mhurhangee/patent-ind-claim-en huggingface dataset:
A towing attachment for a forklift , the attachment comprising: a main frame for locating the attachment on a fork assembly of a forklift ; a towing hitch assembly on the main frame for connection to a towed article ; characterised in that the towing attachment comprises one or more connectors mounted on the main frame for connecting the main frame to a forklift body or forklift chassis , wherein the one or more connectors are configured to transfer towing forces on the towing attachment to the forklift body or forklift chassis , wherein each of the one or more connectors includes a rigid arm which is mounted on the main frame for connecting the main frame to the forklift body or forklift chassis when in a towing position, so that in use fore-and-aft towing forces on the towing attachment are transferred to the forklift body or chassis and not transferred to the fork assembly . a main frame for locating the attachment on a fork assembly of a forklift ; a towing hitch assembly on the main frame for connection to a towed article ; characterised in that the towing attachment comprises one or more connectors mounted on the main frame for connecting the main frame to a forklift body or forklift chassis , wherein the one or more connectors are configured to transfer towing forces on the towing attachment to the forklift body or forklift chassis , wherein each of the one or more connectors includes a rigid arm which is mounted on the main frame for connecting the main frame to the forklift body or forklift chassis when in a towing position, so that in use fore-and-aft towing forces on the towing attachment are transferred to the forklift body or chassis and not transferred to the fork assembly .
A computer-implemented method of modeling skin, the method comprising: under the control of one or more computer systems configured with executable instructions: obtaining a geometric model of at least a portion of an animated character, the geometric model comprising an initial mesh defined by a first number of polygons; obtaining microstructure parameter values from a procedural modeling process based on one or more sets of rules, wherein the microstructure parameter values at least partially define locations and appearance of microstructures comprising pores; generating pore microstructure locations based, at least in part, on a first set of the microstructure parameter values; generating an intermediate mesh by generating pore microstructures at the pore microstructure locations by dividing at least one polygon at the pore microstructure locations of the initial mesh into smaller polygons to define pore microstructure and leaving other polygons undivided, the intermediate mesh comprising a second number of polygons, the second number of polygons being greater than the first number of polygons, the second number of polygons being determined, at least in part, by the pore microstructure locations, wherein a pore microstructure appearance of the pore microstructures is based, at least in part, on a second set of the microstructure parameter values; and generating a volumetric mesh comprising the pore microstructures, the volumetric mesh being configured to be applied to the geometric model as skin covering the portion of the character. under the control of one or more computer systems configured with executable instructions: obtaining a geometric model of at least a portion of an animated character, the geometric model comprising an initial mesh defined by a first number of polygons; obtaining microstructure parameter values from a procedural modeling process based on one or more sets of rules, wherein the microstructure parameter values at least partially define locations and appearance of microstructures comprising pores; generating pore microstructure locations based, at least in part, on a first set of the microstructure parameter values; generating an intermediate mesh by generating pore microstructures at the pore microstructure locations by dividing at least one polygon at the pore microstructure locations of the initial mesh into smaller polygons to define pore microstructure and leaving other polygons undivided, the intermediate mesh comprising a second number of polygons, the second number of polygons being greater than the first number of polygons, the second number of polygons being determined, at least in part, by the pore microstructure locations, wherein a pore microstructure appearance of the pore microstructures is based, at least in part, on a second set of the microstructure parameter values; and generating a volumetric mesh comprising the pore microstructures, the volumetric mesh being configured to be applied to the geometric model as skin covering the portion of the character.
Method for cleaning a particle filter , in particular using a device for cleaning a particle filter of internal combustion engines, with a means for storing liquid cleaning agent under pressure, with a pressure reducer up to a pressure of approximately 2 bar, with a means for transporting the cleaning agent up to an opening of an interior of the particle filter , with a means for producing a foam-like consistency of the cleaning agent , in particular by transition and/or expansion in a region with increased volume, after entry of the cleaning agent into the opening of the interior of the particle filter , wherein the means for transporting comprises a sealed hose for conduction to an inlet of a differential pressure sensor at the particle filter , in particular the front inlet of the differential pressure sensor , relating to the flow direction of particles through the particulate filter , where in an opening prior to the inflow of the particulate stream into the particulate filter a cleaning agent is supplied at a pressure of 2 bar or less from a storage agent through a means of transport to the opening , and then expands to a foam-like consistency in the interior of the particulate filter .
