mhurhangee/ep-ind-claims huggingface dataset:
Wiping, washing and/or polishing substrate consisting of textile and/or nonwoven fleece-like and/or sponge-like structures for cleaning of surfaces of any kind with antimicrobial properties using copper oxide micro-particles, wherein the copper oxide micro-particles have a particle size in the range of 1-10 micrometers, and wherein an elastomeric coating consisting of an elastomeric carrier substance and the copper oxide micro-particles incorporated in it is attached to the surface of the substrate, characterised in that the copper oxide micro-particles are obtained by reduction of alkali Cu tartaric acid complexes, removed from the bath used for production in the wet state and processed further in the wet state such that an adhesive aqueous hydrate shell enclosing the particle body is obtained with which the micro-particles are introduced into a polymer binder system which produces the elastomeric coating on the surface of the substrate, wherein the thermosetting elastomeric coating is composed of a pigment binder system which consists of an ABS copolymer binder and a dispersing agent in which the copper oxide micro-particles are suspended.
A polymer comprising a repeating unit (M 1a) selected from the group consisting of: or a repeating unit (M 1b) selected from the group consisting of: wherein: L is selected from the group consisting of -O-, -OC -, -C O-, and a covalent bond; are selected from the group consisting of wherein any of the carbon atoms optionally is substituted with F, Cl, -CN, or L'R', wherein L', at each occurrence, is selected from -O-, -S-, -Se-, -C -, -OC -,-C O-, and a covalent bond; and R', at each occurrence, independently is selected from a C 1-40 alkyl group, a C 2-40 alkenyl group, a C 2-40 alkynyl group, and a C 1-40 haloalkyl group; R c, at each occurrence, independently is selected from F, Cl, -CN, and L"R", wherein L", at each occurrence, is selected from -O-, -S-, -Se-, -C -, -OC -, -C O-, and a covalent bond; and R", at each occurrence, independently is selected from a C 1-40 alkyl group, a C 2-40 alkenyl group, a C 2-40 alkynyl group, and a C 1-40 haloalkyl group; and d is 1, 2 or 3. L is selected from the group consisting of -O-, -OC -, -C O-, and a covalent bond; are selected from the group consisting of wherein any of the carbon atoms optionally is substituted with F, Cl, -CN, or L'R', wherein L', at each occurrence, is selected from -O-, -S-, -Se-, -C -, -OC -,-C O-, and a covalent bond; and R', at each occurrence, independently is selected from a C 1-40 alkyl group, a C 2-40 alkenyl group, a C 2-40 alkynyl group, and a C 1-40 haloalkyl group; R c, at each occurrence, independently is selected from F, Cl, -CN, and L"R", wherein L", at each occurrence, is selected from -O-, -S-, -Se-, -C -, -OC -, -C O-, and a covalent bond; and R", at each occurrence, independently is selected from a C 1-40 alkyl group, a C 2-40 alkenyl group, a C 2-40 alkynyl group, and a C 1-40 haloalkyl group; and d is 1, 2 or 3.
Method of generating oxygen for therapeutic applications, said method comprising the steps of: providing an oxygen comprising gas at a primary side of a dense voltage drivable membrane; applying a voltage between a conductive element at the primary side of the membrane and a conductive element at a secondary side of the membrane, the conductive elements being electrically connected to the membrane, characterized in that a plasma (18, 20) is generated at at least the secondary side of the membrane, the plasma (18, 20) being used as the conductive element at the secondary side of the membrane, i.e. the permeate side of the membrane where a stream of generated pure oxygen is present, such that compounds released from conductive elements into the stream are reduced compared to using electrodes as outer conductive layer of the membrane. providing an oxygen comprising gas at a primary side of a dense voltage drivable membrane; applying a voltage between a conductive element at the primary side of the membrane and a conductive element at a secondary side of the membrane, the conductive elements being electrically connected to the membrane, characterized in that a plasma (18, 20) is generated at at least the secondary side of the membrane, the plasma (18, 20) being used as the conductive element at the secondary side of the membrane, i.e. the permeate side of the membrane where a stream of generated pure oxygen is present, such that compounds released from conductive elements into the stream are reduced compared to using electrodes as outer conductive layer of the membrane.
