mhurhangee/ep-ind-claims huggingface dataset:
Stove or fireplace provided with a tube for the discharge of fumes and stoked with fuels such as wood, pellet and the like, and comprising at least one device for treating said combustion fumes, wherein said device comprises a tubular body having an axis, said tubular body being provided with an outer surface and with an inner surface in contact with the combustion fumes, wherein said device comprises an end located at the inlet of the combustion fumes into said body and that is connected to said tube for the discharge of said fumes, wherein said device comprises at least a filtering element, and wherein said at least one filtering element is completely inside said tubular body, characterised in that said tubular body and said tube have a substantially circular cross section, and said tubular body has a diameter that is equal to the diameter of said tube for the discharge of said fumes (f), said at least one filtering element has an angle of inclination (α or β) with respect to the axis said angle of inclination (α or β) is between 30° and 60° or between 120° and 150° relative to said axis, said stove or fireplace further comprising at least one side opening and at least one element supporting said at least one filtering element and closing said at least one side opening.
An ethanol-free perfumed composition comprising water, a perfume and an ester, wherein the ester comprises a glycereth-17 cocoate or a glycereth-20 cocoate moiety, wherein the composition comprises less than 5% by weight of ethanol.
A driver monitoring controller comprising: A camera communications port for receiving video images of a driver and transmitting control messages to an associated driver facing camera; A control input for receiving a signal indicating that the driver desires to disable the driver facing camera; a vehicle communications port for receiving messages indicating a vehicle state; and a control logic in communication with the camera communications port, the control input and the vehicle communications por, wherein the control logic disables the driver facing camera by transmitting a control message to disable the driver facing camera at the camera communications port in response to a control input indicating the driver desires to disable the driver facing camera and a vehicle state message indicating a vehicle state does not meet a predetermined condition; and wherein the control logic enables the camera automatically in response to a vehicle state message indicating the vehicle state meets the predetermined condition. A camera communications port for receiving video images of a driver and transmitting control messages to an associated driver facing camera; A control input for receiving a signal indicating that the driver desires to disable the driver facing camera; a vehicle communications port for receiving messages indicating a vehicle state; and a control logic in communication with the camera communications port, the control input and the vehicle communications por, wherein the control logic disables the driver facing camera by transmitting a control message to disable the driver facing camera at the camera communications port in response to a control input indicating the driver desires to disable the driver facing camera and a vehicle state message indicating a vehicle state does not meet a predetermined condition; and wherein the control logic enables the camera automatically in response to a vehicle state message indicating the vehicle state meets the predetermined condition.
A vacuum plate (01, 07, 08, 09), characterized by comprising: at least two layers of plate (11, 71, 81, 91, 811, 911) comprising a first layer (11, 71, 81, 91) having an undulated first surface and a second layer (11, 71, 81, 91) having an undulated second surface, the first surface facing the second surface; a plurality of support structures (12, 72, 82, 92) with different heights; and an organic film (14, 74, 84, 94); the plates of the at least two adjacent layers are separated by a plurality of the support structures with different heights, each in contact with the first and second surfaces, the support structures with corresponding height being arranged between the first layer and the second layer at corresponding positions such that the heights of the support structures match the measured spacing at the corresponding positions; wherein peripheries of the at least two layers of plate are connected and sealed via a sealing mixture; and the peripheries of the at least two layers of plate and outside of the sealing mixture are covered with the organic film. at least two layers of plate (11, 71, 81, 91, 811, 911) comprising a first layer (11, 71, 81, 91) having an undulated first surface and a second layer (11, 71, 81, 91) having an undulated second surface, the first surface facing the second surface; a plurality of support structures (12, 72, 82, 92) with different heights; and an organic film (14, 74, 84, 94); the plates of the at least two adjacent layers are separated by a plurality of the support structures with different heights, each in contact with the first and second surfaces, the support structures with corresponding height being arranged between the first layer and the second layer at corresponding positions such that the heights of the support structures match the measured spacing at the corresponding positions; wherein peripheries of the at least two layers of plate are connected and sealed via a sealing mixture; and the peripheries of the at least two layers of plate and outside of the sealing mixture are covered with the organic film.
