mhurhangee/ep-ind-claims huggingface dataset:
Exhaust gas heating unit for an exhaust system of an internal combustion engine, comprising: - at least one jacket heating conductor element with a jacket and with an electrical heating conductor, which extends in the jacket and is enclosed by insulating material, and - a heat transfer surface formation, which is arranged on an outer side of the jacket of the at least one jacket heating conductor element and is in heat transfer contact with it, wherein the heat transfer surface formation comprises at least one heat transfer element extending in a meandering manner along the jacket heating conductor element with a plurality of heat transfer element sections, which pass over one into the other in bent areas and are arranged following one another in a longitudinal direction of the jacket heating conductor element, wherein a passage opening, through which the at least one jacket heating conductor element passes, is formed in each heat transfer element sections, in association with the jacket heating conductor element, characterized in that a collar, which encloses the passage opening formed in the heat transfer element section, projects from the heat transfer element section and is in contact with the jacket heating conductor element, is provided at at least one heat transfer element section. - at least one jacket heating conductor element with a jacket and with an electrical heating conductor, which extends in the jacket and is enclosed by insulating material, and - a heat transfer surface formation, which is arranged on an outer side of the jacket of the at least one jacket heating conductor element and is in heat transfer contact with it,
A hydraulic fluid transfer coupling having an annular stator, an annular first coaxial rotor rotatable about the stator, and an annular second coaxial rotor rotatable about the stator; the first rotor being radially inwards of the stator, the second rotor being radially outwards of the stator, at least part of the first rotor axially overlapping with the stator across a first rotary interface, and at least part of the second rotor axially overlapping with the stator across a second rotary interface; the hydraulic fluid transfer coupling further comprising: a first rotor mounting shaft carrying the annular second coaxial rotor and being radially outward of the second coaxial rotor; and a second rotor mounting shaft carrying the annular first coaxial rotor and being radially inward of the first coaxial rotor, wherein in use, the first and second rotor mounting shafts are rotatable by a gearbox; and wherein in use, a power drive shaft can be axially aligned with and penetratable through the centre of the hydraulic fluid transfer coupling; wherein the first rotor carries one or more first rotating fluid lines, the second rotor carries one or more second rotating fluid lines, and the stator carries one or more first static fluid lines corresponding to the first rotating fluid lines and one or more second static fluid lines corresponding to the second rotating fluid lines, each pair of a first rotating fluid line and the corresponding first static fluid line being fluidly coupled across the first rotary interface and each pair of a second rotating fluid line and the corresponding second static fluid line being fluidly coupled across the second rotary interface, whereby hydraulic fluid is transferable between each static fluid line and the corresponding rotating fluid line.
Pack with opening protection, in particular childproof pack, having an outer pack and an inner pack, wherein the inner pack is at least partially received in the outer pack; and wherein the inner pack for opening and closing the pack is disposed so as to be pivotable in the outer pack; characterized in that the pack as opening protection has at least one securing means to impede or prevent opening of the pack or accessing of the products disposed in the inner pack; wherein the at least one securing means is effective between the inner pack and the outer pack so as to impede or prevent pivoting of the inner pack in the outer pack for opening the pack; wherein the inner pack and the outer pack are assigned corresponding latching means as securing means, the latter being in mutual engagement in the case of a closed pack and being specified to be able to be disengaged by the consumer so as to open the pack.
An end effector for a surgical instrument, comprising: first and second jaws (52, 54), the first jaw having a cartridge body removably attached thereto, the cartridge body having a plurality of staple cavities configured to seat staples therein and the second jaw having an anvil with a plurality of staple forming openings formed therein, at least one of the first and second jaws (52, 54) being movable relative to the other jaw; and a plurality of sealing adjunct segments coupled to one another and at least one of the first and second jaws (52, 54) such that a staple ejected from the cartridge body passes through one of the plurality of sealing adjunct segments and tissue disposed between the first and second jaws (52, 54), wherein each of the plurality of sealing adjunct segments are coupled to one another by a plurality of connecting branches, and at least one of the first and second jaws (52, 54) includes a plurality of features formed thereon that are configured to sever the plurality of connecting branches when deploying staples into tissue disposed between the first and second jaws (52, 54). first and second jaws (52, 54), the first jaw having a cartridge body removably attached thereto, the cartridge body having a plurality of staple cavities configured to seat staples therein and the second jaw having an anvil with a plurality of staple forming openings formed therein, at least one of the first and second jaws (52, 54) being movable relative to the other jaw; and a plurality of sealing adjunct segments coupled to one another and at least one of the first and second jaws (52, 54) such that a staple ejected from the cartridge body passes through one of the plurality of sealing adjunct segments and tissue disposed between the first and second jaws (52, 54), wherein each of the plurality of sealing adjunct segments are coupled to one another by a plurality of connecting branches, and at least one of the first and second jaws (52, 54) includes a plurality of features formed thereon that are configured to sever the plurality of connecting branches when deploying staples into tissue disposed between the first and second jaws (52, 54).
