mhurhangee/ep-ind-claims huggingface dataset:
A motor comprising: a casing including an inner periphery having a plurality of first assembling structures and the casing including a plurality of through-holes; a stator disposed on the casing and including a plurality of magnetic pole modules each of which is independently separable, wherein each of the plurality of magnetic pole modules includes at least one second assembling structure, wherein each of the plurality of magnetic pole modules is detachably coupled in an axial direction to the casing by coupling each of the at least one second assembling structure to an associated one of the plurality of first assembling structures, and wherein each of the plurality of magnetic pole modules includes a plurality of receiving pits respectively located on an axial upper face and/or a lower face of the associated magnetic pole module; a rotor rotatably disposed within the stator, wherein an air gap is formed between the rotor and the stator; and a plurality of blocks; wherein each of the plurality of receiving pits is aligned with a respective one of the plurality of through-holes; and each of the plurality of blocks is located in a respective one of the plurality of receiving pits; wherein each of the plurality of blocks is configured to be pushed by a push member extending through a respective one of the plurality of through-holes, such that the associated magnetic pole module is displaced axially relative to the casing to permit removal of the magnetic pole module. a casing including an inner periphery having a plurality of first assembling structures and the casing including a plurality of through-holes; a stator disposed on the casing and including a plurality of magnetic pole modules each of which is independently separable, wherein each of the plurality of magnetic pole modules includes at least one second assembling structure, wherein each of the plurality of magnetic pole modules is detachably coupled in an axial direction to the casing by coupling each of the at least one second assembling structure to an associated one of the plurality of first assembling structures, and wherein each of the plurality of magnetic pole modules includes a plurality of receiving pits respectively located on an axial upper face and/or a lower face of the associated magnetic pole module; a rotor rotatably disposed within the stator, wherein an air gap is formed between the rotor and the stator; and a plurality of blocks; wherein each of the plurality of receiving pits is aligned with a respective one of the plurality of through-holes; and each of the plurality of blocks is located in a respective one of the plurality of receiving pits; wherein each of the plurality of blocks is configured to be pushed by a push member extending through a respective one of the plurality of through-holes, such that the associated magnetic pole module is displaced axially relative to the casing to permit removal of the magnetic pole module.
An element for cutting and picking plants, including: - a cutter designed to cut the plants when the cutting and picking element is moved in a forward direction (Av) of a rear/front axle (Ar/Av), - a pickup system designed to convey the cut plants toward an outlet of the cutting and picking element, and - a driving system (602, 608) of the cutting member and the pickup system, characterized in that the cutting member and the pickup system are movable relative to one another, between a first configuration in which the cutting member is advanced in the forward direction (Av) relative to the pickup system by no more than five centimeters, and a second configuration in which the cutting member is advanced in the forward direction (Av) relative to the pickup system by a clearance distance of at least ten centimeters, and in that the driving system (602, 608) is designed to drive the cutting member in the first and second configuration. - a cutter designed to cut the plants when the cutting and picking element is moved in a forward direction (Av) of a rear/front axle (Ar/Av), - a pickup system designed to convey the cut plants toward an outlet of the cutting and picking element, and - a driving system (602, 608) of the cutting member and the pickup system,
Packaging machine for packaging objects in a film pouch, having a closure installation for the film pouch for severing and closing the latter, wherein the film pouch is composed of an upper film layer and a lower film layer which is infed separately from the upper film layer and manufactured from a lateral welding installation which is disposed in each case on both sides of the tubular film, respectively, wherein the packaging machine has an infeed and an outfeed for the objects to be packaged, which adjoin one another so as to be separated by a gap, wherein the closure installation is disposed on the gap and has an upper die above the gap and a lower die below the gap, wherein the upper die and the lower die, for a simultaneous and opposing movement, are mechanically interlinked, wherein the closure installation for closing the tubular film is movable along the conveying direction of the objects, in the case of objects running through in a continuous manner so as to be synchronous with the movement thereof, wherein the gap hereby is conjointly movable, wherein the closure installation is disposed on a horizontally movable slider, wherein an end roller of an infeed belt, as an infeed, which points to the gap, and an end roller of an outfeed belt, as an outfeed, are in each case provided for gap adjustment, wherein