mhurhangee/patent-ind-claim-en huggingface dataset:
Drive device for a hybrid-driven motor vehicle, with an internal combustion engine (VKM) as primary drive, an electric motor (EM) as secondary drive and with two planetary gears (PG1, PG2) coupled to one another which can be shifted by couplings and brakes into different transmission ratios, which planetary gears are connected via input element and output element to a common output drive shaft and reaction elements of which can be coupled or braked, wherein the drive device can be operated in an electric-motor mode, a combustion engine mode having transmission ratios (V1 to V6) or in a hybrid mode, wherein in the combustion engine mode up to six transmission ratios (V1 to V6) can be shifted, and an infinitely variable drive (CVT1, CVT2) can be controlled by means of the electric motor (EM) by generative or motor superpositioning in the planetary gears (PG1, PG2) at least in two of the transmission ratios (V3, V5), wherein the combustion engine (VKM) is drive connected via a first input shaft and a first spur gear drive (St1) to the two axially parallel mounted, coupled planetary gears (PG1, PG2) and the electric motor (EM) is drive connected via a second axially parallel input shaft to the planetary gears (PG1, PG2), wherein the output elements are shifted as bridges of the planetary gear (PG1, PG2) to the common output drive shaft , wherein the output drive shaft is connected indirectly or directly securely to the two bridges as output elements of the planetary gear (PG1, PG2), wherein an outer gear of a second planetary gear (PG2) of the two planetary gears (PG1, PG2) is coupled directly via a second spur gear drive (St2) to the input shaft of the combustion engine (VKM), and wherein the outer gear of a first planetary gear (PG1) of the two planetary gears (PG1, PG2) can be set by a brake (B1), characterised in that six forwards gears (V1 to V6) can be shifted in combustion engine mode and three forwards gears (E1 to E3) can be shifted in electric motor mode via first to third couplings (K1, K2, K3) and the brake (B1), in that a sun gear of the second planetary gear (PG2) can be coupled to an outer gear of the first planetary gear (PG1) via the first coupling (K1), and in that the outer gear of the first planetary gear (PG1) can be coupled via the third coupling (K3) to the first spur gear drive (St1).
A method of manufacturing footwear, said footwear comprising at least two footwear parts, e.g. shoe parts, which footwear parts are at least partly connected together by stitching for forming at least part of an upper part of said footwear, said method comprising - providing a base layer , - providing a fixture frame for said base layer , - arranging the base layer to be held by said fixture frame , - providing said at least two footwear parts and positioning said at least two footwear parts on said base layer , - fixating said at least two footwear parts on said base layer in respective relative positions corresponding to predefined connected positions, - connecting said at least two footwear parts with each other by an automated stitching, wherein the automated stitching includes stitching at least part of one of said at least two footwear parts to the base layer , and - further processing the at least two footwear parts in connected form to provide said footwear. - providing a base layer , - providing a fixture frame for said base layer , - arranging the base layer to be held by said fixture frame , - providing said at least two footwear parts and positioning said at least two footwear parts on said base layer , - fixating said at least two footwear parts on said base layer in respective relative positions corresponding to predefined connected positions, - connecting said at least two footwear parts with each other by an automated stitching, wherein the automated stitching includes stitching at least part of one of said at least two footwear parts to the base layer , and - further processing the at least two footwear parts in connected form to provide said footwear.
A wireless environment evaluation method evaluating a wireless environment of a wireless communication system, which is in an exposed situation in reception in which a normal reception rate of a prescribed wireless station decreases due to hidden wireless stations, in which a plurality of wireless stations share a same wireless channel and perform wireless communication using CSMA/CA (Carrier Sense Multiple Access/Collision Avoidance) method, the wireless environment evaluation method, characterized by ,: a step 1 acquiring a transmission and reception history of wireless signals transmitted and received between the plurality of wireless stations, and acquiring or estimating a number of wireless stations in transmission standby, based on the transmission and reception history; a step 2 calculating a normal reception rate S in a congesting situation in reception according to the number of wireless stations in transmission standby; a step 3 acquiring a normal reception rate S' of the wireless signals per a fixed channel use time, from the transmission and reception history in the prescribed wireless station; and a step 4 evaluating a degree of the exposed situation in reception according to a ratio of the normal reception rate S' to the normal reception rate S. a step 1 acquiring a transmission and reception history of wireless signals transmitted and received between the plurality of wireless stations, and acquiring or estimating a number of wireless stations in transmission standby, based on the transmission and reception history; a step 2 calculating a normal reception rate S in a congesting situation in reception according to the number of wireless stations in transmission standby; a step 3 acquiring a normal reception rate S' of the wireless signals per a fixed channel use time, from the transmission and reception history in the prescribed wireless station; and a step 4 evaluating a degree of the exposed situation in reception according to a ratio of the normal reception rate S' to the normal reception rate S.
