mhurhangee/ep-ind-claims huggingface dataset:
A method for operating a work vehicle in an automatic speed control mode, the method comprising: - receiving an input associated with a desired ground speed of the work vehicle; - determining with a controller to implement a gear change and an engine rpm (erpm) change in order to maintain the work vehicle at the desired ground speed, wherein the gear change includes a gear prep phase and a ratio change phase; - controlling a timing parameter of at least one of the gear change or the erpm change such that the ratio change phase and the erpm change occur substantially simultaneously; and characterized in that controlling a timing parameter of at least one of the gear change or the erpm change such that the ratio change phase and the erpm change occur substantially simultaneously comprises setting an initial erpm change rate for the erpm change based on the ratio change rate for the ratio change phase. - receiving an input associated with a desired ground speed of the work vehicle; - determining with a controller to implement a gear change and an engine rpm (erpm) change in order to maintain the work vehicle at the desired ground speed, wherein the gear change includes a gear prep phase and a ratio change phase; - controlling a timing parameter of at least one of the gear change or the erpm change such that the ratio change phase and the erpm change occur substantially simultaneously; and
Robot gripper, having a main gripper body, a base link, which is mounted to be rotatable by means of a first rotational joint (15.1) about a first rotational axis relative to the main gripper body, and an intermediate link, which is mounted to be rotatable by means of a second rotational joint (15.2) relative to the base link, namely about a second rotational axis, which is aligned to be parallel to the first rotational axis and is arranged at a constant first distance from the first rotational axis, further comprising a finger support which supports a first gripper finger (16.1) and which is mounted to be rotatable by means of a third rotational joint (15.3) relative to the intermediate link, namely about a third rotational axis, which is aligned to be parallel both to the first rotational axis and also to the second rotational axis and is arranged at a constant second distance from the second rotational axis, which second distance has the same length as the first distance, wherein - the first rotational joint (15.1) is coupled by a first coupling device (20.1) to the second rotational joint (15.2) with a set first transmission ratio of 1 to minus 2 and the second rotational joint (15.2) is coupled by a second coupling device (20.2) to the third rotational joint (15.3) with a set second transmission ratio of 2 to minus 1 and - the robot gripper has a drive motor moving the first gripper finger (16.1), which drive motor is designed to move the first gripper finger (16.1) with a simultaneous adjustment of the first rotational joint (15.1), the second rotational joint (15.2) and the third rotational joint (15.3), characterised in that the first rotational joint (15.1), the second rotational joint (15.2) and the third rotational joint (15.3) together with the first coupling device (20.1) and the second coupling device (20.2) form a drive train, which is designed, driven by the drive motor, to move the first gripper finger (16.1) on a straight path, without the orientation of the first gripper finger (16.1) changing. - the first rotational joint (15.1) is coupled by a first coupling device (20.1) to the second rotational joint (15.2) with a set first transmission ratio of 1 to minus 2 and the second rotational joint (15.2) is coupled by a second coupling device (20.2) to the third rotational joint (15.3) with a set second transmission ratio of 2 to minus 1 and - the robot gripper has a drive motor moving the first gripper finger (16.1), which drive motor is designed to move the first gripper finger (16.1) with a simultaneous adjustment of the first rotational joint (15.1), the second rotational joint (15.2) and the third rotational joint (15.3), characterised in that the first rotational joint (15.1), the second rotational joint (15.2) and the third rotational joint (15.3) together with the first coupling device (20.1) and the second coupling device (20.2) form a drive train, which is designed, driven by the drive motor, to move the first gripper finger (16.1) on a straight path, without the orientation of the first gripper finger (16.1) changing.
