mhurhangee/ep-ind-claims huggingface dataset:
A device for curing or consolidating a textile preform pre-impregnated with a polymer, said device comprising: a. a matrix, without any heating or cooling means, comprising a moulding face that reproduces the shape of the textile preform and an assembly interface; b. a sealed bagging of the preform on the matrix; c. means to apply vacuum inside the bagging comprising the textile preform; d. a thermal unit, comprising a base comprising an induction circuit including one or more inductors circulating in cavities made in said base, and connected to a high-frequency current generator and comprising: di. a support comprising a receiving interface and a heating interface cooperating with the assembly interface of the matrix for positioning the matrix on said support and for transferring heat between said matrix and said thermal unit, and a heating interface on a face opposite the receiving interface; dii. a thermal accumulator in contact with the base, heated by the induction circuit of said base; diii. means for communicating heat from the thermal accumulator to the support through the heating interface of said support. a. a matrix, without any heating or cooling means, comprising a moulding face that reproduces the shape of the textile preform and an assembly interface; b. a sealed bagging of the preform on the matrix; c. means to apply vacuum inside the bagging comprising the textile preform; d. a thermal unit, comprising a base comprising an induction circuit including one or more inductors circulating in cavities made in said base, and connected to a high-frequency current generator and comprising: di. a support comprising a receiving interface and a heating interface cooperating with the assembly interface of the matrix for positioning the matrix on said support and for transferring heat between said matrix and said thermal unit, and a heating interface on a face opposite the receiving interface; dii. a thermal accumulator in contact with the base, heated by the induction circuit of said base; diii. means for communicating heat from the thermal accumulator to the support through the heating interface of said support. di. a support comprising a receiving interface and a heating interface cooperating with the assembly interface of the matrix for positioning the matrix on said support and for transferring heat between said matrix and said thermal unit, and a heating interface on a face opposite the receiving interface; dii. a thermal accumulator in contact with the base, heated by the induction circuit of said base; diii. means for communicating heat from the thermal accumulator to the support through the heating interface of said support.
A compression device comprising a centrifugal compressor and an intake silencer, the centrifugal compressor comprising: an impeller for compressing a fluid; an inlet guide, housing the impeller, for guiding the fluid; and a scroll casing forming a scroll chamber for guiding the fluid which has passed through the inlet guide to outside; and a compressor assembly bolt fastening an inlet side of the inlet guide to the scroll casing, characterized in that the intake silencer comprises a silencer assembly bolt penetrating through the entire intake silencer in a direction along a rotational axis of the impeller and fastening the intake silencer to the scroll casing. an impeller for compressing a fluid; an inlet guide, housing the impeller, for guiding the fluid; and a scroll casing forming a scroll chamber for guiding the fluid which has passed through the inlet guide to outside; and a compressor assembly bolt fastening an inlet side of the inlet guide to the scroll casing, characterized in that
A window installation apparatus for installing a window in a window opening, said apparatus comprising at least one wedge-shaped distance piece, wherein said apparatus has a body connected in a sliding manner to a clamp, between which an expansion unit is positioned, comprising a wedge and a lead screw connected by means of a threaded connection with an opening of the wedge, wherein the body has lateral rails mating with brackets of the clamp, while the outer walls of the wedge and the inner walls of the body and the clamp converge downward at the same angle, the apparatus being characterized in that the body has protrusions positioned at its opposite sides and adapted to lock in a rail positioned outside the window frame, and an opening in a rest wall, against which the head of the lead screw rests.
An apparatus for treating pulp, said apparatus comprising at least one liquid permeable surface rotating around a shaft, onto which surface a pulp layer is formed, the rotating surface being formed of at least one drum rotating around a shaft, means for feeding the pulp being treated into the apparatus, means for discharging the treated pulp from the apparatus and means for removing filtrates from the apparatus, characterized in that the apparatus is provided with at least one inside construction dividing the interior of the apparatus, forming at least two separate treatment sections in the apparatus in such a way that each of the sections is connected to means for feeding at least one pulp so that the pulps to be treated in the sections come from different treatment stages and to pulp removal means so that the treated pulps are removed from the apparatus separately, wherein the apparatus comprises a first and a second treatment section, the pulp feeding means of the first thereof being connected to a first treatment stage with first treatment conditions and the pulp feeding means of the second thereof being connected to a second treatment stage with second conditions.