A method for making a compound of Formula: Ar 2 -F 3 wherein: Ar 2 is an aryl or heteroaryl ring system; the method comprising heating a mixture comprising a nonpolar solvent and a compound of Formula: wherein: Ar 1 is an electron rich aryl or heteroaryl ring system; Ar 2 is as defined above; and the nonpolar solvent is selected from the group consisting of: benzene, toluene, o-xylene, m-xylene, p-xylene, ethyl benzene, carbon tetrachloride, hexane, cyclohexane, fluorobenzene, chlorobenzene, nitrobenzene, and mixtures thereof. Ar 2 is an aryl or heteroaryl ring system; the method comprising heating a mixture comprising a nonpolar solvent and a compound of Formula: wherein: Ar 1 is an electron rich aryl or heteroaryl ring system; Ar 2 is as defined above; and the nonpolar solvent is selected from the group consisting of: benzene, toluene, o-xylene, m-xylene, p-xylene, ethyl benzene, carbon tetrachloride, hexane, cyclohexane, fluorobenzene, chlorobenzene, nitrobenzene, and mixtures thereof. Ar 1 is an electron rich aryl or heteroaryl ring system; Ar 2 is as defined above; and the nonpolar solvent is selected from the group consisting of: benzene, toluene, o-xylene, m-xylene, p-xylene, ethyl benzene, carbon tetrachloride, hexane, cyclohexane, fluorobenzene, chlorobenzene, nitrobenzene, and mixtures thereof.
Method of manufacturing a barrier film web (10a; 10b) for use in laminated packaging materials for liquid food products, comprising a polymer film web substrate and a durable diamond-like carbon barrier coating vapour-deposition coated onto the polymer film web substrate, wherein the barrier coating is a single-layer gradient diamond-like carbon coating, DLC, exhibiting from the interface with the polymer film substrate throughout the depth of the barrier coating towards the surface thereof, a gradient of decreasing oxygen ion concentration to a minimum value and a subsequent increase, the decreasing gradient having a slope of from 5*10 3 to 5*10 4 counts per nanometer coating thickness, the minimum value being located at from 40 to 60 % of the depth of the coating, as measured from the surface of the barrier coating, as depicted by an intensity-versus thickness diagram by surface analysis by Dynamic Time of Flight Secondary ion Mass Spectroscopy, ToF-SiMS, calibrated to a TEM microscopy thickness measurement, while the concentrations of the carbon and hydrogen ionic groups remain at a substantially constant level throughout the depth of the barrier coating, the method comprising the steps of introducing a hydrocarbon gas in a plasma zone, forwarding the polymer film web substrate through the plasma zone at a constant speed, the speed being regulated by the operation of the un-wind and rewind rollers of the apparatus, applying the DLC coating by a radio-frequency plasma-enhanced chemical vapour deposition method, by means of a plasma being inductively coupled to the power and having a uniform composition over a large area with a high electron density of from 1*10 12 to 1*10 14 per cm 3, and being supported by a resonance frequency network from at least one large-area extensive antenna, the at least one large-area extensive antenna comprising a plurality of interconnected elementary resonant meshes, wherein each mesh comprises at least two conductive legs and at least two capacitors, each antenna thus having a plurality of resonant frequencies. introducing a hydrocarbon gas in a plasma zone, forwarding the polymer film web substrate through the plasma zone at a constant speed, the speed being regulated by the operation of the un-wind and rewind rollers of the apparatus, applying the DLC coating by a radio-frequency plasma-enhanced chemical vapour deposition method, by means of a plasma being inductively coupled to the power and having a uniform composition over a large area with a high electron density of from 1*10 12 to 1*10 14 per cm 3, and being supported by a resonance frequency network from at least one large-area extensive antenna, the at least one large-area extensive antenna comprising a plurality of interconnected elementary resonant meshes, wherein each mesh comprises at least two conductive legs and at least two capacitors, each antenna thus having a plurality of resonant frequencies.
