mhurhangee/ep-ind-claims huggingface dataset:
A coating composition comprising a resinous binder prepared from a reaction mixture comprising: (a) a first component; (b) a second component; and (c) a third component comprising a block copolymer having (i) a first block comprising units having functional groups reactive with at least one of the first and second components and (ii) a second block comprising units having functional groups that promote adhesion to a polymeric substrate, provided that the first component, the second component, and the block copolymer differ from each other, wherein the first component comprises a polyol and the second component comprises an isocyanate, and the copolymer first block comprises units having functional groups reactive with the isocyanate, and wherein the second block comprises isobornyl(meth)acrylate units. (a) a first component; (b) a second component; and (c) a third component comprising a block copolymer having (i) a first block comprising units having functional groups reactive with at least one of the first and second components and (ii) a second block comprising units having functional groups that promote adhesion to a polymeric substrate, provided that the first component, the second component, and the block copolymer differ from each other,
A bilayer comprising: a metal foil or metal powder positioned in contact with a lithium-stuffed garnet thin film; wherein the lithium-stuffed garnet thin film is a thin sintered garnet film, wherein the lithium-stuffed garnet thin film thickness is less than 50 μm and greater than 10 nm; wherein the lithium-stuffed garnet is characterized by one of the following formula: Li A La B M' C M" D Zr E O F, Li A La B M' C M" D Ta E O F, Li A La B M' C M" D Nb E O F, wherein 4<A<8.5, 1.5<B<4, 0≤C≤2, 0≤D≤2; 0≤E<2, 10<F≤13, and M' and M" are each, independently in each instance selected from Al, Mo, W, Nb, Sb, Ca, Ba, Sr, Ce, Hf, Rb, or Ta; Li a La b Zr c Al d Me" e Of, wherein 5<a<7.7; 2<b<4; 0<c≤2.5; 0≤d<2; 0≤e<2, 10<f≤13 and Me" is a metal selected from Nb, Ta, V, W, Mo, or Sb; Li A La B M' c M" D Zr E O F, wherein the molar ratio of lithium-stuffed garnet:Al 2 O 3 is between 0.05 and 0.7; or Li g La 3 Zr 2 O 12 -Al 2 O 3, wherein 5.5<g<8.5 and the molar ratio of lithium-stuffed garnet: Al 2 O 3 is between 0.05 and 1.0. a metal foil or metal powder positioned in contact with a lithium-stuffed garnet thin film; wherein the lithium-stuffed garnet thin film is a thin sintered garnet film, wherein the lithium-stuffed garnet thin film thickness is less than 50 μm and greater than 10 nm; wherein the lithium-stuffed garnet is characterized by one of the following formula: Li A La B M' C M" D Zr E O F, Li A La B M' C M" D Ta E O F, Li A La B M' C M" D Nb E O F, wherein 4<A<8.5, 1.5<B<4, 0≤C≤2, 0≤D≤2; 0≤E<2, 10<F≤13, and M' and M" are each, independently in each instance selected from Al, Mo, W, Nb, Sb, Ca, Ba, Sr, Ce, Hf, Rb, or Ta; Li a La b Zr c Al d Me" e Of, wherein 5<a<7.7; 2<b<4; 0<c≤2.5; 0≤d<2; 0≤e<2, 10<f≤13 and Me" is a metal selected from Nb, Ta, V, W, Mo, or Sb; Li A La B M' c M" D Zr E O F, wherein the molar ratio of lithium-stuffed garnet:Al 2 O 3 is between 0.05 and 0.7; or Li g La 3 Zr 2 O 12 -Al 2 O 3, wherein 5.5<g<8.5 and the molar ratio of lithium-stuffed garnet: Al 2 O 3 is between 0.05 and 1.0.
