mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a glass or glass ceramic article, comprising the steps of: - providing a sheet-like glass or glass ceramic substrate having two opposite faces (20, 21), which - in the visible spectral range from 380 nm to 780 nm exhibits light transmittance τ vis of at least 1 %, preferably at least 30 % for visible light that passes across the glass or glass ceramic substrate from one face to the opposite face; - providing an opaque coating on one face of the glass or glass ceramic substrate, which coating exhibits light transmittance τ vis of not more than 5 % in the visible spectral range from 380 nm to 780 nm; wherein - a pulsed laser beam is directed onto the opaque coating and the coating is locally removed by ablation down to the surface of the glass or glass ceramic article, repeatedly at different locations, thereby producing a perforated area pattern of a multitude of openings in the opaque coating defining a core area such that the opaque coating becomes semi-transparent in the area of the pattern; wherein a transition area is created along a periphery of the perforated core area, where further openings are ablated such that the ablated percentage surface area defined by the ratio of ablated surface area to non-processed surface area is lower on average within the transition area than within the core area; wherein the openings are spaced from each other by less than 200 μm, and wherein the openings have a size of less than 30 μm, and wherein the ablated percentage surface area of the core area is greater than 0.5 %. - providing a sheet-like glass or glass ceramic substrate having two opposite faces (20, 21), which - in the visible spectral range from 380 nm to 780 nm exhibits light transmittance τ vis of at least 1 %, preferably at least 30 % for visible light that passes across the glass or glass ceramic substrate from one face to the opposite face; - providing an opaque coating on one face of the glass or glass ceramic substrate, which coating exhibits light transmittance τ vis of not more than 5 % in the visible spectral range from 380 nm to 780 nm; wherein - a pulsed laser beam is directed onto the opaque coating and the coating is locally removed by ablation down to the surface of the glass or glass ceramic article, repeatedly at different locations, thereby producing a perforated area pattern of a multitude of openings in the opaque coating defining a core area such that the opaque coating becomes semi-transparent in the area of the pattern; wherein a transition area is created along a periphery of the perforated core area, where further openings are ablated such that the ablated percentage surface area defined by the ratio of ablated surface area to non-processed surface area is lower on average within the transition area than within the core area; wherein the openings are spaced from each other by less than 200 μm, and wherein the openings have a size of less than 30 μm, and wherein the ablated percentage surface area of the core area is greater than 0.5 %.
A man-lift implement configured to be mounted on an implement carrier that is rotatably attached to an arm of an excavator, the man-lift implement comprising a basket configured to carry an operator, wherein the man-lift implement further comprises: an implement carrier interface configured to mount the man-lift implement to the implement carrier of the excavator; a multi-bar linkage and a rotational actuator coupled between the implement carrier interface and the basket, the multi-bar linkage having a linkage actuator and being moveable under power of the linkage actuator to raise and lower the basket relative to the implement carrier interface, and the rotational actuator configured to pivot the basket with respect to the implement carrier interface; and characterized by a physical stop mechanism configured to engage the arm of the excavator and limit travel of the multi-bar linkage so as to prevent the basket from contacting the arm of the excavator. an implement carrier interface configured to mount the man-lift implement to the implement carrier of the excavator; a multi-bar linkage and a rotational actuator coupled between the implement carrier interface and the basket, the multi-bar linkage having a linkage actuator and being moveable under power of the linkage actuator to raise and lower the basket relative to the implement carrier interface, and the rotational actuator configured to pivot the basket with respect to the implement carrier interface; and characterized by a physical stop mechanism configured to engage the arm of the excavator and limit travel of the multi-bar linkage so as to prevent the basket from contacting the arm of the excavator.
