mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a wiring board using an insulating substrate having a through hole comprising: forming a seed layer on one surface of the insulating substrate, forming a resist layer on an area of the seed layer where an electrode on the through hole is not formed, and covering the whole surface of the insulating substrate opposite to the surface of the insulating substrate on which the seed layer is formed with a first masking film, forming a first metal layer in the through hole by carrying out electroplating on the surface of the insulating substrate on which the seed layer is formed, forming the first metal layer in the through hole so that the diameter of an opening of the through hole in which the first metal layer is formed is 10 to 50% of the diameter of the opening of the through hole before formation of the first metal layer, covering the whole surface of the insulating substrate on which the seed layer, the resist layer and the first metal layer are formed with a second masking film, and removing the first masking film which covers the whole surface of the insulating substrate opposite to the surface of the insulating substrate on which the seed layer is formed, carrying out electroplating from the surface of the insulating substrate opposite to the surface of the insulating substrate on which the seed layer is formed, to form a second metal layer in a space between the masking film and the seed layer and in the through hole, and thereby the electrode is formed, and removing the second masking film, the resist layer and the seed layer from the insulating substrate. forming a seed layer on one surface of the insulating substrate, forming a resist layer on an area of the seed layer where an electrode on the through hole is not formed, and covering the whole surface of the insulating substrate opposite to the surface of the insulating substrate on which the seed layer is formed with a first masking film, forming a first metal layer in the through hole by carrying out electroplating on the surface of the insulating substrate on which the seed layer is formed, forming the first metal layer in the through hole so that the diameter of an opening of the through hole in which the first metal layer is formed is 10 to 50% of the diameter of the opening of the through hole before formation of the first metal layer, covering the whole surface of the insulating substrate on which the seed layer, the resist layer and the first metal layer are formed with a second masking film, and removing the first masking film which covers the whole surface of the insulating substrate opposite to the surface of the insulating substrate on which the seed layer is formed, carrying out electroplating from the surface of the insulating substrate opposite to the surface of the insulating substrate on which the seed layer is formed, to form a second metal layer in a space between the masking film and the seed layer and in the through hole, and thereby the electrode is formed, and removing the second masking film, the resist layer and the seed layer from the insulating substrate.
A method performed by a User Equipment, UE, the UE having a Packet Data Convergence Protocol, PDCP, entity associated with two Radio Link Control, RLC, entities, the PDCP entity being configured with a duplication function, and the duplication function being not activated, and the method comprising: determining, by the PDCP entity, whether the two RLC entities belong to a same cell group; submitting, by the PDCP entity, a PDCP Data Protocol Data Unit, PDU, to a primary RLC entity of the two RLC entities, when the two RLC entities belong to a same cell group; and when the two RLC entities belong to different cell groups, performing operations comprising: submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity when a total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is less than an uplink data split threshold; and submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity or a secondary RLC entity of the two RLC entities when the total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is equal to or larger than the uplink data split threshold. determining, by the PDCP entity, whether the two RLC entities belong to a same cell group; submitting, by the PDCP entity, a PDCP Data Protocol Data Unit, PDU, to a primary RLC entity of the two RLC entities, when the two RLC entities belong to a same cell group; and when the two RLC entities belong to different cell groups, performing operations comprising: submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity when a total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is less than an uplink data split threshold; and submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity or a secondary RLC entity of the two RLC entities when the total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is equal to or larger than the uplink data split threshold. submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity when a total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is less than an uplink data split threshold; and submitting, by the PDCP entity, the PDCP Data PDU to the primary RLC entity or a secondary RLC entity of the two RLC entities when the total amount of PDCP data available in the PDCP entity and RLC data available in the two RLC entities for initial transmission is equal to or larger than the uplink data split threshold.
A multi-layer polishing pad for chemical-mechanical polishing comprising a top layer, a middle layer and a bottom layer, wherein the top layer and the bottom layer are bonded together by the middle layer, wherein the layers are bonded without the use of an adhesive, and wherein the middle layer comprises a thermoplastic polyurethane, characterised in that the thermoplastic polyurethane of the middle layer has a lower Vicat softening temperature than the top layer and/or the bottom layer and the middle layer has a Vicat softening temperature between about 126.67 °C (260 °F) and about 148.89 °C (300 °F).