the end rollers (18, 21) are displaceable along the longitudinal direction of the belts (17, 20) in the event of movement of the closure installation and are also displaceable in opposite directions for modifying or opening and closing, respectively, the belt gap, characterized in that the infeed belt and the outfeed belt have compensation installations (24, 25, 26) of an identical type of construction, so as to maintain the belt tension in the event of movement of the aforementioned end rollers (18, 21), wherein the first roller of the infeed belt and the last roller of the outfeed belt remain unmodified, wherein the compensation installations (24, 25, 26) are directly interlinked so as to fixedly adjust the belt gap, wherein this adjustment of the belt gap is independent of the opening or closing of the belt gap, wherein this linkage is readjustable for length in order to lengthen or shorten the belt gap which remains the same even in the event of horizontal movement of the closure installation, and wherein at least one of the compensation installations (24, 25, 26) for movement in the same direction is connected or linked to the slider, respectively, wherein a gap readjustment for opening and closing the gap is provided, wherein a positive mechanical linkage is provided on the one hand between the dies (31, 36) and the gap adjustment in such a manner that in the event of movement of the upper die and of the lower die towards one another the gap is further opened by the positive linkage once the dies (31, 36) have commenced movement towards one another and shortly before they meet one another, and on the other hand in such a manner that the gap on account of the positive linkage is moved back again or is closed, respectively, when the dies (31, 36) move apart.
A method of compressing radio access bearer parameter sets, the method comprising dividing each of the parameter sets into a first portion and a second portion, the first portion comprising a fixed portion common to a plurality of sets, and the second portion comprising a variable portion; and compressing the fixed portion through allocation of a radio access bearer, RAB, identifier thereto, wherein the parameter sets each comprise an Iu RAB configuration, the RAB identifier is associated with the RAB within a Public Land Mobile Network, PLMN, characterized in that, the association is achieved via operations and maintenance procedures within the network.
An optoelectronic sensor, in particular laser scanner, for detecting objects in a monitoring area, the sensor comprising a light transmitter for transmitting transmitted light, a light receiver for generating a received signal from received light from the monitoring area, a receiving optics, in particular receiving lens, for focusing the received light onto the light receiver, a movable deflection unit (18, 20) for periodically deflecting the transmitted light and the received light, and a control and evaluation unit for detecting information about objects in the monitoring area on the basis of the received signal, wherein the sensor further comprises a folding mirror arranged downstream of the receiving optics in the receiving beam path of the received light in order to direct the received light onto the light receiver, and wherein the light receiver is arranged between deflection unit (18, 20) and folding mirror, characterized in that the receiving optics is arranged at least partially between a receiving plane of the light receiver and the folding mirror.
A method in an access point, comprising: determining an energy status of a wireless device, the energy status comprising one of a low-energy device and a high-energy device; determining an access group of a plurality of access groups to which to allocate the wireless device, wherein determining the access group comprises determining whether a load of a first access group is below a load threshold; allocating the wireless device to the first access group upon determining that the wireless device is a low-energy device and that the load of the first access group is below the load threshold, the first access group for wireless devices that are to receive beacon information in a low-energy consumption format; allocating the wireless device to a second access group other than the first access group upon determining that the wireless device is a low-energy device and that the load of the first access group is not below the load threshold; and communicating the beacon information to the first access group in the low-energy consumption format. determining an energy status of a wireless device, the energy status comprising one of a low-energy device and a high-energy device; determining an access group of a plurality of access groups to which to allocate the wireless device, wherein determining the access group comprises determining whether a load of a first access group is below a load threshold; allocating the wireless device to the first access group upon determining that the wireless device is a low-energy device and that the load of the first access group is below the load threshold, the first access group for wireless devices that are to receive beacon information in a low-energy consumption format; allocating the wireless device to a second access group other than the first access group upon determining that the wireless device is a low-energy device and that the load of the first access group is not below the load threshold; and communicating the beacon information to the first access group in the low-energy consumption format.
