mhurhangee/patent-ind-claim-en huggingface dataset:
Respiratory mask with an upper mask part which is produced from an elastic material, wherein the upper mask part is connected mechanically to a mask body of the respiratory mask by a mask attachment region , and a wall of the upper mask part delimits at least in part a cavity which is filled at least in part with a filling material and which is formed at least in part along the circumference of the upper mask part , and wherein the upper mask part , at the side thereof directed away from the mask body , has an inwardly formed, thin peripheral contact lip , and the upper mask part has no cavity for the filling material in the nose bridge region , wherein the filling material is a gel, and wherein the cavity is filled non-homogeneously with filling material , in such a way that regions of the filling material that are near the face are softer and more elastic than regions of the filling material that are remote from the face, the results of which are twofold, on the one hand a good support function afforded by the harder region more remote from the face, and on the other hand a high sealing function or a great flexibility in the region near the face, characterized in that the filling material has at least in part a hardness of between approximately 10 Shore 00 and approximately 20 Shore 00.
Device for the treatment of blood, comprising (a) tubes for whole blood or blood plasma to flow through from and to the patient, (b) a solid phase on which a polypeptide is immobilized which is suitable for the inactivation of free nucleic acids, and (c) a dialyzer (2; 2') or haemofilter, wherein the solid phase is upstream of the dialyzer or haemofilter or is located within the dialyzer or haemofilter. (a) tubes for whole blood or blood plasma to flow through from and to the patient, (b) a solid phase on which a polypeptide is immobilized which is suitable for the inactivation of free nucleic acids, and (c) a dialyzer (2; 2') or haemofilter,
A mold support system comprising a portal-like frame , a mold support upper part movable relative to the frame and having a first mold clamping plate , a mold support lower part having a second mold clamping plate , first locking means provided on the frame and second locking means provided on the mold support upper part for locking the mold support upper part relative to the frame in a locking position, wherein the first locking means and/or the second locking means are formed by a plurality of equally spaced locking elements (53; 63) which can be brought into engagement in different locking positions, characterized in that at least one compressed air cushion is provided for stepless fine positioning of the first mold clamping plate and/or the second mold clamping plate on the mold support upper part and/or on the mold support lower part .
A method for producing a fluoropolymer, comprising polymerizing a fluoromonomer in an aqueous medium in the presence of a polymer which - has a number average molecular weight, determined according to the method defined in the present description, of ≥ 0.3 × 10 4 , and - comprises ≥ 40 mol%, based on all polymerized units, of polymerized units derived from a monomer of formula : CX 2 =CY(-CZ 2 -O-Rf-A) wherein X each independently is H or F; Y is H, F, alkyl or fluoroalkyl; Z each independently is H, F, alkyl or fluoroalkyl; Rf is C 1-40 -fluoroalkylene or C 2-100 -fluoroalkylene having an ether bond; and A is -COOM, -SO 3 M, or -OSO 3 M, wherein M is H, a metal atom, -NR 7 4 wherein R 7 is H or an organic group, or imidazolium, pyridinium or phosphonium each optionally having a substituent, with the proviso that at least one of X, Y, and Z contains a fluorine atom. - has a number average molecular weight, determined according to the method defined in the present description, of ≥ 0.3 × 10 4 , and - comprises ≥ 40 mol%, based on all polymerized units, of polymerized units derived from a monomer of formula : CX 2 =CY(-CZ 2 -O-Rf-A) wherein X each independently is H or F; Y is H, F, alkyl or fluoroalkyl; Z each independently is H, F, alkyl or fluoroalkyl; Rf is C 1-40 -fluoroalkylene or C 2-100 -fluoroalkylene having an ether bond; and A is -COOM, -SO 3 M, or -OSO 3 M, wherein M is H, a metal atom, -NR 7 4 wherein R 7 is H or an organic group, or imidazolium, pyridinium or phosphonium each optionally having a substituent, with the proviso that at least one of X, Y, and Z contains a fluorine atom. X each independently is H or F; Y is H, F, alkyl or fluoroalkyl; Z each independently is H, F, alkyl or fluoroalkyl; Rf is C 1-40 -fluoroalkylene or C 2-100 -fluoroalkylene having an ether bond; and A is -COOM, -SO 3 M, or -OSO 3 M, wherein M is H, a metal atom, -NR 7 4 wherein R 7 is H or an organic group, or imidazolium, pyridinium or phosphonium each optionally having a substituent,
Reinforcement layer for elastomeric products, in particular for the belt bandage , where the reinforcement layer has hybrid cords as reinforcement which are arranged within the layer in essence parallel to one another and are embedded into elastomeric material, where the hybrid cords have precisely three yarns, where a first yarn of the yarns is made of polyamide and where the ends of all yarns of a hybrid cord are twisted together, characterized in that • that the three yarns are composed of the first yarn made of polyamide, a second yarn made of high-modulus low-shrinkage polyethylene terephthalate (HMLS-PET) and a third yarn, • that the third yarn is composed of the material of the first yarn or of the material of the second yarn and • that the linear density of each hybrid cord is at least 5000 dtex. • that the three yarns are composed of the first yarn made of polyamide, a second yarn made of high-modulus low-shrinkage polyethylene terephthalate (HMLS-PET) and a third yarn, • that the third yarn is composed of the material of the first yarn or of the material of the second yarn and • that the linear density of each hybrid cord is at least 5000 dtex.