Assembly for measuring an ionization in a combustion chamber of a heater, to which a combustion gas air mixture can be fed and in which this mixture can be burned, wherein in addition to an ignition electrode and/or a ground electrode at least two ionization electrodes (15, 16) are present for measuring the ionization and wherein the two ionization electrodes (15, 16) are connected or can be connected respectively individually with an evaluation electronics, such that their ionization signals can be evaluated separately, characterised in that one of the ionization electrodes is made of a scale-resistant material and the other is made of a non-scale-resistant material.
An electrode assembly (100, 300) for a secondary battery comprising: a plurality of electrode members (110, 310) arranged in the form of a stack along an arrangement baseline X; and separation means (140, 340) arranged to separate adjacent electrode members from one another, wherein the separation means comprise first (150, 350), second (160, 360), third (170, 370), and fourth (180, 380) separators having a common winding axis P that is perpendicular to and crosses the arrangement baseline X, the first (150, 350), second (160, 360), third (170, 370), and fourth (180, 380) separators being sequentially disposed in the stack along the arrangement baseline X, wherein inner ends (150a, 160a, 170a, 180a) of each of the four separators are disposed within the electrode assembly; and characterised int that the inner ends (150a, 160a) of the first and second separators, and the inner ends (170a, 180a) of the third and fourth separators are disposed at opposite sides of the arrangement baseline X. a plurality of electrode members (110, 310) arranged in the form of a stack along an arrangement baseline X; and separation means (140, 340) arranged to separate adjacent electrode members from one another, wherein the separation means comprise first (150, 350), second (160, 360), third (170, 370), and fourth (180, 380) separators having a common winding axis P that is perpendicular to and crosses the arrangement baseline X, the first (150, 350), second (160, 360), third (170, 370), and fourth (180, 380) separators being sequentially disposed in the stack along the arrangement baseline X, wherein inner ends (150a, 160a, 170a, 180a) of each of the four separators are disposed within the electrode assembly; and characterised int that the inner ends (150a, 160a) of the first and second separators, and the inner ends (170a, 180a) of the third and fourth separators are disposed at opposite sides of the arrangement baseline X.
A fluid conduit for use in imparting energy to a fluid present in the fluid conduit or flowing therethrough for use in sensing a property of the fluid, the fluid conduit comprising: a wall defining a fluid flow path and comprising a composite material formed of at least a matrix and one or more reinforcing elements embedded within the matrix, wherein the reinforcing elements comprise carbon fibres; and a confinement feature within the wall and being configured to confine energy within a cavity, wherein at least a portion of the fluid flow path extends through the cavity, wherein the confinement feature is configured to confine electromagnetic energy having a radio frequency, wherein the wall comprises an inert region extending between the confinement feature and the fluid flow path, the inert region being configured to transmit energy therethrough, wherein the fluid conduit comprises a source of electromagnetic energy and wherein the cavity is configured to be resonant at a predetermined radio frequency or over a predetermined range of radio frequencies. a wall defining a fluid flow path and comprising a composite material formed of at least a matrix and one or more reinforcing elements embedded within the matrix, wherein the reinforcing elements comprise carbon fibres; and a confinement feature within the wall and being configured to confine energy within a cavity, wherein at least a portion of the fluid flow path extends through the cavity, wherein the confinement feature is configured to confine electromagnetic energy having a radio frequency, wherein the wall comprises an inert region extending between the confinement feature and the fluid flow path, the inert region being configured to transmit energy therethrough, wherein the fluid conduit comprises a source of electromagnetic energy and wherein the cavity is configured to be resonant at a predetermined radio frequency or over a predetermined range of radio frequencies.