Connection system for electrical devices, comprising a first and a second connection module (1,14) each having a first connection means, wherein the first connection module has a second connection means and the second connection module a third connection means, wherein the first and the second connection module (1,14) can each accommodate a device so that, when the device and the connection module (1,14) are in the coupled state, there is a direct electrical connection between the first connection means of the connection module (1,14) and the accommodated device and a direct mechanical connection between the connection module (1,14) and the accommodated device, wherein the first connection module can be locked directly by its second connection means to the third connection means of the second connection module so that, in the coupled state, the first connection module is electrically and mechanically connected to the second connection module, wherein the third connection means is disposed and implemented such that, when the second connection means and the third connection means are in the coupled state, mechanical and electrical disconnection of the first connection module from the second connection module is prevented if the second connection module has received a device, characterised in that the second connection means has a snap lug which can latch into a snap lug counterpart of the third connection means, wherein the snap lug counterpart is deflected into a region which is occupied by the received device during mechanical coupling of the first connection module to the second connection module.
A chuck for holding a substrate or master electrode in an electrochemical pattern replication process (ECPR), comprising an interaction surface for a master electrode or a substrate; holding means for holding the substrate or master electrode on said interaction surface; a chuck surface circumferentially of the interaction surface; and at least one drying or rinsing inlet and at least one drying or rinsing outlet on said chuck surface, said at least one drying or rinsing inlet and the at least one drying or rinsing outlet are positioned on opposing sides of the interaction surface in relation to each other.
A phototherapy light engine comprising: a. a thermally conductive core substrate having a first and a second surface; b. a plurality of light emitting diodes (LEDs) for emitting light comprising phototherapeutic component wavelengths, the plurality of LEDs configured to couple with said first surface of said thermally conductive core substrate, said thermally conductive core substrate for absorbing heat from said plurality of LEDs; c. a plurality of light reflectors functionally coupled to said plurality of LEDs for reflecting said emitted light, thereby directing said light toward a skin surface for treatment of a phototherapy subject; d. a window positioned to cover at least part of said first surface of said thermally conductive core substrate; e. a collar coupled to said first surface of said thermally conductive core substrate, said collar adapted to engage the skin surface and to limit escape of the emitted light from the skin surface and a surrounding area; f. a heat sink coupled to said second surface of said thermally conductive core substrate, wherein said heat sink is configured and adapted to conduct heat away from said thermally conductive core substrate; g. one or more current drivers configured to drive said plurality of LEDs; h. a microprocessor coupled to said current driver, wherein said microprocessor controls current output of said current driver; i. a user interface coupled to said microprocessor, wherein said user interface is configured to provide a user with control over said light emitting diodes; and j. a wireless receiver coupled to said microprocessor. a. a thermally conductive core substrate having a first and a second surface; b. a plurality of light emitting diodes (LEDs) for emitting light comprising phototherapeutic component wavelengths, the plurality of LEDs configured to couple with said first surface of said thermally conductive core substrate, said thermally conductive core substrate for absorbing heat from said plurality of LEDs; c. a plurality of light reflectors functionally coupled to said plurality of LEDs for reflecting said emitted light, thereby directing said light toward a skin surface for treatment of a phototherapy subject; d. a window positioned to cover at least part of said first surface of said thermally conductive core substrate; e. a collar coupled to said first surface of said thermally conductive core substrate, said collar adapted to engage the skin surface and to limit escape of the emitted light from the skin surface and a surrounding area; f. a heat sink coupled to said second surface of said thermally conductive core substrate, wherein said heat sink is configured and adapted to conduct heat away from said thermally conductive core substrate; g. one or more current drivers configured to drive said plurality of LEDs; h. a microprocessor coupled to said current driver, wherein said microprocessor controls current output of said current driver; i. a user interface coupled to said microprocessor, wherein said user interface is configured to provide a user with control over said light emitting diodes; and j. a wireless receiver coupled to said microprocessor.