Safety brake for a lifting gear, wherein a brake-locking gear element is connected to at least one drive of the lifting gear, and wherein a locking pawl for meshing with a pawl clearance of the brake-locking gear element in case of an impermissible lowering speed of the lifting gear is provided, blocking the brake-locking gear element, wherein an actuator for activating the locking pawl is provided, characterized in that the locking pawl and the actuator are configured and disposed in such a manner that in a non-energized state of the actuator the locking pawl bears on the brake-locking gear element or engages in the pawl clearance of the brake-locking gear element, and that in an energized state of the actuator the locking pawl detaches from the brake-locking gear element or disengages from the pawl clearance and releases the brake-locking gear element, that an electronic or numeric controller is provided for controlling the drive and for activating the actuator, wherein the controller is specified for monitoring a lowering speed of the lifting gear and, in the event of a permissible lowering speed being exceeded, switching the actuator to the non-energized state is provided, and that at least two sensors (S1, S2) which are linked to the controller are provided for determining an operating state of the locking pawl, wherein by means of the sensors (S1, S2) differentiation may be made in terms of the operating state at least between the detached state, the bearing state, and the engaged completely in the pawl clearance state.
A data route selection method, wherein the method comprises: when information about an application matches a traffic descriptor, determining, by a terminal, a first route selection components, RSC, for the application; and routing, by the terminal, traffic of the application on a first protocol data unit, PDU, session, wherein the first PDU session matches the first RSC; wherein the traffic descriptor is contained in a UE route selection policy, URSP, rule, and the URSP rule comprises the first RSC; wherein the first RSC satisfies a first condition, and the first condition comprises: when the first RSC comprises a data network name, DNN, and the DNN is a DNN of a local access data network, LADN, the UE is in a service area of the LADN; and when the first RSC comprises at least one single network slice selection assistance information, S-NSSAI, the S-NSSAI belongs to allowed network slice selection assistance information, allowed NSSAI. when information about an application matches a traffic descriptor, determining, by a terminal, a first route selection components, RSC, for the application; and routing, by the terminal, traffic of the application on a first protocol data unit, PDU, session, wherein the first PDU session matches the first RSC; wherein the traffic descriptor is contained in a UE route selection policy, URSP, rule, and the URSP rule comprises the first RSC; wherein the first RSC satisfies a first condition, and the first condition comprises: when the first RSC comprises a data network name, DNN, and the DNN is a DNN of a local access data network, LADN, the UE is in a service area of the LADN; and when the first RSC comprises at least one single network slice selection assistance information, S-NSSAI, the S-NSSAI belongs to allowed network slice selection assistance information, allowed NSSAI. when the first RSC comprises a data network name, DNN, and the DNN is a DNN of a local access data network, LADN, the UE is in a service area of the LADN; and when the first RSC comprises at least one single network slice selection assistance information, S-NSSAI, the S-NSSAI belongs to allowed network slice selection assistance information, allowed NSSAI.
E-axle gearbox, suitable for driving a vehicle forwards and in reverse, having a housing, which is formed from housing halves situated next to each other along a separating joint, having a differential gearbox, wherein a collecting device for a lubricating medium is provided inside the housing, which collecting device can be filled with the lubricating medium in the two rotation directions (38, 40) of the E-axle gearbox, which are for forward travel and for reverse travel, when the E-axle gearbox drives a vehicle, wherein the collecting device has a flat or a tub-like bottom part, wherein the flat or tub-like bottom part is designed in a manner divided or interrupted by a web part and comprises a first part (50.1) and a second part (50.2), wherein the E-axle gearbox is configured to fill the first part (50.1) of the flat or tub-like bottom part via a first lubricating medium conveying path in the rotation direction of the E-axle gearbox for forward travel, and wherein the E-axle gearbox is configured to fill the second part (50.2) of the flat or tub-like bottom part via a second lubricating medium conveying path in the rotation direction of the E-axle gearbox for reverse travel, characterized in that the collecting device is incorporated in a pocket-like manner in one of the two housing halves of the housing.