Method for recovering at least one platinoid element contained in an acidic aqueous solution comprising chemical elements other than said platinoid element, said process comprising the following steps: - a step of bringing said acidic aqueous solution into contact with a reducing amount of a reducing agent which is a non-sulphurous and non-glucidic alcoholic compound chosen from cyclic, optionally aromatic, alcohols and aliphatic polyols, by means of which said platinoid element is reduced to its 0 oxidation state; - a step of separating said thus reduced platinoid element from said acidic aqueous solution. - a step of bringing said acidic aqueous solution into contact with a reducing amount of a reducing agent which is a non-sulphurous and non-glucidic alcoholic compound chosen from cyclic, optionally aromatic, alcohols and aliphatic polyols, by means of which said platinoid element is reduced to its 0 oxidation state; - a step of separating said thus reduced platinoid element from said acidic aqueous solution.
A storage battery control device comprising: a calculation unit configured to calculate a voltage drop caused to an electric power system when a storage battery is connected to the system, characterized by - a resistor having a resistance value configured to be set by a control unit, - a battery controller configured to control a charging load on the storage battery, - a sensor configured to measure an electric current value and a voltage value of a load current applied from the electric power system to the storage battery, wherein the voltage drop is configured to be calculated based on a difference in a voltage value configured to be measured when the load current passes through the resistor and when the load current does not pass through the resistor when the load current is applied from the electric power system to the storage battery, wherein the control unit is configured to output the control command signal based on the calculated voltage drop to the battery controller which is configured to control the charging load on the storage battery and wherein the control command signal is a resistance setting signal configured to set the resistance value of the resistor for limiting the electric current supplied from the electric power system to the storage battery. a calculation unit configured to calculate a voltage drop caused to an electric power system when a storage battery is connected to the system, characterized by - a resistor having a resistance value configured to be set by a control unit, - a battery controller configured to control a charging load on the storage battery, - a sensor configured to measure an electric current value and a voltage value of a load current applied from the electric power system to the storage battery, - a resistor having a resistance value configured to be set by a control unit, - a battery controller configured to control a charging load on the storage battery, - a sensor configured to measure an electric current value and a voltage value of a load current applied from the electric power system to the storage battery, wherein the voltage drop is configured to be calculated based on a difference in a voltage value configured to be measured when the load current passes through the resistor and when the load current does not pass through the resistor when the load current is applied from the electric power system to the storage battery, wherein the control unit is configured to output the control command signal based on the calculated voltage drop to the battery controller which is configured to control the charging load on the storage battery and wherein the control command signal is a resistance setting signal configured to set the resistance value of the resistor for limiting the electric current supplied from the electric power system to the storage battery.
A power interface, comprising: a main body, configured to be connected to a circuit board; a plurality of spaced data pins, connected to the main body; and a plurality of spaced power pins, connected to the main body and spaced from the data pins, wherein each of the power pins comprises a conductive part and an insulating part connected with the conductive part, and the conductive part and the insulating part are arranged along a width direction of each of the power pins, at least one of the power pins comprises an expanded portion, the insulating part and a part of the conductive part is located on the expanded portion, and a cross-sectional area of the conductive part located on the expanded portion is larger than that of the data pin; characterized in that, the conductive part located on the expanded portion has a recess such that a part of the expanded portion has a surface lower than a first sidewall of the expanded portion, and the recess is filled with at least part of the insulating part. a main body, configured to be connected to a circuit board; a plurality of spaced data pins, connected to the main body; and a plurality of spaced power pins, connected to the main body and spaced from the data pins, wherein each of the power pins comprises a conductive part and an insulating part connected with the conductive part, and the conductive part and the insulating part are arranged along a width direction of each of the power pins, at least one of the power pins comprises an expanded portion, the insulating part and a part of the conductive part is located on the expanded portion, and a cross-sectional area of the conductive part located on the expanded portion is larger than that of the data pin; characterized in that, the conductive part located on the expanded portion has a recess such that a part of the expanded portion has a surface lower than a first sidewall of the expanded portion, and the recess is filled with at least part of the insulating part.