A method of manufacturing an atomizing unit comprising: a step A of measuring a resistance value of a resistive heating element which atomizes an aerosol source by resistance heat, wherein the step A is performed prior to a step of injecting the aerosol source into a reservoir that holds the aerosol source; and a step B of recording in an information source (111M,111Y) the resistance value measured in the step A, an adjusted power supply output determined in accordance with the resistance value as a power supply output to the resistive heating element or identification information associated with the resistance value or the adjusted power supply output. a step A of measuring a resistance value of a resistive heating element which atomizes an aerosol source by resistance heat, wherein the step A is performed prior to a step of injecting the aerosol source into a reservoir that holds the aerosol source; and a step B of recording in an information source (111M,111Y) the resistance value measured in the step A, an adjusted power supply output determined in accordance with the resistance value as a power supply output to the resistive heating element or identification information associated with the resistance value or the adjusted power supply output.
An aircraft-side aircraft data retrieval system, comprising: a data storage device located in an aircraft, arranged, during a flight, to store data acquired during the flight; a wireless apparatus, operably linked to the data storage device, having an antenna, at least the antenna being located in a bay of the aircraft sealed by an externally accessible panel; and a transmission element provided in the externally accessible panel through which the wireless apparatus may communicate wirelessly, by means of the antenna from within the bay, after the aircraft has landed, with a ground-side data retrieval system positioned to receive signals transmitted by the antenna through the transmission element, thereby to transmit to the ground-side system the data stored during the flight. a data storage device located in an aircraft, arranged, during a flight, to store data acquired during the flight; a wireless apparatus, operably linked to the data storage device, having an antenna, at least the antenna being located in a bay of the aircraft sealed by an externally accessible panel; and a transmission element provided in the externally accessible panel through which the wireless apparatus may communicate wirelessly, by means of the antenna from within the bay, after the aircraft has landed, with a ground-side data retrieval system positioned to receive signals transmitted by the antenna through the transmission element, thereby to transmit to the ground-side system the data stored during the flight.
Gas burner comprising: - a lower body, - a top cap, which closes said lower body on top, - two coaxial flame rings (3, 4) having the same diameter, but extending at two different heights, wherein it further comprises: - a single gas injector, - a single Venturi tube, which is comprised of a vertical convergent portion and a single expansion chamber for the gas issuing from said single Venturi tube, said chamber being adapted to supply said two flame rings of the burner, and wherein said cap forms the wall delimiting said expansion chamber upwards as well as the wall closing on top the ports of the upper flame ring, characterized in that said cap is provided with a downward-oriented projection, extending along substantially the entire outer circumference of said cap, to stabilization purposes. - a lower body, - a top cap, which closes said lower body on top, - two coaxial flame rings (3, 4) having the same diameter, but extending at two different heights, - a single gas injector, - a single Venturi tube, which is comprised of a vertical convergent portion and a single expansion chamber for the gas issuing from said single Venturi tube, said chamber being adapted to supply said two flame rings of the burner, and wherein said cap forms the wall delimiting said expansion chamber upwards as well as the wall closing on top the ports of the upper flame ring, characterized in that said cap is provided with a downward-oriented projection, extending along substantially the entire outer circumference of said cap, to stabilization purposes.
