therein; an inert gas supply device that supplies an inert gas to a circulation path for the ammonia, which communicates with the ammonia storage tank; a vent pipe that leads the ammonia in the circulation path together with the inert gas supplied by the inert gas supply device to an outside; and a treatment tank which is provided in a middle of the vent pipe and stores water therein, and into which the inert gas and the ammonia are introduced from the vent pipe below a water surface (Wf) of the water.
A method, comprising: receiving, by a user equipment,, a time division duplex, TDD, uplink/downlink, UL/DL, configuration indication pattern, the TDD UL/DL configuration indication pattern is used to indicate multiple TDD UL/DL configurations in DCI format 1C, wherein each of the TDD UL/DL configurations is associated with certain configured carriers and a concrete fixed downlink subframe index, characterized in that the configuration indication pattern comprises a mapping relationship between the TDD UL/DL configurations in one DCI format 1C in one fixed downlink subframe and a carrier index. receiving, by a user equipment,, a time division duplex, TDD, uplink/downlink, UL/DL, configuration indication pattern, the TDD UL/DL configuration indication pattern is used to indicate multiple TDD UL/DL configurations in DCI format 1C, wherein each of the TDD UL/DL configurations is associated with certain configured carriers and a concrete fixed downlink subframe index,
A piston limiting structure, comprising: a cylinder and a piston, wherein the cylinder has a piston hole perpendicular to an axial direction of the cylinder and penetrating the cylinder, wherein a projection of the piston hole in a penetrating direction is circular; the piston is disposed in the piston hole in a form-fit manner and slid in the piston hole in a reciprocating manner, wherein a side wall of the piston is provided with a limiting surface; and the piston limiting structure comprises a limiting member, wherein the cylinder is provided with a limiting hole passing from an outer wall of the cylinder to the piston hole, the limiting member is mounted in the limiting hole in the form-fit manner, and the limiting member abuts against the limiting surface to limit a rotation of the piston around its own axis, wherein the limiting surface does not penetrate through two ends of the side wall of the piston along an axial direction of the piston, characterized in that the limiting hole penetrates from an end face of the cylinder to the piston hole and is parallel to an axial direction of the cylinder. a cylinder and a piston, wherein the cylinder has a piston hole perpendicular to an axial direction of the cylinder and penetrating the cylinder, wherein a projection of the piston hole in a penetrating direction is circular; the piston is disposed in the piston hole in a form-fit manner and slid in the piston hole in a reciprocating manner, wherein a side wall of the piston is provided with a limiting surface; and the piston limiting structure comprises a limiting member, wherein the cylinder is provided with a limiting hole passing from an outer wall of the cylinder to the piston hole, the limiting member is mounted in the limiting hole in the form-fit manner, and the limiting member abuts against the limiting surface to limit a rotation of the piston around its own axis, wherein the limiting surface does not penetrate through two ends of the side wall of the piston along an axial direction of the piston, characterized in that the limiting hole penetrates from an end face of the cylinder to the piston hole and is parallel to an axial direction of the cylinder.
Sensor for determining at least one parameter of a fluid medium flowing through a measurement channel, in particular an intake air mass flow of an internal combustion engine, wherein the sensor has a sensor housing, in particular a plug-in sensor which is inserted or able to be inserted into a flow pipe and in which the measurement channel is formed, and at least one sensor chip, arranged in the measurement channel, for determining the parameter of the fluid medium, wherein the sensor housing has an electronics compartment for receiving an electronics module and has an electronics compartment cover for closing off the electronics compartment, wherein the electronics module is inserted into the electronics compartment, wherein the electronics compartment cover at least partially has electrically conductive properties, wherein the electronics module is electrically conductively connected to an inside of the electronics compartment cover, wherein the electronics module has a base plate, wherein the base plate is electrically conductively connected to the inside of the electronics compartment cover, characterized in that the base plate is connected to the inside of the electronics compartment cover such that it is combined with an at least partial material removal from a surface of the electronics compartment cover, whereby either - the electronics compartment cover has a projection provided with a hole and the base plate has a contact pin, wherein the diameter of the contact pin is greater than the diameter of the hole and the contact pin scratches an injection-moulded skin or surface of the electronics compartment cover, or - the electronics compartment cover has a projection and the base plate has a sharp-edged groove, wherein a width of the groove is less than or equal to a width of the projection and the projection is contacted into the groove by means of a press fit and the sharp-edged groove scratches the outside of the projection, or - the electronics compartment cover has a projection and the base plate has a sharp-edged punched edge, wherein the sharp-edged punched edge scratches a side surface of the projection. - the electronics compartment cover has a projection provided with a hole and the base plate has a contact pin, wherein the diameter of the contact pin is greater than the diameter of the hole and the contact pin scratches an injection-moulded skin or surface of the electronics compartment cover, or - the electronics compartment cover has a projection and the base plate has a sharp-edged groove, wherein a width of the groove is less than or equal to a width of the projection and the projection is contacted into the groove by means of a press fit and the sharp-edged groove scratches the outside of the projection, or - the electronics compartment cover has a projection and the base plate has a sharp-edged punched edge, wherein the sharp-edged punched edge scratches a side surface of the projection.