Tyrphostin 9 or precursor or salt thereof and L-carnitine or derivative or salt thereof for use in a method for treating obesity, preventing weight gain, promoting weight loss, and/or promoting slimming, said method comprising administering to a mammal in need thereof said tyrphostin 9 or precursor or salt thereof and L-carnitine or derivative or salt thereof, wherein said tyrphostin 9 or precursor or salt thereof and L-carnitine or derivative or salt thereof are in therapeutically or prophylactically effective amounts to treat obesity, prevent weight gain, promote weight loss, or promote slimming, wherein the tyrphostin 9 precursor is a phenolic ester able to produce tyrphostin 9 by chemical or enzymatic means, wherein the L-carnitine derivative is an ester in which the alcoholic hydrogen atom has been replaced by an acyl group able to generate L-carnitine through chemical or enzymatic action, and wherein said tyrphostin 9 or precursor or salt thereof and said L-carnitine or derivative or salt thereof are administered simultaneously or within one hour of each other. wherein the tyrphostin 9 precursor is a phenolic ester able to produce tyrphostin 9 by chemical or enzymatic means, wherein the L-carnitine derivative is an ester in which the alcoholic hydrogen atom has been replaced by an acyl group able to generate L-carnitine through chemical or enzymatic action, and wherein said tyrphostin 9 or precursor or salt thereof and said L-carnitine or derivative or salt thereof are administered simultaneously or within one hour of each other.
Working head for industrial robots, comprising: - a spindle comprising a tool, said spindle being connected to a working slide slidably mounted on a head support; - a worm screw connected to the working slide and arranged to make it move in a feed direction (X-X); - a counter arm connected to a counter slide connected to the worm screw and slidably mounted on the head support, said counter arm being arranged to be moved by said worm screw in the feed direction (X-X) and in a sense opposite to that of the movement of the spindle, in order to compress a stack of superimposed panels and/or structures to be machined between the counter arm and the tool, the working head further comprising a slide motor fastened to the working slide and connected to the worm screw in order to move the working slide and the counter slide, and a balancing cylinder connected to the spindle and to the head support in order to balance the variation of forces applied to the spindle as its spatial position varies. - a spindle comprising a tool, said spindle being connected to a working slide slidably mounted on a head support; - a worm screw connected to the working slide and arranged to make it move in a feed direction (X-X); - a counter arm connected to a counter slide connected to the worm screw and slidably mounted on the head support, said counter arm being arranged to be moved by said worm screw in the feed direction (X-X) and in a sense opposite to that of the movement of the spindle, in order to compress a stack of superimposed panels and/or structures to be machined between the counter arm and the tool,
Emergency stop apparatus for an automated plant with a modular construction, having a button and a connection module, characterized in that the button and the surface of the connection module that lies adjacent to the button are coated with state-dependent light-emitting means in the form of a display as illumination, wherein the button and the surface of the connection module that lies adjacent to the button are coated with OLEDs for illumination.
A method (900, 1100) comprising: generating (910, 1110) a framing sublayer FS frame (220, 535) comprising an FS header (223, 537), the FS header (223, 537) comprises a physical layer operations, administration, and maintenance, downstream PLOAMd field (235, 300) or a physical layer operations, administration, and maintenance, upstream PLOAMu field (560, 600), the PLOAMd field (235, 300) or the PLOAMu field (560, 600) communicates digital signal processing information for optical signal oDSP-related control and management C&M in an optical communications network, and the PLOAMd field (235, 300) or the PLOAMu field (560, 600) comprises a message type identifier ID field (320,620) and a Message_Content field (340, 640); and transmitting (920, 1120) the FS frame (220, 535), the method being characterized in that: the message type identifier ID field (320, 620) indicates a downstream control and management C&M message or an upstream control and management C&M message, the Message_Content field (340, 640) indicates information passed from an OLT to an ONU (127, 143) or information passed from the ONU (127, 143) to the OLT on the digital signal processing for optical signal oDSP-related control and management C&M, and the source of the downstream C&M message or the upstream C&M message is a MAC. generating (910, 1110) a framing sublayer FS frame (220, 535) comprising an FS header (223, 537), the FS header (223, 537) comprises a physical layer operations, administration, and maintenance, downstream PLOAMd field (235, 300) or a physical layer operations, administration, and maintenance, upstream PLOAMu field (560, 600), the PLOAMd field (235, 300) or the PLOAMu field (560, 600) communicates digital signal processing information for optical signal oDSP-related control and management C&M in an optical communications network, and the PLOAMd field (235, 300) or the PLOAMu field (560, 600) comprises a message type identifier ID field (320,620) and a Message_Content field (340, 640); and transmitting (920, 1120) the FS frame (220, 535), the method being characterized in that: the message type identifier ID field (320, 620) indicates a downstream control and management C&M message or an upstream control and management C&M message, the Message_Content field (340, 640) indicates information passed from an OLT to an ONU (127, 143) or information passed from the ONU (127, 143) to the OLT on the digital signal processing for optical signal oDSP-related control and management C&M, and the source of the downstream C&M message or the upstream C&M message is a MAC.
