mhurhangee/ep-ind-claims huggingface dataset:
Method, comprising the following operations: - delivering an object to a first mould part, wherein said object comprises a container part provided with a dispensing element, wherein said container part comprises a dome (1,606) provided with a connecting zone suitable for being fixed to a container body and from which said dispensing element leads away; - placing a dose of plastics on said object which has been delivered to said first mould part, wherein said operation of placing a dose comprises removing said dose from a continuous flow of plastics in pasty state dispensed by an extruder and transferring said dose still in pasty state on said object; - moving said first mould part, bearing said object and a second mould part towards one another, said dose adhering to said object; - surrounding at least partially said object with die means so that said second mould part and said die means define a forming cavity around said object; - compression-moulding said dose around said object said forming cavity to form with said dose a container neck element 10 on said dispensing element. - delivering an object to a first mould part, wherein said object comprises a container part provided with a dispensing element, wherein said container part comprises a dome (1,606) provided with a connecting zone suitable for being fixed to a container body and from which said dispensing element leads away; - placing a dose of plastics on said object which has been delivered to said first mould part, wherein said operation of placing a dose comprises removing said dose from a continuous flow of plastics in pasty state dispensed by an extruder and transferring said dose still in pasty state on said object; - moving said first mould part, bearing said object and a second mould part towards one another, said dose adhering to said object; - surrounding at least partially said object with die means so that said second mould part and said die means define a forming cavity around said object; - compression-moulding said dose around said object said forming cavity to form with said dose a container neck element 10 on said dispensing element.
A golf club head comprising: a face plate; a body member positioned rearwardly of the face plate and having at least two body components; a plurality of apertures, each aperture being formed in one of the face plate and the body components; at least one fastener, each fastener extending completely through at least two of the apertures and configured to removably secure the face plate and the body components together upon being turned a portion of a revolution; and wherein at least one fastener includes a shaft, a head at a first end of the shaft, and at least one flange extending outwardly from a second end of the shaft. a face plate; a body member positioned rearwardly of the face plate and having at least two body components; a plurality of apertures, each aperture being formed in one of the face plate and the body components; at least one fastener, each fastener extending completely through at least two of the apertures and configured to removably secure the face plate and the body components together upon being turned a portion of a revolution; and wherein at least one fastener includes a shaft, a head at a first end of the shaft, and at least one flange extending outwardly from a second end of the shaft.
A method for capturing carbon dioxide CO 2 by carbonation in a circulating fluidized bed carbonation reactor comprising the steps of: - forwarding a metal oxide MeO rich stream to a circulating fluidized bed carbonation reactor; - forwarding carbon dioxide CO 2 rich gas stream to said CFB carbonation reactor; - capturing of carbon dioxide CO 2 by reacting the carbon dioxide CO 2 with metal oxide MeO, forming metal carbonate MeCO 3; - separating metal carbonate MeCO 3 from flue gas in a separation device; - collecting a metal carbonate MeCO 3 rich solids stream from the separation device; - subsequent cooling and division or division and cooling of said metal carbonate MeCO 3 rich solids stream into two or more cooled solid streams forming two or more portions; characterized by -adjusting the temperature profile of said CFB carbonation reactor by addition of cooled portions of said MeCO 3 rich solid stream to CFB carbonation reactor at various possible locations to optimize the temperature profile for CO 2 capture purposes. - forwarding a metal oxide MeO rich stream to a circulating fluidized bed carbonation reactor; - forwarding carbon dioxide CO 2 rich gas stream to said CFB carbonation reactor; - capturing of carbon dioxide CO 2 by reacting the carbon dioxide CO 2 with metal oxide MeO, forming metal carbonate MeCO 3; - separating metal carbonate MeCO 3 from flue gas in a separation device; - collecting a metal carbonate MeCO 3 rich solids stream from the separation device; - subsequent cooling and division or division and cooling of said metal carbonate MeCO 3 rich solids stream into two or more cooled solid streams forming two or more portions; -adjusting the temperature profile of said CFB carbonation reactor by addition of cooled portions of said MeCO 3 rich solid stream to CFB carbonation reactor at various possible locations to optimize the temperature profile for CO 2 capture purposes.