An apparatus comprising: a first identification band forming a loop, wherein the first identification band shows evidence of tampering upon removal, the evidence of tampering comprising shredding, tearing, discoloration, delamination, or change in physical dimensions; and an oxygen-saturation sensor; characterized in that the apparatus further comprises: a second identification band forming a loop, wherein the second identification band shows evidence of tampering upon removal, the evidence of tampering comprising shredding, tearing, discoloration, delamination, or change in physical dimensions; a bridging band connected to the first and second identification bands; and a sensor signal cable attached to the oxygen-saturation sensor and passed through the loop formed by the first identification band, extended along the bridging band, and passed through the loop formed by the second identification band. a first identification band forming a loop, wherein the first identification band shows evidence of tampering upon removal, the evidence of tampering comprising shredding, tearing, discoloration, delamination, or change in physical dimensions; and an oxygen-saturation sensor; characterized in that the apparatus further comprises: a second identification band forming a loop, wherein the second identification band shows evidence of tampering upon removal, the evidence of tampering comprising shredding, tearing, discoloration, delamination, or change in physical dimensions; a bridging band connected to the first and second identification bands; and a sensor signal cable attached to the oxygen-saturation sensor and passed through the loop formed by the first identification band, extended along the bridging band, and passed through the loop formed by the second identification band. a second identification band forming a loop, wherein the second identification band shows evidence of tampering upon removal, the evidence of tampering comprising shredding, tearing, discoloration, delamination, or change in physical dimensions; a bridging band connected to the first and second identification bands; and a sensor signal cable attached to the oxygen-saturation sensor and passed through the loop formed by the first identification band, extended along the bridging band, and passed through the loop formed by the second identification band.
A device for forming a circumferential groove in a pipe element, said device comprising: a pinion fixed against rotation about a pinion axis arranged coaxially with said pinion, and wherein the pinion is rotationally fixed by mounting the pinion on a shaft, and wherein the shaft is engaged with a mount that fixes the shaft in rotation relatively to a base; a carriage surrounding said pinion, said carriage being rotatable about said pinion axis and defining an opening arranged coaxially with said pinion axis for receiving said pipe element; and wherein the carriage is mounted on an end of a drive shaft, and wherein the drive shaft is hollow, surrounds and is coaxial with the pinion shaft, and wherein bearings are positioned between the drive shaft and the pinion shaft permit the drive shaft, and hence the carriage attached thereto, to rotate about the pinion axis; a plurality of gears mounted on said carriage, each said gear being rotatable relatively to said carriage about a respective gear axis, each said gear engaging with said pinion; a plurality of cam bodies, each said cam body mounted on a respective one of said gears; a plurality of first cam surfaces, each one of said first cam surfaces extending around a respective one of said cam bodies and engageable with said pipe element received within said opening, each one of said first cam surfaces comprising a region of increasing radius, each one of said first cam surfaces comprising a first discontinuity of said first cam surface. a pinion fixed against rotation about a pinion axis arranged coaxially with said pinion, and wherein the pinion is rotationally fixed by mounting the pinion on a shaft, and wherein the shaft is engaged with a mount that fixes the shaft in rotation relatively to a base; a carriage surrounding said pinion, said carriage being rotatable about said pinion axis and defining an opening arranged coaxially with said pinion axis for receiving said pipe element; and wherein the carriage is mounted on an end of a drive shaft, and wherein the drive shaft is hollow, surrounds and is coaxial with the pinion shaft, and wherein bearings are positioned between the drive shaft and the pinion shaft permit the drive shaft, and hence the carriage attached thereto, to rotate about the pinion axis; a plurality of gears mounted on said carriage, each said gear being rotatable relatively to said carriage about a respective gear axis, each said gear engaging with said pinion; a plurality of cam bodies, each said cam body mounted on a respective one of said gears; a plurality of first cam surfaces, each one of said first cam surfaces extending around a respective one of said cam bodies and engageable with said pipe element received within said opening, each one of said first cam surfaces comprising a region of increasing radius, each one of said first cam surfaces comprising a first discontinuity of said first cam surface.
Vertical-takeoff aircraft with a wing, wherein a first drive unit and a second drive unit are arranged mounted pivotably on the wing, wherein a first distance of the first drive unit from a longitudinal axis of the aircraft is approximately identical to a second distance of the second drive unit from the longitudinal axis of the aircraft, wherein the first drive unit and the second drive unit are pivotable into a horizontal flying position and a vertical flying position, and wherein, in the vertical flying position, the first drive unit and the second drive unit are arranged in an approximately horizontal plane, characterized in that the entire load of the drive units (4, 5) is transmitted to a fuselage of the aircraft by means of one or more suitable rails which are arranged within the wing, in that, in the horizontal flying position, the first drive unit is arranged above a wing surface, and the second drive unit is arranged below the wing surface, on the wing, and in that the first drive unit and the second drive unit are arranged on the wing at a distance from an end of the wing facing away from a longitudinal axis of the aircraft.
A process for preparing a catalyst consisting of a support body and a catalytically active composition applied on the surface of the support body, in which the active composition is attached to the surface of the support body with the aid of a binder, wherein the active composition is a finely divided mixture of - at least one finely divided multielement oxide comprising the elements Mo and V and - at least one finely divided substance S selected from the group consisting of oxides of molybdenum and of compounds of molybdenum from which an oxide of molybdenum is formed under the action of elevated temperature and molecular oxygen, where an oxide of molybdenum is understood to mean a substance which consists of Mo and O to an extent of ≥ 98% by weight. - at least one finely divided multielement oxide comprising the elements Mo and V and - at least one finely divided substance S selected from the group consisting of oxides of molybdenum and of compounds of molybdenum from which an oxide of molybdenum is formed under the action of elevated temperature and molecular oxygen,