A pharmaceutical preconcentrate consisting of: a fatty acid oil mixture comprising at least 75% eicosapentaenoic acid and docosahexaenoic acid, by weight of the fatty acid oil mixture, wherein the EPA and DHA are in a form chosen from ethyl ester and triglyceride; at least one free fatty acid, wherein the fatty acid oil mixture comprises from about 50% to about 95% by weight and the at least one free fatty acid comprises from about 5% to about 50% by weight, each relative to the total weight of the composition; and at least one non-ionic surfactant and optionally at least one superdisintegrant; and/or at least one co-surfactant; and/or at least one solvent; and/or at least one non-active ingredient chosen from colloidal silicon dioxide, crospovidone, lactose monohydrate, lecithin, microcrystalline cellulose, polyvinyl alcohol, povidone, sodium lauryl sulfate, sodium stearyl fumarate, talc, titanium dioxide and xanthum gum; and/or at least one antioxidant. a fatty acid oil mixture comprising at least 75% eicosapentaenoic acid and docosahexaenoic acid, by weight of the fatty acid oil mixture, wherein the EPA and DHA are in a form chosen from ethyl ester and triglyceride; at least one free fatty acid, wherein the fatty acid oil mixture comprises from about 50% to about 95% by weight and the at least one free fatty acid comprises from about 5% to about 50% by weight, each relative to the total weight of the composition; and at least one non-ionic surfactant and optionally at least one superdisintegrant; and/or at least one co-surfactant; and/or at least one solvent; and/or at least one non-active ingredient chosen from colloidal silicon dioxide, crospovidone, lactose monohydrate, lecithin, microcrystalline cellulose, polyvinyl alcohol, povidone, sodium lauryl sulfate, sodium stearyl fumarate, talc, titanium dioxide and xanthum gum; and/or at least one antioxidant.
Method for constructing an elevator - in particular, a freight elevator - on a construction site, and preferably in a factory hall, wherein the elevator is built from several components (4, 5, 7) arranged one atop the other, the method comprising the following steps: - providing a base for the elevator; - positioning a lifting device on the base; - raising an upper component of the elevator by means of the lifting device, wherein the lifting device has several individual lifters, which are positioned on the base; - positioning a lower component, which is to be arranged underneath the upper component, under the raised upper component; - lowering the upper component onto the lower component by means of the lifting device; and - removing the lifting device from the base, wherein a raising and/or lowering of the component (4, 5, 7) or of the components (4, 5, 7) by means of the lifters is synchronized by means of a synchronizing device, whereby each lifter can be controlled individually. - on a construction site, and preferably in a factory hall, wherein the elevator is built from several components (4, 5, 7) arranged one atop the other, the method comprising the following steps: - providing a base for the elevator; - positioning a lifting device on the base; - raising an upper component of the elevator by means of the lifting device, wherein the lifting device has several individual lifters, which are positioned on the base; - positioning a lower component, which is to be arranged underneath the upper component, under the raised upper component; - lowering the upper component onto the lower component by means of the lifting device; and - removing the lifting device from the base, wherein a raising and/or lowering of the component (4, 5, 7) or of the components (4, 5, 7) by means of the lifters is synchronized by means of a synchronizing device, whereby each lifter can be controlled individually. - providing a base for the elevator; - positioning a lifting device on the base; - raising an upper component of the elevator by means of the lifting device, wherein the lifting device has several individual lifters, which are positioned on the base; - positioning a lower component, which is to be arranged underneath the upper component, under the raised upper component; - lowering the upper component onto the lower component by means of the lifting device; and - removing the lifting device from the base,
