mhurhangee/ep-ind-claims huggingface dataset:
An anti-electric shock mechanism for a power converter, comprising: a protective tube, a locking guide block, a protective holder for mounting the protective tube, and an Euro-standard pin assembly; wherein a locking groove is formed on the protective holder, and a locking part inserted into the locking groove is provided on the locking guide block; characterized in that a linkage block is provided on a side of the locking guide block; at least one limiting part is provided on a side of the linkage block away from the locking guide block, and the at least one limiting part is provided in a direction of the Euro-standard pin assembly; at least one avoidance groove for the limiting part to be clamped is formed on an outer side of the Euro-standard pin assembly; the linkage block is provided separately from the locking guide block. a protective tube, a locking guide block, a protective holder for mounting the protective tube, and an Euro-standard pin assembly; wherein a locking groove is formed on the protective holder, and a locking part inserted into the locking groove is provided on the locking guide block; characterized in that a linkage block is provided on a side of the locking guide block; at least one limiting part is provided on a side of the linkage block away from the locking guide block, and the at least one limiting part is provided in a direction of the Euro-standard pin assembly; at least one avoidance groove for the limiting part to be clamped is formed on an outer side of the Euro-standard pin assembly; the linkage block is provided separately from the locking guide block.
Head-up display with a side image generator, notably for a motor vehicle, comprising: - an image generator configured to display an image on a display surface along an optical axis of display, - a semi-reflective optical element arranged at a distance from the image generator and configured to cause a virtual image of the image to appear along an optical axis of projection, and - a mirror arranged so as to reflect the image from the image generator toward the optical element along an optical axis of reflection, the display surface of the image generator being substantially parallel to a plane defined by the optical axis of projection and the optical axis of reflection, the image generator being configured to form a substantially rectangular image, the longer side of which is substantially parallel to the optical axis of reflection, and in which the mirror is arranged on the optical axis of display, characterized in that the number of mirrors along the optical path of the image from the image generator to the optical element is limited to the single mirror. - an image generator configured to display an image on a display surface along an optical axis of display, - a semi-reflective optical element arranged at a distance from the image generator and configured to cause a virtual image of the image to appear along an optical axis of projection, and - a mirror arranged so as to reflect the image from the image generator toward the optical element along an optical axis of reflection, the display surface of the image generator being substantially parallel to a plane defined by the optical axis of projection and the optical axis of reflection, the image generator being configured to form a substantially rectangular image, the longer side of which is substantially parallel to the optical axis of reflection, and in which the mirror is arranged on the optical axis of display, characterized in that the number of mirrors along the optical path of the image from the image generator to the optical element is limited to the single mirror. the display surface of the image generator being substantially parallel to a plane defined by the optical axis of projection and the optical axis of reflection, the image generator being configured to form a substantially rectangular image, the longer side of which is substantially parallel to the optical axis of reflection, and in which the mirror is arranged on the optical axis of display, characterized in that the number of mirrors along the optical path of the image from the image generator to the optical element is limited to the single mirror.
Splicer device for splicing material webs, comprising a) a first unwinding device to unwind a non-endless first material web from a first material roll, b) a second unwinding device to unwind a non-endless second material web from a second material roll, c) a joining device for joining together the non-endless first material web and the non-endless second material web to form an endless material web, d) a storage carriage which i) comprises at least one deflection roller (71, 78) to deflect the endless material web, and ii) is displaceable along a displacement path between a first end position and a second end position to form or loosen material web loops of the endless material web, iii) wherein the at least one deflection roller (71, 78) - has a respective central longitudinal axis (83 or 84, respectively) characterized in that e) the at least one deflection roller (71, 78) is tiltable between a first tilt end position and a second tilt end position by tilting the respective central longitudinal axis (83 or 84, respectively) to influence a running direction of the endless material web, and f) an information processing unit to cause tilting of the at least one deflection roller (71, 78) depending on positional information regarding the endless material web and/or another endless material web to be joined to the endless material web. a) a first unwinding device to unwind a non-endless first material web from a first material roll, b) a second unwinding device to unwind a non-endless second material web from a second material roll, c) a joining device for joining together the non-endless first material web and the non-endless second material web to form an endless material web, d) a storage carriage which i) comprises at least one deflection roller (71, 78) to deflect the endless material web, and ii) is displaceable along a displacement path between a first end position and a second end position to form or loosen material web loops of the endless material web, iii) wherein the at least one deflection roller (71, 78) - has a respective central longitudinal axis (83 or 84, respectively) characterized in that i) comprises at least one deflection roller (71, 78) to deflect the endless material web, and ii) is displaceable along a displacement path between a first end position and a second end position to form or loosen material web loops of the endless material web, iii) wherein the at least one deflection roller (71, 78) - has a respective central longitudinal axis (83 or 84, respectively) - has a respective central longitudinal axis (83 or 84, respectively) e) the at least one deflection roller (71, 78) is tiltable between a first tilt end position and a second tilt end position by tilting the respective central longitudinal axis (83 or 84, respectively) to influence a running direction of the endless material web, and f) an information processing unit to cause tilting of the at least one deflection roller (71, 78) depending on positional information regarding the endless material web and/or another endless material web to be joined to the endless material web.