Lighting arrangement comprising - a housing extending along a longitudinal axis, - a LED light source for producing light, which is disposed within the housing and extends along the longitudinal axis, wherein a light outlet opening for the light is delimited by the housing, - a sensor, in particular for detecting a brightness and/or a movement in a vicinity of the lighting arrangement, characterized by - a carrier element for the sensor, which is designed to be arranged within the housing relative to the LED light source at different longitudinal positions with reference to the longitudinal axis, wherein the carrier element comprises a shading region, by means of which the sensor is shaded from the light of the LED light source. - a housing extending along a longitudinal axis, - a LED light source for producing light, which is disposed within the housing and extends along the longitudinal axis, wherein a light outlet opening for the light is delimited by the housing, - a sensor, in particular for detecting a brightness and/or a movement in a vicinity of the lighting arrangement, characterized by - a carrier element for the sensor, which is designed to be arranged within the housing relative to the LED light source at different longitudinal positions with reference to the longitudinal axis,
A secondary battery, comprising an electrode assembly, a case, a top cover, an electrode terminal, and a connecting piece, wherein the electrode assembly comprises an electrode plate comprising: a current collector; an active material layer; a conductive structure; a first protective layer; and a third protective layer, wherein the current collector comprises an insulating layer and a conductive layer disposed on the insulating layer, the conductive layer includes a main body portion and a protrusion portion connected to the main body portion, a surface of the main body portion facing away from the insulating layer is covered by the active material layer, and a surface of the protrusion portion facing away from the insulating layer is uncovered by the active material layer, the conductive structure is welded to the protrusion portion and thus a welded zone is formed, the first protective layer has elasticity, and the first protective layer is disposed on a side of the protrusion portion facing away from the insulating layer and is located between the welded zone and the active material layer, and the third protective layer covers a surface of the welded zone facing away from the protrusion portion. a current collector; an active material layer; a conductive structure; a first protective layer; and a third protective layer, wherein the current collector comprises an insulating layer and a conductive layer disposed on the insulating layer, the conductive layer includes a main body portion and a protrusion portion connected to the main body portion, a surface of the main body portion facing away from the insulating layer is covered by the active material layer, and a surface of the protrusion portion facing away from the insulating layer is uncovered by the active material layer, the conductive structure is welded to the protrusion portion and thus a welded zone is formed, the first protective layer has elasticity, and the first protective layer is disposed on a side of the protrusion portion facing away from the insulating layer and is located between the welded zone and the active material layer, and the third protective layer covers a surface of the welded zone facing away from the protrusion portion.
A lighting device comprising a light generation unit, which comprises a light emitting diode element having at least one light emitting diode, and a light conversion unit, said light generation unit further comprising a base part, which comprises a thermally conductive material thermally connected with the light emitting diode element, characterized in that the light conversion unit is separated from the light generation unit and comprises an integral enclosure, which encloses a sealed cavity, and an organic phosphor element arranged within the cavity, said cavity provided with a controlled oxygen free atmosphere in order to protect the organic phosphor element from degrading over time due to oxygen wherein light generated by the light emitting diode element of the light generation unit is output through the light conversion unit and thereby converted by the organic phosphor element.
A battery cell surface temperature estimation system comprising: a temperature measurement unit configured to measure a measurement cell surface temperature that is a surface temperature of a battery cell being charged/discharged at a predetermined cycle interval; characterised in that, a delay time acquisition unit configured acquire a delay time that is a time required for the measurement cell surface temperature to reach a maximum temperature for each predetermined temperature section from a charge/discharge end time point of the battery cell; a first memory unit configured to store a delay time corresponding to each charge/discharge state of the battery cell for each predetermined temperature section as a database based on data on the delay time obtained from the delay time acquisition unit; a second memory unit configured to store a measurement cell surface temperature value measured by the temperature measurement unit; and a cell surface temperature prediction unit configured to calculate a delay time corresponding to the current measurement cell surface temperature measured by the temperature measurement unit based on the database of the first memory unit, and predict an actual cell surface temperature of the current battery cell using the calculated delay time. a temperature measurement unit configured to measure a measurement cell surface temperature that is a surface temperature of a battery cell being charged/discharged at a predetermined cycle interval; characterised in that, a delay time acquisition unit configured acquire a delay time that is a time required for the measurement cell surface temperature to reach a maximum temperature for each predetermined temperature section from a charge/discharge end time point of the battery cell; a first memory unit configured to store a delay time corresponding to each charge/discharge state of the battery cell for each predetermined temperature section as a database based on data on the delay time obtained from the delay time acquisition unit; a second memory unit configured to store a measurement cell surface temperature value measured by the temperature measurement unit; and a cell surface temperature prediction unit configured to calculate a delay time corresponding to the current measurement cell surface temperature measured by the temperature measurement unit based on the database of the first memory unit, and predict an actual cell surface temperature of the current battery cell using the calculated delay time.
