mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a network node for handling multi path routing of data packets, the method comprises: - establishing a multi path connection with a target network node, the multi path connection comprising a plurality of paths over which data packets can be transmitted to the target network node, the step of establishing further comprising to set up in-active substitution paths over all Radio Access Technologies utilized in the established multi path connection, the in-active substitution paths not being used to send any data; - obtaining information relating to a quality of the plurality of paths; - determining, based on the obtained information, whether a path in the plurality of paths has been disconnected or is about to be disconnected; - activating at least one of the substitution paths for data transmission if it is determined that a path in the plurality of paths has been disconnected or is about to be disconnected, to enable transmission of data packets intended to be transmitted on the disconnected path, or the path about to be disconnected, over the activated substitution path; and - responsive to activating the substitution path, initially injecting only outstanding data packets intended to be transmitted on the disconnected path into the activated substitution path; and wherein the at least one substitution path is set up based on a first comparison with the obtained information and wherein the at least one substitution path is activated based on a second comparison with the obtained information. - establishing a multi path connection with a target network node, the multi path connection comprising a plurality of paths over which data packets can be transmitted to the target network node, the step of establishing further comprising to set up in-active substitution paths over all Radio Access Technologies utilized in the established multi path connection, the in-active substitution paths not being used to send any data; - obtaining information relating to a quality of the plurality of paths; - determining, based on the obtained information, whether a path in the plurality of paths has been disconnected or is about to be disconnected; - activating at least one of the substitution paths for data transmission if it is determined that a path in the plurality of paths has been disconnected or is about to be disconnected, to enable transmission of data packets intended to be transmitted on the disconnected path, or the path about to be disconnected, over the activated substitution path; and - responsive to activating the substitution path, initially injecting only outstanding data packets intended to be transmitted on the disconnected path into the activated substitution path; and
A positive electrode active material for a secondary battery, the positive electrode active material comprising: a first lithium-nickel oxide particle having an average particle size (D 50) of more than 8 μm to 20 μm or less; and a second lithium-nickel oxide particle having an average particle size (D 50) of 8 μm or less, wherein: the first lithium-nickel oxide particle has a particle strength of 100 MPa to 250 MPa, and the second lithium-nickel oxide particle has a particle strength of 50 MPa to 100 MPa; a ratio r of the strength of the first lithium-nickel oxide particle to the strength of the second lithium-nickel oxide particle satisfies Equation 1 below, and 1 < r ≤ 3 the first and second lithium-nickel oxides independently include nickel at a content of 80 atom% or more with respect to a total atomic weight of metal elements other than lithium present in the oxides. a first lithium-nickel oxide particle having an average particle size (D 50) of more than 8 μm to 20 μm or less; and a second lithium-nickel oxide particle having an average particle size (D 50) of 8 μm or less, wherein: the first lithium-nickel oxide particle has a particle strength of 100 MPa to 250 MPa, and the second lithium-nickel oxide particle has a particle strength of 50 MPa to 100 MPa; a ratio r of the strength of the first lithium-nickel oxide particle to the strength of the second lithium-nickel oxide particle satisfies Equation 1 below, and 1 < r ≤ 3 the first and second lithium-nickel oxides independently include nickel at a content of 80 atom% or more with respect to a total atomic weight of metal elements other than lithium present in the oxides. the first lithium-nickel oxide particle has a particle strength of 100 MPa to 250 MPa, and the second lithium-nickel oxide particle has a particle strength of 50 MPa to 100 MPa; a ratio r of the strength of the first lithium-nickel oxide particle to the strength of the second lithium-nickel oxide particle satisfies Equation 1 below, and 1 < r ≤ 3 the first and second lithium-nickel oxides independently include nickel at a content of 80 atom% or more with respect to a total atomic weight of metal elements other than lithium present in the oxides.