A system for limiting operating speed at high temperatures in a hydraulically-driven, self-propelled, agricultural product applicator having a hydraulic system including a pump supplying pressurized hydraulic fluid to a variable-displacement hydraulic motor operatively connected for propelling the applicator , the system comprising: a temperature sensor is operatively connected for detecting a temperature of the pressurized hydraulic fluid in the hydraulic system ; and a propel controller is operatively connected to the temperature sensor and the propulsion motor and configured for limiting displacement of the propulsion motor according to a predetermined de-rated condition resulting in reduced motor speed, when a predetermined motor de-rating activation temperature limit of the hydraulic fluid is detected by the temperature sensor , characterised in that the propel controller is further configured for maintaining the propulsion motor in the de-rated condition until the temperature sensor detects that the hydraulic fluid temperature has dropped to a predetermined motor de-rating de-activation temperature that is lower than the motor de-rating activation temperature. a temperature sensor is operatively connected for detecting a temperature of the pressurized hydraulic fluid in the hydraulic system ; and a propel controller is operatively connected to the temperature sensor and the propulsion motor and configured for limiting displacement of the propulsion motor according to a predetermined de-rated condition resulting in reduced motor speed, when a predetermined motor de-rating activation temperature limit of the hydraulic fluid is detected by the temperature sensor , characterised in that the propel controller is further configured for maintaining the propulsion motor in the de-rated condition until the temperature sensor detects that the hydraulic fluid temperature has dropped to a predetermined motor de-rating de-activation temperature that is lower than the motor de-rating activation temperature.
An optical communication module for optical wavelength division multiplexing, the optical communication module comprising: three or more light devices emitting or receiving light beams having different wavelengths; a single optical fiber ; and an optical element arranged between the plurality of light devices and the single optical fiber and having three or more lens areas corresponding to the three or more light devices to converge a light beam starting from a single point, located at the endface of the single optical fiber, at a plurality of points, each point of the plurality of points corresponding to one light device , or light beams starting from the plurality of points at the single point, wherein the three or more lens areas are arranged on the circumference of a circle such that the center points of the three or more lens areas are located at the same distance from a point, and the single point and the plurality of points are located at the opposite sides with respect to the optical element, wherein the optical element comprises: a first lens located close to the plurality of points and having the three or more lens areas; and a second lens located close to the single point; characterized by a wavelength selective member having three or more filter areas for selectively transmitting a light beam having a predetermined wavelength and being disposed between the first and second lenses. three or more light devices emitting or receiving light beams having different wavelengths; a single optical fiber ; and an optical element arranged between the plurality of light devices and the single optical fiber and having three or more lens areas corresponding to the three or more light devices to converge a light beam starting from a single point, located at the endface of the single optical fiber, at a plurality of points, each point of the plurality of points corresponding to one light device , or light beams starting from the plurality of points at the single point, wherein the three or more lens areas are arranged on the circumference of a circle such that the center points of the three or more lens areas are located at the same distance from a point, and the single point and the plurality of points are located at the opposite sides with respect to the optical element, wherein the optical element comprises: a first lens located close to the plurality of points and having the three or more lens areas; and a second lens located close to the single point; characterized by a first lens located close to the plurality of points and having the three or more lens areas; and a second lens located close to the single point; characterized by a wavelength selective member having three or more filter areas for selectively transmitting a light beam having a predetermined wavelength and being disposed between the first and second lenses.