A cosmetic composition comprising, in a physiologically acceptable medium: - an aqueous phase: - spiculisporic acid; - at least one sulfate and/or sulfonate surfactant; and - at least one organic base, said organic base being selected from the group consisting of basic amino acids, basic oligopeptides, basic amines and mixtures thereof; wherein the ratio R of the number of moles of organic base over the number of moles of spiculisporic acid is strictly greater than 1. - an aqueous phase: - spiculisporic acid; - at least one sulfate and/or sulfonate surfactant; and - at least one organic base, said organic base being selected from the group consisting of basic amino acids, basic oligopeptides, basic amines and mixtures thereof;
A thermal energy removal system usable with a rail of a railway track, the system comprising: a cooling module configured to mount on a side of the rail to remove heat stored inside the rail, the cooling module including: a solid state electrical insulation sandwiched between a plate and a heat sink; a first terminal; and a second terminal, wherein the first and second terminals (45a, 45b) are configured to provide an electric energy source based on the heat extracted and harnessed for powering a railway infrastructure device, wherein the cooling module is a thermoelectric generator, and wherein the cooling module further comprising: a controller board configured to determine a heat gradient between the plate and the heat sink and operate the thermoelectric generator based on the heat gradient. a cooling module configured to mount on a side of the rail to remove heat stored inside the rail, the cooling module including: a solid state electrical insulation sandwiched between a plate and a heat sink; a first terminal; and a second terminal, wherein the first and second terminals (45a, 45b) are configured to provide an electric energy source based on the heat extracted and harnessed for powering a railway infrastructure device, a solid state electrical insulation sandwiched between a plate and a heat sink; a first terminal; and a second terminal, wherein the first and second terminals (45a, 45b) are configured to provide an electric energy source based on the heat extracted and harnessed for powering a railway infrastructure device, wherein the cooling module is a thermoelectric generator, and wherein the cooling module further comprising: a controller board configured to determine a heat gradient between the plate and the heat sink and operate the thermoelectric generator based on the heat gradient.
Coding strip for the mechanical encoding of a docking bay and a slide-in module for insertion into such a docking bay, in particular in a switchgear cabinet, comprising a base body which is adapted to be arranged at the docking bay or at the slide-in module to interact with a complementary coding strip, wherein a first coding element is arrangable at the base body in at least two different coding positions (10a, 10b) characterised in that, the base body is designed as two parts, and in that the first coding element is accommodated at the first part of the base body and can be fixed at the first part by means of the second part of the base body.
A moving blade (10a, 10b, 10c, 10d) for a turbomachine, the central portion of the blade being geometrically subdivided into four adjacent pressure-side zones (Z1 to Z4) disposed on the pressure side of the blade, and into four adjacent suction-side zones (Z5 to Z8) disposed on the suction side, the pressure-side and suction-side zones being distributed on opposite sides of the skeleton of the blade, each pressure-side zone having a common side with a suction-side zone and each suction-side zone having a common side with a pressure-side zone, the pressure-side zones (Z1 to Z4) and suction-side zones (Z5 to Z8) forming the smallest elements that can contain a cooling cavity, the blade including in its central portion both a pressure-side cooling circuit and a suction-side cooling circuit that are independent from each other, characterized in that the pressure-side cooling circuit comprises three radial cavities (24a to 28a; 24b to 26b) occupying three adjacent pressure-side zones, and in that the suction-side cooling circuit consists in three radial cavities (30a to 34a; 34b to 38b; 34c to 38c; 34d to 38d) occupying the four suction-side zones and the remaining pressure-side zone.
A time switch comprising: a case that accommodates a drive source; a timer mechanism driven by the drive source; a battery holder capable of accommodating a power failure backup battery that supplies power to the drive source during a power failure, wherein the battery holder includes an opening that opens in a front surface or a side surface of the case; a lid capable of opening and closing the opening; wherein the case includes a side wall, the side wall forming a portion of the battery holder, the side wall including a hole that extends through the side wall, and the lid including a hook that is fitted into the hole, characterized in that it comprises a tool insertion hole that opens in the front surface of the case and allows for insertion of a tool between the case and the lid, said tool insertion hole extends between the hook of the lid and the inner surface of the side wall. a case that accommodates a drive source; a timer mechanism driven by the drive source; a battery holder capable of accommodating a power failure backup battery that supplies power to the drive source during a power failure, wherein the battery holder includes an opening that opens in a front surface or a side surface of the case; a lid capable of opening and closing the opening; wherein the case includes a side wall, the side wall forming a portion of the battery holder, the side wall including a hole that extends through the side wall, and the lid including a hook that is fitted into the hole, it comprises a tool insertion hole that opens in the front surface of the case and allows for insertion of a tool between the case and the lid, said tool insertion hole extends between the hook of the lid and the inner surface of the side wall.
