mhurhangee/ep-ind-claims huggingface dataset:
A machine for forming and filling a container for pourable products; the forming and filling machine comprises: a fixed part; a movable part, which, in use, moves relative to the fixed part and is arranged so as to face the fixed part; and a sealing device, which is interposed between the fixed part and the movable part so as to prevent the passage of fluid and comprises at least one elastic gasket and a seat which is obtained in the fixed or movable part (19; 18) and houses a portion of the elastic gasket, which partially projects out of the seat and protrudes towards the movable or fixed part (18; 19), resting against the movable or fixed part (18; 19); the forming and filling machine is characterized in that: the seat houses the elastic gasket in a sliding manner, so as to allow the elastic gasket to slide inside the seat; and the sealing device comprises a first supplying member for supplying, when needed, compressed air under pressure into the seat and behind the elastic gasket, so as to pneumatically push the elastic gasket out of the seat and, hence, press the elastic gasket against the movable or fixed part (18; 19). a fixed part; a movable part, which, in use, moves relative to the fixed part and is arranged so as to face the fixed part; and a sealing device, which is interposed between the fixed part and the movable part so as to prevent the passage of fluid and comprises at least one elastic gasket and a seat which is obtained in the fixed or movable part (19; 18) and houses a portion of the elastic gasket, which partially projects out of the seat and protrudes towards the movable or fixed part (18; 19), resting against the movable or fixed part (18; 19); the forming and filling machine is characterized in that: the seat houses the elastic gasket in a sliding manner, so as to allow the elastic gasket to slide inside the seat; and the sealing device comprises a first supplying member for supplying, when needed, compressed air under pressure into the seat and behind the elastic gasket, so as to pneumatically push the elastic gasket out of the seat and, hence, press the elastic gasket against the movable or fixed part (18; 19). the seat houses the elastic gasket in a sliding manner, so as to allow the elastic gasket to slide inside the seat; and the sealing device comprises a first supplying member for supplying, when needed, compressed air under pressure into the seat and behind the elastic gasket, so as to pneumatically push the elastic gasket out of the seat and, hence, press the elastic gasket against the movable or fixed part (18; 19).
A method of signing prediction-coded video data, the method comprising: a) obtaining a coded video sequence comprising a set of frames including at least one intra frame which contains independently decodable image data, and at least one inter frame, which contains image data decodable by reference to at least one other frame; b) generating a group hash of the coded video sequence by hashing the image data of the coded video sequence; c) generating a plurality of individual hashes of frame subsets including at least one frame by hashing the image data derived from each of the frame subsets, d) reducing the length of each of at least one of the individual hashes to a length shorter than a total length of the group hash, by truncating the hash or masking of individual characters, digits or bytes of the hash, wherein the lengths of the plurality of individual hashes are reduced to a set of lengths different from each other, the lengths of the set of lengths depend on the position of the respective frame subset in a group of pictures of the coded video sequence, and the lengths of the plurality of individual hashes decrease for frame subsets in positions further from an initial intra frame in a group of pictures of the coded video sequence, e) generating a digital signature by encrypting at least the group hash and the individual hashes with reduced lengths using a private key; f) providing the group hash and the reduced length individual hashes together with the digital signature and the coded video sequence. a) obtaining a coded video sequence comprising a set of frames including at least one intra frame which contains independently decodable image data, and at least one inter frame, which contains image data decodable by reference to at least one other frame; b) generating a group hash of the coded video sequence by hashing the image data of the coded video sequence; c) generating a plurality of individual hashes of frame subsets including at least one frame by hashing the image data derived from each of the frame subsets, d) reducing the length of each of at least one of the individual hashes to a length shorter than a total length of the group hash, by truncating the hash or masking of individual characters, digits or bytes of the hash, wherein the lengths of the plurality of individual hashes are reduced to a set of lengths different from each other, the lengths of the set of lengths depend on the position of the respective frame subset in a group of pictures of the coded video sequence, and the lengths of the plurality of individual hashes decrease for frame subsets in positions further from an initial intra frame in a group of pictures of the coded video sequence, e) generating a digital signature by encrypting at least the group hash and the individual hashes with reduced lengths using a private key; f) providing the group hash and the reduced length individual hashes together with the digital signature and the coded video sequence.