Fastening system for releasably disposing at least one sweeper element on a mechanically driven sweeping machine, having: - at least one elongate fastening installation which configured to be disposed on a rotatable support of the sweeping machine, - at least one elongate sweeper element which is able to be releasably fastened to the fastening installation and which, on a proximal end portion that faces the fastening installation , has a fastening structure , - wherein the fastening installation , on a distal end portion that faces the sweeper element, has a mating fastening structure which is designed so as to correspond to the fastening structure , and having - a securing element , characterized in that the securing element on the fastening installation is guided so as to be longitudinally displaceable between a distal securing position (S) and a proximal releasing position (L), - wherein the securing element in the securing position (S) at least in portions encloses the mating fastening structure , and wherein the mating fastening structure is externally accessible when the securing element is situated in the releasing position (L). - at least one elongate fastening installation which configured to be disposed on a rotatable support of the sweeping machine, - at least one elongate sweeper element which is able to be releasably fastened to the fastening installation and which, on a proximal end portion that faces the fastening installation , has a fastening structure , - wherein the fastening installation , on a distal end portion that faces the sweeper element, has a mating fastening structure which is designed so as to correspond to the fastening structure , and having - a securing element , characterized in that the securing element on the fastening installation is guided so as to be longitudinally displaceable between a distal securing position (S) and a proximal releasing position (L), - wherein the securing element in the securing position (S) at least in portions encloses the mating fastening structure , and wherein the mating fastening structure is externally accessible when the securing element is situated in the releasing position (L).
Computer-implemented method for controlling a technical system (TS), wherein a) training data are read in, a respective training dataset (TD) comprising a state dataset (S) that specifies a state of the technical system, an action dataset (A) that specifies a control action, and a performance value (R) of the technical system that results from an application of the control action, b) a first machine learning module (NN1) is trained, using the training data, to use a state dataset (S) and an action dataset (A) to reproduce a resulting performance value (R), c) a multiplicity of different deterministic control agents (P1, P2,...) are each supplied with state datasets (S), and resulting output data are fed into the trained first machine learning module (NN1) as action datasets, d) performance values output by the trained first machine learning module (NN1) are taken as a basis for selecting multiple instances of the control agents, e) the technical system is respectively controlled by the selected control agents (SP1, ..., SPK), with further state datasets (ES), action datasets (EA) and performance values (ER) being captured and added to the training data, and f) method steps b) to e) are repeated using the thus augmented training data. a) training data are read in, a respective training dataset (TD) comprising a state dataset (S) that specifies a state of the technical system, an action dataset (A) that specifies a control action, and a performance value (R) of the technical system that results from an application of the control action, b) a first machine learning module (NN1) is trained, using the training data, to use a state dataset (S) and an action dataset (A) to reproduce a resulting performance value (R), c) a multiplicity of different deterministic control agents (P1, P2,...) are each supplied with state datasets (S), and resulting output data are fed into the trained first machine learning module (NN1) as action datasets, d) performance values output by the trained first machine learning module (NN1) are taken as a basis for selecting multiple instances of the control agents, e) the technical system is respectively controlled by the selected control agents (SP1, ..., SPK), with further state datasets (ES), action datasets (EA) and performance values (ER) being captured and added to the training data, and f) method steps b) to e) are repeated using the thus augmented training data.
