mhurhangee/patent-ind-claim-en huggingface dataset:
A waterborne adhesive composition comprising: (i) an aqueous medium; (ii) one or more isocyanate compounds dispersed in said aqueous medium, wherein said one or more isocyanate compounds is a mixture of a) one or more hydrophilically modified oligo-isocyanates comprising one or more hydrophilically modified isocyanate trimers that have the structure: wherein the three R groups are the same as each other, wherein the three R groups are aliphatic, and wherein G is an organic group that contains a hydrophilic group selected from the group consisting of hydrophilic alkylene oxide groups, anionic sulfate groups and anionic carboxylate groups; and b) one or more isocyanate-functional polyurethanes, wherein said polyurethane comprises the reaction product of one or more polyether polyols, one or more polyester polyols, or a mixture thereof, and one or more polyisocyanates, (iii) one or more functional silane compounds dispersed in said aqueous medium; and wherein said adhesive composition contains no colorant. (i) an aqueous medium; (ii) one or more isocyanate compounds dispersed in said aqueous medium, wherein said one or more isocyanate compounds is a mixture of a) one or more hydrophilically modified oligo-isocyanates comprising one or more hydrophilically modified isocyanate trimers that have the structure: wherein the three R groups are the same as each other, wherein the three R groups are aliphatic, and wherein G is an organic group that contains a hydrophilic group selected from the group consisting of hydrophilic alkylene oxide groups, anionic sulfate groups and anionic carboxylate groups; and b) one or more isocyanate-functional polyurethanes, wherein said polyurethane comprises the reaction product of one or more polyether polyols, one or more polyester polyols, or a mixture thereof, and one or more polyisocyanates, a) one or more hydrophilically modified oligo-isocyanates comprising one or more hydrophilically modified isocyanate trimers that have the structure: wherein the three R groups are the same as each other, wherein the three R groups are aliphatic, and wherein G is an organic group that contains a hydrophilic group selected from the group consisting of hydrophilic alkylene oxide groups, anionic sulfate groups and anionic carboxylate groups; and b) one or more isocyanate-functional polyurethanes, wherein said polyurethane comprises the reaction product of one or more polyether polyols, one or more polyester polyols, or a mixture thereof, and one or more polyisocyanates, (iii) one or more functional silane compounds dispersed in said aqueous medium; and wherein said adhesive composition contains no colorant.
Composition comprising a fatty acid ester fraction and an alcohol fraction, characterized in that the composition consists of 70-90 wt.% biodiesel, the biodiesel being present as fatty acid methyl ester, and of the corresponding remainder technical bio-ethanol, the composition additionally comprising between 0.5-20 mg/L camphor as an additive, or the composition consisting of 70-95 wt.% biodiesel, the biodiesel being present as fatty acid methyl ester, and of the corresponding remainder isopropanol, the composition additionally comprising between 0.5-20 mg/L camphor as an additive, the fatty acid ester fraction comprising one or more fatty acid esters. the composition consists of 70-90 wt.% biodiesel, the biodiesel being present as fatty acid methyl ester, and of the corresponding remainder technical bio-ethanol, the composition additionally comprising between 0.5-20 mg/L camphor as an additive, or the composition consisting of 70-95 wt.% biodiesel, the biodiesel being present as fatty acid methyl ester, and of the corresponding remainder isopropanol, the composition additionally comprising between 0.5-20 mg/L camphor as an additive, the fatty acid ester fraction comprising one or more fatty acid esters.