A film for use in an oral cavity wherein said film is produced from an aqueous mixture of its components and comprises: a water soluble polymeric film former which is an edible non-ionic cellulose derivative selected from any one or combination of methyl celluloses, hydroxypropylmethyl cellulose, hydroxyethylcellulose, hydroxypropyl cellulose and carboxymethyl cellulose; and a bioactive glass comprising 40-80% by weight silicon dioxide (SiO 2), 0-35% by weight sodium oxide (Na 2 O), 4-46% by weight calcium oxide (CaO) and about 1-15% by weight phosphorous oxide (P 2 O 5); and wherein the bioactive glass is added to a solution of the polymeric film former to form the aqueous mixure and the bioactive glass is held in this aqueous environment for no longer than 1-120 hours or more preferably 1-60 hours before the water content is reduced by 5-70% by weight so as to minimize adverse reactions between the polymeric film former and the bioactive glass. a water soluble polymeric film former which is an edible non-ionic cellulose derivative selected from any one or combination of methyl celluloses, hydroxypropylmethyl cellulose, hydroxyethylcellulose, hydroxypropyl cellulose and carboxymethyl cellulose; and a bioactive glass comprising 40-80% by weight silicon dioxide (SiO 2), 0-35% by weight sodium oxide (Na 2 O), 4-46% by weight calcium oxide (CaO) and about 1-15% by weight phosphorous oxide (P 2 O 5); and wherein the bioactive glass is added to a solution of the polymeric film former to form the aqueous mixure and the bioactive glass is held in this aqueous environment for no longer than 1-120 hours or more preferably 1-60 hours before the water content is reduced by 5-70% by weight so as to minimize adverse reactions between the polymeric film former and the bioactive glass.
Joining device for joining a metal segment to a concrete segment of a hybrid hollow tower; the concrete segment comprising a widened area at its upper end in contact with the metal segment; a high quantity of reinforcement in the widened area of the concrete segment in order to bear tensile stresses; the metal segment comprising a base arranged to abut on said widened area; the joining device being in the form of a bolt cage and comprising an anchoring ring with a rectangular cross section; a set of bolts, one end of each bolt passing through holes of the anchoring ring and attached to both sides of the anchoring ring by a first set of nuts, a set of connectors attached to the side surfaces of the anchoring ring to extend radially from either side of the anchoring ring in a direction substantially perpendicular to the bolts, and wherein the connectors are arranged alternately a different distances from the top edges of the side surfaces of the anchoring ring so as not to interfere with said reinforcement;wherein the joining device is embedded in the widened area of the concrete segment when in use, the other protruding ends of the bolts being arranged to pass through engaging holes of the base of the metal segment when in use and secured thereto by a second set of nuts.
Testing method for testing remote alarm systems in elevators, said alarm system being of the types which comprise at least one piece of alarm equipment, an alarm initiating device, a communications network, and audio devices, said testing method being characterised in that it comprises the following steps: a) initiating an alarm call performed by a maintenance technician from the alarm initiating device of the elevator to a call receiving equipment, b) initiating a predetermined time countdown after initiating the alarm call, c) playing a message recognisable to a speech recognition system within said time countdown, d) verifying if the message sent is a valid message by means of the speech recognition system, and e) diverting the alarm call to a check test for testing the correct operation of the alarm system of the elevator in the event that the message sent is a valid message and wherein the alarm call is transferred to a human operator responding to alarm calls in the event that the message played is identified as an invalid message. a) initiating an alarm call performed by a maintenance technician from the alarm initiating device of the elevator to a call receiving equipment, b) initiating a predetermined time countdown after initiating the alarm call, c) playing a message recognisable to a speech recognition system within said time countdown, d) verifying if the message sent is a valid message by means of the speech recognition system, and e) diverting the alarm call to a check test for testing the correct operation of the alarm system of the elevator in the event that the message sent is a valid message
A package, comprising: a flexible film defining an interior contents cavity and having a first pair of opposing edge portions forming a first end seal, a second pair of opposing edge portions forming a second end seal, and a third pair of opposing edge portions forming a longitudinal seal extending from the first end seal to the second end seal; the package having a first side portion having the longitudinal seal and a second side portion generally opposite the first side portion, the second side portion having a longitudinal axis of symmetry; a score formed in the flexible film at the second side portion and the score defining an opening to the contents cavity upon initial rupturing and configured to propagate film tear longitudinally towards the second end-seal; a closure label covering a portion of the score, and the closure label covering a portion of the longitudinal axis; and a pressure sensitive adhesive disposed between at least portions of the closure label and the flexible film, characterised in that the closure label covers less than the entire score. a flexible film defining an interior contents cavity and having a first pair of opposing edge portions forming a first end seal, a second pair of opposing edge portions forming a second end seal, and a third pair of opposing edge portions forming a longitudinal seal extending from the first end seal to the second end seal; the package having a first side portion having the longitudinal seal and a second side portion generally opposite the first side portion, the second side portion having a longitudinal axis of symmetry; a score formed in the flexible film at the second side portion and the score defining an opening to the contents cavity upon initial rupturing and configured to propagate film tear longitudinally towards the second end-seal; a closure label covering a portion of the score, and the closure label covering a portion of the longitudinal axis; and a pressure sensitive adhesive disposed between at least portions of the closure label and the flexible film, characterised in that the closure label covers less than the entire score.