An electric power tool comprising a variable speed switch which is mounted to the electric power tool and capable of outputting an electric signal for increasing or decreasing the amount of electric power supplied to a motor of the electric power tool in proportion to a displacement amount of a switch operating portion, the variable speed switch comprising: a switch main body portion accommodated in a housing of the electric power tool and mounted to the housing; and a load sensor provided in the switch main body portion and capable of outputting an electric signal in proportion to the amount of distortion of the load sensor caused by a pressing force; wherein the switch operation portion is mounted on a surface of the housing so as to be capable of relative displacement with respect to the housing and transmits the pressing force applied to the switch operation portion to the load sensor, characterized in that the maximum amount of the relative displacement of the switch operation portion is set to equal to or less than 5 mm, the switch operating portion includes an operation portion main body disposed in the outer side of the housing, a shaft portion passed through an opening provided in the housing, and a load transmission portion transmitting a pressing force to the load sensor inside the housing; and the shaft portion is formed of an elastic material and seals the opening of the housing. a switch main body portion accommodated in a housing of the electric power tool and mounted to the housing; and a load sensor provided in the switch main body portion and capable of outputting an electric signal in proportion to the amount of distortion of the load sensor caused by a pressing force; wherein the switch operation portion is mounted on a surface of the housing so as to be capable of relative displacement with respect to the housing and transmits the pressing force applied to the switch operation portion to the load sensor, characterized in that the maximum amount of the relative displacement of the switch operation portion is set to equal to or less than 5 mm, the switch operating portion includes an operation portion main body disposed in the outer side of the housing, a shaft portion passed through an opening provided in the housing, and a load transmission portion transmitting a pressing force to the load sensor inside the housing; and the shaft portion is formed of an elastic material and seals the opening of the housing.
A continuous motion rotatable forming machine for producing multi-compartment water-soluble pouches, the machine comprising a rotatable former (21;21") having compartment forming cavities (23;23") into which a base web (24;24") can be formed, characterised in that the forming machine is configured so that at least one compartment (26,29,32) of a pouch (38;38") is formed and filled before at least one other compartment (26,29,32) of the pouch (38;38") is formed and filled, and only once all compartments (26,29,32) have been filled is the pouch closed and sealed by affixing a lidding web (35;35';35").
A prepreg comprising at least the following components to, wherein the ratio Ne/Nd of the number of structure Ne of component present in a range of outside 110% of the particle diameter of component to the number of structure Nd of component present in a range of outside 110% of the particle diameter of component is 0.25 or more,: carbon fibers: thermosetting resin: hardener: particles containing a thermoplastic resin having a primary particle number-average particle size of 5 to 50 μm as a primary component: conductive particles different from component and having a primary particle number-average particle size in the range of the following formula A × 0.1 + 4 ≤ P size ≤ A × 0.1 + 14 P size: a primary particle number-average particle size (μm) of component conductive particles A: areal weight of component in the prepreg: filler comprising a carbon material, wherein a structure of component, formed by a plurality of linked primary particles, has a number-average particle size within the range of 40 to 500 nm; wherein the ratio Ne/Nd is measured according to the method in the description, wherein the component, the component and the component are dispersed in the component, and wherein at least one of the following formula to formula is satisfied where the zeta-potential of component is expressed by ζd and the zeta-potential of component is expressed by ζf, | ζd | < 10 ⁢ mV | ζf | < 10 ⁢ mV ζ ⁢ d × ζ ⁢ f > 0 wherein the zeta-potential of component and the zeta-potential of component are measured according to the methods in the description.: carbon fibers: thermosetting resin: hardener: particles containing a thermoplastic resin having a primary particle number-average particle size of 5 to 50 μm as a primary component: conductive particles different from component and having a primary particle number-average particle size in the range of the following formula A × 0.1 + 4 ≤ P size ≤ A × 0.1 + 14 P size: a primary particle number-average particle size (μm) of component conductive particles A: areal weight of component in the prepreg P size: a primary particle number-average particle size (μm) of component conductive particles A: areal weight of component in the prepreg: filler comprising a carbon material, wherein a structure of component, formed by a plurality of linked primary particles, has a number-average particle size within the range of 40 to 500 nm;
A data processing method applied to a cloud artificial intelligence, AI, processing system, comprising: a matched AI processor being selected from the cloud AI processing system according to device information of an external AI processor, so as to simulate the external AI processor; receiving an AI learning task, wherein the step includes converting the AI learning task from a set of binary instructions, and converting the set of binary instructions from an AI algorithm model on basis of the device information of the external AI processor; and the matched AI processor executing the AI learning task to generate a running result; wherein the running result is used for deciding whether the AI learning task is satisfying or needs adjustment. a matched AI processor being selected from the cloud AI processing system according to device information of an external AI processor, so as to simulate the external AI processor; receiving an AI learning task, wherein the step includes converting the AI learning task from a set of binary instructions, and converting the set of binary instructions from an AI algorithm model on basis of the device information of the external AI processor; and the matched AI processor executing the AI learning task to generate a running result; wherein the running result is used for deciding whether the AI learning task is satisfying or needs adjustment.