A method of controlling operation of electroplating apparatus, comprising: generating, from a target electroplating process, an output electrical control signal schedule of target output electrical control signal values and corresponding durations; operating an alternating current (AC) to direct current (DC) power block to generate a DC voltage according to the output control schedule in at least two modes, wherein in a high mode of operation, the AC-to-DC power block directly provides the output electrical control signal to an electroplating channel; and in a low mode of operation, the AC-to-DC power block provides a headroom voltage signal to bias a low range controller transistor stage, and wherein the low range control transistor acts as a post-regulator to control the output electrical control signal to the electroplating channel; and adjusting the headroom voltage to control abrupt variations in the output electrical control signal during transition from the low mode of operation to the high mode of operation and to minimize power consumption in the low range control transistor. generating, from a target electroplating process, an output electrical control signal schedule of target output electrical control signal values and corresponding durations; operating an alternating current (AC) to direct current (DC) power block to generate a DC voltage according to the output control schedule in at least two modes, wherein in a high mode of operation, the AC-to-DC power block directly provides the output electrical control signal to an electroplating channel; and in a low mode of operation, the AC-to-DC power block provides a headroom voltage signal to bias a low range controller transistor stage, and wherein the low range control transistor acts as a post-regulator to control the output electrical control signal to the electroplating channel; and adjusting the headroom voltage to control abrupt variations in the output electrical control signal during transition from the low mode of operation to the high mode of operation and to minimize power consumption in the low range control transistor.
Polymer composition for the production of thermoformed articles comprising, with respect to the sum of components i.-iv.: i) 20 - 60 % by weight of at least one polyester i. comprising: a) a dicarboxylic component comprising with respect to the total dicarboxylic component: a1) 0 - 20% in moles of units deriving from at least one aromatic dicarboxylic acid, a2) 80 - 100% in moles of units deriving from at least one saturated aliphatic dicarboxylic acid, a3) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic dicarboxylic acid; b) a diol component comprising, with respect to the total diol component: b1) 95 - 100% in moles of units deriving from at least one saturated aliphatic diol; b2) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic diol; ii) 5 - 35 % by weight of at least one polyhydroxyalkanoate ii.; iii) 0.01 - 5% by weight of at least one hydrolysis stabilizer comprising at least one compound having di- and/or multiple functional groups comprising carbodiimide groups; iv) 5 - 50% by weight of at least one filler agent. i) 20 - 60 % by weight of at least one polyester i. comprising: a) a dicarboxylic component comprising with respect to the total dicarboxylic component: a1) 0 - 20% in moles of units deriving from at least one aromatic dicarboxylic acid, a2) 80 - 100% in moles of units deriving from at least one saturated aliphatic dicarboxylic acid, a3) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic dicarboxylic acid; b) a diol component comprising, with respect to the total diol component: b1) 95 - 100% in moles of units deriving from at least one saturated aliphatic diol; b2) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic diol; a) a dicarboxylic component comprising with respect to the total dicarboxylic component: a1) 0 - 20% in moles of units deriving from at least one aromatic dicarboxylic acid, a2) 80 - 100% in moles of units deriving from at least one saturated aliphatic dicarboxylic acid, a3) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic dicarboxylic acid; a1) 0 - 20% in moles of units deriving from at least one aromatic dicarboxylic acid, a2) 80 - 100% in moles of units deriving from at least one saturated aliphatic dicarboxylic acid, a3) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic dicarboxylic acid; b) a diol component comprising, with respect to the total diol component: b1) 95 - 100% in moles of units deriving from at least one saturated aliphatic diol; b2) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic diol; b1) 95 - 100% in moles of units deriving from at least one saturated aliphatic diol; b2) 0 - 5% in moles of units deriving from at least one unsaturated aliphatic diol; ii) 5 - 35 % by weight of at least one polyhydroxyalkanoate ii.; iii) 0.01 - 5% by weight of at least one hydrolysis stabilizer comprising at least one compound having di- and/or multiple functional groups comprising carbodiimide groups; iv) 5 - 50% by weight of at least one filler agent.