An installation comprising a building and soil arranged around the building, the installation further comprising an air heat pump with an air supply pipeline, the air supply pipeline comprising: a pipe having a pipe central axis and a pipe wall separating an inner pipe region from an outer pipe region, and several heat-conducting elements, wherein the heat-conducting elements penetrate through the pipe wall to conduct heat between the pipe outer region and the pipe inner region, and wherein the air supply pipeline extends through the soil, wherein the pipe comprises or consists of plastic and/or concrete and wherein the heat-conducting elements comprise one or more metals. a pipe having a pipe central axis and a pipe wall separating an inner pipe region from an outer pipe region, and several heat-conducting elements, wherein the heat-conducting elements penetrate through the pipe wall to conduct heat between the pipe outer region and the pipe inner region, and wherein the air supply pipeline extends through the soil, wherein the pipe comprises or consists of plastic and/or concrete and wherein the heat-conducting elements comprise one or more metals.
A composition comprising: fungal biomass β-glucans; water soluble glucans having 1,3-, 1,4-, and 1,6-glycosidic linkages; and wherein the water soluble glucans are at least about 10 weight % soluble in water. fungal biomass β-glucans; water soluble glucans having 1,3-, 1,4-, and 1,6-glycosidic linkages; and wherein the water soluble glucans are at least about 10 weight % soluble in water.
A resin composition for molding, comprising: a chlorinated polyvinyl chloride, having a thermal stabilizer and an antioxidant, the chlorinated polyvinyl chloride having structural units (a) to (c) represented by formulae (a) to (c) shown below: -CCl 2 - (a) -CHCl- (b), -CH 2 - (c), the proportion of the structural unit (a) being 17.5 mol% or less, the proportion of the structural unit (b) being 46.0 mol% or more, and the proportion of the structural unit (c) being 37.0 mol% or less, relative to the total number of moles of the structural units (a), (b), and (c) as determined by NMR measurement according to the description, the chlorinated polyvinyl chloride having a chlorine content measured according to JIS K 7229 of 63 mass% or more and less than 72 mass%, characterized in that the thermal stabilizer contains a calcium alkyl carboxylate and a zinc compound, an amount of the antioxidant is from 0.1 to 3 parts by mass based on 100 parts by mass of the chlorinated polyvinyl chloride, and the resin composition for molding has a loss in quantity on heating at 230°C measured using a thermogravimetric measurement apparatus according to the description of less than 2 mass%. a chlorinated polyvinyl chloride, having a thermal stabilizer and an antioxidant, the chlorinated polyvinyl chloride having structural units (a) to (c) represented by formulae (a) to (c) shown below: -CCl 2 - (a) -CHCl- (b), -CH 2 - (c), the proportion of the structural unit (a) being 17.5 mol% or less, the proportion of the structural unit (b) being 46.0 mol% or more, and the proportion of the structural unit (c) being 37.0 mol% or less, relative to the total number of moles of the structural units (a), (b), and (c) as determined by NMR measurement according to the description, the chlorinated polyvinyl chloride having a chlorine content measured according to JIS K 7229 of 63 mass% or more and less than 72 mass%, characterized in that the thermal stabilizer contains a calcium alkyl carboxylate and a zinc compound, an amount of the antioxidant is from 0.1 to 3 parts by mass based on 100 parts by mass of the chlorinated polyvinyl chloride, and the resin composition for molding has a loss in quantity on heating at 230°C measured using a thermogravimetric measurement apparatus according to the description of less than 2 mass%.