A method, comprising: (a) configuring a far user equipment, hereinafter far-UE, and a near user equipment, hereinafter near-UE, by a base station for multiuser superposition transmission, hereinafter MUST, in a mobile communication network ; (b) generating a constellation map based on a first modulation order 2 n for the far-UE, a second modulation order 2 m for the near-UE, and a power split factor ; (c) assigning a bit sequence for each constellation point on the constellation map to satisfy one or more conditions, wherein each bit sequence comprises n bits assigned for the far-UE concatenated with m bits assigned for the near-UE , wherein the assigning in (c) satisfies Gray coding rule where every two bit sequences corresponding to any adjacent constellation points differ in only one bit; (d) modulating and outputting a superposed signal to be transmitted to the far-UE and the near-UE over a time-frequency radio resource based on the assigned bit sequences , and characterized by further comprising (e) transmitting MUST-related information to the near-UE and the far-UE, wherein the MUST-related information comprises the power split factor. (a) configuring a far user equipment, hereinafter far-UE, and a near user equipment, hereinafter near-UE, by a base station for multiuser superposition transmission, hereinafter MUST, in a mobile communication network ; (b) generating a constellation map based on a first modulation order 2 n for the far-UE, a second modulation order 2 m for the near-UE, and a power split factor ; (c) assigning a bit sequence for each constellation point on the constellation map to satisfy one or more conditions, wherein each bit sequence comprises n bits assigned for the far-UE concatenated with m bits assigned for the near-UE , wherein the assigning in (c) satisfies Gray coding rule where every two bit sequences corresponding to any adjacent constellation points differ in only one bit; (d) modulating and outputting a superposed signal to be transmitted to the far-UE and the near-UE over a time-frequency radio resource based on the assigned bit sequences , and
An optical/electrical cable for downhole environments, comprising a plurality of optical fibers disposed within an interior metal tube encasing the plurality of optical fibers ; an electrically conducting layer surrounding the interior metal tube and being coaxial to the interior metal tube , and an insulation layer surrounding and contacting the electrically conducting layer , wherein the cable comprises an exterior metal tube surrounding and contacting the insulation layer characterised in that the electrically conducting layer is in the form of a tape, a longitudinally welded foil, or a seam welded tube wrapping around the interior metal tube . a plurality of optical fibers disposed within an interior metal tube encasing the plurality of optical fibers ; an electrically conducting layer surrounding the interior metal tube and being coaxial to the interior metal tube , and an insulation layer surrounding and contacting the electrically conducting layer , wherein the cable comprises an exterior metal tube surrounding and contacting the insulation layer characterised in that the electrically conducting layer is in the form of a tape, a longitudinally welded foil, or a seam welded tube wrapping around the interior metal tube .
An adjustable rotary socket assembly comprising: a housing having a fixed electrical contact assembly and a detent ; a socket having a first side, a second side, a rotary plate affixed to each side thereof, and an upper casing having at least one plug receiver, the plug receiver having at least one terminal contact ; wherein the rotary plates are rotationally supported by the housing , limit a range of rotation of the rotary socket , and have at least one indent ; and wherein the detent is received by the at least one indent at an angle of rotation within the range of rotation of the rotary socket characterized in that the detent is upwardly urged, and in that the rotary plates are rotary contact plates that are electrically connected to the at least one terminal contact and the fixed electrical contact assembly . a housing having a fixed electrical contact assembly and a detent ; a socket having a first side, a second side, a rotary plate affixed to each side thereof, and an upper casing having at least one plug receiver, the plug receiver having at least one terminal contact ; wherein the rotary plates are rotationally supported by the housing , limit a range of rotation of the rotary socket , and have at least one indent ; and wherein the detent is received by the at least one indent at an angle of rotation within the range of rotation of the rotary socket characterized in that the detent is upwardly urged, and in that the rotary plates are rotary contact plates that are electrically connected to the at least one terminal contact and the fixed electrical contact assembly .
Pack for a cigarette group , comprising an inner pack , with an inner blank for wrapping the cigarette group , and having an outer pack designed in the form of a hinge-lid pack and comprising a box part , a lid , with a lid inner flap folded against the inner side of a lid front wall , and a collar , which is formed from a separate blank and has a collar front wall and collar side flaps , wherein the collar front wall forms a recess , which is open in the direction of the lid , or of an inner end wall of the inner pack , and in the region of which is arranged a closure label for opening and closing a removal opening of the inner pack , characterized in that the lid inner flap and the recess of the collar front wall are coordinated with one another in respect of size and/or (geometrical) shape and/or positioning, or position, such that the lid inner flap is located entirely within the recess when the lid is closed, and in that the closure label is connected to the lid inner flap by adhesive bonding.
A process for treating a lignocellulosic biomass , said process comprising the following steps: a. Preparing an impregnation liquor containing a chemical catalyst intended for the impregnation of the biomass, chosen from an acid catalyst, a basic catalyst and an oxidizing catalyst, and preferably an acid catalyst b. Introducing the milled biomass via an inlet of an impregnation reactor , said inlet being located in a first impregnation zone of said impregnation reactor which comprises two superposed zones, said first impregnation zone and a second "draining" zone above the impregnation zone c. Introducing the liquor via a first liquor inlet located in said first impregnation zone of the reactor, characterized in that it also comprises the following step: d. Introducing said liquor into said reactor via a second liquor inlet in another reactor zone located below the biomass inlet located in the first impregnation zone . a. Preparing an impregnation liquor containing a chemical catalyst intended for the impregnation of the biomass, chosen from an acid catalyst, a basic catalyst and an oxidizing catalyst, and preferably an acid catalyst b. Introducing the milled biomass via an inlet of an impregnation reactor , said inlet being located in a first impregnation zone of said impregnation reactor which comprises two superposed zones, said first impregnation zone and a second "draining" zone above the impregnation zone c. Introducing the liquor via a first liquor inlet located in said first impregnation zone of the reactor, d. Introducing said liquor into said reactor via a second liquor inlet in another reactor zone located below the biomass inlet located in the first impregnation zone .