A topical pharmaceutical composition for use in the prevention or treatment of a disease affecting the skin or a skin appendage, comprising an effective amount of an active ingredient and a semifluorinated alkane according to formula RFRH wherein RF is a linear perfluorinated hydrocarbon segment with 4 to 12 carbon atoms, and RH is a linear alkyl group with 4 to 8 carbon atoms, wherein the disease affecting the skin is acne and the active ingredient is an anti-infective selected from azithromycin, erythromycin, clindamycin, and minocycline; or the disease affecting the skin is psoriasis and the active ingredient is a macrolide immunosuppressant selected from tacrolimus, sirolimus, everolimus, pimecrolimus, ridaforolimus, temsirolimus, zotarolimus, and ciclosporin A; and wherein the composition is to be administered to the skin or a skin appendage.
A support structure for seating and reclining furniture comprising a plurality of spring elements arranged distributed over a support surface and a plurality of cover plates which are connected to the spring elements and whose sides facing away from the spring elements together form a support surface, wherein the spring elements each have at least three spring arms facing in different directions in a star shape and the cover plates each have at least three cover plate sections connected to one another, wherein the cover plate sections are each connected to a spring arm of a spring element, characterized in that the cover plates each have at least three cover plate sections elastically connected to one another and the cover plate sections of a cover plate are connected to spring arms of at least two adjacent spring elements.
Automobile air-conditioning system having a refrigerant circuit controlled by a flow control valve, wherein the flow control valve comprises a housing forming a number of internal passages and an internal cavity in fluid communication with each of the internal passages; a flow direction block disposed in the internal cavity, the flow direction block having an outer sealing face acting sealingly together with an inner sealing face of the internal cavity, wherein the flow direction block comprises two clearances (6, 7) extending through a portion of the flow direction block, wherein each of the two clearances is adapted to selectively connect one pair of the internal passages of the housing when the flow direction block is rotated around a rotation axis relative to the housing, thus forming a first flow passage and a second flow passage, wherein the two clearances are adapted to allow a flow through the first flow passage to be controlled independently of a flow through the second flow passage by way of rotating the flow direction block, wherein each of the passages is in fluid communication with a respective port, a first port in connection with a suction line of a compressor, a second port in connection with an output line of the compressor, a third port in connection with a first heat exchanger and a fourth port in connection with a second heat exchanger.
An ejector comprising: an ejector plate (2, 3) comprising: an opening; an ejector rod, wherein the ejector rod comprises a first end portion and a second end portion, wherein the ejector rod has a first initial position relative to the ejector plate (2, 3) and wherein the first end portion of the ejector rod is configured for being pushed in the direction of the ejector plate (2, 3) by a first force applied to the second end portion of the ejector rod; the ejector characterised by a spring placed around the first end portion of the ejector rod and coupled to the ejector plate (2, 3), wherein the spring is configured, upon applying of the first force to the second end portion of the ejector rod, to provide a second force to the ejector plate (2, 3), which causes a motion of the ejector plate (2, 3); the ejector plate (2, 3) further comprising a distance block attached to the ej ector plate (2, 3) for limiting the motion of the ejector plate (2, 3); the first end portion being located in the opening of the ejector plate (2, 3); and wherein there is a gap between the first end portion of the ejector rod and the ejector plate (2, 3) at any time. an ejector plate (2, 3) comprising: an opening; an ejector rod, wherein the ejector rod comprises a first end portion and a second end portion, wherein the ejector rod has a first initial position relative to the ejector plate (2, 3) and wherein the first end portion of the ejector rod is configured for being pushed in the direction of the ejector plate (2, 3) by a first force applied to the second end portion of the ejector rod; the ejector characterised by a spring placed around the first end portion of the ejector rod and coupled to the ejector plate (2, 3), wherein the spring is configured, upon applying of the first force to the second end portion of the ejector rod, to provide a second force to the ejector plate (2, 3), which causes a motion of the ejector plate (2, 3); the ejector plate (2, 3) further comprising a distance block attached to the ej ector plate (2, 3) for limiting the motion of the ejector plate (2, 3); the first end portion being located in the opening of the ejector plate (2, 3); and wherein there is a gap between the first end portion of the ejector rod and the ejector plate (2, 3) at any time.