A brake pedal device, comprising a body formed of at least two half-shells (9, 10) made of composite material, said half-shells (9, 10) having complementary shapes and having, at the level of one of their faces, a concave surface, wherein said half-shells (9, 10) are assembled by fastening at the level of their respective said face, so that their concave surface forms a hollow and closed inner space within said body.
Electrolytic manganese dioxide characterized in that the potential as measured in a 40 wt% KOH aqueous solution by using a mercury/mercury oxide reference electrode as a standard is higher than 250 mV and less than 310 mV, and the volume of pores having a pore diameter of at least 2 nm and at most 50 nm is at most 0.0055 cm 3 /g, wherein the volume of pores having a pore diameter of at least 2 nm and at most 200 nm is at most 0.0555 cm 3 /g, and wherein the BET specific surface area is at least 12 m 2 /g and less than 36 m 2 /g.
An insulating glass pane comprising at least two glass sheets (2, 3), a frame-shaped spacer made of a plastic-based material and a glazing bar insert attached to the spacer, wherein the spacer and the glazing bar insert are located between the two glass sheets (2, 3), characterised in that the insulating glass pane contains at least one magnet pair (28; 29) of two magnets (10, 11; 12, 13; 14, 15; 16, 17; 18, 19) which interact to position and hold the glazing bar insert in the insulating glass pane.
A device, comprising: means for comparing a first voltage at a first charging port of a plurality of charging ports (202, 204) with a second voltage at an input of a power supply, wherein the first charging port is coupled to the power supply via a first over-voltage protection circuit; and means (214, 216) for coupling the first charging port to the input of the power supply upon the second voltage being less than or equal to the first voltage and based at least partially upon a comparison between a voltage at an input of the first over-voltage protection circuit coupled to the first charging port with a voltage at an output of the first over-voltage protection circuit coupled to the power supply, the voltage at the output of the over-voltage protection circuit generated by a voltage from a second charging port of the plurality of charging ports. means for comparing a first voltage at a first charging port of a plurality of charging ports (202, 204) with a second voltage at an input of a power supply, wherein the first charging port is coupled to the power supply via a first over-voltage protection circuit; and means (214, 216) for coupling the first charging port to the input of the power supply upon the second voltage being less than or equal to the first voltage and based at least partially upon a comparison between a voltage at an input of the first over-voltage protection circuit coupled to the first charging port with a voltage at an output of the first over-voltage protection circuit coupled to the power supply, the voltage at the output of the over-voltage protection circuit generated by a voltage from a second charging port of the plurality of charging ports.
Process for the continuous preparation of oligomeric or polymeric isocyanates by catalytic modification of monomeric diisocyanates and/or triisocyanates, characterized in that at least one isocyanate component A and at least one catalyst component B are continuously combined in a reaction apparatus and conveyed as reaction mixture through the reaction apparatus, where the residence time distribution according to the dispersion model is characterized by a Bo (Bodenstein number) above 40, preferably above 60 and very particularly preferably above 80.
An alkali aluminosilicate glass, the alkali aluminosilicate glass comprising from 62 mol% to 72 mol% SiO 2, from 5 mol% to 12 mol% Al 2 O 3, from 12 mol% to 16 mol% Na 2 O and from more than 1 mol% to 10 mol% of at least one metal oxide selected from the group consisting of Nb 2 O 5, V 2 O 5, Y 2 O 3, and MnO 2, wherein Al 2 O 3 (mol%) - Na 2 O(mol%) ≤ 2 mol%, and wherein the alkali aluminosilicate glass is ion exchanged and has a surface and a layer under compressive stress extending from the surface to a depth of layer, wherein the compressive stress is at least 1 GPa and the depth of layer is at least 25 μm.
A power transmitter for wireless multi-charging, the power transmitter comprising: a resonator configured to wirelessly transmit power to one or more power receivers; and a controller configured to: increase a transmission power of the resonator to charge a first power receiver based on the first power receiver being located in a charging area of the resonator, characterized in that the controller is configured to: decrease the transmission power of the resonator based on a second power receiver being located in the charging area of the resonator; and increase the transmission power of the resonator to charge both of the first power receiver and the second power receiver. a resonator configured to wirelessly transmit power to one or more power receivers; and a controller configured to: increase a transmission power of the resonator to charge a first power receiver based on the first power receiver being located in a charging area of the resonator, characterized in that the controller is configured to: decrease the transmission power of the resonator based on a second power receiver being located in the charging area of the resonator; and increase the transmission power of the resonator to charge both of the first power receiver and the second power receiver. decrease the transmission power of the resonator based on a second power receiver being located in the charging area of the resonator; and increase the transmission power of the resonator to charge both of the first power receiver and the second power receiver.
