mhurhangee/patent-ind-claim-en huggingface dataset:
A ribbed high efficiency belt , comprising: a backing layer ; a rib material layer disposed on the backing layer; a plurality of cords embedded within the rib material; and a plurality of ribs formed on a face of the belt opposite the backing layer ; wherein the coefficient of friction of the high efficiency belt is greater than or equal to 0.03 mm/N times the bending stiffness of the high efficiency belt ; wherein the thickness of the high efficiency belt is less than about 3.8 mm; characterized in that the material of the rib material layer comprises: about 30 wt.% to about 70 wt.% rubber stock; about 5 wt.% to about 30 wt.% reinforcement material; and about 5 wt.% to about 45 wt.% filler; wherein the reinforcement material comprises elongated segments and the elongated segments are aligned in parallel with one another within the rib material ; wherein the parallel aligned reinforcement material is aligned transverse to the direction of rotation of the high efficiency belt ; wherein the high efficiency belt has an anisotropic modulus of elasticity; and wherein the ratio of the modulus of elasticity in the direction in which the reinforcement material is aligned to the modulus of elasticity in the direction transverse to the direction in which the reinforcement material is aligned is in the range of from 1.1 and 5.0. a backing layer ; a rib material layer disposed on the backing layer; a plurality of cords embedded within the rib material; and a plurality of ribs formed on a face of the belt opposite the backing layer ; wherein the coefficient of friction of the high efficiency belt is greater than or equal to 0.03 mm/N times the bending stiffness of the high efficiency belt ; wherein the thickness of the high efficiency belt is less than about 3.8 mm; characterized in that the material of the rib material layer comprises: about 30 wt.% to about 70 wt.% rubber stock; about 5 wt.% to about 30 wt.% reinforcement material; and about 5 wt.% to about 45 wt.% filler; about 30 wt.% to about 70 wt.% rubber stock; about 5 wt.% to about 30 wt.% reinforcement material; and about 5 wt.% to about 45 wt.% filler; wherein the reinforcement material comprises elongated segments and the elongated segments are aligned in parallel with one another within the rib material ; wherein the parallel aligned reinforcement material is aligned transverse to the direction of rotation of the high efficiency belt ; wherein the high efficiency belt has an anisotropic modulus of elasticity; and wherein the ratio of the modulus of elasticity in the direction in which the reinforcement material is aligned to the modulus of elasticity in the direction transverse to the direction in which the reinforcement material is aligned is in the range of from 1.1 and 5.0.
A method for preparing a formulation comprising clomazone, the method comprising the steps of: (i) combining microcapsules having a polymer shell and a core comprising clomazone, a solid carrier and a sulfonated lignin or naphthalene sulphonate to form a mixture; (ii) forming granules from the resulting mixture; (iii) applying a composition comprising a sulfonated lignin or naphthalene sulphonate to coat the granules; and (iv) drying the thus coated granules. (i) combining microcapsules having a polymer shell and a core comprising clomazone, a solid carrier and a sulfonated lignin or naphthalene sulphonate to form a mixture; (ii) forming granules from the resulting mixture; (iii) applying a composition comprising a sulfonated lignin or naphthalene sulphonate to coat the granules; and (iv) drying the thus coated granules.
A computing system comprising: a keypad having keycap gaps ; and a fan characterized in that the computing system further comprises a mesh noise attenuator provided between the fan and the keycap gaps of the keypad; and wherein the mesh noise attenuator is a mesh assembly as shown in any of figures 3A, 3B, 7B, 8 or 10A. a keypad having keycap gaps ; and a fan characterized in that the computing system further comprises a mesh noise attenuator provided between the fan and the keycap gaps of the keypad; and wherein the mesh noise attenuator is a mesh assembly as shown in any of figures 3A, 3B, 7B, 8 or 10A.
Suction gripper device , comprising - a suction body which, when used as intended, is subjected to use-related wear, at least in portions, - a wear detection device for detecting a wear state of the suction body , comprising: o a magnetic field device for providing a test magnetic field , wherein the magnetic field device is designed in such a way that the provided test magnetic field changes depending on progressive use-related wear of the suction body ; o a sensor device , in particular comprising at least one magnetic field sensor , for detecting the test magnetic field . - a suction body which, when used as intended, is subjected to use-related wear, at least in portions, - a wear detection device for detecting a wear state of the suction body , comprising: o a magnetic field device for providing a test magnetic field , wherein the magnetic field device is designed in such a way that the provided test magnetic field changes depending on progressive use-related wear of the suction body ; o a sensor device , in particular comprising at least one magnetic field sensor , for detecting the test magnetic field . o a magnetic field device for providing a test magnetic field , wherein the magnetic field device is designed in such a way that the provided test magnetic field changes depending on progressive use-related wear of the suction body ; o a sensor device , in particular comprising at least one magnetic field sensor , for detecting the test magnetic field .
