mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a powdered microencapsulated composition comprising the steps of: a) Preparing an oil-in-water suspension containing (i) an oil phase comprising an active ingredient, preferably a perfume or a flavor, said oil being dispersed in (ii) a water phase including a water-soluble carbohydrate carrier; and (iii) optionally an emulsifier wherein the weight ratio between the oil phase and the water is preferably above 1, more preferably above 1.5; b) Blending at room temperature the suspension obtained under step a) with a desiccant powder to form a dry microcapsule powder, said process being characterized in that the weight difference Δ between the water sorption of the desiccant and the water sorption of the carrier, at 50% relative humidity and at 25°C, is positive; preferably Δ is at least 1%, more preferably Δ is at least 2%; c) Optionally sifting the obtained powder to remove the excess desiccant characterized in that the process is free of any spray-drying step. a) Preparing an oil-in-water suspension containing (i) an oil phase comprising an active ingredient, preferably a perfume or a flavor, said oil being dispersed in (ii) a water phase including a water-soluble carbohydrate carrier; and (iii) optionally an emulsifier wherein the weight ratio between the oil phase and the water is preferably above 1, more preferably above 1.5; (i) an oil phase comprising an active ingredient, preferably a perfume or a flavor, said oil being dispersed in (ii) a water phase including a water-soluble carbohydrate carrier; and (iii) optionally an emulsifier b) Blending at room temperature the suspension obtained under step a) with a desiccant powder to form a dry microcapsule powder, said process being characterized in that the weight difference Δ between the water sorption of the desiccant and the water sorption of the carrier, at 50% relative humidity and at 25°C, is positive; preferably Δ is at least 1%, more preferably Δ is at least 2%; c) Optionally sifting the obtained powder to remove the excess desiccant characterized in that the process is free of any spray-drying step.
Piperazine methyl carboxylate hydrate. ("PMEC") phosphate
A coating composition comprising: a) a binder system selected from epoxy-based binder systems comprising one or more curing agents selected from compounds or polymers comprising at least two reactive hydrogen atoms linked to nitrogen, polysiloxane-based binder systems, polyurethane-based binder systems, cyclized rubber-based binder systems, and phenoxy resin-based binder systems, b) zinc particles, c) uncoated hollow glass microspheres, d) a conductive pigment selected from the group consisting of graphite, carbon black, aluminium pigments, black iron oxide, antimony-doped tin oxide, mica coated with antimony-doped tin oxide, indium tin oxide, carbon nanotubes, carbon black fibres, graphene, and any mixture thereof, wherein the composition further comprises a solvent. a) a binder system selected from epoxy-based binder systems comprising one or more curing agents selected from compounds or polymers comprising at least two reactive hydrogen atoms linked to nitrogen, polysiloxane-based binder systems, polyurethane-based binder systems, cyclized rubber-based binder systems, and phenoxy resin-based binder systems, b) zinc particles, c) uncoated hollow glass microspheres, d) a conductive pigment selected from the group consisting of graphite, carbon black, aluminium pigments, black iron oxide, antimony-doped tin oxide, mica coated with antimony-doped tin oxide, indium tin oxide, carbon nanotubes, carbon black fibres, graphene, and any mixture thereof,
Tyre comprising a tread having a contact surface for coming into contact with the carriageway when the tyre is rolling, said tread comprising at least one circumferential reinforcing element (8-x), at least a portion of the meridian cross-section of which is in the shape of a triangle, the vertex of which is oriented radially towards the outside, said circumferential reinforcing element (8-x) consisting of a rubber mixture with a dynamic shear modulus G* measured at 60°C at 10 Hz and under an alternating shear stress of 0.7 MPa greater than the dynamic shear modulus G* of the main rubber mixture of the tread, said tread comprising at least two grooves extending at least partially circumferentially, each circumferential groove being delimited by a groove bottom and axially by two side faces , said tread comprising at least one tread block formed between two grooves , said block having an axial width L51 measured at a radial level corresponding substantially to the groove bottom , characterized in that : - at least one of the side faces is undercut, - the circumferential reinforcing element (8-x) is arranged axially relative to said undercut side face at a distance "d" of between 0 and 15% of the axial width L51 of the tread block , at least extending radially from the inside towards the outside from a radial level situated above the wear limit level and to a radial height equal to 5% of the thickness "p" of the tread. - at least one of the side faces is undercut, - the circumferential reinforcing element (8-x) is arranged axially relative to said undercut side face at a distance "d" of between 0 and 15% of the axial width L51 of the tread block , at least extending radially from the inside towards the outside from a radial level situated above the wear limit level and to a radial height equal to 5% of the thickness "p" of the tread.