An automated food management system comprising: an enclosure, the enclosure is configured to receive a plurality of stacked trays, and an elevator that is configured to lift a tray from the plurality of stacked trays when received within the enclosure to a position where the lifted tray can receive a cooked food product, the enclosure further comprises a fork that receives the cooked food product thereon and rotates to allow the cooked food product to fall into the positioned tray, a holding compartment with a shuttle, the shuttle longitudinally movable between a first position within the holding compartment and a second position, characterized in that said shuttle in said second position is disposed to support the lifted tray in a position to receive the cooked food product from the fork, and in that said holding compartment is capable of supporting a plurality of trays in a vertical arrangement such that a lowest supported tray in the vertical arrangement is the tray most recently positioned within the holding compartment and the highest supported tray in the vertical arrangement is the tray that has been positioned within the holding compartment for the longest time.
A piezoelectric inertial driver, comprising: a mounting portion configured to connect the driver to a holder of a drive stage and comprising a beam extending in the driving direction; a friction portion configured to engage with a slider of the drive stage; a movement portion with a first end connected to a piezoelectric element and a second end connected to the friction portion; a piezoelectric element with a first end bonded to the mounting portion and a second end bonded to the movement portion; and a flexure portion with a first end connected to the mounting portion and a second end connected to the movement portion; wherein the flexure portion further comprises a plurality of connection rods (1031, 1032); characterized in that the connection rods (1031, 1032) are each connected at one end to the beam of the mounting portion and at the other end to the movement portion, and the connection rods (1031, 1032) are substantially parallel with an angle tolerance of ±20 degrees. a mounting portion configured to connect the driver to a holder of a drive stage and comprising a beam extending in the driving direction; a friction portion configured to engage with a slider of the drive stage; a movement portion with a first end connected to a piezoelectric element and a second end connected to the friction portion; a piezoelectric element with a first end bonded to the mounting portion and a second end bonded to the movement portion; and a flexure portion with a first end connected to the mounting portion and a second end connected to the movement portion; wherein the flexure portion further comprises a plurality of connection rods (1031, 1032); the connection rods (1031, 1032) are each connected at one end to the beam of the mounting portion and at the other end to the movement portion, and the connection rods (1031, 1032) are substantially parallel with an angle tolerance of ±20 degrees.
A system comprising an integrated circuit and an external device, the integrated circuit comprising: a first delay circuit to delay a first timing signal by an internal delay to generate an internal timing signal; a first interface circuit to communicate data to the external device in response to the internal timing signal; and a second interface circuit to transmit an external timing signal for capturing the data in the external device, wherein the external device is configured to add an external delay to the external timing signal to generate a delayed external timing signal, wherein the first delay circuit is configured to set the internal delay based on a comparison between the delayed external timing signal and a calibration signal transmitted by the first interface circuit, and wherein the calibration signal is based on a test pattern in a calibration mode. a first delay circuit to delay a first timing signal by an internal delay to generate an internal timing signal; a first interface circuit to communicate data to the external device in response to the internal timing signal; and a second interface circuit to transmit an external timing signal for capturing the data in the external device, wherein the external device is configured to add an external delay to the external timing signal to generate a delayed external timing signal, wherein the first delay circuit is configured to set the internal delay based on a comparison between the delayed external timing signal and a calibration signal transmitted by the first interface circuit, and wherein the calibration signal is based on a test pattern in a calibration mode.
An automatic drain system, comprising: a drain including a neck defining a drain orifice and a flange extending from the neck; and a liquid detection sensor located on at least one of the neck or the flange; a valve downstream of the drain; an electromechanical actuator configured to translate the valve between an open position and a closed position; and a controller operably coupled to the liquid detection sensor; characterised in that: the liquid detection sensor comprises: a first conductor electrically coupled to a positive terminal (P+) of a first portion of a circuit located in the controller; and a second conductor electrically isolated from the first conductor and electrically coupled to a negative terminal (P-) of a second portion of the circuit; wherein the controller is configured to detect whether current is flowing through the circuit. a drain including a neck defining a drain orifice and a flange extending from the neck; and a liquid detection sensor located on at least one of the neck or the flange; a valve downstream of the drain; an electromechanical actuator configured to translate the valve between an open position and a closed position; and a controller operably coupled to the liquid detection sensor; characterised in that: the liquid detection sensor comprises: a first conductor electrically coupled to a positive terminal (P+) of a first portion of a circuit located in the controller; and a second conductor electrically isolated from the first conductor and electrically coupled to a negative terminal (P-) of a second portion of the circuit; wherein the controller is configured to detect whether current is flowing through the circuit. the liquid detection sensor comprises: a first conductor electrically coupled to a positive terminal (P+) of a first portion of a circuit located in the controller; and a second conductor electrically isolated from the first conductor and electrically coupled to a negative terminal (P-) of a second portion of the circuit; a first conductor electrically coupled to a positive terminal (P+) of a first portion of a circuit located in the controller; and a second conductor electrically isolated from the first conductor and electrically coupled to a negative terminal (P-) of a second portion of the circuit; wherein the controller is configured to detect whether current is flowing through the circuit.