A composite cooling film comprising: an ultraviolet-reflective multilayer optical film that is at least 50 percent reflective of ultraviolet radiation over a majority of the wavelength range of at least 340 but less than 400 nanometers; and a reflective microporous layer secured to the ultraviolet-reflective multilayer optical film , wherein the reflective microporous layer has a continuous phase comprising a nonfluorinated organic polymer and is diffusely reflective of solar radiation over a majority the wavelength range of 400 to 2500 nanometers, inclusive, wherein the composite cooling film has an average absorbance over the wavelength range 8-13 microns of at least 0.85. an ultraviolet-reflective multilayer optical film that is at least 50 percent reflective of ultraviolet radiation over a majority of the wavelength range of at least 340 but less than 400 nanometers; and a reflective microporous layer secured to the ultraviolet-reflective multilayer optical film , wherein the reflective microporous layer has a continuous phase comprising a nonfluorinated organic polymer and is diffusely reflective of solar radiation over a majority the wavelength range of 400 to 2500 nanometers, inclusive, wherein the composite cooling film has an average absorbance over the wavelength range 8-13 microns of at least 0.85.
A battery pack, comprising: a case , comprising an accommodating cavity and a drain hole in communication with the accommodating cavity ; a battery module contained in the accommodating cavity ; and a blocking member mounted to the case and being disposed on one side of the battery module in a width direction; wherein at least a part of the blocking member is arranged between the battery module and the drain hole to block a binder for fixing the battery module from entering the drain hole ; wherein the blocking member is mounted to a wall of the case , and a notch is provided at one end of the blocking member connected to the wall , the notch penetrates the blocking member along a thickness direction of the blocking member ; the notch is configured to enable that liquid within the accommodating cavity flows into the drain hole via the notch ; wherein the blocking member comprises: a first blocking portion fixedly connected to the case ; a second blocking portion located on one side of the first blocking portion away from the battery module , and fixedly connected to the case ; wherein the drain hole is located between the first blocking portion and the second blocking portion , and at least one of the first blocking portion and the second blocking portion is provided with the notch . a case , comprising an accommodating cavity and a drain hole in communication with the accommodating cavity ; a battery module contained in the accommodating cavity ; and a blocking member mounted to the case and being disposed on one side of the battery module in a width direction; wherein at least a part of the blocking member is arranged between the battery module and the drain hole to block a binder for fixing the battery module from entering the drain hole ; wherein the blocking member is mounted to a wall of the case , and a notch is provided at one end of the blocking member connected to the wall , the notch penetrates the blocking member along a thickness direction of the blocking member ; the notch is configured to enable that liquid within the accommodating cavity flows into the drain hole via the notch ; wherein the blocking member comprises: a first blocking portion fixedly connected to the case ; a second blocking portion located on one side of the first blocking portion away from the battery module , and fixedly connected to the case ; wherein the drain hole is located between the first blocking portion and the second blocking portion , and at least one of the first blocking portion and the second blocking portion is provided with the notch . a first blocking portion fixedly connected to the case ; a second blocking portion located on one side of the first blocking portion away from the battery module , and fixedly connected to the case ; wherein the drain hole is located between the first blocking portion and the second blocking portion , and at least one of the first blocking portion and the second blocking portion is provided with the notch .