Drone comprising: - a fuselage, the upper face of the fuselage being covered with photovoltaic cells; - means of propulsion powered at least by electric storage batteries and/or photovoltaic cells; - a first aerofoil defined by a wingspan and by a surface area of the upper face, the upper face of the first aerofoil being covered with photovoltaic cells; - a second aerofoil offset along the fuselage and in height in relation to the first aerofoil, the upper face of the second aerofoil being covered with photovoltaic cells, characterised in that the second aerofoil has: - a wingspan identical to that of the first aerofoil; - an upper face with a surface area identical to that of the first aerofoil, and in that the fuselage has a transversal section taking the form of an isosceles trapezoid of which the smallest base is formed by the upper face of the fuselage from which extend the lateral faces of the fuselage, the lateral faces of the fuselage being covered with photovoltaic cells. - a fuselage, the upper face of the fuselage being covered with photovoltaic cells; - means of propulsion powered at least by electric storage batteries and/or photovoltaic cells; - a first aerofoil defined by a wingspan and by a surface area of the upper face, the upper face of the first aerofoil being covered with photovoltaic cells; - a second aerofoil offset along the fuselage and in height in relation to the first aerofoil, the upper face of the second aerofoil being covered with photovoltaic cells, - a wingspan identical to that of the first aerofoil; - an upper face with a surface area identical to that of the first aerofoil,
A method performed by a user equipment for self-optimization network information transmission, the user equipment being used in an internet of things network system, the method comprising: receiving a configuration from a first base station; receiving a self-optimization network parameter from a second base station; resuming or establishing a connection between the user equipment and the first base station; and transmitting, via the connection, a self-optimization network information to the first base station based on the configuration; wherein the configuration configures the user equipment to transmit the self-optimization network information as one of: transmitting the self-optimization network information to the first base station after receiving the self-optimization network parameter from the second base station, wherein the self-optimization network information comprises the self-optimization network parameter of the second base station; and transmitting the self-optimization network information to the first base station after a specific period. receiving a configuration from a first base station; receiving a self-optimization network parameter from a second base station; resuming or establishing a connection between the user equipment and the first base station; and transmitting, via the connection, a self-optimization network information to the first base station based on the configuration; wherein the configuration configures the user equipment to transmit the self-optimization network information as one of: transmitting the self-optimization network information to the first base station after receiving the self-optimization network parameter from the second base station, wherein the self-optimization network information comprises the self-optimization network parameter of the second base station; and transmitting the self-optimization network information to the first base station after a specific period. transmitting the self-optimization network information to the first base station after receiving the self-optimization network parameter from the second base station, wherein the self-optimization network information comprises the self-optimization network parameter of the second base station; and transmitting the self-optimization network information to the first base station after a specific period.
A yarn monitoring device comprising: a plurality of holders (8, 55, 56) that are piled up one above the other along a predetermined direction and through which a traveling yarn passes; at least one substrate (52, 52x, 52y); and a case that accommodates the holders (8, 55, 56) and the at least one substrate (52, 52x, 52y), wherein a sensor part for measurement (57, 58, 87x, 87y, 88x, 88y) that is configured to measure a state of the traveling yarn is mounted on at least one of the holders (55, 56), the at least one substrate (52, 52x, 52y) is associated with the holder (55, 56) on which the sensor part for measurement (57, 58, 87x, 87y, 88x, 88y) is mounted, and the at least one substrate (52x, 52y) is configured to process a signal received from the sensor part for measurement (57, 58, 87x, 87y, 88x, 88y) mounted on the holder (55, 56), the sensor part for measurement (57, 58, 87x, 87y, 88x, 88y) is electrically connected to the at least one substrate (52, 52x, 52y) via a flexible connecting part (73, 93), and two adjacent holders (55, 56; 55, 156) among the holders (8, 55, 56; 8, 55, 156) are detachably coupled to each other with engagement of concave and convex parts. a plurality of holders (8, 55, 56) that are piled up one above the other along a predetermined direction and through which a traveling yarn passes; at least one substrate (52, 52x, 52y); and a case that accommodates the holders (8, 55, 56) and the at least one substrate (52, 52x, 52y), wherein a sensor part for measurement (57, 58, 87x, 87y, 88x, 88y) that is configured to measure a state of the traveling yarn is mounted on at least one of the holders (55, 56), the at least one substrate (52, 52x, 52y) is associated with the holder (55, 56) on which the sensor part for measurement (57, 58, 87x, 87y, 88x, 88y) is mounted, and the at least one substrate (52x, 52y) is configured to process a signal received from the sensor part for measurement (57, 58, 87x, 87y, 88x, 88y) mounted on the holder (55, 56), the sensor part for measurement (57, 58, 87x, 87y, 88x, 88y) is electrically connected to the at least one substrate (52, 52x, 52y) via a flexible connecting part (73, 93), and two adjacent holders (55, 56; 55, 156) among the holders (8, 55, 56; 8, 55, 156) are detachably coupled to each other with engagement of concave and convex parts.
A capacitive position sensor system for determining the position of an object, wherein the object is positioned within a sensitive area of the capacitive position sensor system and changes the capacitance of capacitors (Cs1..Cs3, Cs11..Cs32) being arranged underneath the object, the capacitive position sensor system comprising a first plurality of sensing elements, each sensing element comprising a first capacitor (Cs1..Cs3, Cs11..Cs31) having a first electrode and a second electrode, wherein each first electrode is coupled via a switch (S11H..S13H) to a voltage supply (Vcc) to form a switched capacitor filter, wherein the second electrodes are coupled to form a sensing line, a sensing unit, wherein the sensing unit is adapted to sense a voltage level representing the amount of charge being present on the sensing line, and a control unit, wherein the control unit is adapted to apply a drive signal to each of said switches (S11H..S13H) being coupled to the first electrodes, wherein, in one integration cycle, a part of said switches (S11H..S13H) being coupled to the first electrodes is closed so that a part of the first capacitors (Cs1..Cs3, Cs11..Cs31) is driven by a first drive signal (Vcc), wherein the sensing unit is adapted to sense the voltage level representing the sum of the amount of charge of the part of the first capacitors (Cs1..Cs3, Cs11..Cs31), wherein the number of said switches (S11H..S13H) being closed is at least two, wherein the control unit is adapted to determine the position of the object by analyzing the results of a plurality of sensed voltage levels of a plurality of integration cycles.