A method for igniting a set of electronic detonators, each electronic detonator having an associated ignition delay (t delay), the method including the following steps: - receiving, by a receiver device (10; 30') associated with one or more electronic detonator(s), an ignition command among an emitted sequence of ignition commands (100, 100') including at least two ignition commands, a synchronisation delay (t2, t4) being associated with each ignition command; - counting down starting from a time of receipt of said ignition command the synchronisation delay (t2, t4) associated with said received ignition command; - counting down said ignition delay (t delay) associated with each electronic detonator starting from a synchronisation time (I s) corresponding to the time at which said countdown of the synchronisation delay (t2, t4) is completed; and - igniting each electronic detonator when said countdown of said ignition delay is completed. - receiving, by a receiver device (10; 30') associated with one or more electronic detonator(s), an ignition command among an emitted sequence of ignition commands (100, 100') including at least two ignition commands, a synchronisation delay (t2, t4) being associated with each ignition command; - counting down starting from a time of receipt of said ignition command the synchronisation delay (t2, t4) associated with said received ignition command; - counting down said ignition delay (t delay) associated with each electronic detonator starting from a synchronisation time (I s) corresponding to the time at which said countdown of the synchronisation delay (t2, t4) is completed; and - igniting each electronic detonator when said countdown of said ignition delay is completed.
An injectable sterile aqueous formulation, used for aesthetic purposes, in the form of a particulate cohesive viscoelastic gel comprising: i) crosslinked hyaluronic acid, or one of its salts, at a concentration of between 1% and 4% (mass/volume); the crosslinking carried out providing the possibility of obtaining a gel based on crosslinked hyaluronic acid with a so-called cohesive structure, and ii) hydroxyapatite at a concentration of between 5% and 60% (mass/volume), said hydroxyapatite being in the form of particles with an average size of less than or equal to 200 μm; said injectable sterile aqueous formulation having viscoelastic properties such that tan δ at the frequency of 1 Hz is less than or equal to 0.60. i) crosslinked hyaluronic acid, or one of its salts, at a concentration of between 1% and 4% (mass/volume); the crosslinking carried out providing the possibility of obtaining a gel based on crosslinked hyaluronic acid with a so-called cohesive structure, and ii) hydroxyapatite at a concentration of between 5% and 60% (mass/volume), said hydroxyapatite being in the form of particles with an average size of less than or equal to 200 μm;
A data sending method, wherein the method comprises: generating a remote direct memory access, RDMA, packet, wherein a payload part of the RDMA packet comprises a plurality of data blocks and protection information, PI, corresponding to each of the plurality data blocks in to-be-sent data; or a payload part of the RDMA packet comprises one data unit or a part of data in the data unit of to-be-sent data, the data unit comprises one data block and PI corresponding to the data block, and a length of the data unit is equal to an integer multiple of a length of the part of data; and sending the RDMA packet; wherein the generating a remote direct memory access RDMA packet comprises: obtaining a standard payload length L1 and a length L2 of the data block in the to-be-sent data; and generating the RDMA packet based on the standard payload length L1 and the length L2 of the data block. generating a remote direct memory access, RDMA, packet, wherein a payload part of the RDMA packet comprises a plurality of data blocks and protection information, PI, corresponding to each of the plurality data blocks in to-be-sent data; or a payload part of the RDMA packet comprises one data unit or a part of data in the data unit of to-be-sent data, the data unit comprises one data block and PI corresponding to the data block, and a length of the data unit is equal to an integer multiple of a length of the part of data; and sending the RDMA packet; wherein the generating a remote direct memory access RDMA packet comprises: obtaining a standard payload length L1 and a length L2 of the data block in the to-be-sent data; and generating the RDMA packet based on the standard payload length L1 and the length L2 of the data block. obtaining a standard payload length L1 and a length L2 of the data block in the to-be-sent data; and generating the RDMA packet based on the standard payload length L1 and the length L2 of the data block.
A protection circuit for a battery pack, comprising: a charge/discharge element for charging or discharging a battery; a temperature sensor for sensing a temperature of the battery; and a primary protection circuit connected to the temperature sensor and the charge/discharge element, for controlling the charge/discharge element to charge or discharge the battery based on whether the temperature sensed by the temperature sensor is within a reference operation temperature range, characterised in that the primary protection circuit controls the charge/discharge element such that a discharging operation is not performed when the temperature sensed by the temperature sensor is below a lower temperature boundary of the reference operation temperature range for discharging, and wherein the range of the reference operation temperature for the primary protection circuit controlling the charge/discharge element to discharge the battery pack is different from the range of the reference operation temperature for the primary protection circuit controlling the charge/discharge element to charge the battery pack. a charge/discharge element for charging or discharging a battery; a temperature sensor for sensing a temperature of the battery; and a primary protection circuit connected to the temperature sensor and the charge/discharge element, for controlling the charge/discharge element to charge or discharge the battery based on whether the temperature sensed by the temperature sensor is within a reference operation temperature range, characterised in that the primary protection circuit controls the charge/discharge element such that a discharging operation is not performed when the temperature sensed by the temperature sensor is below a lower temperature boundary of the reference operation temperature range for discharging, and wherein the range of the reference operation temperature for the primary protection circuit controlling the charge/discharge element to discharge the battery pack is different from the range of the reference operation temperature for the primary protection circuit controlling the charge/discharge element to charge the battery pack.