Device for forming batches from objects travelling in single file, against one another, transported by the endless belt of a conveyor, which device comprises means for immobilizing the said file so as to create a space E between two consecutive objects and means in the form of spacer lugs that can be inserted into the said space E, characterized in that the means of immobilizing the file consist of flaps (10, 11) placed facing one another to form a lane, one of the flaps constitutes the deflecting flap and the other flap constitutes the reactive flap, each flap being able to move about a vertical axis which is situated at the upstream part of each of them, the means of immobilizing the file are also made up - of means for causing the said deflecting flap to pivot in the direction of the said reactive flap, and - of spring means to counter the reactive movement of the said reactive flap when pushed, via the said objects, by the deflecting flap, the axes (12, 13) about which the flaps (10, 11) are able to move respectively are offset longitudinally so that the axis of the reactive flap is situated downstream of the axis of the deflecting flap, which axes (12, 13) are offset by a distance d which is comprised between l and 1/2 l, where l corresponds to the length of the said objects, the said distance d being measured along the longitudinal axis of travel of the said objects.
Method for removing a screen from a cable, which screen surrounds at least one electrical or optical inner conductor of the cable consisting at least of at least one conductor, the screen and an outer insulation, comprising the steps of a) baring the screen at least at one end or in one section of the cable by removing the outer insulation, b) lifting off a section of the screen from the at least one inner conductor on at least one end of the section of the screen to be removed, at least over a part of the circumference of the cable, b1) pressing the parts of the screen which have been lifted off onto an erection surface before cutting them off, and c) at least in part cutting off the deformed section of the screen, characterized in that the cable is continuously advanced axially, while simultaneously all the locations for each of the steps of the method are together rotated synchronously around the cable. a) baring the screen at least at one end or in one section of the cable by removing the outer insulation, b) lifting off a section of the screen from the at least one inner conductor on at least one end of the section of the screen to be removed, at least over a part of the circumference of the cable, b1) pressing the parts of the screen which have been lifted off onto an erection surface before cutting them off, and c) at least in part cutting off the deformed section of the screen, characterized in that the cable is continuously advanced axially, while simultaneously all the locations for each of the steps of the method are together rotated synchronously around the cable.
A process for preparing a nonwoven fabric comprising the steps of: (a) depositing fibers on a foraminous support; (b) impinging water upon the fibers; (c) hydroentangling the fibers to form a coherent fabric; and (d) cooling the fabric within 1 second after being hydroentangled; wherein, at least 25% of the fibers have a glass transition temperature (Tg) in the range 50°C to 100°C and an average T g of T g; and wherein the water has a temperature in the range from 15°C below T g to 99°C. (a) depositing fibers on a foraminous support; (b) impinging water upon the fibers; (c) hydroentangling the fibers to form a coherent fabric; and (d) cooling the fabric within 1 second after being hydroentangled; wherein, at least 25% of the fibers have a glass transition temperature (Tg) in the range 50°C to 100°C and an average T g of T g; and
Portable multifunctional climatic chamber for thermic treatment of food, comprising a vertically extending frame formed by a base element, a top element and a pair of lateral shoulders which connect said base and top elements (3, 4) to define an operative space which is provided with means for positioning food-bearing planes and is coverable with a thermic cover, wherein said base element comprises a heating unit, said top element comprises a ventilation unit which is controllable to intake ascending air from said operative space and said lateral shoulders are provided with channelized vertical plates run along by vertical channels which communicate at the bottom with said heating unit and further communicate at the top with said ventilation unit so as to be run along by descending air flows when said ventilation unit intakes ascending air from said operative space, said vertical channels being further in communication with said operative space through transversal slits formed at different heights in said channelized plates and there being provided inside said channelized plates oblique deflectors alternated with said slits to deviate partially into said operative space the descending air flows which run along said channels when said ventilation unit intakes air from said operative space.