An image pickup optical system consisting of, in this order from an object side to an image side, a first lens unit (FL) having negative refractive power, an aperture stop (SP), and a second lens unit (RL) having a positive refractive power, wherein the first lens unit includes at least three negative lenses including in order from the object side to the image side, a first negative lens (G1N), a second negative lens (G2N), and a third negative lens (G3N), wherein at least one lens surface of the first negative lens (G1N), the second negative lens (G2N), and the third negative lens (G3N) is an aspherical surface, and characterized in that the following conditional inequalities are satisfied: 0.700 < Rb/Rr < 0.994 , 0.80 < L1S/f2 < 1.20 , and 0.45 < SK/f2 < 0.65 , where Rb is a radius of curvature of a paraxial spherical surface of the aspherical surface, Rr is a distance between a center of curvature of the paraxial spherical surface of the aspherical surface and the aspherical surface in a direction of a half-open angle of 50 degrees about the center of curvature with respect to an optical axis, L1S is a distance from a vertex of a lens surface closest to an object in the first lens unit to the aperture stop, f2 is a focal length of the second lens unit, and SK is a back focus of the image pickup optical system. wherein the first lens unit includes at least three negative lenses including in order from the object side to the image side, a first negative lens (G1N), a second negative lens (G2N), and a third negative lens (G3N), wherein at least one lens surface of the first negative lens (G1N), the second negative lens (G2N), and the third negative lens (G3N) is an aspherical surface, and characterized in that the following conditional inequalities are satisfied: 0.700 < Rb/Rr < 0.994 , 0.80 < L1S/f2 < 1.20 , and 0.45 < SK/f2 < 0.65 ,
An adhesive composition to be used to construct optical elements used in head-mounted displays, comprising: an aliphatic urethane (meth)acrylate; a thickener and a spacer, wherein the spacer has a D50 particle diameter in a range of 10 μm to 200 μm, wherein the viscosity of the adhesive composition is 200,000 cP or more, the viscosity being measured at room temperature and measured at a shear rate of 0.1 sec -1 , wherein the viscosity of the adhesive composition is measured using a 25 mm aluminum cone and plate at room temperature (25°C) and the shear rate of 0.1/s under a cell gap condition of 0.1mm using ARES G2, a viscometer of TA instruments, and wherein the D50 particle diameter refers to the median diameter at a volume-based cumulative value of 50% in a particle size distribution measured by a laser diffraction method. an aliphatic urethane (meth)acrylate; a thickener and a spacer, wherein the spacer has a D50 particle diameter in a range of 10 μm to 200 μm, wherein the viscosity of the adhesive composition is 200,000 cP or more, the viscosity being measured at room temperature and measured at a shear rate of 0.1 sec -1 , wherein the viscosity of the adhesive composition is measured using a 25 mm aluminum cone and plate at room temperature (25°C) and the shear rate of 0.1/s under a cell gap condition of 0.1mm using ARES G2, a viscometer of TA instruments, and wherein the D50 particle diameter refers to the median diameter at a volume-based cumulative value of 50% in a particle size distribution measured by a laser diffraction method.
A method for producing muconic acid and furan chemicals from aldaric acid, characterized in that the method comprises selective catalytic dehydroxylation of the aldaric acid by heating the aldaric acid with a solvent, selected from methanol, ethanol or butanol, and hydrogen reductant in a pressurized container to temperatures between 90 and 300 °C in the presence of a transition metal catalyst, selected from rhenium, palladium, vanadium and molybdenum catalysts, for a pre-determined reaction time and purifying the resulting product(s), wherein the catalysis is directed towards compounds having structural formulas II, III, VIII and IX by using catalytic temperatures between 90 and 150 °C: and towards compounds having structural formulas IV-VII by using catalytic temperatures between 150 and 300 °C:
A bearing comprising an electrically conductive sleeve and a self-lubricating liner wherein: the electrically conductive sleeve comprises a first portion and a second portion, the first portion and the second portion having respectively an inner surface and an outer surface ; the self-lubricating liner extends over the inner surface of the first portion of the electrically conductive sleeve to define a first tubular volume , the first tubular volume having a first diameter (A) and a first longitudinal axis; and the inner surface of the second portion of the electrically conductive sleeve defines a second tubular volume , wherein when the bearing is in use, the second tubular volume has the same diameter and the same longitudinal axis as the first tubular volume ; characterised in that , when the bearing is in use, the outer surface of the first portion of the electrically conductive sleeve radially extends further from the first longitudinal axis than the outer surface of the second portion of the electrically conductive sleeve. the electrically conductive sleeve comprises a first portion and a second portion, the first portion and the second portion having respectively an inner surface and an outer surface ; the self-lubricating liner extends over the inner surface of the first portion of the electrically conductive sleeve to define a first tubular volume , the first tubular volume having a first diameter (A) and a first longitudinal axis; and the inner surface of the second portion of the electrically conductive sleeve defines a second tubular volume , wherein when the bearing is in use, the second tubular volume has the same diameter and the same longitudinal axis as the first tubular volume ; characterised in that , when the bearing is in use, the outer surface of the first portion of the electrically conductive sleeve radially extends further from the first longitudinal axis than the outer surface of the second portion of the electrically conductive sleeve.