A method of handling safety in a working area of an industrial system, wherein a plurality of machines are arranged to operate in the working area, at least one manually operable safety input device is provided in the working area, and one or more of the machines is mobile and movable to different positions in the working area, the method comprising: - continuously or repeatedly determining whether one or more of the machines is in proximity to one or more of the at least one safety input device; characterized in that the method further comprises: - associating a plurality of machines with at least one safety input device upon determining that a plurality of the machines are in proximity to one or more of the at least one safety input device, such that the plurality of associated machines can be brought to a safe state by means of the at least one safety input device. - continuously or repeatedly determining whether one or more of the machines is in proximity to one or more of the at least one safety input device; - associating a plurality of machines with at least one safety input device upon determining that a plurality of the machines are in proximity to one or more of the at least one safety input device, such that the plurality of associated machines can be brought to a safe state by means of the at least one safety input device.
A method for obtaining a quantity of blind detection times, wherein the method comprises: receiving, by a terminal device, second information from a network device, wherein the second information comprises subcarrier spacing information; and determining, by the terminal device based on the subcarrier spacing information, a maximum quantity of blind detection times for the terminal device in a search space comprising: determining, by the terminal device, the maximum quantity of blind detection times for the terminal device in the search space on each carrier based on information about a quantity of aggregated carriers and the subcarrier spacing information; wherein before the receiving, by the terminal device, second information from the network device, the method further comprises: sending, by the terminal device to the network device, a maximum blind detection capability of the terminal device. receiving, by a terminal device, second information from a network device, wherein the second information comprises subcarrier spacing information; and determining, by the terminal device based on the subcarrier spacing information, a maximum quantity of blind detection times for the terminal device in a search space comprising: determining, by the terminal device, the maximum quantity of blind detection times for the terminal device in the search space on each carrier based on information about a quantity of aggregated carriers and the subcarrier spacing information; wherein before the receiving, by the terminal device, second information from the network device, the method further comprises: sending, by the terminal device to the network device, a maximum blind detection capability of the terminal device. determining, by the terminal device, the maximum quantity of blind detection times for the terminal device in the search space on each carrier based on information about a quantity of aggregated carriers and the subcarrier spacing information; wherein before the receiving, by the terminal device, second information from the network device, the method further comprises: sending, by the terminal device to the network device, a maximum blind detection capability of the terminal device.
A fast-locking phase-locked loop, PLL, (10, 30, 40) comprising: a gear-shifting loop filter, configured to have a dynamic bandwidth, wherein the gear-shifting loop filter comprising: a resistor set (R S2), configured to have a dynamic resistance; a capacitor set (C S1, C S2), coupled to the resistor set (R S2), configured to have a dynamic capacitance; wherein the dynamic resistance is switched from a first resistance to a second resistance and the dynamic capacitance is switched from a first capacitance to a second capacitance, to make the dynamic bandwidth be switched from a first bandwidth to a second bandwidth, characterized in that the gear-shifting loop filter further comprises: another capacitor set (C S1, C S2), coupled to the resistor set (R S2), configured to have another dynamic capacitance; wherein when the dynamic bandwidth is switched from the first bandwidth, set at the beginning of the locking operation, to the second bandwidth, bandwidth when locking operation is almost completed, said another dynamic capacitance is switched from another first capacitance to another second capacitance, to keep the phase margin of the fast-locking PLL (10, 30, 40) unchanged. a gear-shifting loop filter, configured to have a dynamic bandwidth, wherein the gear-shifting loop filter comprising: a resistor set (R S2), configured to have a dynamic resistance; a capacitor set (C S1, C S2), coupled to the resistor set (R S2), configured to have a dynamic capacitance; a resistor set (R S2), configured to have a dynamic resistance; a capacitor set (C S1, C S2), coupled to the resistor set (R S2), configured to have a dynamic capacitance; wherein the dynamic resistance is switched from a first resistance to a second resistance and the dynamic capacitance is switched from a first capacitance to a second capacitance, to make the dynamic bandwidth be switched from a first bandwidth to a second bandwidth, characterized in that the gear-shifting loop filter further comprises: another capacitor set (C S1, C S2), coupled to the resistor set (R S2), configured to have another dynamic capacitance; wherein when the dynamic bandwidth is switched from the first bandwidth, set at the beginning of the locking operation, to the second bandwidth, bandwidth when locking operation is almost completed, said another dynamic capacitance is switched from another first capacitance to another second capacitance, to keep the phase margin of the fast-locking PLL (10, 30, 40) unchanged. another capacitor set (C S1, C S2), coupled to the resistor set (R S2), configured to have another dynamic capacitance; wherein when the dynamic bandwidth is switched from the first bandwidth, set at the beginning of the locking operation, to the second bandwidth, bandwidth when locking operation is almost completed, said another dynamic capacitance is switched from another first capacitance to another second capacitance, to keep the phase margin of the fast-locking PLL (10, 30, 40) unchanged.