Method for manufacturing white cement clinker, comprising at least: - sintering cement clinker in a kiln, - providing preheated combustion gas to the kiln, - unloading cement clinker from the kiln to a clinker cooler for exchanging thermal energy between the hot clinker and a gaseous coolant by subjecting the clinker to a flow of said gaseous coolant to thereby cool the clinker and in return heat the gaseous coolant, characterized in that, (i) the gaseous coolant is a low oxygen coolant with an oxygen content smaller than 7.5%, (ii) at least a part of the heated low oxygen coolant is provided from the clinker cooler to at least one first heat exchanger to transfer thermal energy from the heated low oxygen coolant to the combustion gas and thereby preheat at least a part of the combustion gas and in return cool the low oxygen coolant. - sintering cement clinker in a kiln, - providing preheated combustion gas to the kiln, - unloading cement clinker from the kiln to a clinker cooler for exchanging thermal energy between the hot clinker and a gaseous coolant by subjecting the clinker to a flow of said gaseous coolant to thereby cool the clinker and in return heat the gaseous coolant, (i) the gaseous coolant is a low oxygen coolant with an oxygen content smaller than 7.5%, (ii) at least a part of the heated low oxygen coolant is provided from the clinker cooler to at least one first heat exchanger to transfer thermal energy from the heated low oxygen coolant to the combustion gas and thereby preheat at least a part of the combustion gas and in return cool the low oxygen coolant.
A method for automatically logging in a client, characterized in that the method comprises: decrypting an encrypted IC Card Identification, CCID, of a Subscriber Identity Module according to identity password information inputted by a user and matching the decrypted ICCID with a preset ICCID; when the matching is successful, determining account information corresponding to an identification of the client to be logged in currently by the user according to the correspondence relationship between the identification of the client stored in the Subscriber Identity Module and the account information; and logging in the client with the determined account information. decrypting an encrypted IC Card Identification, CCID, of a Subscriber Identity Module according to identity password information inputted by a user and matching the decrypted ICCID with a preset ICCID; when the matching is successful, determining account information corresponding to an identification of the client to be logged in currently by the user according to the correspondence relationship between the identification of the client stored in the Subscriber Identity Module and the account information; and logging in the client with the determined account information.
A ceramic honeycomb structure having a large number of flow paths defined by porous cell walls having a porosity of more than 58% and 68% or less, and an average pore size of 15-32 μm, said ceramic honeycomb structure having pores meeting the following conditions: the volume of pores having diameters of more than 50 μm being more than 10% and 25% or less of the total pore volume; the volume of pores having diameters of 100 μm or more being 1-8% of the total pore volume; the volume of pores having diameters of less than 10 μm being 3-10% of the total pore volume; said pores having a pore size distribution deviation σ [= log(D 20) - log(D 80)] of 0.45 or less, wherein D 20 represents a pore size (μm) at a pore volume corresponding to 20% of the total pore volume, and D 80 represents a pore size (μm) at a pore volume corresponding to 80% of the total pore volume, in a curve showing the relation between a pore size and a cumulative pore volume obtained by accumulating a pore volume from the maximum pore size to a particular pore size, and D 80 < D 20; and said ceramic honeycomb structure comprising cordierite as a main crystal phase. the volume of pores having diameters of more than 50 μm being more than 10% and 25% or less of the total pore volume; the volume of pores having diameters of 100 μm or more being 1-8% of the total pore volume; the volume of pores having diameters of less than 10 μm being 3-10% of the total pore volume; said pores having a pore size distribution deviation σ [= log(D 20) - log(D 80)] of 0.45 or less, wherein D 20 represents a pore size (μm) at a pore volume corresponding to 20% of the total pore volume, and D 80 represents a pore size (μm) at a pore volume corresponding to 80% of the total pore volume, in a curve showing the relation between a pore size and a cumulative pore volume obtained by accumulating a pore volume from the maximum pore size to a particular pore size, and D 80 < D 20; and said ceramic honeycomb structure comprising cordierite as a main crystal phase.