A computer-implemented method for training multi-party secure logistic regression models, the computer-implemented method comprising: dividing sample training data for a secure logistic regression model, SLRM, into a plurality of shares using secret sharing, SS, wherein the sample training data is originating from a plurality of secure computation nodes (112, 114), SCNs, configured to both produce and consume training data, wherein each share is provided by a respective SCN of the plurality of SCNs; iteratively updating, by the plurality of SCNs, parameters associated with the SLRM in a multi-party collaboration using each share of the sample training data, comprising encrypting the shares provided by each SCN by using random numbers and exchanging the encrypted shares between the SCNs, wherein each SCN uses the received encrypted shares as inputs to the SLRM to iteratively update the parameters associated with the SLRM, wherein the iterative updating continues until a predetermined condition is satisfied; and after the predetermined condition is satisfied, outputting a training result configured for use by each SCN of the plurality of SCNs. dividing sample training data for a secure logistic regression model, SLRM, into a plurality of shares using secret sharing, SS, wherein the sample training data is originating from a plurality of secure computation nodes (112, 114), SCNs, configured to both produce and consume training data, wherein each share is provided by a respective SCN of the plurality of SCNs; iteratively updating, by the plurality of SCNs, parameters associated with the SLRM in a multi-party collaboration using each share of the sample training data, comprising encrypting the shares provided by each SCN by using random numbers and exchanging the encrypted shares between the SCNs, wherein each SCN uses the received encrypted shares as inputs to the SLRM to iteratively update the parameters associated with the SLRM, wherein the iterative updating continues until a predetermined condition is satisfied; and after the predetermined condition is satisfied, outputting a training result configured for use by each SCN of the plurality of SCNs.
A microelectromechanical gyroscope comprising: a support structure (6; 106; 206); a sensing mass (3; 103; 203), coupled to the support structure (6; 106; 206) with degrees of freedom along a driving direction (DD; DD'; DD") and a sensing direction (DS; DS'; DS") perpendicular to each other; and a calibration structure (5; 105; 205) facing the sensing mass (3; 103; 203) and separated from the sensing mass (3; 103; 203) by a gap (21; 121; 221) having an average width (W; W'; W"), characterized in that the calibration structure (5; 105; 205) is movable with respect to the sensing mass (3; 103; 203) so that displacements of the calibration structure (5; 105; 205) cause variations in the average width (W; W'; W") of the gap (21; 121; 221); and in that the microelectromechanical gyroscope further comprises a calibration actuator (20, 30; 120, 30; 220, 30) configured to control a relative position of the calibration structure (5; 105; 205) with respect to the sensing mass (3; 103; 203) and the average width (W; W'; W") of the gap (21; 121; 221). a support structure (6; 106; 206); a sensing mass (3; 103; 203), coupled to the support structure (6; 106; 206) with degrees of freedom along a driving direction (DD; DD'; DD") and a sensing direction (DS; DS'; DS") perpendicular to each other; and a calibration structure (5; 105; 205) facing the sensing mass (3; 103; 203) and separated from the sensing mass (3; 103; 203) by a gap (21; 121; 221) having an average width (W; W'; W"), characterized in that the calibration structure (5; 105; 205) is movable with respect to the sensing mass (3; 103; 203) so that displacements of the calibration structure (5; 105; 205) cause variations in the average width (W; W'; W") of the gap (21; 121; 221); and in that the microelectromechanical gyroscope further comprises a calibration actuator (20, 30; 120, 30; 220, 30) configured to control a relative position of the calibration structure (5; 105; 205) with respect to the sensing mass (3; 103; 203) and the average width (W; W'; W") of the gap (21; 121; 221).
A composite structural material formed from aggregate within a hard matrix of either a cementitious binder, an energetically modified cement, or a cement blend, the aggregate being a particulate material where each particle includes at least three radial legs extending into three dimensions outwardly from a central hub to form three dimensional aggregate particles, wherein the legs have a diameter, at a location closest to the central hub, which is less than the diameter or width of the central hub, the central hub having a spherical shape, a cylindrical shape, or a cuboid shape and having exposed surface portions located between the legs, which surface portions include a surface contour, whereby the composite structural material includes an amount of aggregate of 2.0% to 7.5% v/v.