mhurhangee/ep-ind-claims huggingface dataset:
A method for trusted recording in a road toll system, the road toll system having a proxy server connected via a mobile network to an onboard-unit of a vehicle, the onboard-unit having a position determination device for determining a current position (p n) of the vehicle, comprising the following steps performed in the onboard-unit: determining a first position (p f,i) by means of the position determination device at a first point of time (t f,i) and a second position (p l,i) by means of the position determination device at a second point of time (t l,i); creating an itinerary record (RC i) comprising the first or second position (p f,i, p l,i), the first or second point of time (t f,i, t l,i) and at least one of: a distance (d i) calculated using at least the first and second position (p f,i, p l,i), a segment-id (sid) calculated using at least the first or second position (p f,i, p l,i), and a distance (d i) calculated using said segment-id (sid); sending the itinerary record (RC i) via the mobile network to the proxy server; receiving a signed itinerary record (sgn(RC i), sgn(RC i,id)) from the proxy server, and recording said signed itinerary record (sgn(RC i,id)) in a memory of the onboard-unit. determining a first position (p f,i) by means of the position determination device at a first point of time (t f,i) and a second position (p l,i) by means of the position determination device at a second point of time (t l,i); creating an itinerary record (RC i) comprising the first or second position (p f,i, p l,i), the first or second point of time (t f,i, t l,i) and at least one of: a distance (d i) calculated using at least the first and second position (p f,i, p l,i), a segment-id (sid) calculated using at least the first or second position (p f,i, p l,i), and a distance (d i) calculated using said segment-id (sid); sending the itinerary record (RC i) via the mobile network to the proxy server; receiving a signed itinerary record (sgn(RC i), sgn(RC i,id)) from the proxy server, and recording said signed itinerary record (sgn(RC i,id)) in a memory of the onboard-unit.
An energy-saving control method for multi-carrier frequency power amplifier resources, comprising: distributing service data to a primary carrier frequency board, and after completing the distributing of the service data to at least one working carrier frequency of the primary carrier frequency board, distributing the service data to at least one working carrier frequency of a secondary carrier frequency board, wherein the distributing of the service data to the at least one working carrier frequency of the secondary carrier frequency board comprises completing distributing the service data to all of the at least one carrier frequency in one time slot of the secondary carrier frequency board before distributing the service data to at least one working carrier frequency in another time slot; and after completing the distribution of the service data, turning off the secondary carrier frequency board in an idle time slot, wherein the idle time slot refers to a time slot in which all carrier frequencies of a carrier frequency board are not distributed with the service data. distributing service data to a primary carrier frequency board, and after completing the distributing of the service data to at least one working carrier frequency of the primary carrier frequency board, distributing the service data to at least one working carrier frequency of a secondary carrier frequency board, wherein the distributing of the service data to the at least one working carrier frequency of the secondary carrier frequency board comprises completing distributing the service data to all of the at least one carrier frequency in one time slot of the secondary carrier frequency board before distributing the service data to at least one working carrier frequency in another time slot; and after completing the distribution of the service data, turning off the secondary carrier frequency board in an idle time slot, wherein the idle time slot refers to a time slot in which all carrier frequencies of a carrier frequency board are not distributed with the service data.
Absorbent article, such as an incontinent shield, sanitary napkin, panty liner, open-type diaper, pant-type diaper, or the like, having a longitudinal direction (x) and a transverse direction (y), the absorbent article comprising a front portion, a rear portion a centre portion located between and bordering to the front and rear portions (3, 4), and a liquid pervious topsheet bonded to an underlying layer by means of a plurality of large and small binding points (16, 17), wherein the small binding points have a surface area in the range of 0.01 - 2.5 square millimetres, wherein the large binding points have a surface area above 2.5 square millimetres, and wherein a colour printing pattern is visible on a topsheet side of the absorbent article, characterised in that all printed surface area of the colour printing pattern onto which a disc with a diameter of 1.5 millimetres can be mapped without extending beyond a periphery of the printed surface area defines one or more continuous coloured regions, and each continuous coloured region within at least the centre portion of the absorbent article is substantially free from large binding points. a front portion, a rear portion a centre portion located between and bordering to the front and rear portions (3, 4), and a liquid pervious topsheet bonded to an underlying layer by means of a plurality of large and small binding points (16, 17), wherein the small binding points have a surface area in the range of 0.01 - 2.5 square millimetres, wherein the large binding points have a surface area above 2.5 square millimetres, and wherein a colour printing pattern is visible on a topsheet side of the absorbent article, characterised in that all printed surface area of the colour printing pattern onto which a disc with a diameter of 1.5 millimetres can be mapped without extending beyond a periphery of the printed surface area defines one or more continuous coloured regions, and each continuous coloured region within at least the centre portion of the absorbent article is substantially free from large binding points.
