mhurhangee/ep-ind-claims huggingface dataset:
A re-peelable water dispersion type acryl-based pressure-sensitive adhesive composition comprising an acrylic emulsion-based polymer composed of a (meth)acrylic acid alkyl ester in an amount of 70 to 99.5% by weight and a carboxyl-containing unsaturated monomer in an amount of 0.5 to 10% by weight as raw material monomers, a crosslinking agent, and an ionic compound, wherein the acrylic emulsion-based polymer has an average particle diameter of 130 to 600 nm, and the ionic compound is an ionic liquid and/or an alkali metal salt.
A retainer for a movable electrode, said retainer comprising: a rigid retainer including a plurality of legs and an opening; and an insulative bushing including an opening, wherein the opening of the insulative bushing is structured to receive the movable electrode axially reciprocating in and out of contact with a fixed contact wherein a portion of the rigid retainer is imbedded in the insulative bushing, characterized in that the opening of the insulative bushing is smaller than the opening of the rigid retainer the insulative bushing is molded over the portion of the rigid retainer, wherein the opening of the insulative bushing is within the opening of the rigid retainer. wherein the movable electrode axially reciprocates into and out of the opening of the insulative bushing. a rigid retainer including a plurality of legs and an opening; and an insulative bushing including an opening, wherein the opening of the insulative bushing is structured to receive the movable electrode axially reciprocating in and out of contact with a fixed contact wherein a portion of the rigid retainer is imbedded in the insulative bushing, characterized in that the opening of the insulative bushing is smaller than the opening of the rigid retainer the insulative bushing is molded over the portion of the rigid retainer, wherein the opening of the insulative bushing is within the opening of the rigid retainer. wherein the movable electrode axially reciprocates into and out of the opening of the insulative bushing.
A display device, comprising: a display panel comprising a display area for displaying an image, and a peripheral area disposed outside of the display area; and a touch sensor disposed on the display panel, wherein the touch sensor comprises: a plurality of sensor electrodes formed in a repeated arrangement of sensor patterns (SP1, SP2), wherein the repeated arrangement of sensor patterns (SP1, SP2) forms a touch active area; a plurality of sensor wirings (SL1, SL2) connected to the sensor electrodes and disposed outside of the touch active area; and at least one insulating layer overlapping the display area and the peripheral area, wherein at least a portion of the sensor electrodes is formed over the display area and the peripheral area characterized in that the peripheral area comprises a margin area in contact with a boundary of the display area, an outermost sensor pattern (MOSP1, MOSP2) corresponding to a boundary of the sensor electrodes comprises: a first conductive layer (320, 330, 331, 335, 336); and a second conductive layer (360, 365, 366) connected to the first conductive layer (320, 330, 331, 335, 336) through a contact hole passing through the at least one insulating layer. a display panel comprising a display area for displaying an image, and a peripheral area disposed outside of the display area; and a touch sensor disposed on the display panel, wherein the touch sensor comprises: a plurality of sensor electrodes formed in a repeated arrangement of sensor patterns (SP1, SP2), wherein the repeated arrangement of sensor patterns (SP1, SP2) forms a touch active area; a plurality of sensor wirings (SL1, SL2) connected to the sensor electrodes and disposed outside of the touch active area; and at least one insulating layer overlapping the display area and the peripheral area, a plurality of sensor electrodes formed in a repeated arrangement of sensor patterns (SP1, SP2), wherein the repeated arrangement of sensor patterns (SP1, SP2) forms a touch active area; a plurality of sensor wirings (SL1, SL2) connected to the sensor electrodes and disposed outside of the touch active area; and at least one insulating layer overlapping the display area and the peripheral area, wherein at least a portion of the sensor electrodes is formed over the display area and the peripheral area characterized in that the peripheral area comprises a margin area in contact with a boundary of the display area, an outermost sensor pattern (MOSP1, MOSP2) corresponding to a boundary of the sensor electrodes comprises: a first conductive layer (320, 330, 331, 335, 336); and a second conductive layer (360, 365, 366) connected to the first conductive layer (320, 330, 331, 335, 336) through a contact hole passing through the at least one insulating layer. a first conductive layer (320, 330, 331, 335, 336); and a second conductive layer (360, 365, 366) connected to the first conductive layer (320, 330, 331, 335, 336) through a contact hole passing through the at least one insulating layer.