A method for cutting, in a non-through manner, a body of a thruster of an aerospace vehicle, using water jets, said cutting being made along a cutting path describing a closed loop circuit, characterized in that the method comprises a plurality of passes of a high-pressure water jet along the same cutting path extending across the external perimeter of the thruster body, each water jet passage starting from a starting point located on the cutting path and stopping just after returning on the starting location, characterized in that the starting point of each high-pressure water jet pass is different from the starting points of the other water jet passes.
A system for cooling a tower of a wind turbine, the system comprising: the tower of the wind turbine, at least one cooling fluid inlet for receiving a cooling fluid into the tower, the at least one cooling fluid inlet arranged in a tower wall of the tower of the wind turbine; and the at least one cooling fluid inlet comprising at least one opening defined by a tower door and an intake plenum coupled to an inner face of the tower door and surrounding the at least one opening defined by the tower door; at least one platform positioned within the tower at a predetermined height above a foundation of the wind turbine, configured to create a space within the tower between the platform and the foundation to provide a location for the installation of a filtration assembly ; said filtration assembly arranged within the tower, the filtration assembly comprising a plurality of flow guiding structures that define a plurality of flow paths for providing a plurality of flow direction changes and/or flow velocity changes to the cooling fluid; and, at least one cooling fluid outlet for directing the filtered cooling fluid within the tower; wherein the filtration assembly is positioned between the at least one platform and the foundation of the wind turbine; and wherein the plurality of flow guiding structures define a plurality of 180-degree turns for the cooling fluid configured to slow the cooling fluid and configured to allow one or more particles in the cooling fluid to settle out. the tower of the wind turbine, at least one cooling fluid inlet for receiving a cooling fluid into the tower, the at least one cooling fluid inlet arranged in a tower wall of the tower of the wind turbine; and the at least one cooling fluid inlet comprising at least one opening defined by a tower door and an intake plenum coupled to an inner face of the tower door and surrounding the at least one opening defined by the tower door; at least one platform positioned within the tower at a predetermined height above a foundation of the wind turbine, configured to create a space within the tower between the platform and the foundation to provide a location for the installation of a filtration assembly ; said filtration assembly arranged within the tower, the filtration assembly comprising a plurality of flow guiding structures that define a plurality of flow paths for providing a plurality of flow direction changes and/or flow velocity changes to the cooling fluid; and, at least one cooling fluid outlet for directing the filtered cooling fluid within the tower; wherein the filtration assembly is positioned between the at least one platform and the foundation of the wind turbine; and wherein the plurality of flow guiding structures define a plurality of 180-degree turns for the cooling fluid configured to slow the cooling fluid and configured to allow one or more particles in the cooling fluid to settle out.
A process of controlling broadleaved weeds selected from the family Euphorbiaceae, Portulacaceae and Commelinaceae comprising applying an herbicidally effective amount of a combination comprising glufosinate, its agriculturally acceptable salts, isomers, or esters thereof; and haloxyfop, its agriculturally acceptable salts, isomers, or esters thereof, preferably wherein the combination is in the form of a composition.
Information processing system (TS) comprising: - a set of information processing devices which form a plurality of electrical circuits (Cl, C2, C3 ... Cn) powered by a power source (S), - cooling means (MR) which are arranged near at least part of said electrical circuits and comprise pipes for conveying heat-transport liquid; - at least one Stirling engine, the cooling means (MR) of which form a heat source, and which engine produces a mechanical movement (Mvt) from a temperature differential (AT) between said heat source and a cold source (SF); and - a generator (G) which provides an electric current (iG) from said mechanical movement, characterized in that said pipes of said cooling means (MR) have two separate pipe circuits: a primary circuit which is near to or in direct contact with said electrical circuits, and a secondary circuit which is in contact with, or near to, said primary circuit and recovers the heat stored by said primary circuit; in that said heat source (SC) consists of said primary circuit before contact with said secondary circuit, and said cold source (SF) consists of said primary circuit after contact with said secondary circuit; and in that said generator reintroduces the current which is supplied in parallel with the power source (S). - a set of information processing devices which form a plurality of electrical circuits (Cl, C2, C3 ... Cn) powered by a power source (S), - cooling means (MR) which are arranged near at least part of said electrical circuits and comprise pipes for conveying heat-transport liquid; - at least one Stirling engine, the cooling means (MR) of which form a heat source, and which engine produces a mechanical movement (Mvt) from a temperature differential (AT) between said heat source and a cold source (SF); and - a generator (G) which provides an electric current (iG) from said mechanical movement, said pipes of said cooling means (MR) have two separate pipe circuits: a primary circuit which is near to or in direct contact with said electrical circuits, and a secondary circuit which is in contact with, or near to, said primary circuit and recovers the heat stored by said primary circuit; in that said heat source (SC) consists of said primary circuit before contact with said secondary circuit, and said cold source (SF) consists of said primary circuit after contact with said secondary circuit; and in that said generator reintroduces the current which is supplied in parallel with the power source (S).
