mhurhangee/ep-ind-claims huggingface dataset:
A pen-type injector for injecting of a dose of a medicament, comprising a housing (12, 14) to accommodate a cartridge being at least partially filled with a medicament, wherein the housing (12, 14) comprises a dispensing end with an access opening, characterized in that the access opening is closed by a tamper-evident closure and wherein the tamper-evident closure comprises an identification member embedded in the bulk of the closure or being attached to an outer surface thereof, wherein the identification member enables a user making use of an electronic reading device to identify and to confirm a genuine origin of the pen-type injector.
A system for the volumetric disposal of waste in road bins off-soil or underground or partially underground, emptiable from above or from below, the system comprising: - one or more road bins which are provided with identification, communication and recognition means, wherein the identification means comprise at least one of an RFID reader, a QRcode reader and a bar code reader, and are configured to provide a univocal identification of at least one corresponding RFID chip or QRcode or bar code and - one or more domestic bins which are provided with at least one corresponding RFID chip, QRcode or bar code; wherein each of the one or more road bins has a main emptying mouth made inaccessible to users by a cover or an unopenable back, and is further provided with at least one disposal opening comprising a mechanical or electromechanical hooking and release device for the one or more domestic bins, said hooking and release device being configured for allowing the volumetric disposal of waste only in the case of a corresponding one of the one or more domestic bins being recognized by said identification means; wherein said one or more domestic bins is usable as a volumetric unit of measurement. - one or more road bins which are provided with identification, communication and recognition means, wherein the identification means comprise at least one of an RFID reader, a QRcode reader and a bar code reader, and are configured to provide a univocal identification of at least one corresponding RFID chip or QRcode or bar code and - one or more domestic bins which are provided with at least one corresponding RFID chip, QRcode or bar code;
A method for fabricating an integrated LED display comprising: fabricating a CMOS wafer comprising driver circuitry fabricated on a supporting substrate, the driver circuitry including an array of pixel drivers; and for each of three LED wafers (200R, 200G, 200B), each LED wafer comprising an array of LEDs (210R, 210G, 210B) fabricated on a substrate (202R, 202G, 202B), each LED having a first LED contact: bonding the LED wafer to the CMOS wafer, comprising aligning and bonding the first LED contacts to contacts for corresponding pixel drivers on the CMOS wafer; and for all LED wafers except a last LED wafer, removing the substrate for the LED wafer before bonding the next LED wafer; wherein the three LED wafers comprise an LED wafer with red LEDs, an LED wafer with green LEDs and an LED wafer with blue LEDs; wherein the LED wafers are bonded to the CMOS wafer in the following order: first the red LED wafer, then the green LED wafer, and then the blue LED wafer; wherein removing the substrate for the red LED wafer comprises removing the substrate via wet chemical etching; and wherein removing the substrate for the green LED wafer comprises removing the substrate via a laser lift off process. fabricating a CMOS wafer comprising driver circuitry fabricated on a supporting substrate, the driver circuitry including an array of pixel drivers; and for each of three LED wafers (200R, 200G, 200B), each LED wafer comprising an array of LEDs (210R, 210G, 210B) fabricated on a substrate (202R, 202G, 202B), each LED having a first LED contact: bonding the LED wafer to the CMOS wafer, comprising aligning and bonding the first LED contacts to contacts for corresponding pixel drivers on the CMOS wafer; and for all LED wafers except a last LED wafer, removing the substrate for the LED wafer before bonding the next LED wafer; bonding the LED wafer to the CMOS wafer, comprising aligning and bonding the first LED contacts to contacts for corresponding pixel drivers on the CMOS wafer; and for all LED wafers except a last LED wafer, removing the substrate for the LED wafer before bonding the next LED wafer; wherein the three LED wafers comprise an LED wafer with red LEDs, an LED wafer with green LEDs and an LED wafer with blue LEDs; wherein the LED wafers are bonded to the CMOS wafer in the following order: first the red LED wafer, then the green LED wafer, and then the blue LED wafer; wherein removing the substrate for the red LED wafer comprises removing the substrate via wet chemical etching; and wherein removing the substrate for the green LED wafer comprises removing the substrate via a laser lift off process.