A key obtaining method, comprising: receiving (S201), by a target access and mobility management function, AMF, entity, a first message for registering a terminal device; sending (S202), by the target AMF entity, a second message to a source AMF entity after receiving the first message, wherein the second message includes an identifier of the terminal device; wherein the key obtaining method is characterized in comprising: receiving (S203), by the target AMF entity, a third message from the source AMF entity, wherein the third message carries a first key obtained through a derivation based on a key between the source AMF entity and the terminal device; determining (S204), by the target AMF entity, based on security related information, whether to use the first key; when determining to use the first key, determining (S205), by the target AMF entity, a communication key between the target AMF entity and the terminal device based on the first key; and sending (S206), by the target AMF entity, to the terminal device, a non-access stratum security mode command, NAS SMC, that carries first indication information indicating the terminal device to derive the first key. receiving (S201), by a target access and mobility management function, AMF, entity, a first message for registering a terminal device; sending (S202), by the target AMF entity, a second message to a source AMF entity after receiving the first message, wherein the second message includes an identifier of the terminal device; wherein the key obtaining method is characterized in comprising: receiving (S203), by the target AMF entity, a third message from the source AMF entity, wherein the third message carries a first key obtained through a derivation based on a key between the source AMF entity and the terminal device; determining (S204), by the target AMF entity, based on security related information, whether to use the first key; when determining to use the first key, determining (S205), by the target AMF entity, a communication key between the target AMF entity and the terminal device based on the first key; and sending (S206), by the target AMF entity, to the terminal device, a non-access stratum security mode command, NAS SMC, that carries first indication information indicating the terminal device to derive the first key. receiving (S203), by the target AMF entity, a third message from the source AMF entity, wherein the third message carries a first key obtained through a derivation based on a key between the source AMF entity and the terminal device; determining (S204), by the target AMF entity, based on security related information, whether to use the first key; when determining to use the first key, determining (S205), by the target AMF entity, a communication key between the target AMF entity and the terminal device based on the first key; and sending (S206), by the target AMF entity, to the terminal device, a non-access stratum security mode command, NAS SMC, that carries first indication information indicating the terminal device to derive the first key.
Assembly of a vehicle aluminum cradle on a body structure, comprising at least one lateral side rail made of aluminum, characterized in that it comprises an aluminum casting comprising an upper face secured below said side rail , one or a plurality of lower parts secured on said cradle , and an opening which permits passage of the drive shaft.
A therapeutically effective amount of cannabidiolic acid (CBDA) for use in the treatment of epilepsy, wherein the CBDA is in the form of a highly purified extract of cannabis such that the CBDA is present at greater than 98% of the total extract (w/w) or is synthetically produced.
A validation method of a radio navigation device installed on board a mobile carrier , including a satellite geo-positioning device able to receive a composite radio signal including a plurality of radio navigation signals each transmitted by a transmitting satellite and including time-synchronization and position-reference information, the radio navigation device comprising an onboard processing module comprising hardware and software elements able to carry out processing of the received radio navigation signals to calculate first navigation information including information on the geographical position, speed and time of the carrier, characterized in that it comprises the following steps: - transmitting , by said radio navigation device, baseband digitized signals (IF 1 , ..., IF N ) from the received radio navigation signals to a reference processing station , - implementing, by said reference processing station , processing similar to the processing done by said radio navigation device of the baseband digitized signals (IF 1 , ..., IF N ) to calculate second navigation information, - validating the first navigation information based on the second navigation information calculated by the reference processing station , the validation allowing to validate the proper operation of the hardware and software elements of the onboard processing module of the radio navigation device . - transmitting , by said radio navigation device, baseband digitized signals (IF 1 , ..., IF N ) from the received radio navigation signals to a reference processing station , - implementing, by said reference processing station , processing similar to the processing done by said radio navigation device of the baseband digitized signals (IF 1 , ..., IF N ) to calculate second navigation information, - validating the first navigation information based on the second navigation information calculated by the reference processing station , the validation allowing to validate the proper operation of the hardware and software elements of the onboard processing module of the radio navigation device .
A power storage device comprising: a secondary battery ; a memory unit that is configured to store user's schedule information, an acquisition unit that is configured to acquire charging period information for charging the secondary battery ; wherein the acquisition unit is configured to calculate the charging period information on the basis of the schedule information stored in the memory unit; and a charge control unit that is configured to calculate a charging power on the basis of the charging period information and is configured to control charging power used for charging the secondary battery so that the charging power is equal to the calculated charging power, characterized in that the charge control unit is configured to recalculate the charging power at predetermined time intervals in order to complete the charging within a charging period. a secondary battery ; a memory unit that is configured to store user's schedule information, an acquisition unit that is configured to acquire charging period information for charging the secondary battery ; wherein the acquisition unit is configured to calculate the charging period information on the basis of the schedule information stored in the memory unit; and a charge control unit that is configured to calculate a charging power on the basis of the charging period information and is configured to control charging power used for charging the secondary battery so that the charging power is equal to the calculated charging power, characterized in that the charge control unit is configured to recalculate the charging power at predetermined time intervals in order to complete the charging within a charging period.
