mhurhangee/ep-ind-claims huggingface dataset:
A control method for a vehicle, wherein the vehicle comprises a plurality of differential wheel sets, the control method comprising: S101: determining whether a chassis state machine of the vehicle switches from a first state to a second state; S102: adjusting angles of the plurality of differential wheel sets to angles corresponding to the second state when the chassis state machine switches; S103: determining whether each differential wheel set is adjusted in place upon a preset time; S104: controlling the vehicle to travel at a first preset velocity when each differential wheel set is adjusted in place, characterized in that the control method further comprising: S105: when one of the differential wheel sets is not adjusted in place, controlling the vehicle to travel at a second preset velocity, and also continuously adjusting the one of the differential wheel sets, wherein the second preset velocity is lower than the first preset velocity. S101: determining whether a chassis state machine of the vehicle switches from a first state to a second state; S102: adjusting angles of the plurality of differential wheel sets to angles corresponding to the second state when the chassis state machine switches; S103: determining whether each differential wheel set is adjusted in place upon a preset time; S104: controlling the vehicle to travel at a first preset velocity when each differential wheel set is adjusted in place, characterized in that the control method further comprising: S105: when one of the differential wheel sets is not adjusted in place, controlling the vehicle to travel at a second preset velocity, and also continuously adjusting the one of the differential wheel sets, wherein the second preset velocity is lower than the first preset velocity.
A method of encoding a point cloud to generate a bitstream of compressed point cloud data, the point cloud being located within a volumetric space recursively split into sub-volumes and containing points of the point cloud, wherein a volume is partitioned into a first set of child sub-volumes and a second set of child sub-volumes, the first set of child sub-volumes being positioned in a first plane and the second set of child sub-volumes being positioned in a second plane parallel to the first plane, and wherein an occupancy bit associated with each respective child sub-volume indicates whether that respective child sub-volume contains at least one of the points, characterized by determining whether the volume is planar based on whether all child sub-volumes containing at least one point are positioned in either the first set or the second set; entropy encoding in the bitstream a planar mode flag to signal whether the volume is planar, wherein entropy encoding includes determining a context for coding the planar mode flag based on a distance between the volume and a closest already-coded occupied volume at a same depth as the volume and having a same position on an axis orthogonal to the first plane and the second plane as the volume; encoding occupancy bits for at least some of the child sub-volumes; and outputting the bitstream of compressed point cloud data. determining whether the volume is planar based on whether all child sub-volumes containing at least one point are positioned in either the first set or the second set; entropy encoding in the bitstream a planar mode flag to signal whether the volume is planar, wherein entropy encoding includes determining a context for coding the planar mode flag based on a distance between the volume and a closest already-coded occupied volume at a same depth as the volume and having a same position on an axis orthogonal to the first plane and the second plane as the volume; encoding occupancy bits for at least some of the child sub-volumes; and outputting the bitstream of compressed point cloud data.
A package closure system comprising: a deformable package housing a nutritional composition; a spout extending from the package, the spout comprising a first connection element; and a cap comprising a channel [22, 51], configured to removably connect directly to the first connection element, and comprising a second connection element, the second connection element configured to connect to an enteral line to position the channel leading from the spout to the enteral line such that the cap indirectly connects the spout to the enteral line by the channel, wherein the second connection element is an ENFit ® connector. a deformable package housing a nutritional composition; a spout extending from the package, the spout comprising a first connection element; and a cap comprising a channel [22, 51], configured to removably connect directly to the first connection element, and comprising a second connection element, the second connection element configured to connect to an enteral line to position the channel leading from the spout to the enteral line such that the cap indirectly connects the spout to the enteral line by the channel, wherein the second connection element is an ENFit ® connector.