Method for manufacturing parts (16; 19), said parts being rims or wheels for vehicles, aircraft stringers, or electrical insulators, said parts comprising fiber-reinforced plastic, comprising the steps of a) providing material, said material comprising fiber reinforced plastic; b) providing a first tool comprising at least one set comprising at least one segment (1; 22); c) providing a second tool comprising at least one first and at least one second set of at least one segment (2a;2b; 20,21) each, said segments (2a;2b; 20,21), when arranged next to each other in a predefined way, referred to as closed position, form a second-tool surface describing the shape of a portion of a surface of said part to be manufactured; d) moving the at least one segments (2a; 20) of said first set of said second tool into said closed position; e) moving the at least one segments (2b; 21) of said second set of said second tool towards and into said closed position; f) compressing between at least said first and second tools at least a portion of said material, in particular at least substantially all of said material, by applying pressure to at least one of said first and second tools; wherein said segments (2a; 2b; 20,21) of said second tool are moved such that continually during moving of the at least one segments (2b; 21) of said second set of said second tool towards said closed position, a momentary travel distance up to said closed position for the at least one segments (2b; 21) of said second set of said second tool exceeds a momentary travel distance up to said closed position for the at least one segments (2a; 20) of said first set of said second tool. a) providing material, said material comprising fiber reinforced plastic; b) providing a first tool comprising at least one set comprising at least one segment (1; 22); c) providing a second tool comprising at least one first and at least one second set of at least one segment (2a;2b; 20,21) each, said segments (2a;2b; 20,21), when arranged next to each other in a predefined way, referred to as closed position, form a second-tool surface describing the shape of a portion of a surface of said part to be manufactured; d) moving the at least one segments (2a; 20) of said first set of said second tool into said closed position; e) moving the at least one segments (2b; 21) of said second set of said second tool towards and into said closed position; f) compressing between at least said first and second tools at least a portion of said material, in particular at least substantially all of said material
A threshing drum including a drum body (20, 30) formed at least from a cylindrical main element (20a, 30a) and over the periphery of which a plurality of mutually spaced beater bars are arranged in distributed relationship, which extend over the width of the drum body (20, 30) and project portion-wise in the radial direction beyond the drum body (20, 30), characterised in that arranged between two mutually spaced beater bars is at least one respective guide element (25, 25') which extends in the radial direction and at least portion-wise in the tangential direction and which in relation to a reference plane perpendicular to the axis of rotation of the threshing drum is inclined at an angle (α, β) in relation thereto.
An electromechanical valve assembly for regulating and shutting off the flow of a oxygen from a compressed oxygen source in an aircraft, said valve assembly comprising: a valve housing comprising an inlet, an outlet, and a connecting passageway for enabling the flow of oxygen from said inlet to said outlet, said inlet comprising a fitting for sealable connection with said compressed oxygen source; a spring-biased conical poppet disposed in and movable within said passageway; a spring-biased pressure regulating piston engagable with said conical poppet to maintain said poppet in an open position; a push rod engagable with said conical poppet to maintain said poppet in a closed position; and a movable seat disposed in said passageway, and engagable with said conical poppet to regulate gas flow through said passageway, said movable seat being actuated by an electric motor assembly that is effective to move said seat either towards said conical poppet, or away from said poppet and towards said pressure regulating piston; wherein actuation of said electric motor assembly to cause said movable seat to move towards said conical poppet, enabling said poppet to engage said push rod, resulting in closing of said valve assembly and shutting off of said oxygen flow from said compressed oxygen source; and wherein actuation of said electric motor assembly to cause said movable seat to move towards said regulating piston, enabling said poppet to contact said pressure regulating piston, resulting in opening of said valve assembly and regulation of said oxygen flow from said compressed oxygen source by said pressure regulating piston. a valve housing comprising an inlet, an outlet, and a connecting passageway for enabling the flow of oxygen from said inlet to said outlet, said inlet comprising a fitting for sealable connection with said compressed oxygen source; a spring-biased conical poppet disposed in and movable within said passageway; a spring-biased pressure regulating piston engagable with said conical poppet to maintain said poppet in an open position; a push rod engagable with said conical poppet to maintain said poppet in a closed position; and a movable seat disposed in said passageway, and engagable with said conical poppet to regulate gas flow through said passageway, said movable seat being actuated by an electric motor assembly that is effective to move said seat either towards said conical poppet, or away from said poppet and towards said pressure regulating piston; wherein actuation of said electric motor assembly to cause said movable seat to move towards said conical poppet, enabling said poppet to engage said push rod, resulting in closing of said valve assembly and shutting off of said oxygen flow from said compressed oxygen source; and wherein actuation of said electric motor assembly to cause said movable seat to move towards said regulating piston, enabling said poppet to contact said pressure regulating piston, resulting in opening of said valve assembly and regulation of said oxygen flow from said compressed oxygen source by said pressure regulating piston.