An electronic device for supporting a payment function, the electronic device comprising: a communication module; at least one memory storing a payment application; and a processor electrically connected to the memory and the communication module, wherein the memory stores instructions adapted, when executed, to cause the processor to: receive, by the payment application, payment information from an external device via the communication module and store, by the payment application, the received payment information in the memory, receive a deactivation request of at least one of the payment application and the payment information from the external device via the communication module, in response to the request, deactivate the at least one of the payment application and the payment information, and replace the payment application with a dummy program corresponding to the payment application. a communication module; at least one memory storing a payment application; and a processor electrically connected to the memory and the communication module, wherein the memory stores instructions adapted, when executed, to cause the processor to: receive, by the payment application, payment information from an external device via the communication module and store, by the payment application, the received payment information in the memory, receive a deactivation request of at least one of the payment application and the payment information from the external device via the communication module, in response to the request, deactivate the at least one of the payment application and the payment information, and replace the payment application with a dummy program corresponding to the payment application. receive, by the payment application, payment information from an external device via the communication module and store, by the payment application, the received payment information in the memory, receive a deactivation request of at least one of the payment application and the payment information from the external device via the communication module, in response to the request, deactivate the at least one of the payment application and the payment information, and replace the payment application with a dummy program corresponding to the payment application.
A wax warmer, comprising: a body; a reservoir for receiving a wax melt; a plate disposed adjacent the body and reservoir, wherein a first surface of the plate is in thermal communication with the reservoir; and a retention bracket provided on a second surface of the plate, wherein a threaded shaft extends from an outside surface of the retention bracket toward an interior of the body and wherein an aperture is provided within the retention bracket; a heater is provided within the aperture of the retention bracket; characterized in that a resilient heater clip (172, 182, 186, 200) is provided within the aperture of the retention bracket to retain said heater in contact with said second surface of the plate during operation of the wax warmer. a body; a reservoir for receiving a wax melt; a plate disposed adjacent the body and reservoir, wherein a first surface of the plate is in thermal communication with the reservoir; and a retention bracket provided on a second surface of the plate, wherein a threaded shaft extends from an outside surface of the retention bracket toward an interior of the body and wherein an aperture is provided within the retention bracket; a heater is provided within the aperture of the retention bracket;
An air diffuser comprising, at least one primary discharge element (12b. 12d, 12b1, 12d1) and at least one secondary discharge element, characterized in that the secondary discharge element is arranged to discharge a secondary airstream (13, 13a) capable of flowing across at least one surface that directs the secondary airstream (13, 13a) substantially in a plane of the diffuser discharge face in the vicinity directly downstream of the secondary discharge element; and the primary discharge element (12b, 12d, 12b1, 12d1) is arranged to discharge a primary airstream (9c, 9e, 9c1, 9e1) that is induced by the secondary discharged airstream (13, 13a) such that the direction of the primary discharged airstream (9c, 9e, 9c1, 9e1) is largely determined by the direction of travel of the secondary airstream (13, 13a); characterized in that the primary discharge element defines a common airflow rate element that is manipulable to vary the airflow rates of the secondary airstream (13, 13a) and of the primary airstream (9c, 9e, 9c1, 9e1); and wherein the common airflow rate element may vary the airflow rates of the primary airstream (9c, 9e, 9c1, 9e1) and of the secondary airstream (13, 13a) substantially independently of one another.