A mobile communication device, comprising: a first transceiver configured to wirelessly communicate with a long term evolution, LTE, network; a second transceiver configured to wirelessly communicate with a wireless local area network, WLAN; and processor circuitry coupled to the first transceiver and the second transceiver, wherein the processor circuitry is configured to: receive a numerical value from a base station associated with the LTE network; characterized in that the processor circuitry is further configured to: generate a random number between 1 and the numerical value; compare the random number with a threshold value determined by an offloading policy stored in a memory of the mobile communication device; and determine, based on the result of the comparison, whether to offload traffic from the LTE network to the WLAN. a first transceiver configured to wirelessly communicate with a long term evolution, LTE, network; a second transceiver configured to wirelessly communicate with a wireless local area network, WLAN; and processor circuitry coupled to the first transceiver and the second transceiver, wherein the processor circuitry is configured to: receive a numerical value from a base station associated with the LTE network; generate a random number between 1 and the numerical value; compare the random number with a threshold value determined by an offloading policy stored in a memory of the mobile communication device; and determine, based on the result of the comparison, whether to offload traffic from the LTE network to the WLAN.
A method for determining a joint-codebook for wireless communication with a user equipment, UE, by a base station in an active coordination set, ACS, the method comprising the base station: receiving capability information from one or more other base stations in the ACS; generating a joint-codebook for the ACS based on the received capability information; sending the joint-codebook to the one or more other base stations in the ACS; jointly-transmitting the joint-codebook to the UE; receiving Precoding Matrix Indicator, PMI, feedback from the UE; jointly-processing downlink data for the UE using the PMI feedback and the joint-codebook; and jointly-transmitting the downlink data to the UE. receiving capability information from one or more other base stations in the ACS; generating a joint-codebook for the ACS based on the received capability information; sending the joint-codebook to the one or more other base stations in the ACS; jointly-transmitting the joint-codebook to the UE; receiving Precoding Matrix Indicator, PMI, feedback from the UE; jointly-processing downlink data for the UE using the PMI feedback and the joint-codebook; and jointly-transmitting the downlink data to the UE.
A method for producing a concrete formwork for a component, in particular a tower segment for a tower, preferably a tower of a wind turbine, the method comprising: - providing a pattern of the component; - erecting a production formwork around the pattern at a distance from the pattern, wherein a cavity (401, 402) produced between the production formwork and the pattern corresponds to the dimensions of the concrete formwork to be produced; - filling the cavity with liquid concrete; - hardening the concrete. characterized by: - separating the concrete formwork into two or more partial concrete formworks. - providing a pattern of the component; - erecting a production formwork around the pattern at a distance from the pattern, wherein a cavity (401, 402) produced between the production formwork and the pattern corresponds to the dimensions of the concrete formwork to be produced; - filling the cavity with liquid concrete; - hardening the concrete. - separating the concrete formwork into two or more partial concrete formworks.
A method for selection of transmission points, comprising, at a network element, sending to a mobile device information of potential reference signals to configure the mobile device for measurement of at least one received signal characteristic of the indicated potential reference signals, and receiving information of at least one port selected by the mobile device based on the measurement of at least one received signal characteristic according to the measurement configuration. sending to a mobile device information of potential reference signals to configure the mobile device for measurement of at least one received signal characteristic of the indicated potential reference signals, and receiving information of at least one port selected by the mobile device based on the measurement of at least one received signal characteristic according to the measurement configuration.
A light emitting device comprising: a first light emitting cell disposed in a first region on a substrate and comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a second light emitting cell disposed in a second region on the substrate to be spaced apart from the first light emitting cell and comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a first conductive pattern disposed in the first region and comprising contact portions electrically connected to the first conductivity type semiconductor layer of the first light emitting cell; and a connection pattern comprising contact portions electrically connected to the second conductivity type semiconductor layer of the first light emitting cell and contact portions electrically connected to the first conductivity type semiconductor layer of the second light emitting cell, wherein the first conductive pattern comprises concave portions in a plan view formed on the first region to be indented from a first side surface facing the second region into the first conductive pattern, wherein the connection pattern comprises convex portions in the plan view electrically contacting the contact portions of the connection pattern electrically connected to the second conductivity type semiconductor layer and extending from the second region to the first region, and wherein the concave portions and the convex portions are facing each other while being spaced apart from each other. a first light emitting cell disposed in a first region on a substrate and comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a second light emitting cell disposed in a second region on the substrate to be spaced apart from the first light emitting cell and comprising a first conductivity type semiconductor layer, an active layer, and a second conductivity type semiconductor layer; a first conductive pattern disposed in the first region and comprising contact portions electrically connected to the first conductivity type semiconductor layer of the first light emitting cell; and a connection pattern comprising contact portions electrically connected to the second conductivity type semiconductor layer of the first light emitting cell and contact portions electrically connected to the first conductivity type semiconductor layer of the second light emitting cell, wherein the first conductive pattern comprises concave portions in a plan view formed on the first region to be indented from a first side surface facing the second region into the first conductive pattern, wherein the connection pattern comprises convex portions in the plan view electrically contacting the contact portions of the connection pattern electrically connected to the second conductivity type semiconductor layer and extending from the second region to the first region, and wherein the concave portions and the convex portions are facing each other while being spaced apart from each other.