A lithium secondary battery comprising: a positive electrode; a negative electrode; a separator; and a gel polymer electrolyte disposed between the positive electrode and the negative electrode and the separator and formed by polymerizing an oligomer containing a (meth) acrylate group, wherein a polymer network in a three-dimensional structure is formed by polymerizing the organic binder included in the separator and containing an ethylenically unsaturated group and the oligomer containing a (meth) acrylate group, wherein the separator comprises: a substrate; and a coating layer formed on the surface of the substrate, wherein the coating layer includes an organic binder and inorganic particles, and the organic binder contains an ethylenically unsaturated group positioned at an end portion or a side portion of the main chain of a polymer including a unit represented by Formulas X-1 or X-2: in Formula X-1, the m1 is an integer of 1 to 100, in Formula X-2, the m2 and the m3 are each independently an integer of 1 to 100. a positive electrode; a negative electrode; a separator; and a gel polymer electrolyte disposed between the positive electrode and the negative electrode and the separator and formed by polymerizing an oligomer containing a (meth) acrylate group, wherein a polymer network in a three-dimensional structure is formed by polymerizing the organic binder included in the separator and containing an ethylenically unsaturated group and the oligomer containing a (meth) acrylate group, a substrate; and a coating layer formed on the surface of the substrate, wherein the coating layer includes an organic binder and inorganic particles, and the organic binder contains an ethylenically unsaturated group positioned at an end portion or a side portion of the main chain of a polymer including a unit represented by Formulas X-1 or X-2: in Formula X-1, the m1 is an integer of 1 to 100, in Formula X-2, the m2 and the m3 are each independently an integer of 1 to 100.
A textile machine comprising: a first catching member that performs a catching operation of catching a yarn end of a package; a cradle arm that rotatably supports the package and also movably supports the package so that the package is movable in a separating direction in which the package moves away from the first catching member; a driving mechanism that drives the cradle arm to move the package in the separating direction; and a controlling section that controls the driving mechanism; characterized in that the controlling section is arranged to move the package in the separating direction after causing a surface of the package and the first catching member to contact each other, and provides a control so that the first catching member performs the catching operation in the state in which the surface of the package and the first catching member are separated from each other. a first catching member that performs a catching operation of catching a yarn end of a package; a cradle arm that rotatably supports the package and also movably supports the package so that the package is movable in a separating direction in which the package moves away from the first catching member; a driving mechanism that drives the cradle arm to move the package in the separating direction; and a controlling section that controls the driving mechanism; characterized in that the controlling section is arranged to move the package in the separating direction after causing a surface of the package and the first catching member to contact each other, and provides a control so that the first catching member performs the catching operation in the state in which the surface of the package and the first catching member are separated from each other.
A locking device comprising: - a moving element comprising an aperture formed on the moving element between a first border and a second border with a width, - a locking arm slidable between an outward position and a retracted position, said locking arm being adapted to be fitted into said aperture to stop the moving element at a given position, - operating means for the locking arm which are able to move the locking arm from said retracted position to said outward position for locking the moving element and vice versa for releasing the moving element, - detection means (6, 7) acting on said operating means to allow movement of said locking arm, wherein said detection means (6, 7) are adapted to detect at least one relative positioning of said detection means (6, 7) with respect to said aperture formed on the moving element and to act on said operating means to allow positioning said locking arm in said outward position or said retracted position, whereby the width of the locking arm is less than the width, in particular the circumferential width, of said aperture, and - that said detection means (6, 7) comprise a first sensor and a second sensor both intended to face said aperture of the moving element, characterized by the fact that the distance between the first sensor and the second sensor, is less than the width, in particular the circumferential width, of said aperture. - a moving element comprising an aperture formed on the moving element between a first border and a second border with a width, - a locking arm slidable between an outward position and a retracted position, said locking arm being adapted to be fitted into said aperture to stop the moving element at a given position, - operating means for the locking arm which are able to move the locking arm from said retracted position to said outward position for locking the moving element and vice versa for releasing the moving element, - detection means (6, 7) acting on said operating means to allow movement of said locking arm, wherein said detection means (6, 7) are adapted to detect at least one relative positioning of said detection means (6, 7) with respect to said aperture formed on the moving element and to act on said operating means to allow positioning said locking arm in said outward position or said retracted position, whereby the width of the locking arm is less than the width, in particular the circumferential width, of said aperture, and - that said detection means (6, 7) comprise a first sensor and a second sensor both intended to face said aperture of the moving element,
A print cassette (10, 10A), comprising: a roll of a first tape; a supply spool rotatable about a rotation axis; a second tape wound around the supply spool and used for printing or protecting of the first tape, characterized in that the print cassette further comprises an output gear to output a driving force outside, and the supply spool, the output gear, and the roll are disposed in order of the supply spool, the output gear, and the roll in an axial direction of the rotation axis of the supply spool. a roll of a first tape; a supply spool rotatable about a rotation axis; a second tape wound around the supply spool and used for printing or protecting of the first tape, characterized in that the print cassette further comprises an output gear to output a driving force outside, and the supply spool, the output gear, and the roll are disposed in order of the supply spool, the output gear, and the roll in an axial direction of the rotation axis of the supply spool.