An organosilicon compound of formula: wherein each of R 1 to R 4 independently is selected from hydrogen, substituted or unsubstituted monovalent hydrocarbon groups, which may be interrupted by one or more selected from ether, thioether, carbonyl, and thiocarbonyl bonds, and organic groups of formulae to and to, provided that at least one of R 1 to R 4 is an organic group of any one of formulae to and to: wherein R 5 is substituted or unsubstituted divalent hydrocarbon group which may be interrupted by one or more selected from ether, thioether, carbonyl, thiocarbonyl, amino, urethane, and urea bonds, R 6 is alkyl group of 1 to 10 carbon atoms or aryl group of 6 to 10 carbon atoms, R 7 is alkyl group of 1 to 20 carbon atoms, alkenyl group of 2 to 10 carbon atoms, aryl group of 6 to 10 carbon atoms or acyl group of 1 to 20 carbon atoms, n is an integer of 1 to 3, and the wavy line designates a bonding site to the benzene ring; wherein m is an integer of 1 to 8, s is an integer of 1 to 8, R 6, R 7, n and the wavy line are as defined above, and Me is methyl.
A transmitter circuit for an RF communication device, the transmitter circuit comprising a first carrier signal generator for generating a first digital carrier signal, a second earner signal generator for generating a second digital carrier signal, the second digital carrier signal having the same frequency as the first digital carrier signal, modulation circuitry (232, 234, 236) adapted to receive an amplitude modulation signal and to determine a phase shift value (φ) based on the amplitude modulation signal, outphasing circuitry (241, 242, 243, 244, 247) adapted to generate a first digital output signal by adding the phase shift value to the phase of the first digital carrier signal and to generate a second digital output signal by subtracting the phase shift value from the phase of the second digital carrier signal, characterised by comprising a first switched-capacitor digital to analog converter (451, 452) adapted to receive the first digital output signal and generate a corresponding first analog antenna output signal, and a second switched-capacitor digital to analog converter (453, 454) adapted to receive the second digital output signal and generate a corresponding second analog antenna output signal, wherein the sampling phase of the first switched-capacitor digital to analog converter is opposite to the sampling phase of the second switched-capacitor digital to analog converter, whereby the first analog antenna output signal and the second analog antenna output signal form a time-interleaved antenna output signal.
A robotized fire-fighting complex provided with a television system, comprising two or more fire-fighting robots, each including a carriage-mounted barrel having vertical and horizontal aiming drives (4, 5), respectively, a nozzle having a drive to vary the jet spray angle, a disk gate having a drive, a pressure sensor, and a local control panel, wherein the barrel, the drives (4, 5), the nozzle, the disk gate, the pressure sensor and the local control panel are connected to a switching unit; a device for detecting ignition, and a remote observation device, wherein the device for detecting ignition and the remote observation device are connected to a device for identifying an ignition source and determining the coordinates thereof, said device for identifying an ignition source and determining the coordinates thereof being connected to a control and information display device (16, 17), in which control instructions are generated to point the fire-fighting robots and to extinguish the fire, said control and information display device (16, 17) being connected to a switching unit and, through a reception monitoring device, to address fire alarms, the fire-fighting complex further comprising a television system (11, 13, 15) including two-channel video channel and IR television channel cameras mounted on the fire-fighting robots and connected to the input of the device for identifying the ignition source and determining the coordinates thereof, and provided with a program to digitally process the IR television signal, and to the input of a device for identifying the jet and determining the coordinates thereof, said device for identifying the jet and determining the coordinates thereof running on a program to digitally process the video signal, wherein the device for identifying the ignition source and determining coordinates thereof and the device for identifying the jet and determining the coordinates thereof are connected at the output thereof to the control device and the video monitor.
A translucent colored film structure comprising a colored layer including pigment particles dispersed in a material, an adhesive layer including an adhesive composition, and light-diffusing particles, wherein the following is satisfied: light-diffusing particles are dispersed in the adhesive layer, the light-diffusing particles dispersed in the adhesive layer having a refractive index that is higher than the adhesive composition, wherein the pigment particles have a median largest dimension of from about 0.1 μm to about 3 μm. light-diffusing particles are dispersed in the adhesive layer, the light-diffusing particles dispersed in the adhesive layer having a refractive index that is higher than the adhesive composition, wherein the pigment particles have a median largest dimension of from about 0.1 μm to about 3 μm.