An apparatus comprising: a pass transistor having a drain receiving an input current (In), a source for providing a load voltage (Vout) and a gate coupled to a gate control voltage, wherein the gate control voltage is selectively coupled to a discrete voltage comprising a series of pulses and having no more than two voltage levels, the two levels comprising a low voltage level and a high voltage level; and start-up circuitry configured to generate the discrete voltage, the start-up circuitry comprising a comparator , wherein a first input of the comparator is coupled to a reference voltage, and the second input of the comparator receiving a voltage proportional to the load voltage provided by the pass transistor ; wherein the start-up circuitry generates the discrete voltage in a start-up phase, and the pass transistor incrementally raises the load voltage from an initial voltage to a target voltage in response to the discrete voltage in the start-up phase. a pass transistor having a drain receiving an input current (In), a source for providing a load voltage (Vout) and a gate coupled to a gate control voltage, wherein the gate control voltage is selectively coupled to a discrete voltage comprising a series of pulses and having no more than two voltage levels, the two levels comprising a low voltage level and a high voltage level; and start-up circuitry configured to generate the discrete voltage, the start-up circuitry comprising a comparator , wherein a first input of the comparator is coupled to a reference voltage, and the second input of the comparator receiving a voltage proportional to the load voltage provided by the pass transistor ; wherein the start-up circuitry generates the discrete voltage in a start-up phase, and the pass transistor incrementally raises the load voltage from an initial voltage to a target voltage in response to the discrete voltage in the start-up phase.
An accelerating cavity (100; 200; 300; 400; 500; 600) comprising: an electrically conductive cylindrical housing (10; 110; 210; 310; 410; 510) ; and a plurality of cells made of a dielectric material and having openings in respective central portions of the cells through which charged particles are allowed to pass, the cells being arranged inside the housing while being aligned in an axial direction of a central axis of the housing, and sandwiched by the housing in the axial direction of the central axis, wherein grooves (11g, are provided on portions of the housing that support the cells, characterised in that each groove has a depth that is one fourth of a wavelength of radio frequency waves for an acceleration mode that propagate through the cells . an electrically conductive cylindrical housing (10; 110; 210; 310; 410; 510) ; and a plurality of cells made of a dielectric material and having openings in respective central portions of the cells through which charged particles are allowed to pass, the cells being arranged inside the housing while being aligned in an axial direction of a central axis of the housing, and sandwiched by the housing in the axial direction of the central axis, wherein grooves (11g, are provided on portions of the housing that support the cells, characterised in that each groove has a depth that is one fourth of a wavelength of radio frequency waves for an acceleration mode that propagate through the cells .
Coating system for coating a surface of a substrate , such as a wind turbine blade or a rotor blade of a tidal stream generator , the coating system comprising; a coating , such as an erosion resistant material resistant to erosion by a flow of fluids, and an adhesive layer , that is disposed between the substrate and the coating , wherein the adhesive layer comprises a first adhesive layer portion adjacent to the substrate and a second adhesive layer portion adjacent to the coating and a carrier (11; 11', 11", 11′′′, 11ʺʺ), such as a textile or film, placed between said first and second adhesive layer portions , wherein the first adhesive layer portion is composed of a first adhesive layer material, wherein the second adhesive layer portion is composed of a second adhesive layer material, characterized in that the first adhesive layer material and the second adhesive layer material is having an adhesive or bond strength (AS 1 , AS 2 ) to the surface of the substrate and to the coating respectively that exceeds their respective cohesive or tensile strength (TS 1 , TS 2 ), wherein the first and second adhesive layer materials and carrier combination is configured for having an adhesive strength (AS 3 , AS 4 ) that is less than their respective cohesive or tensile strength (TS 1 , TS 2 ), wherein the carrier (11; 11', 11", 11′′′, 11ʺʺ) is configured with grab tensile properties such that the carrier in combination with the second adhesive layer portion and the coating will separate from the first adhesive layer portion under the action of a peeling force (16, PF). a coating , such as an erosion resistant material resistant to erosion by a flow of fluids, and an adhesive layer , that is disposed between the substrate and the coating , wherein the adhesive layer comprises a first adhesive layer portion adjacent to the substrate and a second adhesive layer portion adjacent to the coating and a carrier (11; 11', 11", 11′′′, 11ʺʺ), such as a textile or film, placed between said first and second adhesive layer portions , wherein the first adhesive layer portion is composed of a first adhesive layer material, wherein the second adhesive layer portion is composed of a second adhesive layer material, characterized in that the first adhesive layer material and the second adhesive layer material is having an adhesive or bond strength (AS 1 , AS 2 ) to the surface of the substrate and to the coating respectively that exceeds their respective cohesive or tensile strength (TS 1 , TS 2 ), wherein the first and second adhesive layer materials and carrier combination is configured for having an adhesive strength (AS 3 , AS 4 ) that is less than their respective cohesive or tensile strength (TS 1 , TS 2 ), wherein the carrier (11; 11', 11", 11′′′, 11ʺʺ) is configured with grab tensile properties such that the carrier in combination with the second adhesive layer portion and the coating will separate from the first adhesive layer portion under the action of a peeling force (16, PF).