A method for predicting a turbine outlet temperature at a future use of a gas turbine based on a past use of the gas turbine , the gas turbine getting an output power by compressing air introduced by a fan and then combusting the air together with fuel, the method comprising: an outlet temperature prediction step (S305) for predicting, by a turbine outlet temperature model, the turbine outlet temperature at the future use that is an objective variable by using at least one parameter in environmental and operational conditions planned for the future use of the gas turbine and a rotating speed of the fan planned for the future use as explanatory variables; and a learning step (S13) for identifying coefficients with respect to the explanatory variables, the learning step (S13) being done every time when a given learning trigger is satisfied, wherein, in the learning step (S13), the coefficients with respect to the explanatory variables are identified based on a result of a regression learning of the explanatory variables and the objective variable of the turbine outlet temperature model that is made by using the parameter, the rotating speed of the fan and the turbine outlet temperature at the past use of the gas turbine . an outlet temperature prediction step (S305) for predicting, by a turbine outlet temperature model, the turbine outlet temperature at the future use that is an objective variable by using at least one parameter in environmental and operational conditions planned for the future use of the gas turbine and a rotating speed of the fan planned for the future use as explanatory variables; and a learning step (S13) for identifying coefficients with respect to the explanatory variables, the learning step (S13) being done every time when a given learning trigger is satisfied, wherein, in the learning step (S13), the coefficients with respect to the explanatory variables are identified based on a result of a regression learning of the explanatory variables and the objective variable of the turbine outlet temperature model that is made by using the parameter, the rotating speed of the fan and the turbine outlet temperature at the past use of the gas turbine .
A method of producing a terry fabric, comprising the steps of : blending chemo-mechanically felting fibres with non-felting fibres into a blended feed material; spinning the blended feed material into a blended yarn; characterized in that producing a terry fabric comprising the blended yarn, wherein interspaces are formed between the non-felting fibers within the blended yarn; subjecting the terry fabric to a first fabric treatment comprising a mechanical felting treatment; and subjecting the terry fabric to a second fabric treatment comprising a chemical felting treatment, the treatment comprising: treatment of the terry fabric with an alkali, wherein the ratio of weight of the alkali to dry fabric weight is between 0.02 and 0.05, thereby resulting in shrinkage of overall length of the blended yarn and a corresponding increase in the diameter of the blended yarn. blending chemo-mechanically felting fibres with non-felting fibres into a blended feed material; spinning the blended feed material into a blended yarn; characterized in that producing a terry fabric comprising the blended yarn, wherein interspaces are formed between the non-felting fibers within the blended yarn; subjecting the terry fabric to a first fabric treatment comprising a mechanical felting treatment; and subjecting the terry fabric to a second fabric treatment comprising a chemical felting treatment, the treatment comprising: treatment of the terry fabric with an alkali, wherein the ratio of weight of the alkali to dry fabric weight is between 0.02 and 0.05, thereby resulting in shrinkage of overall length of the blended yarn and a corresponding increase in the diameter of the blended yarn.
An apparatus for image display, comprising: a projection screen , wherein at least part of the projection screen is movable such that a projection face of the projection screen is capable of moving back and forth along an axis perpendicular to the projection face under control from a control unit , wherein the projection screen comprises a piezoelectric film which is capable of moving back and forth along the axis when a controlling signal from the control unit is applied thereto, and wherein the piezoelectric film comprises a Dual Piezoelectric Cooling Jet, and a surface of the piezoelectric film serves as the projection face ; a projection device configured to project an input from the control unit onto the projection face ; the control unit configured to divide an image to be projected into a set of sub-images depending on distances, of one or more objects in the image, to be perceived by a user along the axis, and to control the projection screen and the projection device such that the projection device projects the set of sub-images onto the projection face when the projection face is moving to different positions respectively; and an imaging optical element configured to form a virtual image of the respective sub-image when the projection face is moving to the corresponding position at which the respective sub-image is projected. a projection screen , wherein at least part of the projection screen is movable such that a projection face of the projection screen is capable of moving back and forth along an axis perpendicular to the projection face under control from a control unit , wherein the projection screen comprises a piezoelectric film which is capable of moving back and forth along the axis when a controlling signal from the control unit is applied thereto, and wherein the piezoelectric film comprises a Dual Piezoelectric Cooling Jet, and a surface of the piezoelectric film serves as the projection face ; a projection device configured to project an input from the control unit onto the projection face ; the control unit configured to divide an image to be projected into a set of sub-images depending on distances, of one or more objects in the image, to be perceived by a user along the axis, and to control the projection screen and the projection device such that the projection device projects the set of sub-images onto the projection face when the projection face is moving to different positions respectively; and an imaging optical element configured to form a virtual image of the respective sub-image when the projection face is moving to the corresponding position at which the respective sub-image is projected.