A breaking unit with an auxiliary shunt component, wherein the breaking unit comprises a first power supply static contact, a second power supply static contact, a first electromotive force compensator, a second electromotive force compensator, a moving contact component which are accommodated in a shell of the breaking unit, and soft pigtail wires; characterized in that the pigtail wires are connected between the moving contact component and the first electromotive force compensator and between the moving contact component and the second electromotive force compensator; wherein the auxiliary shunt component comprises a first shunt member and a second shunt member; wherein the first shunt member is connected with the first electromotive force compensator; wherein the second shunt member is connected with the second electromotive force compensator; if the moving contact component is in contact with the first power supply static contact, the moving contact component is in contact with the first shunt member, and a current flowing through the first shunt member is greater than a current flowing through the soft pigtail wire; if the moving contact component is in contact with the second power supply static contact, the moving contact component is in contact with the second shunt member, and a current flowing through the second shunt member is greater than a current flowing through the soft pigtail wire. wherein the breaking unit comprises a first power supply static contact, a second power supply static contact, a first electromotive force compensator, a second electromotive force compensator, a moving contact component which are accommodated in a shell of the breaking unit, and soft pigtail wires; characterized in that the pigtail wires are connected between the moving contact component and the first electromotive force compensator and between the moving contact component and the second electromotive force compensator; wherein the auxiliary shunt component comprises a first shunt member and a second shunt member; wherein the first shunt member is connected with the first electromotive force compensator; wherein the second shunt member is connected with the second electromotive force compensator; if the moving contact component is in contact with the first power supply static contact, the moving contact component is in contact with the first shunt member, and a current flowing through the first shunt member is greater than a current flowing through the soft pigtail wire; if the moving contact component is in contact with the second power supply static contact, the moving contact component is in contact with the second shunt member, and a current flowing through the second shunt member is greater than a current flowing through the soft pigtail wire.
A tennis racket frame formed of a pipe having an outer surface, an inner surface, and a pair of middle surfaces each disposed between the outer surface and the inner surface, the racket frame includes a head, two throats, a shaft and a grip; the throats extend from the head to reach the shaft and the shaft extends from a place to which the two throats join; wherein the tennis racket frame except for the grip is divided into a top section, a grip-side section, and a central section disposed between the top section and the grip-side section; the tennis racket frame comprising: 1) an inner thick part in which the middle surfaces are inclined with respect to a ball hitting surface such that a thickness of the pipe is gradually increased inward; and either wherein the tennis racket frame comprises 2a) an outer thick part in which the middle surfaces are inclined with respect to the ball hitting surface such that the thickness of the pipe is gradually increased outward or wherein 2b) the central section has the inner thick part, characterized in that the tennis racket frame comprises 3) a uniform thickness part in which the middle surfaces are parallel to the ball hitting surface, wherein the uniform thickness part is arranged in the grip-side section of the tennis racket frame, the grip-side section being a section that includes portions of the throats and a portion of the shaft. 1) an inner thick part in which the middle surfaces are inclined with respect to a ball hitting surface such that a thickness of the pipe is gradually increased inward; and either wherein the tennis racket frame comprises 2a) an outer thick part in which the middle surfaces are inclined with respect to the ball hitting surface such that the thickness of the pipe is gradually increased outward or wherein 2b) the central section has the inner thick part, characterized in that the tennis racket frame comprises 3) a uniform thickness part in which the middle surfaces are parallel to the ball hitting surface, wherein the uniform thickness part is arranged in the grip-side section of the tennis racket frame, the grip-side section being a section that includes portions of the throats and a portion of the shaft.