A gas generator, comprising: a water tank having a tank casing and an upper cover, the tank casing forming a first hollow portion for containing electrolyzed water; an electrolytic cell disposed in the first hollow portion to electrolyze the electrolyzed water to generate a gas with hydrogen to the water tank; a condensate filter device configured for filtering out impurities in the gas with hydrogen to generate a filtered gas with hydrogen; a humidification device having a humidification tank and a top cover, wherein a humidification space is formed between the humidification tank and the top cover to accommodate a humidification liquid, and the humidification tank is vertically spaced apart from the condensate filter device by the top cover and is also vertically spaced apart from the tank casing of the water tank by the upper cover; and an electrolytic gas connecting channel integrated into the humidification tank and separated from the humidification space; wherein the electrolytic gas connecting channel is connected between the water tank and the condensate filter device to pass the gas with hydrogen from the water tank to the condensate filter device, and the humidification space is configured to contain the humidification liquid to humidify the filtered gas with hydrogen. a water tank having a tank casing and an upper cover, the tank casing forming a first hollow portion for containing electrolyzed water; an electrolytic cell disposed in the first hollow portion to electrolyze the electrolyzed water to generate a gas with hydrogen to the water tank; a condensate filter device configured for filtering out impurities in the gas with hydrogen to generate a filtered gas with hydrogen; a humidification device having a humidification tank and a top cover, wherein a humidification space is formed between the humidification tank and the top cover to accommodate a humidification liquid, and the humidification tank is vertically spaced apart from the condensate filter device by the top cover and is also vertically spaced apart from the tank casing of the water tank by the upper cover; and an electrolytic gas connecting channel integrated into the humidification tank and separated from the humidification space; wherein the electrolytic gas connecting channel is connected between the water tank and the condensate filter device to pass the gas with hydrogen from the water tank to the condensate filter device, and the humidification space is configured to contain the humidification liquid to humidify the filtered gas with hydrogen.
A method for processing high speed analogue signals in real time comprising the following steps: a) high speed analogue signals are provided to a microprocessor, b) using a high speed ADC converter, these signals are quantized and converted to digital form without further processing, c) the digital data thus acquired is sent via an interface, in particular a high speed interface, and an input data bus, to a high speed signal processing unit, d) said digital data is processed in the high speed signal processing unit in line with the processing feature implemented in said unit, e) the processing result is sent via an interface, in particular a high speed interface, and an output data bus, to the microprocessor, f) the microprocessor is used to perform operations on the processed data received in line with a program, wherein high speed analogue signals are signals that cannot be processed by an online processor in real time, such as signals with 80 million samples per second, and high speed ADC converter, high speed interface, high speed signal processing unit, are elements suitable for processing such signals, characterized in that the high speed ADC converter is integrated in said microprocessor, the program is implemented in said microprocessor, the high speed signal processing unit used is an FPGA type unit, and the high speed signal processing unit is connected into a loop by the data bus, with the microprocessor so as to make the signals from the high speed ADC converter reach directly the high speed signal processing unit. a) high speed analogue signals are provided to a microprocessor, b) using a high speed ADC converter, these signals are quantized and converted to digital form without further processing, c) the digital data thus acquired is sent via an interface, in particular a high speed interface, and an input data bus, to a high speed signal processing unit, d) said digital data is processed in the high speed signal processing unit in line with the processing feature implemented in said unit, e) the processing result is sent via an interface, in particular a high speed interface, and an output data bus, to the microprocessor, f) the microprocessor is used to perform operations on the processed data received in line with a program, the high speed ADC converter is integrated in said microprocessor, the program is implemented in said microprocessor, the high speed signal processing unit used is an FPGA type unit, and the high speed signal processing unit is connected into a loop by the data bus, with the microprocessor so as to make the signals from the high speed ADC converter reach directly the high speed signal processing unit.