A vibration damper for damping spring retraction and/or spring extension forces on motor vehicles, comprising: an inner pressure medium cylinder, a piston with a piston rod axially slidably arranged in the inner pressure medium cylinder, wherein the piston divides the inner pressure medium cylinder into a retraction chamber and an extension chamber, in which as a pressure medium an electrorheological fluid is contained, wherein the retraction chamber and the extension chamber are connected by at least one throttle gap between the inner pressure medium cylinder and an electrode tube coaxially arranged around the inner pressure medium cylinder, and wherein an outer tube coaxially surrounds and is spaced-apart from the electrode tube, wherein the outer tube together with the electrode tube form a gas pressure chamber, which is connected through a bottom valve with the retraction chamber, characterised in that at least two axially linear or helically shaped seal means arranged between the inner pressure medium cylinder and the electrode tube, wherein the seal means divide the throttle gap into at least two similar valve partial gaps (12, 13), and in that a first throttled non-return valve opens toward the gas pressure chamber and is arranged between the extension chamber and the gas pressure chamber.
A method for increasing a contact area between a bottom plate of a reactor body and a base platform, steps of which comprising: filling a bonding layer between the bottom plate of the reactor body and the base platform, so that the bonding layer is respectively bonded with them, wherein filling the bonding layer between the bottom plate of the reactor body and the base platform comprises the following steps: 1) lifting the reactor body positioned on the base platform, 2) manufacturing an aligning frame and positioning it between the bottom plate of the reactor body and the base platform, 3) filling binding agent into the aligning frame to form a bonding layer, wherein the binding agent represents epoxy resin, wherein a curing agent is added in the epoxy resin filled therein, a weight ratio of the epoxy resin to the curing agent is 5.4:1, and fluid grit is further added in the epoxy resin, and 4) making the bottom plate of the reactor body fall back on the base platform when the binding agent is in a semi-solid state, wherein 4-6 hours are required for the epoxy resin to become semi-solid; wherein the binding agent has an elastic modulus lower than those of the material of the bottom plate of the reactor body and the material of the base platform; the bottom plate of the reactor body is made of steel material, and the base platform is made of reinforced concrete; the epoxy resin filled between the base platform and the bottom plate of the reactor body completely adheres them to each other after solidification of the epoxy resin, and the base platform is integrated with the bottom plate of the reactor body; and wherein in step 1), the reactor body positioned on the base platform is lifted up by a jack; and in step 4), the bottom plate of the reactor body falls back on the base platform by releasing pressure of the jack. 1) lifting the reactor body positioned on the base platform, 2) manufacturing an aligning frame and positioning it between the bottom plate of the reactor body and the base platform, 3) filling binding agent into the aligning frame to form a bonding layer, wherein the binding agent represents epoxy resin, wherein a curing agent is added in the epoxy resin filled therein, a weight ratio of the epoxy resin to the curing agent is 5.4:1, and fluid grit is further added in the epoxy resin, and 4) making the bottom plate of the reactor body fall back on the base platform when the binding agent is in a semi-solid state, wherein 4-6 hours are required for the epoxy resin to become semi-solid;
A method for detecting a radio network problem being a radio link failure, RLF, or Handover Failure, HOF, when the radio network problem occurs on a user equipment, UE, wherein the method comprises: receiving, by a first base station controlling a cell that has a radio resource control, RRC, connection established with the UE, problem information about the radio network problem sent by the UE after the RRC connection is established, the problem information includes information of an error cause and signal quality; forwarding, by the first base station, the problem information to a second base station controlling a cell where the radio network problem occured; and performing, by the second base station, a problem analysis on the problem information. receiving, by a first base station controlling a cell that has a radio resource control, RRC, connection established with the UE, problem information about the radio network problem sent by the UE after the RRC connection is established, the problem information includes information of an error cause and signal quality; forwarding, by the first base station, the problem information to a second base station controlling a cell where the radio network problem occured; and performing, by the second base station, a problem analysis on the problem information.