A dispenser assembly comprising a nasal fluid dispenser device having a reservoir forming body containing fluid or that supports such a reservoir in stationary manner, a dispenser head being assembled on said body, said dispenser head being provided with a dispenser orifice, said assembly further comprising a positioner member that co-operates with said nasal dispenser device, said positioner member including at least a first facial bearing zone that, during actuation, co-operates with the forehead or the bridge of the user's nose, the assembly being characterized in that said dispenser head is movable axially relative to said body, said positioner member including at least one hollow sleeve in which said dispenser head is inserted in clamping manner, said positioner member including a second facial bearing zone that is adapted to co-operate with the user's top lip.
A method of manufacturing a double-walled titanium conduit, comprising: stitch welding a set of intimately concentric seamless tubings to form a stitch layer, the stitch welding forming a pattern including a number of first lines (206, 208) which run parallel along a length of the tubings and a number of second lines (210, 212) which run perpendicular to the first lines along a width of the tubings; providing the stitch layer between an inner wall tubing (702, 802) and an outer wall tubing (704, 804) of the double-walled titanium conduit such that the tubings are arranged concentrically; seam welding respective ends of the inner wall tubing (702, 802) and the outer wall tubing (704, 804) to the stitch layer around the respective circumferences of the tubings to create a welded assembly; die forming the welded assembly at temperature and pressure to form inner structures (610, 612) between the inner wall tubing and the outer wall tubing according to the stitch welding lines and to enable a diffusion bond process among the inner wall tubing (702, 802), the stitch layer, and the outer wall tubing (704, 804); and removing the double-walled titanium conduit from the die. stitch welding a set of intimately concentric seamless tubings to form a stitch layer, the stitch welding forming a pattern including a number of first lines (206, 208) which run parallel along a length of the tubings and a number of second lines (210, 212) which run perpendicular to the first lines along a width of the tubings; providing the stitch layer between an inner wall tubing (702, 802) and an outer wall tubing (704, 804) of the double-walled titanium conduit such that the tubings are arranged concentrically; seam welding respective ends of the inner wall tubing (702, 802) and the outer wall tubing (704, 804) to the stitch layer around the respective circumferences of the tubings to create a welded assembly; die forming the welded assembly at temperature and pressure to form inner structures (610, 612) between the inner wall tubing and the outer wall tubing according to the stitch welding lines and to enable a diffusion bond process among the inner wall tubing (702, 802), the stitch layer, and the outer wall tubing (704, 804); and removing the double-walled titanium conduit from the die.
A method for controlling an air conditioner outdoor unit, wherein said air conditioner outdoor unit comprises: a fan, a compressor, a wind direction adjusting device, at least one temperature sensor, a wind direction sensor and a controller, said controller is connected with said fan, said compressor, said wind direction adjusting device, and said temperature sensor respectively, and said method comprises: acquiring a working mode of the air conditioner outdoor unit; acquiring sensor parameters of said air conditioner outdoor unit according to said working mode, wherein said sensor parameters include: wind direction parameters read by said wind direction sensor or temperature parameters read by said temperature sensor; determining control parameters for said air conditioner outdoor unit by said working mode and said sensor parameters corresponding to said working mode; driving a rotating speed of said fan and a rotating angle of said wind direction adjusting device using said control parameters. acquiring a working mode of the air conditioner outdoor unit; acquiring sensor parameters of said air conditioner outdoor unit according to said working mode, wherein said sensor parameters include: wind direction parameters read by said wind direction sensor or temperature parameters read by said temperature sensor; determining control parameters for said air conditioner outdoor unit by said working mode and said sensor parameters corresponding to said working mode; driving a rotating speed of said fan and a rotating angle of said wind direction adjusting device using said control parameters.
Steel production facility, at the least comprising: - an electric arc furnace for at least cyclically melting of charge materials comprising shredded scrap-iron pieces; - means of at least cyclically power generation (30, 31, 32) during the melting from the thermic energy included in the hot process-exhaust (furnace top 20) of the electric arc furnace; and - means of conveyance (50, 51,...), by means of which (50, 51,...), during a melting process cycle, the electric arc furnace is continuously fed at least with the pieces of scrap-iron shredded by a shredding-system, characterized in that - the shredding-system - is assigned to the electric arc furnace for shredding discarded iron and/or steel junk (scrap 70), - and is driven by an electric motor, wherein the electric motor is powered during a melting process cycle by electric energy recovered by the power generation means (30, 31, 32). - an electric arc furnace for at least cyclically melting of charge materials comprising shredded scrap-iron pieces; - means of at least cyclically power generation (30, 31, 32) during the melting from the thermic energy included in the hot process-exhaust (furnace top 20) of the electric arc furnace; and - means of conveyance (50, 51,...), by means of which (50, 51,...), during a melting process cycle, the electric arc furnace is continuously fed at least with the pieces of scrap-iron shredded by a shredding-system, characterized in that - the shredding-system - is assigned to the electric arc furnace for shredding discarded iron and/or steel junk (scrap 70), - and is driven by an electric motor, wherein the electric motor is powered during a melting process cycle by electric energy recovered by the power generation means (30, 31, 32). - is assigned to the electric arc furnace for shredding discarded iron and/or steel junk (scrap 70), - and is driven by an electric motor, wherein the electric motor is powered during a melting process cycle by electric energy recovered by the power generation means (30, 31, 32).