Pentasaccharide-depleted heparin for use in preventing, ameliorating or reducing graft failure after transplantation in a recipient.
A garment care device comprising: - a sensor connected to a control unit for generating an output signal characterizing a movement of said garment care device, - a display for displaying a plurality of light indicators , wherein the control unit is adapted to: a) identify some movement characteristics in said output signal, said movement characteristics reflecting that the garment care device is moving, wherein said movement characteristics correspond to the amount of a linear displacement along a given direction (D) of the garment care device, b) control the switching of said plurality of light indicators , based on said movement characteristics, and c) switch said plurality of light indicators according to a given light pattern, and characterised in that the control unit is adapted to control the switching of a number of light indicators among said plurality of light indicators , said number of light indicators depending on said amount of linear displacement. - a sensor connected to a control unit for generating an output signal characterizing a movement of said garment care device, - a display for displaying a plurality of light indicators , wherein the control unit is adapted to: a) identify some movement characteristics in said output signal, said movement characteristics reflecting that the garment care device is moving, wherein said movement characteristics correspond to the amount of a linear displacement along a given direction (D) of the garment care device, b) control the switching of said plurality of light indicators , based on said movement characteristics, and c) switch said plurality of light indicators according to a given light pattern, and characterised in that the control unit is adapted to control the switching of a number of light indicators among said plurality of light indicators , said number of light indicators depending on said amount of linear displacement. a) identify some movement characteristics in said output signal, said movement characteristics reflecting that the garment care device is moving, wherein said movement characteristics correspond to the amount of a linear displacement along a given direction (D) of the garment care device, b) control the switching of said plurality of light indicators , based on said movement characteristics, and c) switch said plurality of light indicators according to a given light pattern,
A lighting assembly comprising: a mounting structure ; a solid state light source mounted on the mounting structure ; an optical device formed by a light pipe optically coupled to the solid state light source ; and a support structure for connecting the optical device to the mounting structure surrounding the light pipe and enclosing a region between the first end of the light pipe and the mounting structure , wherein the solid state light source is enclosed within a space formed by the mounting structure , the support structure , and the optical device , and the support structure absorbs thermal energy to reduce an operating temperature of the optical device , and the optical device is formed from a first material and the support structure is formed from a different, second material, the lighting assembly being characterized in that the support structure supports the light pipe above the solid state light source and the mounting structure such that the light pipe does not directly contact the mounting structure and the solid sate light source , and the solid state light source can vent to atmosphere for pressure and humidity control. a mounting structure ; a solid state light source mounted on the mounting structure ; an optical device formed by a light pipe optically coupled to the solid state light source ; and a support structure for connecting the optical device to the mounting structure surrounding the light pipe and enclosing a region between the first end of the light pipe and the mounting structure , wherein the solid state light source is enclosed within a space formed by the mounting structure , the support structure , and the optical device , and the support structure absorbs thermal energy to reduce an operating temperature of the optical device , and the optical device is formed from a first material and the support structure is formed from a different, second material, the lighting assembly being characterized in that the support structure supports the light pipe above the solid state light source and the mounting structure such that the light pipe does not directly contact the mounting structure and the solid sate light source , and the solid state light source can vent to atmosphere for pressure and humidity control.