A medicant injection device (10, 100), comprising: a compressible body (12, 112) having a proximal end (14, 114), and a distal end (16, 116), and a plurality of bellows (18, 118, 30, 130) located between the proximal end (14, 114) and the distal end (16, 116), the compressible body (12, 112) defining an inner cavity (22, 122) for holding a liquid medicant,; and a tip (42, 142) positioned at the proximal end (14, 114) of the compressible body (12, 112); and an outer luer body (56, 172) positioned around an external surface of the tip (42, 142) over and engaged with the tip (42, 142); wherein the tip (42, 142) and the outer luer body (56, 172) form a first fitting configured to be connected with a second fitting; and characterized in that the distal end (16, 116) of the compressible body (12, 112) includes an annular locking protrusion (28, 128) configured to engage one or more of the bellows (30, 130) at the distal end (16, 116) of the compressible body (12, 112) to enable priming of the device (10, 100). a compressible body (12, 112) having a proximal end (14, 114), and a distal end (16, 116), and a plurality of bellows (18, 118, 30, 130) located between the proximal end (14, 114) and the distal end (16, 116), the compressible body (12, 112) defining an inner cavity (22, 122) for holding a liquid medicant,; and a tip (42, 142) positioned at the proximal end (14, 114) of the compressible body (12, 112); and an outer luer body (56, 172) positioned around an external surface of the tip (42, 142) over and engaged with the tip (42, 142); wherein the tip (42, 142) and the outer luer body (56, 172) form a first fitting configured to be connected with a second fitting; and characterized in that the distal end (16, 116) of the compressible body (12, 112) includes an annular locking protrusion (28, 128) configured to engage one or more of the bellows (30, 130) at the distal end (16, 116) of the compressible body (12, 112) to enable priming of the device (10, 100).
A refrigerator, including: a compressor configured to be operated by electric power supplied from a UPS (Uninterruptible Power Supply) which is connected with a battery, when a supply of electric power from a CPS (Commercial Power Supply) is interrupted; a sensor (20, 22) detecting a current signal or a voltage signal of the electric power supplied to the compressor; a controller configured to analyze the current signal or the voltage signal sent from the sensor and determine from which one of the CPS and the UPS the electric power is supplied, wherein the controller determines that supply of powers has been switched from the CPS to the UPS, when the sensor detects a variation in the current or voltage, wherein the sensor comprises a voltage sensor for sensing voltage, the voltage of the UPS has a sine waveform, wherein the controller is configured to determine that supply of power has been switched from the CPS to the UPS, when an amplitude of a third harmonic wave of the voltage of the electric power supplied to the compressor at a lubrication mode performed by the compressor is greater than the amplitude of the third harmonic wave at a driving mode in which the compressor is operated at normal RPM, wherein the controller is configured to control the compressor to be operated in a power saving mode, when the controller determines that the electric power is supplied from the UPS. a compressor configured to be operated by electric power supplied from a UPS (Uninterruptible Power Supply) which is connected with a battery, when a supply of electric power from a CPS (Commercial Power Supply) is interrupted; a sensor (20, 22) detecting a current signal or a voltage signal of the electric power supplied to the compressor; a controller configured to analyze the current signal or the voltage signal sent from the sensor and determine from which one of the CPS and the UPS the electric power is supplied, wherein the controller determines that supply of powers has been switched from the CPS to the UPS, when the sensor detects a variation in the current or voltage, wherein the sensor comprises a voltage sensor for sensing voltage, the voltage of the UPS has a sine waveform, wherein the controller is configured to determine that supply of power has been switched from the CPS to the UPS, when an amplitude of a third harmonic wave of the voltage of the electric power supplied to the compressor at a lubrication mode performed by the compressor is greater than the amplitude of the third harmonic wave at a driving mode in which the compressor is operated at normal RPM, wherein the controller is configured to control the compressor to be operated in a power saving mode, when the controller determines that the electric power is supplied from the UPS.
Hair iron, in particular a straightener, having two arms (2, 3) which are pivotably mounted adjacent to each other, wherein a straightening plate (4, 5), at least one of which can be heated, is arranged on each of the two arms (2, 3), wherein at least one of the straightening plates (4, 5) is resiliently mounted by means of a spring device, characterised in that the spring device has, in a predefined range, a constant spring characteristic curve, such that when the hair iron is used, a preferably constant pressure can be applied to the hair.
A medical X-ray imaging apparatus comprising a frame part (3, 4), an X-ray source for producing X-ray radiation, radiation receiving means for detecting radiation transmitted through an object, support means (5, 8, 9) for supporting the X-ray source and the radiation receiving means in positions on opposite sides of the object, the said support means being connected to the frame part so as to rotate around the axis of rotation, and actuator means for rotating said support means around the said axis of rotation, the apparatus making possible both panoramic imaging and CT imaging, and the X-ray apparatus comprising means for adjusting the ratio of enlargement so as to be optimal for each method of imaging used, respectively, wherein the X-ray apparatus comprises as first receiving means a fixed camera which comprises a detector for CT imaging, and as second receiving means a movable camera, which comprises a detector for panoramic imaging, and said movable camera is arranged to be turned about a pivoting axis transverse to the direction of travel of the X-ray radiation, on a plane essentially parallel to the path of the X-ray radiation, to a first position on the path of the X-ray radiation at a point between the fixed camera and the focus of the X-ray source, where the X-ray radiation is directed at the detector of the movable camera for performing panoramic imaging, and to a second position to the side of the path of the X-ray radiation, where the X-ray radiation is directed at the detector of the fixed camera for performing CT imaging.