A toner, comprising: toner particles having a core-shell structure, comprising: a binder resin; a colorant; and a release agent, wherein the toner particles are obtained by dissolving or dispersing the binder resin and/or a precursor thereof in an organic solvent and, if applicable, reacting the precursor in an aqueous medium, wherein the toner satisfies the following relationship: Δm = Tm1 - Tm2 > 10 °C, wherein Tm1 is from 145 to 200 °C and Tm2 is from 110 to 135 °C, wherein Tm1 represents the half efflux temperature of the toner and Tm2 represents the half efflux temperature of a toner which is obtained by melting and kneading the toner particles, wherein Tm1 and Tm2 are measured as described in the description, and wherein the content of the release agent existing close to the surface portion of the toner particles, as determined by Fourier Transform Infrared Spectroscopy Attenuated Total Reflection (FTIR-ATR) method as described in the description, is from 7 to 30 % by volume. toner particles having a core-shell structure, comprising: a binder resin; a colorant; and a release agent, wherein the toner particles are obtained by dissolving or dispersing the binder resin and/or a precursor thereof in an organic solvent and, if applicable, reacting the precursor in an aqueous medium, wherein the toner satisfies the following relationship: Δm = Tm1 - Tm2 > 10 °C, wherein Tm1 is from 145 to 200 °C and Tm2 is from 110 to 135 °C, wherein Tm1 represents the half efflux temperature of the toner and Tm2 represents the half efflux temperature of a toner which is obtained by melting and kneading the toner particles, wherein Tm1 and Tm2 are measured as described in the description, and wherein the content of the release agent existing close to the surface portion of the toner particles, as determined by Fourier Transform Infrared Spectroscopy Attenuated Total Reflection (FTIR-ATR) method as described in the description, is from 7 to 30 % by volume. a binder resin; a colorant; and a release agent,
Choke valve device for an internal combustion engine in a hybrid drive system of a motor vehicle, in particular for a range extender, with a housing in whose interior a through-flown fluid duct is formed, having a flap body determining the flow cross section of the duct, with a flap shaft on which the flap body is arranged and which is rotatably supported in the housing at at least one bearing point, with an actuator unit driving the flap shaft, wherein the actuator unit provides a limited number of control positions for the flap body, wherein the actuator unit has a locking device with locking positions (48, 50, 52), wherein the actuator unit comprises locking members (48, 50, 52) which, in cooperation with a spring member, allow a locking in the desired locking positions, characterized in that the actuator unit comprises an electromotor and a transmission, wherein a transmission output is connected for rotation with the flap shaft and the transmission output comprises the locking device.
A hot melt adhesive composition, comprising: a styrene-based block copolymer; a tackifier; and a plasticizer; wherein: the styrene-based block copolymer is a styrene-butadiene block copolymer and a butadiene portion thereof is hydrogenated by 20 mass% to 90 mass%; the tackifier is contained by 65 to 190 parts by mass with respect to 100 parts by mass of the styrene-based block copolymer; and the plasticizer is contained by 0.1 to 24 parts by mass with respect to 100 parts by mass of the styrene-based block copolymer. a styrene-based block copolymer; a tackifier; and a plasticizer; wherein: the styrene-based block copolymer is a styrene-butadiene block copolymer and a butadiene portion thereof is hydrogenated by 20 mass% to 90 mass%; the tackifier is contained by 65 to 190 parts by mass with respect to 100 parts by mass of the styrene-based block copolymer; and the plasticizer is contained by 0.1 to 24 parts by mass with respect to 100 parts by mass of the styrene-based block copolymer. the styrene-based block copolymer is a styrene-butadiene block copolymer and a butadiene portion thereof is hydrogenated by 20 mass% to 90 mass%; the tackifier is contained by 65 to 190 parts by mass with respect to 100 parts by mass of the styrene-based block copolymer; and the plasticizer is contained by 0.1 to 24 parts by mass with respect to 100 parts by mass of the styrene-based block copolymer.