A method of detecting a thickness (d) of a film or sheet made of foam, wherein said film or sheet is cut, as an article of manufacture, from a foam block provided as a starting material, wherein the starting material has a starting material length extending in the length direction (x; x'), a starting material width extending in the width direction (y), and a starting material height extending in the height direction (z), wherein: - for cutting the starting material, said starting material is conveyed to a cutting unit along the length direction (x; x') and the cutting unit cuts the film or sheet from the starting material along said length direction (x; x'), and wherein - for detecting the thickness (d) of the film or sheet , said thickness (d) is detected along the height direction (z), characterised in that the thickness (d) of the film or sheet is detected in that : - a value of measurement representing a preceding starting material height (83; 87) obtained prior to the cutting of the starting material and a value of measurement representing a succeeding starting material height obtained subsequent to the cutting of the starting material are determined, and - an evaluation unit is used to determine the thickness (d) of the film or sheet as the difference that results from the value of measurement representing said preceding starting material height (83; 87) minus the value of measurement representing said succeeding starting material height . - for cutting the starting material, said starting material is conveyed to a cutting unit along the length direction (x; x') and the cutting unit cuts the film or sheet from the starting material along said length direction (x; x'), and wherein - for detecting the thickness (d) of the film or sheet , said - a value of measurement representing a preceding starting material height (83; 87) obtained prior to the cutting of the starting material and a value of measurement representing a succeeding starting material height obtained subsequent to the cutting of the starting material are determined, and - an evaluation unit is used to determine the thickness (d) of the film or sheet as the difference that results from the value of measurement representing said preceding starting material height (83; 87) minus the value of measurement representing said succeeding starting material height .
Refrigerating device having an evaporator and at least one compartment cooled by air circulation to and from the evaporator , in which air passage openings distributed in a wall separating the compartment from an air inflow region are covered by a diffusion layer in a first position, wherein the diffusion layer can be displaced into a second position in which it permits an air flow from the evaporator through the air inflow region into the compartment , thus bypassing the diffusion layer , wherein the air inflow region upstream of the diffusion layer in the flow direction of the air is designed as an air distribution chamber , characterised in that the diffusion layer is a mat made of fibre material, wherein the diffusion layer is attached to a movable frame , wherein the air distribution chamber is accommodated in a partition wall between the compartment to which the air from the air distribution chamber is applied on one side and a further compartment on the other side.
A multiple touch module for touching a capacitive touch screen, the multiple touch module comprising: a plurality of touch units each including a material which induces a capacitance change of the capacitive touch screen, and disposed in a geometric relation such that projected positions of the plurality of touch units projected on the capacitive touch screen are in a predetermined unique relation; a touch film including a contact area which comes into contact with the capacitive touch screen when the multiple touch module touches the capacitive touch screen, wherein a part of the plurality of touch units are disposed on and fixed to an internal area of the touch film corresponding to the geometric relation, the internal area being on an opposite side of the contract area ; and a frame unit , wherein the remaining touch units of the plurality of touch units are disposed on and fixed to the frame unit corresponding to the geometric relation, wherein the frame unit is configured to come into contact with the touch units disposed on and fixed to the internal area of the touch film by a pressure applied by a user to the multiple touch module in direction to the capacitive touch screen when the multiple touch module touches the capacitive touch screen, and wherein the frame unit is further configured to apply a capacitance of the human body of the user to the touch units disposed on and fixed to the frame unit and to the ones of the touch units disposed on and fixed to the touch film that are in contact with the frame unit when the user applies the pressure to the multiple touch module . a plurality of touch units each including a material which induces a capacitance change of the capacitive touch screen, and disposed in a geometric relation such that projected positions of the plurality of touch units projected on the capacitive touch screen are in a predetermined unique relation; a touch film including a contact area which comes into contact with the capacitive touch screen when the multiple touch module touches the capacitive touch screen, wherein a part of the plurality of touch units are disposed on and fixed to an internal area of the touch film corresponding to the geometric relation, the internal area being on an opposite side of the contract area ; and a frame unit , wherein the remaining touch units of the plurality of touch units are disposed on and fixed to the frame unit corresponding to the geometric relation, wherein the frame unit is configured to come into contact with the touch units disposed on and fixed to the internal area of the touch film by a pressure applied by a user to the multiple touch module in direction to the capacitive touch screen when the multiple touch module touches the capacitive touch screen, and wherein the frame unit is further configured to apply a capacitance of the human body of the user to the touch units disposed on and fixed to the frame unit and to the ones of the touch units disposed on and fixed to the touch film that are in contact with the frame unit when the user applies the pressure to the multiple touch module .