A device comprising: - an applicator having a stem and a brush at the end of this stem, the brush presenting a largest transversal dimension between 9 and 14 mm, the brush being at least 30 % wider than it is thick in cross section, - a reservoir containing the product to be applied, having a wiper member defining a wiper orifice traversed by the brush when it is removed from the reservoir, the diameter (d) of the wiper orifice being between 2.5 and 5.5 mm. - an applicator having a stem and a brush at the end of this stem, the brush presenting a largest transversal dimension between 9 and 14 mm, the brush being at least 30 % wider than it is thick in cross section, - a reservoir containing the product to be applied, having a wiper member defining a wiper orifice traversed by the brush when it is removed from the reservoir, the diameter (d) of the wiper orifice being between 2.5 and 5.5 mm.
A hybrid current sensor assembly, comprising: a conductor configured to be connected to both terminals of an external electronic device; a Hall sensor in which a potential difference occurs at both ends thereof due to a magnetic field applied to a Hall core; a shunt terminal; a shunt resistance configured to shunt the current flowing in the conductor; a microprocessor electrically connected to the shunt terminal and configured to measure the current flowing in the conductor; and a circuit board to which the Hall sensor and the shunt terminal are connected, wherein the hybrid current sensor assembly comprises the Hall core to which the magnetic field generated by a current flowing in the conductor is applied, wherein the Hall core is configured such that the magnetic field is concentrated on the Hall sensor, and comprises a first face to cover a bottom side of the conductor, and a second face and a third face bent correspondingly from both edges of the first face and covering both edges of the conductor; characterized in that the circuit board has the microprocessor mounted thereto and comprises a core insertion portion into which the Hall core is inserted. a conductor configured to be connected to both terminals of an external electronic device; a Hall sensor in which a potential difference occurs at both ends thereof due to a magnetic field applied to a Hall core; a shunt terminal; a shunt resistance configured to shunt the current flowing in the conductor; a microprocessor electrically connected to the shunt terminal and configured to measure the current flowing in the conductor; and a circuit board to which the Hall sensor and the shunt terminal are connected, wherein the hybrid current sensor assembly comprises the Hall core to which the magnetic field generated by a current flowing in the conductor is applied, wherein the Hall core is configured such that the magnetic field is concentrated on the Hall sensor, and comprises a first face to cover a bottom side of the conductor, and a second face and a third face bent correspondingly from both edges of the first face and covering both edges of the conductor; characterized in that the circuit board has the microprocessor mounted thereto and comprises a core insertion portion into which the Hall core is inserted.
Process for producing polycrystalline silicon where polycrystalline silicon is deposited on support bodies heated by direct passage of current to afford polycrystalline silicon rods, wherein the support bodies are held on a bottom plate of a reactor and supplied with current via electrodes, wherein the deposition of polycrystalline silicon is terminated when the polycrystalline silicon rods have achieved a desired final diameter, wherein the polycrystalline silicon rods are subsequently removed from the reactor and the reactor is fitted with new support bodies to afford further polycrystalline silicon rods, wherein after removal of the polycrystalline silicon rods from the reactor and before fitting of the reactor with new support bodies the bottom plate of the reactor is cleaned, characterized in that the bottom plate is suctioned-off and subsequently cleaned with a liquid or solid-containing cleaning medium after every rod removal procedure.
A method for transmitting to an electrical element the power of a radio frequency type signal received by a radio frequency receiver, for example a radio frequency identification (RFID) type chip, the receiver being provided with a receiving antenna and a voltage rectifier, the method being implemented by a transmission device comprising a control system and a voltage converter, the method being characterised in that it comprises the following steps consisting in: - momentarily deriving the signal from the rectifier to the control system to define an optimal input voltage of the converter for which the input impedance of the converter corresponds to the output impedance of the rectifier, - redirecting the DC signal to the voltage converter, - providing the converter with an input voltage setpoint corresponding to the optimal voltage so that the maximum power is transmitted to the converter, - converting the signal voltage thanks to the voltage converter, the output voltage of the converter being predefined depending on the electrical element, - transmitting the signal converted by the converter to the electrical element. - momentarily deriving the signal from the rectifier to the control system to define an optimal input voltage of the converter for which the input impedance of the converter corresponds to the output impedance of the rectifier, - redirecting the DC signal to the voltage converter, - providing the converter with an input voltage setpoint corresponding to the optimal voltage so that the maximum power is transmitted to the converter, - converting the signal voltage thanks to the voltage converter, the output voltage of the converter being predefined depending on the electrical element, - transmitting the signal converted by the converter to the electrical element.