Method for assembling a piston having a piston spring which in a cavity of an apparatus of a hydraulic motor vehicle brake system is assigned to the piston and when activating the piston is compressible, wherein the cavity is disposed in a housing of the apparatus and at least in regions is configured as a bore for receiving the piston, wherein the piston spring is configured from a magnetic or magnetizable material, in particular a ferromagnetic material, and the piston is configured from a non-magnetic material, said method comprising the following process steps: - forming an assembly unit comprising an assembly tool having a magnetic field, the latter being able to be generated by a magnetic element, the piston and the piston spring in that the piston, conjointly with a piston spring that is spatially aligned with the latter in a defined manner, is moved into the magnetic field of the assembly tool so as to be at a provided interface on the assembly tool such that the piston spring in the assembly unit is held on the piston by the magnetic field; - introducing the assembly unit into the cavity of the apparatus; - separating the assembly tool from the piston, and removing the assembly tool from the apparatus. - forming an assembly unit comprising an assembly tool having a magnetic field, the latter being able to be generated by a magnetic element, the piston and the piston spring in that the piston, conjointly with a piston spring that is spatially aligned with the latter in a defined manner, is moved into the magnetic field of the assembly tool so as to be at a provided interface on the assembly tool such that the piston spring in the assembly unit is held on the piston by the magnetic field; - introducing the assembly unit into the cavity of the apparatus; - separating the assembly tool from the piston, and removing the assembly tool from the apparatus.
A latch for a door leaf of a motor vehicle including: - an opening lever of said door leaf intended to allow the opening of the door leaf, - a blocking means configured to take an active blocking position wherein said blocking means blocks said opening lever and a rest position wherein said blocking means allows the movement of said opening lever, - an elastic return blocking means configured to switch said blocking means from the rest position to the active blocking position, and - a trigger means configured to take a rest position wherein said trigger means blocks the blocking means in its rest position and an active unblocking position wherein said trigger means releases said blocking means so that the latter switches from the rest position to the active blocking position, the trigger means being arranged to move under the effect of an inertial force applied to the latch during an accident, the opening lever including a drive means configured to bring the blocking means from the active blocking position to the rest position when the opening lever pivots towards the direction of opening of the door leaf. - an opening lever of said door leaf intended to allow the opening of the door leaf, - a blocking means configured to take an active blocking position wherein said blocking means blocks said opening lever and a rest position wherein said blocking means allows the movement of said opening lever, - an elastic return blocking means configured to switch said blocking means from the rest position to the active blocking position, and - a trigger means configured to take a rest position wherein said trigger means blocks the blocking means in its rest position and an active unblocking position wherein said trigger means releases said blocking means so that the latter switches from the rest position to the active blocking position, the trigger means being arranged to move under the effect of an inertial force applied to the latch during an accident,
An electronic assembly comprising: a gate drive module comprising multiple circuit board layers sandwiched together, where each layer has a central opening that is aligned with the other layers; a switching circuit chipset in the central opening, the switching circuit chipset having a plurality of lead frames for providing electrical connections to the switching circuit chipset, the lead frames alignable with pockets in two or more of the layers to facilitate alignment of the contact portions of the lead frames with corresponding conductive pads on an outer layer of the circuit board; a set of direct current traces on an outer circuit board layer for supplying direct current to the switching circuit chipset; and an output trace on the outer circuit board layer for outputting an alternating current phase output signal. a gate drive module comprising multiple circuit board layers sandwiched together, where each layer has a central opening that is aligned with the other layers; a switching circuit chipset in the central opening, the switching circuit chipset having a plurality of lead frames for providing electrical connections to the switching circuit chipset, the lead frames alignable with pockets in two or more of the layers to facilitate alignment of the contact portions of the lead frames with corresponding conductive pads on an outer layer of the circuit board; a set of direct current traces on an outer circuit board layer for supplying direct current to the switching circuit chipset; and an output trace on the outer circuit board layer for outputting an alternating current phase output signal.