Junction box for a solar panel comprising a housing, a lid, a first coupling and a second coupling, wherein the housing comprises sidewalls (11, 12) and a top wall defining an interior space, wherein the first coupling comprises a first contact element and the second coupling comprises a second contact element, which contact elements (5, 6) penetrate at least one of the sidewalls (11, 12), so that the contact elements (5, 6) provide an electrical contact from external contact elements to internal contact elements, such as solder tails, which internal contact elements are arranged at least partially in said interior space, wherein the top wall comprises an opening extending only partially in said top wall, said opening located in said top wall such that access to said internal contact elements, such as said solder tails, in a perpendicular direction to the surface of a solar panel for connecting the internal contact elements, such as said solder tails, to the solar panel is provided, characterized in that the first coupling extends along a first axis and the second coupling extends along a second axis, wherein a first external contact element is introducible into the first coupling along the first axis and a second external contact element is introducible into the second coupling along the second axis and wherein the first axis and the second axis are arranged such that they are angular with an angle α that is between 5° and 170°, in particular between 75° and 125°, in a common plane that is preferably parallel to the bottom wall.
A radiation curable inkjet printing method for producing printed flexible foils and plastic bags comprising the steps of: a) providing a web-like polymeric substrate having a maximum value for Tan δ between 40°C and 110°C; b) providing a single pass inkjet printer having at least one page-wide printhead or at least one set of staggered printheads, means for transporting the web-like recording medium and curing means; c) jetting onto the web-like polymeric substrate having a surface energy S sub, a non-aqueous radiation curable inkjet liquid having a surface tension S Liq, wherein S Liq is smaller than S Sub by at least 4 mN/m; and d) curing the radiation curable liquid on the substrate at a surface temperature equal or higher than the temperature of the maximum value for Tan δ and smaller than the melting point of the polymeric recording medium; wherein the maximum value for Tan δ is determined by dynamic mechanical analysis at a temperature ramp of 3°C/min using forced oscillation with a cycle of 1 second and an amplitude of 100 μm. a) providing a web-like polymeric substrate having a maximum value for Tan δ between 40°C and 110°C; b) providing a single pass inkjet printer having at least one page-wide printhead or at least one set of staggered printheads, means for transporting the web-like recording medium and curing means; c) jetting onto the web-like polymeric substrate having a surface energy S sub, a non-aqueous radiation curable inkjet liquid having a surface tension S Liq, wherein S Liq is smaller than S Sub by at least 4 mN/m; and d) curing the radiation curable liquid on the substrate at a surface temperature equal or higher than the temperature of the maximum value for Tan δ and smaller than the melting point of the polymeric recording medium;
A kit comprising a roll of web material in the form of tissue paper or nonwoven material intended for wiping purposes and a dispenser for said roll, said roll having a roll diameter and a length and having an end surface (11 a, b) at each end, said web material being adapted to be unwound from the centre of the roll through one end surface thereof, the dispenser comprising an elongated housing in the shape of a casing accommodating the roll, said housing having an end wall (14, 15) at each end covering the respective end surface (11 a, b) of the roll, wherein a dispenser opening is arranged in at least one end wall of the dispenser, said dispenser opening being provided with tearing means, said dispenser opening has an elongated shape having a length and a width and a pair of opposed side edges (18, 19), wherein one side edge is provided with said tearing means and the opposite side edge is smooth and free from tearing means, characterized in that the length of the dispenser opening is between 40 and 90% of the roll diameter and the width of the dispenser opening is at least 10 times the thickness of the web material and at least 5 mm, but not more than 40 mm.
Differential electrical protection device intended to protect at least N electrical lines and including a switching device and a trip module intended to be connected to the switching device, said trip module including firstly a device for measuring the differential current in at least two current lines, this device for measuring the differential current including a magnetic circuit including a torus intended to surround so-called primary conductors that are respectively associated with the aforementioned current lines, and secondly current measurement and power supply sensors for each current line, respectively, said switching device including power supply means and processing means connected electrically upstream to the device for measuring the differential current and to the various current measurement and power supply sensors, and downstream to a device for actuating a mechanism for opening the contacts, characterized in that it includes N-1 phase conductors (7,9), each phase conductor including, between a so-called input, or upper, connection land (11,13) and a so-called output, or lower, connection land (14,16), a portion (7a,9a) able to pass through the aforementioned torus and a portion (7b,9b) able to pass through a current measurement and power supply sensor (4,6), the so-called input connection lands (11,13) being situated in a first plane, and the so-called output connection lands (14,16) extending in a second plane, in that the aforementioned power supply and measurement sensors (4,6) of the N-1 phase conductors are each positioned in the space situated between the two planes (P1,P2), and in that the device furthermore includes a so-called additional phase conductor including a so-called input connection land and a so-called output connection land, a portion able to pass through the aforementioned torus and a portion able to pass through a so-called additional measurement sensor only measuring the current, this so-called additional measurement sensor being of small size and being positioned directly above the torus in such a way that the assembly formed by the torus and the additional sensor is situated substantially in the space between the two planes (P1,P2).