Two-wheel vehicle comprising two parallel drive wheels constituting internally hollow bodies, each having two lateral faces (10, 11) and a rolling surface that is extended therebetween, said wheels being driven by driving means respectively arranged within the wheels themselves and whose function is that of moving the center of gravity of the wheels, causing the rotation thereof in one sense and in the other sense, said wheels being operatively connected to each other by means of a connection means longitudinally extended along a geometric horizontal axis of the wheels, wherein each wheel is rotatable around said geometric horizontal axis of the wheels in a manner independent from the other wheel, characterized in that said connection means is a hub formed by two parts that are rotatable with respect to each other (4a, 4b), each of said parts (4a, 4b) being connected to a relative structure arranged within the corresponding wheel, and each structure of each wheel able to rotate with respect to the latter, lying with its own weight and that of the hub directly on a trolley with small wheels, but not on a lateral face of the wheel, in that said trolley supports weights formed at least partly by power supply batteries of said driving means, which are formed by motors at the hub directly mounted on at least one part of the axles of said small wheels of said trolley, and in that said trolley forms part of the structure and, by means of at least some of its small wheels provided with motor at the hub, it lies against an internal surface of the respective wheel, opposite with respect to the external rolling surface of the wheel itself.
A liquid pharmaceutical buccal spray formulation, comprising: one or more cannabinoids, a solvent, a co-solvent, and a water content of less than 4%; wherein the total amount of solvent and co-solvent present in the formulation is greater than 55% wt/wt of the formulation, the formulation is absent of a self emulsifying agent and / or a fluorinated propellant and the one or more cannabinoids are present in the formulation in an amount greater than 10 mg/ml, and wherein the formulation is packaged for delivery, by pump action - through a mechanical pump to a buccal mucosal surface and wherein the formulation has a viscosity such that when sprayed through the pump, the formulation has a mean aerodynamic particle size of from 20 to 40 microns.
A method of stopping an autonomous vehicle to pick up or drop off a passenger at a location, the method comprising: causing maneuvering, by one or more processors, an autonomous vehicle towards the location; estimating, by the one or more processors, an amount of time for the passenger to enter or exit the autonomous vehicle; once the autonomous vehicle is a predetermined distance from the location, determining, by the one or more processors, a set of possible places to stop the autonomous vehicle; for each place of the set of possible places, determining a corresponding threshold amount of time the autonomous vehicle can stop without substantially impeding other traffic, wherein the corresponding threshold amount of time is based on current traffic conditions; for each place of the set of possible places, comparing, by the one or more processors, the estimated amount of time to the corresponding threshold amount of time; filtering the set of possible places based on the comparisons to remove places from the set of possible places when the estimated amount of time is greater than the corresponding threshold amount of time; identifying, by the one or more processors, a particular one of the set of possible places based on the comparisons and the filtering; and causing stopping, by the one or more processors, of the autonomous vehicle at the particular one to allow the passenger to enter or exit the autonomous vehicle. causing maneuvering, by one or more processors, an autonomous vehicle towards the location; estimating, by the one or more processors, an amount of time for the passenger to enter or exit the autonomous vehicle; once the autonomous vehicle is a predetermined distance from the location, determining, by the one or more processors, a set of possible places to stop the autonomous vehicle; for each place of the set of possible places, determining a corresponding threshold amount of time the autonomous vehicle can stop without substantially impeding other traffic, wherein the corresponding threshold amount of time is based on current traffic conditions; for each place of the set of possible places, comparing, by the one or more processors, the estimated amount of time to the corresponding threshold amount of time; filtering the set of possible places based on the comparisons to remove places from the set of possible places when the estimated amount of time is greater than the corresponding threshold amount of time; identifying, by the one or more processors, a particular one of the set of possible places based on the comparisons and the filtering; and causing stopping, by the one or more processors, of the autonomous vehicle at the particular one to allow the passenger to enter or exit the autonomous vehicle.