A motion determination apparatus for determining motion of a moving object, wherein the motion determination apparatus comprises: - a multi-axial accelerometer for being positioned at the moving object, wherein the multi-axial accelerometer is adapted to generate accelerometer signals indicative of the acceleration along different spatial axes, - a motion signal generation unit for generating a motion signal indicative of the motion of the object by combining the accelerometer signals of different spatial axes, wherein the motion signal generation unit is adapted to determine for each spatial axis of the accelerometer a maximized projection signal of the acceleration change and to generate the motion signal by combining the maximized projection signals, and wherein the motion signal generation unit is adapted to determine the maximized projection signal of the acceleration change for each spatial axis of the accelerometer by projecting a movement of a gravity vector relative to the spatial axes of the accelerometer on a subspace defined by a nominal gravity vector and the respective spatial axis of the accelerometer and by transforming the respective axis within the subspace such that a projection of the projected movement of the gravity vector, which has been projected into the subspace, on the transformed respective axis is maximized. - a multi-axial accelerometer for being positioned at the moving object, wherein the multi-axial accelerometer is adapted to generate accelerometer signals indicative of the acceleration along different spatial axes, - a motion signal generation unit for generating a motion signal indicative of the motion of the object by combining the accelerometer signals of different spatial axes, wherein the motion signal generation unit is adapted to determine for each spatial axis of the accelerometer a maximized projection signal of the acceleration change and to generate the motion signal by combining the maximized projection signals, and wherein the motion signal generation unit is adapted to determine the maximized projection signal of the acceleration change for each spatial axis of the accelerometer by projecting a movement of a gravity vector relative to the spatial axes of the accelerometer on a subspace defined by a nominal gravity vector and the respective spatial axis of the accelerometer and by transforming the respective axis within the subspace such that a projection of the projected movement of the gravity vector, which has been projected into the subspace, on the transformed respective axis is maximized.
A cable assembly comprising: at least a first optical fiber extending from a first end to a second end; an active optical module, AOM, attached to the first end of the first optical fiber using a non-connector based connection, the active optical module including an electrical connector, the active optical module configured to convert between electrical signals to/from the electrical connector and optical signals to/from the first end of the first optical fiber, the active optical module including a first storage device that is electrically connected to the electrical connector; and a passive optical connector terminating the second end of the first optical fiber, the passive optical connector including a second storage device and a storage device interface that is electrically connected to the second storage device, wherein the second storage device and the storage device interface are isolated from the optical signals carried over the first optical fiber; wherein the first storage device includes an AOM identifier stored therein identifying the active optical module, and wherein the second storage device includes first information stored therein indicating that the first end of the first optical fiber is associated with the AOM identifier. at least a first optical fiber extending from a first end to a second end; an active optical module, AOM, attached to the first end of the first optical fiber using a non-connector based connection, the active optical module including an electrical connector, the active optical module configured to convert between electrical signals to/from the electrical connector and optical signals to/from the first end of the first optical fiber, the active optical module including a first storage device that is electrically connected to the electrical connector; and a passive optical connector terminating the second end of the first optical fiber, the passive optical connector including a second storage device and a storage device interface that is electrically connected to the second storage device, wherein the second storage device and the storage device interface are isolated from the optical signals carried over the first optical fiber; wherein the first storage device includes an AOM identifier stored therein identifying the active optical module, and wherein the second storage device includes first information stored therein indicating that the first end of the first optical fiber is associated with the AOM identifier.