Abutment system for use in the area of the front teeth and premolars, comprising an abutment base having a first interface, which has a substantially planar proximal interface surface for placement on an implant, and a second interface for attachment of a prosthetic element, wherein the abutment base has a three-dimensional shape that is designed in a non-symmetrical manner relative to an axis that is concentric and at a right angle to the interface surface, and the abutment system comprises a separate prosthetic post, which can be fixed in the region of an upper side of the abutment base, wherein the prosthetic post extends coaxially to the axis in the fixed state, wherein the upper side of the abutment base has a vestibular level and a different oral level in the interdental side view, characterized in that the upper side of the abutment base is a scalloped upper side having an apex and a non-symmetrical circumferential edge/shoulder, and the abutment base has a lateral region that has a concave shape (113, 114) when viewed in vertical section.
A hybrid vehicle, comprising: a power storage device (B, CO); an engine; a driving wheel (20R, 20L); a first rotating electric machine mainly operating as a power generator; a second rotating electric machine rotating in synchronization with rotation of said driving wheel; a power split device coupled to a rotation shaft of the engine and to rotation shafts of the first and second rotating electric machines, wherein determination of rotation speed of any two rotation shafts among the three rotation shafts causes forced determination of rotation speed of residual one rotation shaft; an inverter (14, 14A) driving said first and second rotating electric machines; an input device receiving an instruction requesting acceleration from a driver; and a controller monitoring a state of charge of the power storage device in response to the acceleration instruction, and instructing the inverter to increase contribution of the first rotating electric machine to an acceleration operation in a second state of insufficient state of charge to be larger than the contribution of the first rotating electric machine to said acceleration operation in a first state of sufficient state of charge. a power storage device (B, CO); an engine; a driving wheel (20R, 20L); a first rotating electric machine mainly operating as a power generator; a second rotating electric machine rotating in synchronization with rotation of said driving wheel; a power split device coupled to a rotation shaft of the engine and to rotation shafts of the first and second rotating electric machines, wherein determination of rotation speed of any two rotation shafts among the three rotation shafts causes forced determination of rotation speed of residual one rotation shaft; an inverter (14, 14A) driving said first and second rotating electric machines; an input device receiving an instruction requesting acceleration from a driver; and a controller monitoring a state of charge of the power storage device in response to the acceleration instruction, and instructing the inverter to increase contribution of the first rotating electric machine to an acceleration operation in a second state of insufficient state of charge to be larger than the contribution of the first rotating electric machine to said acceleration operation in a first state of sufficient state of charge.
A wireless power transmitter comprising: an power supply device configured to generate an AC power; a transmission coil (211, 212) configured to transmit the AC power to a reception coil of a wireless power receiver by resonance; and a detection unit configured to detect a coupling coefficient between the transmission coil (211, 212) and the reception coil; and a control unit, wherein the coupling coefficient represents a degree of magnetic coupling between the transmission coil (211, 212) and the reception coil, the control unit is configured to control transmission power to be transmitted to the wireless power receiver based on the coupling coefficient, characterized in that the control unit is configured to increase the AC power of the power supply device to increase the transmission power from a first transmission power to a second transmission power when the coupling coefficient increases from a first coupling coefficient to a second coupling coefficient, and the control unit is configured to decrease the AC power of the power supply device to decrease the transmission power from the first transmission power to a third transmission power when the coupling coefficient decreases from the first coupling coefficient to a third coupling coefficient, each of the first through third transmission powers is power corresponding to a maximum power transmission efficiency in each of the first through third coupling coefficients. an power supply device configured to generate an AC power; a transmission coil (211, 212) configured to transmit the AC power to a reception coil of a wireless power receiver by resonance; and a detection unit configured to detect a coupling coefficient between the transmission coil (211, 212) and the reception coil; and a control unit, wherein the coupling coefficient represents a degree of magnetic coupling between the transmission coil (211, 212) and the reception coil, the control unit is configured to control transmission power to be transmitted to the wireless power receiver based on the coupling coefficient, characterized in that the control unit is configured to increase the AC power of the power supply device to increase the transmission power from a first transmission power to a second transmission power when the coupling coefficient increases from a first coupling coefficient to a second coupling coefficient, and the control unit is configured to decrease the AC power of the power supply device to decrease the transmission power from the first transmission power to a third transmission power when the coupling coefficient decreases from the first coupling coefficient to a third coupling coefficient, each of the first through third transmission powers is power corresponding to a maximum power transmission efficiency in each of the first through third coupling coefficients.