Battery module for a motor vehicle, having a battery compartment for accommodating a plurality of battery cells , having a closed frame which is formed from side wall profiles and surrounds the battery compartment, and having a base that closes off the battery compartment at the bottom, wherein the base comprises an extruded aluminium alloy cooling profile having magnesium and silicon as main alloying elements, wherein the cooling profile comprises at least one flat multi-chamber hollow profile with several chambers arranged next to each other , which are separated from each other by separating webs , wherein a cooling medium can flow in at one end of the cooling profile through an inlet , flow through a number of initial chambers of the cooling profile , change its flow direction at the other end of the cooling profile and, after the flow reversal, flow back through a further number of secondary chambers of the cooling profile to an outlet , wherein the one divider which is disposed between a first chamber and a second chamber has a greater width than the other dividers which are respectively provided between the first chambers and which are provided between the second chambers , wherein the width of one divider is at least several times the width of the other divider . wherein the base comprises an extruded aluminium alloy cooling profile having magnesium and silicon as main alloying elements, wherein the cooling profile comprises at least one flat multi-chamber hollow profile with several chambers arranged next to each other , which are separated from each other by separating webs , wherein a cooling medium can flow in at one end of the cooling profile through an inlet , flow through a number of initial chambers of the cooling profile , change its flow direction at the other end of the cooling profile and, after the flow reversal, flow back through a further number of secondary chambers of the cooling profile to an outlet , wherein the one divider which is disposed between a first chamber and a second chamber has a greater width than the other dividers which are respectively provided between the first chambers and which are provided between the second chambers , wherein the width of one divider is at least several times the width of the other divider .
A treatment apparatus of injured tissues comprising: - a cover capable of being placed over or around an individual's body part such that the cover has a positioning zone (Z) for positioning said individual's body part, the cover being equipped with an inlet for a gaseous medium and with an outlet for removing the gaseous medium present in the cover , - a control system of the flow of the gaseous medium, characterized in that the control system comprises a deflector (12, 12 1 ), said deflector (12, 12 1 ) modifying the direction of flow of the gaseous medium entering the cover via the inlet away from the positioning zone (Z) and creating a turbulent flow regimen in order to homogenize the gaseous medium present inside the cover . - a cover capable of being placed over or around an individual's body part such that the cover has a positioning zone (Z) for positioning said individual's body part, the cover being equipped with an inlet for a gaseous medium and with an outlet for removing the gaseous medium present in the cover , - a control system of the flow of the gaseous medium,
A device for guiding at least one flexible line in the annular space between a head tube of a vehicle frame and a steerer tube of a steerer fork of a vehicle which is rotatable in the head tube , characterized in that it forms at least one form element for the formation of at least one helical guide of at least one winding for at least one line in the annular space.
A charged particle beam source configured to release a charged particle beam aligned with an optical axis (OA) comprising: a chamber having a top side in the direction of the optical axis (OA) and a side wall ; a first unit including both a supportive insulator mechanically supporting a cable and a first set of terminals (28a-c) electrically connected to the cable ; the first unit further including a support member having a central axis coincident with the optical axis (OA); and a second unit including both an emitter for emitting charged particles and a second set of terminals (32a-c) electrically connected to the emitter , the second unit being capable of detachably mounted to the first unit ; wherein the first unit is secured in a through-hole formed in the side wall of the chamber and the top side of the chamber has an opening through which the second unit can be inserted in or removed from the chamber ; and wherein the emitter is placed on an optical axis (OA) within the chamber when fitted to the support member , whereby the first and second sets of terminals are brought into contact with each other. a chamber having a top side in the direction of the optical axis (OA) and a side wall ; a first unit including both a supportive insulator mechanically supporting a cable and a first set of terminals (28a-c) electrically connected to the cable ; the first unit further including a support member having a central axis coincident with the optical axis (OA); and a second unit including both an emitter for emitting charged particles and a second set of terminals (32a-c) electrically connected to the emitter , the second unit being capable of detachably mounted to the first unit ; wherein the first unit is secured in a through-hole formed in the side wall of the chamber and the top side of the chamber has an opening through which the second unit can be inserted in or removed from the chamber ; and wherein the emitter is placed on an optical axis (OA) within the chamber when fitted to the support member , whereby the first and second sets of terminals are brought into contact with each other.