Vehicle diagnostic device for determining the condition of at least one component of a motor vehicle, having: an interface apparatus that is able to be coupled to a diagnostic interface of the motor vehicle, a first data transmission device that is coupled to the interface apparatus, a second data transmission device that is coupled to the interface apparatus, wherein each of the first and the second data transmission device (100, 200) has a plurality of diagnostic protocol driver circuits (140-146, 240-246), and a data processing apparatus that is coupled to the first and the second data transmission device (100, 200), wherein the data processing apparatus is configured so as to implement different diagnostic protocols via the first and the second data transmission device (100, 200), wherein each of the first and the second data transmission device (100, 200) has a plurality of interface-side connections (102-108, 202-208) and wherein at least some of the respective diagnostic protocol driver circuits (140-146, 240-246) are coupled to the interface-side connections (102-108, 202-208) via at least one switching matrix (130, 230), characterized in that the first and the second data transmission device (100, 200) are identical circuits, wherein the interface apparatus has a plurality of interface connections, wherein at least one first subset of the interface-side connections of the first data transmission device is coupled to the interface connections and at least one second subset of the interface-side connections of the second data transmission device is coupled to the interface connections, wherein the coupling of the interface-side connections of the first data transmission device to the interface connections of the interface apparatus is different from the coupling of the interface-side connections of the second data transmission device to the interface connections of the interface apparatus. an interface apparatus that is able to be coupled to a diagnostic interface of the motor vehicle, a first data transmission device that is coupled to the interface apparatus, a second data transmission device that is coupled to the interface apparatus, wherein each of the first and the second data transmission device (100, 200) has a plurality of diagnostic protocol driver circuits (140-146, 240-246), and a data processing apparatus that is coupled to the first and the second data transmission device (100, 200), wherein the data processing apparatus is configured so as to implement different diagnostic protocols via the first and the second data transmission device (100, 200),
Electromagnetic switch, comprising: an anchor; a slider, which can be moved manually to actuate the anchor; and a deformable force transmission element, which is arranged between the slider and the anchor, the slider being able to be pressed against the deformable force transmission element for actuating the anchor with a pressing force, wherein the deformable force-transmitting element is deformable by the pressing force when exceeding a pressing force limit value, in order to limit the pressing force transferable from the slider to the anchor, characterized in that the deformable force transmission element comprises a deformable tongue, the slider being able to be pressed against the deformable tongue, the deformable tongue being deformable when the pressure force limit value is exceeded, to receive the pressing force of the slider. an anchor; a slider, which can be moved manually to actuate the anchor; and a deformable force transmission element, which is arranged between the slider and the anchor, the slider being able to be pressed against the deformable force transmission element for actuating the anchor with a pressing force, wherein the deformable force-transmitting element is deformable by the pressing force when exceeding a pressing force limit value, in order to limit the pressing force transferable from the slider to the anchor, characterized in that the deformable force transmission element comprises a deformable tongue, the slider being able to be pressed against the deformable tongue, the deformable tongue being deformable when the pressure force limit value is exceeded, to receive the pressing force of the slider.
Sanitary facility for a recreational vehicle, in particular a motorhome or a caravan, wherein a floor which can be accessed by at least one person and a toilet bowl are provided, wherein a step is provided which is adjustable over the accessible floor for use of the toilet bowl at least in a region of the accessible floor adjacent to the toilet bowl, characterised in that the toilet bowl is placed on a pedestal, that the pedestal has a clearance, that the step can be arranged at least essentially in the clearance in an initial position and that the step can be pivoted out of the clearance by a rotational movement over the accessible floor.