A developer cartridge for an image forming apparatus, comprising a cartridge box comprising a toner compartment and a toner outlet; a stirring member being rotationally supported inside the toner compartment; a developing roller being rotationally supported on the toner outlet and having an axial direction; a gear set being installed on the exterior wall of the cartridge box which receives driving force and drives the stirring member and the developing roller; a rotation member being rotationally installed on the exterior wall of the cartridge box and being provided with a clutch gear and a coaxial cam ; wherein the clutch gear comprises a small-diameter portion which is clearance-fitted with one gear tooth top of the gear set and a large-diameter portion which is interference-fitted with the gear tooth top via an elastic friction layer provided around a circumference of the large-diameter portion; a contact member being rotationally installed on the exterior wall of the cartridge box and being provided with a contact end for contacting the cam and a triggering end ; and an elastic member being installed between the cartridge box and the contact member for forcing the contact end to be in contact with the cam ; wherein the cam is a cam groove formed on an end surface of the clutch gear, and the contact end is a slider installed inside the cam groove, and the cam is in a staggered phase with the clutch gear such that the cam and the large-diameter portion of the clutch gear are not in the same phase in a direction perpendicular to the axial direction.
A method performed by a data synthesis module supporting algorithms capable of discovering patterns reflecting the relationships between state transitions for generating synthetic data records, related to states of users of an actual telecommunication network, and using a database for storing said states and datasets that capture state-based transitions, comprising the steps of: a) randomly selecting state transition family , according to the distribution of samples between the different clusters of users; b) randomly sampling the context variables according to their distribution within the chosen cluster; c) selecting the relevant Markov Chains models according to the sampled context; d) randomly selecting the initial state of the sequence according to the distribution of states; e) initializing a random walk process on the graph models and performing said random walk process on each context separately, assuming context independency; and f) for each state transition, sampling the cause condition of the current transition, based on the distributions on the selected edge of said Markov Chains models. a) randomly selecting state transition family , according to the distribution of samples between the different clusters of users; b) randomly sampling the context variables according to their distribution within the chosen cluster; c) selecting the relevant Markov Chains models according to the sampled context; d) randomly selecting the initial state of the sequence according to the distribution of states; e) initializing a random walk process on the graph models and performing said random walk process on each context separately, assuming context independency; and f) for each state transition, sampling the cause condition of the current transition, based on the distributions on the selected edge of said Markov Chains models.
A process for producing a fine wood fraction (j,k) as fuel to substitute lignite for the generation of energy in lignite combustion plants, comprising the steps of - drying an inhomogeneous bulk wood fraction (b,g) comprising fibers, grains and/or particles with different size fractions in which the distributions of the diameters and/or lengths of the fibers, grains and/or particles contained therein are subject to a random distribution, and thus are also subject to random distribution statistics, - separating the inhomogeneous bulk wood fraction (b,g) into a coarse wood fraction (h,i) and a fine wood fraction (j,k), - comminuting the coarse wood fraction (h,i), - returning the coarse wood fraction (h,i) to the separation step , - providing the fine wood fraction (j,k). - drying an inhomogeneous bulk wood fraction (b,g) comprising fibers, grains and/or particles with different size fractions in which the distributions of the diameters and/or lengths of the fibers, grains and/or particles contained therein are subject to a random distribution, and thus are also subject to random distribution statistics, - separating the inhomogeneous bulk wood fraction (b,g) into a coarse wood fraction (h,i) and a fine wood fraction (j,k), - comminuting the coarse wood fraction (h,i), - returning the coarse wood fraction (h,i) to the separation step , - providing the fine wood fraction (j,k).
System for anchoring a cable to the container of an optical splice enclosure, having: - a plinth that can be fastened to the port for entry of the cables into the container, having an axial passage for the cables, having a cylindrical perimeter having a plurality of arches , which are distributed over said cylindrical perimeter and of axis parallel to the axis of the plinth; - and at least one cable anchoring device, independent of the plinth , and able to be fastened to the plinth by mechanical cooperation with at least one arch of the plinth , characterized in that the anchoring device is constituted of a flat U-shaped anchoring support and a crossmember substantially parallel to the base of the U, this crossmember having two bent ends guided by slots in the anchoring support; and a screw for fastening the crossmember to the base of the U, so as to ensure the anchoring, each of the branches of the U bearing on the outside a catch for snap-fastening to an arch of the plinth, the anchoring support being dimensioned so as to be snap-fastened onto two diametrically opposite arches of the plinth. - a plinth that can be fastened to the port for entry of the cables into the container, having an axial passage for the cables, having a cylindrical perimeter having a plurality of arches , which are distributed over said cylindrical perimeter and of axis parallel to the axis of the plinth; - and at least one cable anchoring device, independent of the plinth , and able to be fastened to the plinth by mechanical cooperation with at least one arch of the plinth , characterized in that the anchoring device is constituted of a flat U-shaped anchoring support and a crossmember substantially parallel to the base of the U, this crossmember having two bent ends guided by slots in the anchoring support; and a screw for fastening the crossmember to the base of the U, so as to ensure the anchoring, each of the branches of the U bearing on the outside a catch for snap-fastening to an arch of the plinth, the anchoring support being dimensioned so as to be snap-fastened onto two diametrically opposite arches of the plinth.