A method of installing a wave-configuration subsea riser, the method comprising: suspending the riser from an installation vessel; wherein the method further comprises: suspending an elongate clump weight in a catenary shape comprising first and second limbs (70, 72) extending upwardly from a conjoining bottom portion, with an upper end of the first limb, at a distal end of the clump weight, being attached to the riser and an upper end of the second limb, at a proximal end of the clump weight, being suspended from a winch or crane of the installation vessel; and while lowering the riser progressively into the sea from the installation vessel, controlling a weight load applied by the clump weight to the riser by adjusting relative lengths of the first and second limbs (70, 72) of the clump weight; wherein the method further comprises attaching buoyancy modules to a hogbend portion of the riser aboard the installation vessel. suspending the riser from an installation vessel; wherein the method further comprises: suspending an elongate clump weight in a catenary shape comprising first and second limbs (70, 72) extending upwardly from a conjoining bottom portion, with an upper end of the first limb, at a distal end of the clump weight, being attached to the riser and an upper end of the second limb, at a proximal end of the clump weight, being suspended from a winch or crane of the installation vessel; and while lowering the riser progressively into the sea from the installation vessel, controlling a weight load applied by the clump weight to the riser by adjusting relative lengths of the first and second limbs (70, 72) of the clump weight; suspending an elongate clump weight in a catenary shape comprising first and second limbs (70, 72) extending upwardly from a conjoining bottom portion, with an upper end of the first limb, at a distal end of the clump weight, being attached to the riser and an upper end of the second limb, at a proximal end of the clump weight, being suspended from a winch or crane of the installation vessel; and while lowering the riser progressively into the sea from the installation vessel, controlling a weight load applied by the clump weight to the riser by adjusting relative lengths of the first and second limbs (70, 72) of the clump weight; wherein the method further comprises attaching buoyancy modules to a hogbend portion of the riser aboard the installation vessel.
A memory device, comprising: a stack of memory arrays; a plurality of activity trackers configured to monitor different levels of activity of at least one portion of a plurality of portions of the stack of memory arrays, wherein the plurality of portions include a plurality of vertical memory vaults, wherein each vertical memory vault is associated with a respective memory vault controller of a plurality of memory vault controllers, and wherein each memory vault controller includes an activity tracker; wherein a memory vault controller of the plurality of memory vault controllers is configured to adjust a power state of the at least one portion to correspond to the level of activity of the at least one portion, and wherein the memory vault controller is configured to increase or reduce a refresh rate depending on the level of activity of the at least one portion; a plurality of serialized communication link interfaces to couple the plurality of memory vault controllers to a host processor; and a matrix switch enabling cross-connecting each of the plurality of serialized communication link interfaces to a selected memory vault controller of the plurality of memory vault controllers. a stack of memory arrays; a plurality of activity trackers configured to monitor different levels of activity of at least one portion of a plurality of portions of the stack of memory arrays, wherein the plurality of portions include a plurality of vertical memory vaults, wherein each vertical memory vault is associated with a respective memory vault controller of a plurality of memory vault controllers, and wherein each memory vault controller includes an activity tracker; wherein a memory vault controller of the plurality of memory vault controllers is configured to adjust a power state of the at least one portion to correspond to the level of activity of the at least one portion, and wherein the memory vault controller is configured to increase or reduce a refresh rate depending on the level of activity of the at least one portion; a plurality of serialized communication link interfaces to couple the plurality of memory vault controllers to a host processor; and a matrix switch enabling cross-connecting each of the plurality of serialized communication link interfaces to a selected memory vault controller of the plurality of memory vault controllers.
Mirror replacement system as a camera monitor system of a motor vehicle, in particular a commercial vehicle, having at least one camera which captures and records an environment of the motor vehicle in a camera image in real time, having at least one control device which is supplied with image data from the at least one camera for processing, and having at least one monitor (5, 11) as a screen in the field of view of a driver, which monitor is connected to the at least one control device for the purpose of representing a monitor image of the current camera image captured by the at least one camera, wherein the control device is used to display information representations in the monitor image, which information representations are obtained by evaluating a vehicle sensor system and/or are generated by evaluating data wirelessly transmitted by other vehicles or stationary objects and/or represent virtually generated vehicles, vehicle parts or stationary objects, wherein the displayed information representation is respectively inserted into an image representation in a perspectively correct manner as so-called "augmented reality" in the monitor image, wherein objects which conceal the view of other road users possibly in danger, in particular cyclists and/or pedestrians and/or cars, are represented in the monitor image, and wherein such road users concealed from view are displayed with corresponding symbols having the correct direction, characterized in that road users concealed from view are detected by means of an object-based sensor system, wherein provision is made for the sensor system to be formed by a smartphone carried by the road user with associated communication and evaluation in the control device.