A method of manufacturing a friction material including a scorching step of scorching a surface of the friction material with a laser; wherein said friction material comprises 5 to 25 weight % of one or more types of a black raw materials relative to the total amount of the friction material composition, selected from a carbon fiber, an artificial graphite, a natural graphite, a flaky graphite, an activated carbon, pulverized powder of polyacrylonitrile oxide, a coke, an elastic graphitized carbon, a molybdenum disulfide, a triiron tetraoxide, a black cashew dust manufactured using furfural as a curing agent, and a tire tread rubber pulverizing powder; wherein L * of the CIE Lab of the surface of the friction material irradiated with said laser and containing one or more black raw materials is 20 to 60; and wherein an energy density of the laser beam in the scorching step is 150 -to 2000 kW /m 2. wherein said friction material comprises 5 to 25 weight % of one or more types of a black raw materials relative to the total amount of the friction material composition, selected from a carbon fiber, an artificial graphite, a natural graphite, a flaky graphite, an activated carbon, pulverized powder of polyacrylonitrile oxide, a coke, an elastic graphitized carbon, a molybdenum disulfide, a triiron tetraoxide, a black cashew dust manufactured using furfural as a curing agent, and a tire tread rubber pulverizing powder; wherein L * of the CIE Lab of the surface of the friction material irradiated with said laser and containing one or more black raw materials is 20 to 60; and wherein an energy density of the laser beam in the scorching step is 150 -to 2000 kW /m 2.
A cleaning method that includes a process of removing a Si-containing deposit attached to an interior of a processing room or processing vessel after performing a processing operation in the interior of the processing room or processing vessel used for manufacturing a semiconductor device, the method comprising: supplying, in that process of removing a Si-containing deposit, monofluorohalogen gas into the processing room or processing vessel to remove the Si-containing deposit without using plasma, wherein a temperature in the processing room or processing vessel is 400°C or higher and 600°C or lower when monofluorohalogen gas is supplied into the processing room or processing vessel, wherein the monofluorohalogen gas is represented by ClF, and characterised in that the ClF is diluted to an ClF concentration of 20 to 90 vol% against 100 vol % of the total amount of ClF and an inert gas. supplying, in that process of removing a Si-containing deposit, monofluorohalogen gas into the processing room or processing vessel to remove the Si-containing deposit without using plasma, wherein a temperature in the processing room or processing vessel is 400°C or higher and 600°C or lower when monofluorohalogen gas is supplied into the processing room or processing vessel, wherein the monofluorohalogen gas is represented by ClF, and characterised in that the ClF is diluted to an ClF concentration of 20 to 90 vol% against 100 vol % of the total amount of ClF and an inert gas.
A polymer gel composition for replacement, supplement or repair of soft-tissue or for vertebroplasty, the polymer gel composition comprising polyethylene imine, the polyethylene imine being injectable prior to mixing, and at least one hydrogen bonding polymer, the at least one hydrogen bonding polymer being injectable prior to mixing, wherein the composition has a greater viscosity than either of the polyethylene imine or the hydrogen bonding polymer alone and is injectable immediately after mixing of the polyethylene imine and the at least one hydrogen bonding polymer, characterized in that A) the at least one hydrogen bonding polymer is selected from the group consisting of polyvinyl alcohol, polyethylene glycol, polyethylene oxide, polyvinyl pyrrolidone, polyacrylamide, polyhydroxyethylmethacrylate, polyacrylic acid and polymethacrylic acid; and B) said polyethylene imine is present in a concentration from 9.25% (w/w) to 13.65% (w/w). A) the at least one hydrogen bonding polymer is selected from the group consisting of polyvinyl alcohol, polyethylene glycol, polyethylene oxide, polyvinyl pyrrolidone, polyacrylamide, polyhydroxyethylmethacrylate, polyacrylic acid and polymethacrylic acid; and B) said polyethylene imine is present in a concentration from 9.25% (w/w) to 13.65% (w/w).