A process for recovery of alkyl mono-aromatic compounds, the process comprising the steps of: supplying, to a reactor, a feed stream containing one or more of heavy alkyl aromatic compounds and alkyl-bridged non-condensed alkyl multi-aromatic compounds; supplying, to the reactor, a hydrogen stream; allowing the feed stream and the hydrogen stream to react in presence of a catalyst under specific reaction conditions to produce a product stream containing one or more alkyl mono-aromatic compounds; and recovering, from the reactor, the product stream for a downstream process, wh erein the alkyl-bridged non-condensed alkyl multi-aromatic compounds include at least two benzene rings connected by an alkyl bridge group having at least two carbons, wherein the benzene rings are connected to different carbons of the alkyl bridge group. supplying, to a reactor, a feed stream containing one or more of heavy alkyl aromatic compounds and alkyl-bridged non-condensed alkyl multi-aromatic compounds; supplying, to the reactor, a hydrogen stream; allowing the feed stream and the hydrogen stream to react in presence of a catalyst under specific reaction conditions to produce a product stream containing one or more alkyl mono-aromatic compounds; and recovering, from the reactor, the product stream for a downstream process, wh erein the alkyl-bridged non-condensed alkyl multi-aromatic compounds include at least two benzene rings connected by an alkyl bridge group having at least two carbons, wherein the benzene rings are connected to different carbons of the alkyl bridge group.
A longitudinal tracking system, comprising: a lesion tracking unit, in response to a received patient identifier, being configured to: construct a display of characteristic information for at least one longitudinally tracked lesion retrieved according to the patient identifier, and an indicator of at least one missing measurement determined by comparing a temporal identifier of retrieved reports with the characteristic information, wherein each report includes a narrative with measurements of at least one reported lesion for the patient identifier; and a display device configured to display the constructed display of the characteristic information for each longitudinally tracked lesion, and the indicator of the at least one missing measurement. a lesion tracking unit, in response to a received patient identifier, being configured to: construct a display of characteristic information for at least one longitudinally tracked lesion retrieved according to the patient identifier, and an indicator of at least one missing measurement determined by comparing a temporal identifier of retrieved reports with the characteristic information, wherein each report includes a narrative with measurements of at least one reported lesion for the patient identifier; and construct a display of characteristic information for at least one longitudinally tracked lesion retrieved according to the patient identifier, and an indicator of at least one missing measurement determined by comparing a temporal identifier of retrieved reports with the characteristic information, wherein each report includes a narrative with measurements of at least one reported lesion for the patient identifier; and a display device configured to display the constructed display of the characteristic information for each longitudinally tracked lesion, and the indicator of the at least one missing measurement.
A Long Term Evolution "LTE" user equipment "UE" with wireless telecommunications capability, comprising: a processor configured to control a receiver in the user equipment to have an active time, the active time associated with a discontinuous reception "DRX" operation mode of the UE; the processor further configured to receive a rank indicator "RI" resource configuration, the configuration indicating a periodic RI reporting resource; characterized by: the processor further configured to control a transmitter to refrain from transmitting rank indicator "RI" when not in the active time, wherein the RI is channel state indication "CSI" feedback. a processor configured to control a receiver in the user equipment to have an active time, the active time associated with a discontinuous reception "DRX" operation mode of the UE; the processor further configured to receive a rank indicator "RI" resource configuration, the configuration indicating a periodic RI reporting resource; characterized by: the processor further configured to control a transmitter to refrain from transmitting rank indicator "RI" when not in the active time, wherein the RI is channel state indication "CSI" feedback. the processor further configured to control a transmitter to refrain from transmitting rank indicator "RI" when not in the active time, wherein the RI is channel state indication "CSI" feedback.
An unsaturated double bond containing compound represented by the following general formula: wherein R 9 represents a hydrogen atom or a methyl group; R 10 represents any one of a hydroxy group, a (meth)acryloyloxy group, a styryloxy group, and an alkenyloxy group having 2 to 5 carbon atoms; and R 11, R 12, R 13, and R 14 each independently represent any one of an alkyl group having 1 to 6 carbon atoms, an alkenyl group having 2 to 6 carbon atoms, an aryl group, and an aralkyl group.