A method for managing media asset access timing conflicts with a user equipment device, the method comprising: generating a media guide display that includes at least some of a plurality of media asset listings and a time bar; identifying a first portion of the time bar that represents a first time interval during which media assets, for which a respective media guidance function has been assigned, are scheduled for transmission, wherein the media assets correspond to a portion of the plurality of media asset listings and wherein the media guidance function assigned to a first of the media assets is a scheduled recording, a reminder for the first media asset, or a recommendation to a user to access the first media asset; identifying a second portion, within the first portion of the time bar, that represents a second time interval during which the scheduled transmission times of the media assets overlap; generating, for display in the first portion, a first indicator to represent the first time interval during which the media assets, to which the media guidance function has been assigned, are scheduled for transmission; and generating, for display in the second portion, a second indicator to represent the second time interval during which the scheduled transmission times of the media assets overlap; receiving a first user input selecting the second portion of the time bar; generating, for display, a prompt identifying the media assets for which the overlap in scheduled transmission times has been identified; and receiving a second user input changing the media guidance function assigned to one of the identified media assets. generating a media guide display that includes at least some of a plurality of media asset listings and a time bar; identifying a first portion of the time bar that represents a first time interval during which media assets, for which a respective media guidance function has been assigned, are scheduled for transmission, wherein the media assets correspond to a portion of the plurality of media asset listings and wherein the media guidance function assigned to a first of the media assets is a scheduled recording, a reminder for the first media asset, or a recommendation to a user to access the first media asset; identifying a second portion, within the first portion of the time bar, that represents a second time interval during which the scheduled transmission times of the media assets overlap; generating, for display in the first portion, a first indicator to represent the first time interval during which the media assets, to which the media guidance function has been assigned, are scheduled for transmission; and generating, for display in the second portion, a second indicator to represent the second time interval during which the scheduled transmission times of the media assets overlap; receiving a first user input selecting the second portion of the time bar; generating, for display, a prompt identifying the media assets for which the overlap in scheduled transmission times has been identified; and receiving a second user input changing the media guidance function assigned to one of the identified media assets.
An fuse molded modeling three dimensional article having areas of dissimilar or different hardness, wherein one of said areas is hard and is plastic, metal, glass, wood, concrete, rock, or mixtures thereof, and another of said areas is a flexible material less hard than said hard area, wherein said flexible material comprises a controlled distribution hydrogenated styrenic block copolymer obtained by copolymerization of two monomers in a polymerization process wherein each of the monomers is incorporated into the polymer at the same rate, and a thermoplastic elastomer.
A truck cab , comprising: a truck cab housing comprising a truck cab interior ; a convertible seat assembly comprising: a base member having a substantially flat upper surface , the base member fixed with respect to the truck cab interior ; a back member having a first side with a substantially flat surface and a second side , the back member rotatably coupled to the base member for movement between a sleeping configuration and a seating configuration; and a seat member coupled to the second side of the back member ; wherein the substantially flat surface of the first side of the back member in the sleeping configuration and the substantially flat upper surface of the base member form a substantially flat horizontal sleeping surface , wherein the seat member in the seating configuration forms a seating region , and characterised in that the truck cab interior further comprises a dashboard support member supporting the back member in the sleeping configuration. a truck cab housing comprising a truck cab interior ; a convertible seat assembly comprising: a base member having a substantially flat upper surface , the base member fixed with respect to the truck cab interior ; a back member having a first side with a substantially flat surface and a second side , the back member rotatably coupled to the base member for movement between a sleeping configuration and a seating configuration; and a seat member coupled to the second side of the back member ; wherein the substantially flat surface of the first side of the back member in the sleeping configuration and the substantially flat upper surface of the base member form a substantially flat horizontal sleeping surface , wherein the seat member in the seating configuration forms a seating region , and a base member having a substantially flat upper surface , the base member fixed with respect to the truck cab interior ; a back member having a first side with a substantially flat surface and a second side , the back member rotatably coupled to the base member for movement between a sleeping configuration and a seating configuration; and a seat member coupled to the second side of the back member ; wherein the substantially flat surface of the first side of the back member in the sleeping configuration and the substantially flat upper surface of the base member form a substantially flat horizontal sleeping surface , wherein the seat member in the seating configuration forms a seating region , and characterised in that the truck cab interior further comprises a dashboard support member supporting the back member in the sleeping configuration.