A compound of following general formula: or a pharmaceutically acceptable salt and/or solvate thereof, wherein: • X is a (C 1 -C 10)alkyl group; • R' 1 to R' 3 are, independently of one another, hydrogen atom, halo, -OR' 9, -R' 10 OR' 11, -SR' 12, -COSR' 13, -NR' 14 R' 15, -COR' 16, -COOR' 17 or a (C 1 -C 6)alkyl group; • R' 4 to R' 6 are, independently of one another, hydrogen atom, halo, -OR' 18, - R' 19 OR' 20, -SR' 21 or -NR' 22 R' 23; • R' 7 and R' 8 are, independently of one another, hydrogen atom or a (C 1 -C 10)alkyl group, or R' 7 and R' 8 form together with the nitrogen atom to which they are chemically linked, an heterocycle; • R' 9 to R' 23 are, independently of one another, hydrogen atom, halo or a group selected from (C 1 -C 6)alkyl, aryl, (C 1 -C 6)alkylaryl group for use in the prevention and/or the treatment of disorders associated to the human herpesvirus 8. • X is a (C 1 -C 10)alkyl group; • R' 1 to R' 3 are, independently of one another, hydrogen atom, halo, -OR' 9, -R' 10 OR' 11, -SR' 12, -COSR' 13, -NR' 14 R' 15, -COR' 16, -COOR' 17 or a (C 1 -C 6)alkyl group; • R' 4 to R' 6 are, independently of one another, hydrogen atom, halo, -OR' 18, - R' 19 OR' 20, -SR' 21 or -NR' 22 R' 23; • R' 7 and R' 8 are, independently of one another, hydrogen atom or a (C 1 -C 10)alkyl group, or R' 7 and R' 8 form together with the nitrogen atom to which they are chemically linked, an heterocycle; • R' 9 to R' 23 are, independently of one another, hydrogen atom, halo or a group selected from (C 1 -C 6)alkyl, aryl, (C 1 -C 6)alkylaryl group
A method for treating a super-hard structure comprising polycrystalline boron nitride, PCBN, material, the method characterised by heating the super-hard structure to a treatment temperature of at least 500 degrees centigrade and cooling the super-hard structure from the treatment temperature to a temperature of less than 200 degrees centigrade at a mean cooling rate of at least 1 degree centigrade per second and at most 100 degrees centigrade per second by contacting it with a fluid having a thermal conductivity of at most 0.4 W/(m.K) at 20 degrees centigrade to provide a treated super-hard structure.
A method for producing a population of polymeric microbeads comprising a plurality of different lanthanide nanoparticles, the method comprising: (i) mixing at least a first fluid and a second fluid into a solution, wherein the first fluid comprises a polymerizable component and a first lanthanide nanoparticle, the second fluid comprises a polymerizable component and a second lanthanide nanoparticle, and the first and second lanthanide nanoparticles comprise different lanthanides or combinations of lanthanides; (ii) forming a first plurality of droplets from the solution; and (iii) subjecting the first plurality of droplets to polymerization conditions, thereby producing a first plurality of polymeric microbeads embedded with at least the first and second lanthanide nanoparticles, wherein the relative concentrations of the first and second lanthanide nanoparticles are substantially equal among the polymeric microbeads of the first plurality of polymeric microbeads. (i) mixing at least a first fluid and a second fluid into a solution, wherein the first fluid comprises a polymerizable component and a first lanthanide nanoparticle, the second fluid comprises a polymerizable component and a second lanthanide nanoparticle, and the first and second lanthanide nanoparticles comprise different lanthanides or combinations of lanthanides; (ii) forming a first plurality of droplets from the solution; and (iii) subjecting the first plurality of droplets to polymerization conditions,
A packaged article arrangement, comprising: an article comprising an article energy source and an article transmitter unit for transmitting electromagnetic radiation; a package that at least partly envelopes the article; wherein the package comprises an electronic circuit that comprises a package receiver unit arranged for receiving the electromagnetic radiation transmitted by the article transmitter unit, the electronic circuit being arranged for using the received electromagnetic radiation as sole or additional power supply. an article comprising an article energy source and an article transmitter unit for transmitting electromagnetic radiation; a package that at least partly envelopes the article; wherein the package comprises an electronic circuit that comprises a package receiver unit arranged for receiving the electromagnetic radiation transmitted by the article transmitter unit, the electronic circuit being arranged for using the received electromagnetic radiation as sole or additional power supply.