A rubber composition comprising: a) 100 parts by weight of elastomer consisting of 25 to 35 phr of a styrene-butadiene rubber, 25 to 35 phr of a polybutadiene, and 35 to 45 phr of a natural rubber or synthetic polyisoprene, wherein the styrene-butadiene rubber is a functionalized solution polymerized styrene-butadiene elastomer having a glass transition temperature Tg(A) ranging from -30 to -10 °C and having at least one functional group, wherein the natural rubber or synthetic polyisoprene has a Tg(B) ranging from -60 to -70 °C, wherein the polybutadiene is a cis 1,4 polybutadiene having a Tg(C) ranging from -110 to -90 °C, and wherein Tg(A) - Tg(B) ≥ 25 °C, and Tg(B) - Tg(C) ≥ 25 °C; b) 60 to 80 phr of a silica, preferably a prehydrophobated silica; c) 1 to 10 phr of a carbon black; d) 1 to 3 phr of a rubber processing oil; and e) 5 to 25 phr of at least one hydrocarbon resin having a Tg ≥ 20 °C; wherein the weight ratio of hydrocarbon resin to rubber processing oil is greater than 8, wherein the glass transition temperatures (Tg) are determined according to the methods as disclosed in the description. a) 100 parts by weight of elastomer consisting of 25 to 35 phr of a styrene-butadiene rubber, 25 to 35 phr of a polybutadiene, and 35 to 45 phr of a natural rubber or synthetic polyisoprene, wherein the styrene-butadiene rubber is a functionalized solution polymerized styrene-butadiene elastomer having a glass transition temperature Tg(A) ranging from -30 to -10 °C and having at least one functional group, wherein the natural rubber or synthetic polyisoprene has a Tg(B) ranging from -60 to -70 °C, wherein the polybutadiene is a cis 1,4 polybutadiene having a Tg(C) ranging from -110 to -90 °C, and wherein Tg(A) - Tg(B) ≥ 25 °C, and Tg(B) - Tg(C) ≥ 25 °C; wherein the styrene-butadiene rubber is a functionalized solution polymerized styrene-butadiene elastomer having a glass transition temperature Tg(A) ranging from -30 to -10 °C and having at least one functional group, wherein the natural rubber or synthetic polyisoprene has a Tg(B) ranging from -60 to -70 °C, wherein the polybutadiene is a cis 1,4 polybutadiene having a Tg(C) ranging from -110 to -90 °C, and wherein Tg(A) - Tg(B) ≥ 25 °C, and Tg(B) - Tg(C) ≥ 25 °C; b) 60 to 80 phr of a silica, preferably a prehydrophobated silica; c) 1 to 10 phr of a carbon black; d) 1 to 3 phr of a rubber processing oil; and e) 5 to 25 phr of at least one hydrocarbon resin having a Tg ≥ 20 °C;
Method for thermally connecting a heat source of a battery system to a heat sink of the battery system, comprising the steps: - carrying out a setting operation by means of a setting device , in which a distance between an electrically conductive housing surface of the heat source and an electrically conductive heat transfer surface , which is part of the heatsink or adjoins the heatsink , is reduced by compressing an electrically insulating thermally conductive material arranged between them; - carrying out a continuous capacitance measurement between the housing surface and the thermal transfer surface by means of a measuring device during the setting operation; - monitoring a layer thickness of the thermally conductive material and controlling the setting device by means of a control apparatus on the basis of the capacitance measurement until a specified layer thickness of the thermally conductive material is reached. - carrying out a setting operation by means of a setting device , in which a distance between an electrically conductive housing surface of the heat source and an electrically conductive heat transfer surface , which is part of the heatsink or adjoins the heatsink , is reduced by compressing an electrically insulating thermally conductive material arranged between them; - carrying out a continuous capacitance measurement between the housing surface and the thermal transfer surface by means of a measuring device during the setting operation; - monitoring a layer thickness of the thermally conductive material and controlling the setting device by means of a control apparatus on the basis of the capacitance measurement until a specified layer thickness of the thermally conductive material is reached.
A method of processing image data, the method comprising: receiving a plurality of pixel values of an image captured by a photosensor pixel array of an image sensor , wherein one or more of the pixel values correspond to one or more sensitivity-biased photosensor, SBP, pixels, and wherein one or more saturated pixel values from the plurality of pixel values correspond to one or more other photosensor pixels, wherein the one or more other photosensor pixels are underexposed or overexposed; determining, based on the one or more pixel values corresponding to the one or more SBP pixels, an estimated actual pixel value for the one or more pixel values corresponding to the one or more SBP pixels; determining an adjustment factor for at least one of the plurality of pixel values based on the estimated actual pixel value and a target exposure value ; based on the adjustment factor, correcting the one or more saturated pixel values ; and generating a processed image based on the estimated actual pixel value, the one or more saturated pixel values corrected with the adjustment factor, and at least a portion of the plurality of pixel values modified based on the adjustment factor. receiving a plurality of pixel values of an image captured by a photosensor pixel array of an image sensor , wherein one or more of the pixel values correspond to one or more sensitivity-biased photosensor, SBP, pixels, and wherein one or more saturated pixel values from the plurality of pixel values correspond to one or more other photosensor pixels, wherein the one or more other photosensor pixels are underexposed or overexposed; determining, based on the one or more pixel values corresponding to the one or more SBP pixels, an estimated actual pixel value for the one or more pixel values corresponding to the one or more SBP pixels; determining an adjustment factor for at least one of the plurality of pixel values based on the estimated actual pixel value and a target exposure value ; based on the adjustment factor, correcting the one or more saturated pixel values ; and generating a processed image based on the estimated actual pixel value, the one or more saturated pixel values corrected with the adjustment factor, and at least a portion of the plurality of pixel values modified based on the adjustment factor.