A level converter circuit, including at least one first semiconductor switch and one second semiconductor switch, in which contact gaps (CE; DS) of the semiconductor switches (T1, T2) are located in series with one another, a first input voltage is applied to a first contact (C; D) of the contact gap (CE; DS) of the first semiconductor switch, a first resistor element is connected between a circuit input (B; G) and the first contact (C; D) of the contact gap (CE; DS) of the first semiconductor switch, and an output signal is applied to an output of the level converter circuit between a second contact (E; S) of the contact gap (CE; DS) of the first semiconductor switch and the first contact (C; D) of the contact gap (CE; DS) of the second semiconductor switch, and the second contact (E; S) of the contact gap (CE; DS) of the first semiconductor switch and the first contact (C; D) of the contact gap (CE; DS) of the second semiconductor switch are in contact with one another at a contact point, and a parallel circuit of a capacitor and a second switch element (S2; T4) is connected between the contact point and the control input (B; G) of the first semiconductor switch, and that a second input voltage, which is less than the first input voltage and is connected via a first switch element (S1; D1), is applied to a contact, not connected to the contact point, of the capacitor, characterized in that a further resistor element or a contact gap of a third switch is directly connected between the contact, not connected to the contact point, of the capacitor and the control input (B; G) of the first semiconductor switch.
Tyre comprising a tread, a crown with a crown reinforcement, two sidewalls, two beads and a carcass reinforcement anchored to the two beads and extending from one sidewall to the other, characterized in that the tread is based on at least one thermoplastic elastomer and on carbon black at a content by volume within a range extending from 5% to 30%, the said thermoplastic elastomer being a block copolymer comprising at least one elastomer block and at least one thermoplastic block, and the total content of thermoplastic elastomer being within a range varying from 65 to 100 phr (parts by weight per hundred parts of elastomer).
A line for making capsules intended to contain a product, comprising: - a forming machine configured to form plastic cups, wherein each cup includes a containment body, which extends between a bottom wall and an upper edge, and an annular flange connected to the upper edge and having a rear face, directed towards the containment body, and a front face, opposite to the rear face; - an apparatus for processing cups, wherein each cup includes a containment body, which extends between a bottom wall and an upper edge, and an annular flange connected to the upper edge and having a rear face, directed towards the containment body, and a front face, adapted to receive a lid to form a capsule, the apparatus comprising: - at least one pocket, configured to house a corresponding cup; - at least one tool configured to apply a process to at least the rear face or the front face of the annular flange of the cup inside the at least one pocket, so as to form a sealing profile. - a forming machine configured to form plastic cups, wherein each cup includes a containment body, which extends between a bottom wall and an upper edge, and an annular flange connected to the upper edge and having a rear face, directed towards the containment body, and a front face, opposite to the rear face; - an apparatus for processing cups, wherein each cup includes a containment body, which extends between a bottom wall and an upper edge, and an annular flange connected to the upper edge and having a rear face, directed towards the containment body, and a front face, adapted to receive a lid to form a capsule, the apparatus comprising: - at least one pocket, configured to house a corresponding cup; - at least one tool configured to apply a process to at least the rear face or the front face of the annular flange of the cup inside the at least one pocket, so as to form a sealing profile.