Valve device for a fuel cell arrangement in a motor vehicle, having a flow channel which extends in a housing, having a flap which influences the flow cross section and is composes of a plastic, and having a drive which drives the flap, wherein the flap is fastened to a shaft and the shaft is mounted rotatably in the housing, having a valve seat which is arranged in the flow channel and having a seal which is arranged on a radially circumferential edge of the flap and is in contact with the valve seat in the closed position of the flap, and the shaft penetrating the flap at an angle, characterized in that there is arranged a screw which has a collar and by way of which the flap is screwed to the shaft, in that the shaft has a screw bore with a shoulder which is arranged at a depth x starting at the outer circumference of the shaft, in that the collar of the screw comes into contact with the shoulder of the shaft in such a manner that, when the screw is tightened firmly, the transmission of force from the collar takes place via the shoulder.
A surface structure control and preparation system for a metal nanocatalyst, characterized in having a nucleation electrolytic cell, a distribution valve, at least two growth electrolytic cells, with one end of the distribution valve being connected to an output port of the nucleation electrolytic cell and the other end of the distribution valve being connected to input ports of all the growth electrolytic cells; the nucleation electrolytic cell has a cell body of the nucleation electrolytic cell and one pair of nucleation electrodes, the cell body of the nucleation electrolytic cell has an input port of a reaction solution and an output port of a nucleation reaction solution, the input port of the reaction solution is connected outwardly to an input device of the precursor reaction solution, and the outlet port of the nucleation reaction solution is connected to an entrance end of the distribution valve; the one pair of the nucleation electrodes are disposed inside the cell body of the nucleation electrolytic cell, and said one pair of the nucleation electrodes are applied with nucleation programmed potential; each of the at least two growth electrolytic cells are provided with a cell body of the growth electrolytic cell and one pair of growth electrodes, the cell body of the growth electrolytic cell is equipped with an input port of the nucleation reaction solution and an outlet port of a product, the input port of the nucleation reaction solution is connected with the output port of the nucleation electrolytic cell via the distribution valve; one pair of growth electrodes are disposed inside the cell body of the growth electrolytic cell; and said one pair of growth electrodes are applied with growth programmed potential.
A bicycle hub apparatus comprising: an axle; a hub member supported for rotation around the hub axle; an intermediate drive member supported for rotation around the hub axle and having a first portion and a second portion, wherein the first portion of the intermediate drive member is structured to receive an external rotational driving force; a sensor shaft supported for rotation around the hub axle and having a first portion and a second portion, wherein the first portion of the sensor shaft is coupled to the second portion of the intermediate drive member to receive the rotational driving force,; wherein the second portion of the sensor shaft is coupled to the hub member for communicating the rotational driving force to the hub member; and a force sensor unit disposed on the sensor shaft, and characterised in that the second portion of the intermediate drive member being spline-connected to the first portion of the sensor shaft;and the intermediate drive member and the sensor shaft are coupled to each other within the hub member. an axle; a hub member supported for rotation around the hub axle; an intermediate drive member supported for rotation around the hub axle and having a first portion and a second portion, wherein the first portion of the intermediate drive member is structured to receive an external rotational driving force; a sensor shaft supported for rotation around the hub axle and having a first portion and a second portion, wherein the first portion of the sensor shaft is coupled to the second portion of the intermediate drive member to receive the rotational driving force,; wherein the second portion of the sensor shaft is coupled to the hub member for communicating the rotational driving force to the hub member; and a force sensor unit disposed on the sensor shaft, and characterised in that the second portion of the intermediate drive member being spline-connected to the first portion of the sensor shaft;and the intermediate drive member and the sensor shaft are coupled to each other within the hub member.