A power generation control device for a fuel cell comprising: a target generated power calculating unit configured to calculate target generated power of a fuel cell, based on a load condition of an electrical load device connected to the fuel cell; a target generated current calculating unit configured to calculate a target generated current to be taken out of the fuel cell, based on the target generated power; a current change rate limit value calculating unit configured to calculate a limit value for a rate of change in the target generated current, based on an operating condition parameter correlated with an operating temperature of the fuel cell; and a current limiting unit configured to limit the target generated current so that the rate of change in the target generated current does not exceed the limit value calculated by the current change rate limit value calculating unit, characterized in that the operating condition parameter is a detection value of a temperature correlated with the operating temperature of the fuel cell, the current change rate limit value calculating unit is configured to calculate a limit value for a rate of upward change in the target generated current, based on the detection value of the temperature correlated with the operating temperature of the fuel cell, and the limit value for the rate of upward change in the target generated current calculated by the current change rate limit value calculating unit is relaxed in accordance with an increase in the detection value of the temperature correlated with the operating temperature of the fuel cell. a target generated power calculating unit configured to calculate target generated power of a fuel cell, based on a load condition of an electrical load device connected to the fuel cell; a target generated current calculating unit configured to calculate a target generated current to be taken out of the fuel cell, based on the target generated power; a current change rate limit value calculating unit configured to calculate a limit value for a rate of change in the target generated current, based on an operating condition parameter correlated with an operating temperature of the fuel cell; and a current limiting unit configured to limit the target generated current so that the rate of change in the target generated current does not exceed the limit value calculated by the current change rate limit value calculating unit, characterized in that the operating condition parameter is a detection value of a temperature correlated with the operating temperature of the fuel cell, the current change rate limit value calculating unit is configured to calculate a limit value for a rate of upward change in the target generated current, based on the detection value of the temperature correlated with the operating temperature of the fuel cell, and the limit value for the rate of upward change in the target generated current calculated by the current change rate limit value calculating unit is relaxed in accordance with an increase in the detection value of the temperature correlated with the operating temperature of the fuel cell.
A device to detect a touch-less gesture made by an object, the device comprising: two or more ambient light sensors arranged at respective surface locations of the device, each of the two or more ambient light sensors configured to measure light intensity at the respective surface location; and a processor configured to detect the touch-less gesture based on a comparison of two or more frames of data, each frame of data comprising light intensity measurements for a respective measurement cycle of each of the two or more ambient light sensors, where the two or more ambient light sensors sample light intensity in turn during the respective measurement cycle; characterised in that: each of the two or more ambient light sensors has a range of operation that is selectable among two or more wavelength bands; and the device further comprises a second processor configured to dynamically control the two or more ambient light sensors by changing, based on the light intensity measured by one or more of the two or more ambient light sensors, the range of operation for each of the two or more ambient light sensors to another wavelength band among the selectable two or more wavelength bands. two or more ambient light sensors arranged at respective surface locations of the device, each of the two or more ambient light sensors configured to measure light intensity at the respective surface location; and a processor configured to detect the touch-less gesture based on a comparison of two or more frames of data, each frame of data comprising light intensity measurements for a respective measurement cycle of each of the two or more ambient light sensors, where the two or more ambient light sensors sample light intensity in turn during the respective measurement cycle; characterised in that: each of the two or more ambient light sensors has a range of operation that is selectable among two or more wavelength bands; and the device further comprises a second processor configured to dynamically control the two or more ambient light sensors by changing, based on the light intensity measured by one or more of the two or more ambient light sensors, the range of operation for each of the two or more ambient light sensors to another wavelength band among the selectable two or more wavelength bands. each of the two or more ambient light sensors has a range of operation that is selectable among two or more wavelength bands; and the device further comprises a second processor configured to dynamically control the two or more ambient light sensors by changing, based on the light intensity measured by one or more of the two or more ambient light sensors, the range of operation for each of the two or more ambient light sensors to another wavelength band among the selectable two or more wavelength bands.