A precursor to a thermally dissipative article, comprising: a component; a thermally dissipative pore forming coating composition deposited onto at least a portion of a surface of the component and comprising a mixture of metal powders comprising at least one of each of a high melt metal powder and a low melt metal powder, wherein the high melt metal powder is selected from superalloy and MCrAlY alloy powders, and the low melting metal powder is selected from low melting braze alloy powders, and a mixture comprising at least one soluble particulate, the at least one soluble particulate being soluble in a solvent which does not solvate the mixture of metal powders, wherein the mixture comprising at least one soluble particulate is a ceramic powder that comprises 60 to 70% Al 2 O 3 flour by weight, 15 to 25% of ZrSiO 4 flour by weight, 5 to 15% of Na 2 HPO 4 by weight, and 5% by weight of sugar and the solvent is water; at least a supplemental layer adjacent to the thermally dissipative pore forming coating composition, the supplemental layer applied to the surface of the component, and selected from one or more of a bond coat, a thermal barrier coat, and combinations of these. a component; a thermally dissipative pore forming coating composition deposited onto at least a portion of a surface of the component and comprising a mixture of metal powders comprising at least one of each of a high melt metal powder and a low melt metal powder, wherein the high melt metal powder is selected from superalloy and MCrAlY alloy powders, and the low melting metal powder is selected from low melting braze alloy powders, and a mixture comprising at least one soluble particulate, the at least one soluble particulate being soluble in a solvent which does not solvate the mixture of metal powders, wherein the mixture comprising at least one soluble particulate is a ceramic powder that comprises 60 to 70% Al 2 O 3 flour by weight, 15 to 25% of ZrSiO 4 flour by weight, 5 to 15% of Na 2 HPO 4 by weight, and 5% by weight of sugar and the solvent is water; at least a supplemental layer adjacent to the thermally dissipative pore forming coating composition, the supplemental layer applied to the surface of the component, and selected from one or more of a bond coat, a thermal barrier coat, and combinations of these.
A toaster comprising a lower unit whereon the food to be cooked is placed; an upper unit that has a horizontal position wherein the upper unit covers the lower unit and a vertical position to which the upper unit is brought by being moved from the horizontal position and wherein the upper unit is perpendicular to the lower unit ; a handle that is disposed on the upper unit and that enables the upper unit to be moved; at least one shaft that is disposed on the upper unit ; a plate that is disposed on the lower unit and that has a channel wherein the shaft is movably placed; at least one protrusion that is disposed on the shaft , and the channel has a lower housing and an upper housing being arranged one above the other in the vertical direction, the protrusion is fitted within the lower housing and the upper housing ; characterized by a lower position (P1) wherein the protrusion is fitted into the lower housing and an upper position (P2) wherein the protrusion is fitted into the upper housing after the upper unit is brought to the vertical position and then pulled upwards and changed back to the horizontal position.
A method for use in a receiving station of quantizing channel state feedback comprising: determining individual statistics for a plurality of channel tap coefficients of a communication channel between a transmitting station and the receiving station; and individually quantizing said plurality of channel tap coefficients at corresponding quantization bit rates that are determined based on said statistics of the coefficients of the corresponding channel tap to generate quantized channel tap coefficients; and transmitting said quantized channel tap coefficients from said receiving station to said transmitting station over the communication channel; wherein the individual statistics comprise the variance associated with the channel tap coefficient; characterized in that said quantization bit rates are determined in descending order of said variances. determining individual statistics for a plurality of channel tap coefficients of a communication channel between a transmitting station and the receiving station; and individually quantizing said plurality of channel tap coefficients at corresponding quantization bit rates that are determined based on said statistics of the coefficients of the corresponding channel tap to generate quantized channel tap coefficients; and transmitting said quantized channel tap coefficients from said receiving station to said transmitting station over the communication channel; wherein the individual statistics comprise the variance associated with the channel tap coefficient; characterized in that said quantization bit rates are determined in descending order of said variances.