A method for building a green part with a deposition-based additive manufacturing system, the method comprising the steps of: depositing a first layer of the green part in a first winding direction along at least one first toolpath, the first layer including a polymer and a powdered sinterable metal, each first toolpath in the first layer being deposited in the first winding direction; and depositing a second layer of the green part in a second winding direction retrograde to the first winding direction and along at least one second toolpath, the second layer including the polymer and the powdered sinterable metal, each second toolpath in the second layer being deposited in the second winding direction, wherein depositing the second layer of the green part includes depositing the second layer of the green part in the second winding direction such that a directional stress in the second layer would offset a directional stress in the first layer as the directional stresses in the first and second layers relax due to the polymer being removed from the first layer and the second layer. depositing a first layer of the green part in a first winding direction along at least one first toolpath, the first layer including a polymer and a powdered sinterable metal, each first toolpath in the first layer being deposited in the first winding direction; and depositing a second layer of the green part in a second winding direction retrograde to the first winding direction and along at least one second toolpath, the second layer including the polymer and the powdered sinterable metal, each second toolpath in the second layer being deposited in the second winding direction, wherein depositing the second layer of the green part includes depositing the second layer of the green part in the second winding direction such that a directional stress in the second layer would offset a directional stress in the first layer as the directional stresses in the first and second layers relax due to the polymer being removed from the first layer and the second layer.
Diaphragm type deployment device (1, 10, 20), particularly for watchmaking, the device including a first rigid armature (2, 12, 32) and a second deformable armature (3, 13, 33), the first rigid armature (2, 12, 32) and the second deformable armature (3, 13, 33) being connected to one another, such that the second deformable armature (3, 13, 33) switches from a first extended configuration to a second compact configuration, and vice versa, the device (1, 10, 20) defining a first geometry when the second deformable armature (3, 13, 33) is in the first extended configuration, and defining a second smaller geometry than the first geometry, when the second deformable armature (3, 13, 33) is in the second compact configuration, the device (1, 10, 20) extending substantially in the same plane when the second armature is in the first or in the second configuration, characterised in that at least a first part of the first rigid armature (2, 12, 32) and at least a first part of the second deformable armature (3, 13, 33) form a first one-piece assembly, preferably from the same material.
A sliding door, comprising: a first door surface; a second door surface, the first and second door surfaces being opposed; an actuator coupled to the first and second door surfaces (110, 112), the actuator moving the first and second door surfaces (110, 112) toward each other during an opening motion of the door, and the actuator moving the first and second door surfaces (110, 112) away from each other during a closing motion of the door; a first flange coupled to the first door surface and arranged at a first end of the first door surface, characterised in the first flange having an L-shaped cross-section and configured to engage a portion of a first wall side when the door is in a closed position; and a second flange arranged at a second end of the first door surface and configured to engage another wall portion when the door is in the closed position. a first door surface; a second door surface, the first and second door surfaces being opposed; an actuator coupled to the first and second door surfaces (110, 112), the actuator moving the first and second door surfaces (110, 112) toward each other during an opening motion of the door, and the actuator moving the first and second door surfaces (110, 112) away from each other during a closing motion of the door; a first flange coupled to the first door surface and arranged at a first end of the first door surface, characterised in the first flange having an L-shaped cross-section and configured to engage a portion of a first wall side when the door is in a closed position; and a second flange arranged at a second end of the first door surface and configured to engage another wall portion when the door is in the closed position.