Device (1; 20; 30) for connecting to a pipe (8; 28; 38), such as an outlet pipe, the device comprising: - a flexible sleeve (2; 22; 31); and - a form-retaining peripheral flange (5, 6) which is arranged on the sleeve (2; 22; 31), wherein the flexible sleeve (2; 22; 31) has a peripheral edge (3; 23), characterized in that a sealing membrane is arranged on the form-retaining peripheral flange (5, 6; 25, 26; 24, 35); wherein the form-retaining peripheral flange (5, 6; 25, 26; 24, 35) is formed by two ring parts (5, 6; 25, 26; 24, 35) which are arranged on each other and between which the peripheral edge (3; 23) of the flexible sleeve (2; 22; 31) is enclosed. - a flexible sleeve (2; 22; 31); and - a form-retaining peripheral flange (5, 6) which is arranged on the sleeve (2; 22; 31), wherein the flexible sleeve (2; 22; 31) has a peripheral edge (3; 23),
A lighting assembly (10,70,100,110), comprising: a light engine assembly (11,71,101,111); and a room-side element (12,72,102,112) in contact with at least a portion of said light engine assembly, said light engine assembly comprising: at least one trim element (13,73,103,113,133), said trim element defining a trim element internal space (16,136); and a light engine (15,135) comprising at least one solid state light emitter selected from among light emitting diodes, laser diodes, thin film electroluminescent devices and light emitting polymers, said light engine within said trim element internal space, characterized by said room-side element (12,72,102,112) comprising at least one heat dissipation fin (20,75), said lighting assembly configured to be mounted as a recessed light in an opening in a construction element having a room-side surface that defines a first plane with an entirety of said room-side element on a first side of said first plane, and with said trim element internal space (16,136) extending from a second side of said first plane at least to a portion of said opening, so that light emitted from said at least one solid state light emitter passes from said second side of said first plane to said first side of said first plane through said portion of said opening. a light engine assembly (11,71,101,111); and a room-side element (12,72,102,112) in contact with at least a portion of said light engine assembly, said light engine assembly comprising: at least one trim element (13,73,103,113,133), said trim element defining a trim element internal space (16,136); and a light engine (15,135) comprising at least one solid state light emitter selected from among light emitting diodes, laser diodes, thin film electroluminescent devices and light emitting polymers, said light engine within said trim element internal space, at least one trim element (13,73,103,113,133), said trim element defining a trim element internal space (16,136); and a light engine (15,135) comprising at least one solid state light emitter selected from among light emitting diodes, laser diodes, thin film electroluminescent devices and light emitting polymers, said light engine within said trim element internal space, characterized by said room-side element (12,72,102,112) comprising at least one heat dissipation fin (20,75), said lighting assembly configured to be mounted as a recessed light in an opening in a construction element having a room-side surface that defines a first plane with an entirety of said room-side element on a first side of said first plane, and with said trim element internal space (16,136) extending from a second side of said first plane at least to a portion of said opening, so that light emitted from said at least one solid state light emitter passes from said second side of said first plane to said first side of said first plane through said portion of said opening.
Camshaft adjusting apparatus for changing the relative angular position of a camshaft with respect to a crankshaft of an internal combustion engine, the camshaft adjusting apparatus comprising an actuator for actuating a hydraulic valve, the actuator being fastened to a housing element by means of a fastening means, and the actuator having an axis which is concentric with respect to an axis of the camshaft adjusting apparatus in the mounted state of the actuator, characterized in that, on its outer side which faces away from the camshaft adjusting apparatus, the actuator has a grip section of non-rotationally symmetrical design with respect to the axis.
A smartwatch (200; 400), comprising: an enclosure (202; 402); at least one electronic component (206, 208; 406, 408) within the enclosure, said at least one electronic component emitting heat during an operation of the smartwatch; an accessory (212; 412) attached to the enclosure; and a heat transfer (210; 410) component configured to capture at least a portion of heat emitted by the at least one electronic component and transfer at least a portion of the captured heat to an interior of the accessory, wherein the heat transfer component comprises at least one of copper foil, aluminium foil, or carbon fibers and extends through at least a portion (216, 218; 416, 418) of the accessory, said portion made of a material being transparent to visible light, and wherein the accessory is configured to radiate at least a portion of heat transferred by the heat transfer component through said at least a portion of the accessory. an enclosure (202; 402); at least one electronic component (206, 208; 406, 408) within the enclosure, said at least one electronic component emitting heat during an operation of the smartwatch; an accessory (212; 412) attached to the enclosure; and a heat transfer (210; 410) component configured to capture at least a portion of heat emitted by the at least one electronic component and transfer at least a portion of the captured heat to an interior of the accessory, wherein the heat transfer component comprises at least one of copper foil, aluminium foil, or carbon fibers and extends through at least a portion (216, 218; 416, 418) of the accessory, said portion made of a material being transparent to visible light, and wherein the accessory is configured to radiate at least a portion of heat transferred by the heat transfer component through said at least a portion of the accessory.
Use of a resin for forming a foamable resin layer to be provided on at least one side of a paper-base substrate, wherein the resin comprises a polyolefin resin having the following properties to: the MFR is from 3 to 40 g/10 min, the density is at least 0.880 g/cm 3, the MFR and the memory effect satisfy the following relational formula (formula 1): - 0.467 x Ln MFR + 2.93 ≤ ME (wherein Ln is a natural logarithm). the MFR is from 3 to 40 g/10 min, the density is at least 0.880 g/cm 3, the MFR and the memory effect satisfy the following relational formula (formula 1): - 0.467 x Ln MFR + 2.93 ≤ ME