A carrier (205, 305, 405, 505) for holding a plurality of containers (CA1, CA2, CA3, CB1, CB2, CB3), the carrier (205, 305, 405, 505) comprising: a plurality of panels comprising a front central panel, a back central panel, a front attachment panel (231a, 431a, 531a) foldably connected to the front central panel, and a back attachment panel (231b, 431b, 531b) foldably connected to the back central panel, each of the front attachment panel (231a, 431a, 531a) and the back attachment panel (231b, 431b, 531b) configured to receive a portion of one or more containers (CA1, CA2, CA3, CB1, CB2, CB3) of the plurality of containers (CA1, CA2, CA3, CB1, CB2, CB3), at least one of the front central panel and the back central panel comprises a respective opening (227a, 227b) in communication with the respective other of the front central panel and the back central panel, each of the front central panel and the back central panel is for being positioned between and adhered to adjacent containers (CA1, CA2, CA3, CB1, CB2, CB3) of the plurality of containers (CA1, CA2, CA3, CB1, CB2, CB3). a plurality of panels comprising a front central panel, a back central panel, a front attachment panel (231a, 431a, 531a) foldably connected to the front central panel, and a back attachment panel (231b, 431b, 531b) foldably connected to the back central panel, each of the front attachment panel (231a, 431a, 531a) and the back attachment panel (231b, 431b, 531b) configured to receive a portion of one or more containers (CA1, CA2, CA3, CB1, CB2, CB3) of the plurality of containers (CA1, CA2, CA3, CB1, CB2, CB3), at least one of the front central panel and the back central panel comprises a respective opening (227a, 227b) in communication with the respective other of the front central panel and the back central panel, each of the front central panel and the back central panel is for being positioned between and adhered to adjacent containers (CA1, CA2, CA3, CB1, CB2, CB3) of the plurality of containers (CA1, CA2, CA3, CB1, CB2, CB3).
A driving place of a commercial or heavy vehicle comprising a driving seat, a steering wheel and a pedal unit rigidly connected to each other and fastened to a single floor portion, wherein said floor portion is connected to a vehicle cabin in a damped manner to react to road surface irregularities, characterized in that said floor portion has an edge hinged, by means of a hinge, to said cabin and one or more shock absorbers (BP, BP1, BP2) have a first end hinged to said floor portion and a second end, opposite to the first, hinged to a fixed point of the cabin© to damp the oscillations of said floor portion with respect to said hinge.
System for the execution of controls on operating machines equipped with a safety system, the system comprising a joystick which includes at least one area and at least one sensor for detecting the presence of the operator's hand on such a joystick, the system further comprises a special enabling button arranged in a position that cannot be reached accidentally, and a control device, said sensor and said special enabling button being electronically connected to the control device of the joystick, wherein the control device, in use, firstly checks that the sensor and the button have not been tampered with, or permanently blocked in active position and if it receives the signal of detection of the operator's hand by the sensor and then, with the hand still present placed on the joystick and the button is pressed by an operator, allows commands for the execution of controls on the operating machine to be executed and allows the pressing of the button to be released, keeping the possibility of executing such commands.
A method for detecting a high impedance fault in an electrical circuit including a three phase supply unit, a DC link and a three phase output, the method comprising: comparing an operational model of the electrical circuit against an expected operations model of the electrical circuit; and determining that a high impedance fault exists within the electrical circuit in response to a deviation between the operational model and the expected operations model by at least a predetermined amount; wherein the deviation between the operational model and the expected operations model includes: a deviation between a common mode current (Icm) of the three phase supply input of the operational model and a common mode current of the three phase supply input of the expected operations model; a deviation between a DC link common mode current (Icm dc) of the operational model and a DC link common mode current of the expected operations model; and a deviation between a value dependent on at least one of the common mode current of the three phase supply input and the DC link common mode current of each of the operational model and the expected operations model. comparing an operational model of the electrical circuit against an expected operations model of the electrical circuit; and determining that a high impedance fault exists within the electrical circuit in response to a deviation between the operational model and the expected operations model by at least a predetermined amount; wherein the deviation between the operational model and the expected operations model includes: a deviation between a common mode current (Icm) of the three phase supply input of the operational model and a common mode current of the three phase supply input of the expected operations model; a deviation between a DC link common mode current (Icm dc) of the operational model and a DC link common mode current of the expected operations model; and a deviation between a value dependent on at least one of the common mode current of the three phase supply input and the DC link common mode current of each of the operational model and the expected operations model. a deviation between a common mode current (Icm) of the three phase supply input of the operational model and a common mode current of the three phase supply input of the expected operations model; a deviation between a DC link common mode current (Icm dc) of the operational model and a DC link common mode current of the expected operations model; and a deviation between a value dependent on at least one of the common mode current of the three phase supply input and the DC link common mode current of each of the operational model and the expected operations model.