An implantable medical device, comprising: a housing having a proximal end and a distal end ; a pulse generator enclosed by the housing; a sensing module enclosed by the housing for sensing cardiac electrical signals; a housing-based cathode electrode electrically coupled to the pulse generator and to the sensing module; a sensing extension extending from the housing proximal end and comprising: an anode electrode electrically coupled to the sensing module configured to sense cardiac electrical signals in a sensing vector comprising the housing-based cathode electrode; and a flotation member configured to be at least neutrally buoyant in blood and to cause the sensing extension to extend away from the housing along a direction of flowing blood when the implantable medical device is deployed within a cardiovascular system of a patient. a housing having a proximal end and a distal end ; a pulse generator enclosed by the housing; a sensing module enclosed by the housing for sensing cardiac electrical signals; a housing-based cathode electrode electrically coupled to the pulse generator and to the sensing module; a sensing extension extending from the housing proximal end and comprising: an anode electrode electrically coupled to the sensing module configured to sense cardiac electrical signals in a sensing vector comprising the housing-based cathode electrode; and a flotation member configured to be at least neutrally buoyant in blood and to cause the sensing extension to extend away from the housing along a direction of flowing blood when the implantable medical device is deployed within a cardiovascular system of a patient. an anode electrode electrically coupled to the sensing module configured to sense cardiac electrical signals in a sensing vector comprising the housing-based cathode electrode; and a flotation member configured to be at least neutrally buoyant in blood and to cause the sensing extension to extend away from the housing along a direction of flowing blood when the implantable medical device is deployed within a cardiovascular system of a patient.
Laundry care appliance with an outer tub for receiving washing liquor, a laundry drum arranged in the outer tub for receiving laundry and a deodorising device connected fluidically to the outer tub for deodorising the laundry , wherein the deodorising device has an ozone generation element for generating ozone and a mist generation device for generating a fog, wherein the mist generation device has a fluid container for receiving fluid, and wherein the fluid container has a supply valve for supplying liquid into the fluid container and a discharge valve for discharging the liquid out of the fluid container , and the laundry care appliance has a controller for controlling the supply valve and the discharge valve , characterised in that the deodorising device has a foam detection device for detecting foam in the fluid container , wherein the foam detection device comprises an electric measuring element , which is in contact with fluid in the fluid container , wherein the electric measuring element is embodied to detect an electric measured value of the fluid in the fluid container , wherein the foam detection device is embodied to compare the detected electric measured value with an electric reference measured value, and by means of the comparison between the electric measured value and the electric reference measured value to determine whether foam is present in the fluid container , the controller is embodied, in a first time segment, to close the supply valve and to open the discharge valve , so that liquid is discharged out of the fluid container , wherein the electric measuring element is not in contact with the liquid in the fluid container in order to detect an electric reference measured value, the electric measuring element is embodied to detect an electric measured value of fluid in the fluid container in a second time segment adjoining the first time segment and the foam detection device is embodied, in the second time segment, by means of a comparison between the electric measured value and the electric reference measured value, to determine whether foam is present in the fluid container .
A controller system , comprising: a control apparatus , adapted to execute a control program for realizing a control arithmetic operation for controlling a control target, wherein the control target comprises at least one slave connected to the control apparatus , wherein the control apparatus is adapted to exert control in at least one action state of multiple action states; and a security monitoring device , adapted to execute a security protection process which is adapted to detect a security event which is possible to occur in the controller system and which is adapted to execute a process in correspondence with the detected security event, wherein the controller system is characterized in that execution contents of the security protection process performed by the security monitoring device are determined in accordance with an action state of the control apparatus and a notification issued by the control arithmetic operation by the control apparatus , wherein the notification issued by the control arithmetic operation comprises a notification of an abnormality generated in the control target, and in a case with the notification of the abnormality, the security monitoring device is adapted to enable communication between the control apparatus and a superordinate apparatus of the control apparatus . a control apparatus , adapted to execute a control program for realizing a control arithmetic operation for controlling a control target, wherein the control target comprises at least one slave connected to the control apparatus , wherein the control apparatus is adapted to exert control in at least one action state of multiple action states; and a security monitoring device , adapted to execute a security protection process which is adapted to detect a security event which is possible to occur in the controller system and which is adapted to execute a process in correspondence with the detected security event, wherein the controller system is characterized in that execution contents of the security protection process performed by the security monitoring device are determined in accordance with an action state of the control apparatus and a notification issued by the control arithmetic operation by the control apparatus , wherein the notification issued by the control arithmetic operation comprises a notification of an abnormality generated in the control target, and in a case with the notification of the abnormality, the security monitoring device is adapted to enable communication between the control apparatus and a superordinate apparatus of the control apparatus .