A bridging device with two connection levels, a first level for lamellae originating from a continuous conductor bar connected to neutral, and a second level for lamellae originating from n, n being a whole natural number comprised between 1 and 3, continuous phase bars, equipped with lamellae of spatial frequency n times less than that of the neutral lamellae and following on from each other according to a regular pattern, said bars (16, 16') and their lamellae (4, 5) forming distinct connection combs (12, 13, 14, 15) fixed in an insulating sheath provided with a face beyond which the lamellae (4, 5) pass on two parallel lines constituting said connection levels, the length of the lamellae (4, 5) of the combs (12, 13, 14, 15), the configuration of these latter and their relative positioning/insulation means in the sheath being provided so that the portions of the lamellae (4, 5) passing beyond the insulating sheath are of equal length, the lamellae (4, 5) of the two bridging levels being distant by a same pitch and offset, at least the lamellae of the phase combs (12, 13, 14) being displaced laterally with respect to the bars, arranging between them free spaces (17, 18, 19) in the manner of a crenellation, characterized in that: • a face of the insulating sheath distinct from that beyond which the lamellae (4, 5) pass comprises openings (7, 8) for insertion and for guiding of a connection tongue of a derivation terminal at a rate of at least one opening per phase and of at least one opening for the neutral, giving access to the corresponding comb (12, 13, 14, 15) and situated for each phase or the neutral at the level of free spaces (17, 18, 19) of the crenellation of the other phases or of the neutral; and • the positioning means of the combs (12, 13, 14, 15) in the sheath have means (21, 24, 25) for passing/guiding of the tongues of the derivation terminals permitting them to be placed in contact with a phase or the neutral and to be insulated with respect to the other phases or to the neutral. • a face of the insulating sheath distinct from that beyond which the lamellae (4, 5) pass comprises openings (7, 8) for insertion and for guiding of a connection tongue of a derivation terminal at a rate of at least one opening per phase and of at least one opening for the neutral, giving access to the corresponding comb (12, 13, 14, 15) and situated for each phase or the neutral at the level of free spaces (17, 18, 19) of the crenellation of the other phases or of the neutral; and • the positioning means of the combs (12, 13, 14, 15) in the sheath have means (21, 24, 25) for passing/guiding of the tongues of the derivation terminals permitting them to be placed in contact with a phase or the neutral and to be insulated with respect to the other phases or to the neutral.
An explosion-proof apparatus comprising a stopper having a hollow cylindrical shape that is open at a first side and closed at a second side opposite to the first side, the stopper being configured to be combined with an electrolytic capacitor through the first side of the stopper, wherein the stopper is configured to surround an explosion-proof face of the electrolytic capacitor and a lateral side of the electrolytic capacitor connected to the explosion-proof face; and a holder mounted to the stopper and configured to support the stopper to prevent the stopper from being separated from the electrolytic capacitor, wherein the first side of the stopper is spaced apart from the explosion-proof face of the electrolytic capacitor, characterised in that the stopper comprises: at least one hole (h1, h21, h22) provided in at least one of the lateral side and the second side of the stopper to provide a passage for releasing an electrolyte gas flowing out of the electrolytic capacitor through the explosion-proof face, and wherein the at least one hole is smaller in size than the explosion-proof face of the electrolytic capacitor. a stopper having a hollow cylindrical shape that is open at a first side and closed at a second side opposite to the first side, the stopper being configured to be combined with an electrolytic capacitor through the first side of the stopper, wherein the stopper is configured to surround an explosion-proof face of the electrolytic capacitor and a lateral side of the electrolytic capacitor connected to the explosion-proof face; and a holder mounted to the stopper and configured to support the stopper to prevent the stopper from being separated from the electrolytic capacitor, wherein the first side of the stopper is spaced apart from the explosion-proof face of the electrolytic capacitor, characterised in that the stopper comprises: at least one hole (h1, h21, h22) provided in at least one of the lateral side and the second side of the stopper to provide a passage for releasing an electrolyte gas flowing out of the electrolytic capacitor through the explosion-proof face, and wherein the at least one hole is smaller in size than the explosion-proof face of the electrolytic capacitor. at least one hole (h1, h21, h22) provided in at least one of the lateral side and the second side of the stopper to provide a passage for releasing an electrolyte gas flowing out of the electrolytic capacitor through the explosion-proof face, and wherein the at least one hole is smaller in size than the explosion-proof face of the electrolytic capacitor.
A method of controlling movement of a component in a system by a plurality of actuators, comprising: receiving an operation actuation command to move the component; and for each of the plurality of actuators: using the operation actuation command to generate a feed-forward equalization command for the actuator, combining the feed-forward equalization command for the actuator with the operation actuation command to provide an equalized actuation command for the actuator, and controlling the actuator to move the component using the equalized actuation command for the actuator, the method comprising delaying combining the feed-forward equalization command for the actuator with the operation actuation command to provide the equalized actuation command for the actuator based on a model of actuator system response delay. receiving an operation actuation command to move the component; and for each of the plurality of actuators: using the operation actuation command to generate a feed-forward equalization command for the actuator, combining the feed-forward equalization command for the actuator with the operation actuation command to provide an equalized actuation command for the actuator, and controlling the actuator to move the component using the equalized actuation command for the actuator, using the operation actuation command to generate a feed-forward equalization command for the actuator, combining the feed-forward equalization command for the actuator with the operation actuation command to provide an equalized actuation command for the actuator, and controlling the actuator to move the component using the equalized actuation command for the actuator, the method comprising delaying combining the feed-forward equalization command for the actuator with the operation actuation command to provide the equalized actuation command for the actuator based on a model of actuator system response delay.
An image data processing method, comprising: an image data compression step of compressing image data after RIP processing by run-length encoding; and an ink consumption amount estimation step of calculating a predicted ink consumption amount when printing based on the image data is performed by an inkjet printing device, wherein an ink consumption amount table is prepared for each group obtained by dividing the entire print width of the inkjet printing device into two or more, the ink consumption amount table holding information on an ink consumption amount for each gradation value, in the image data compression step, when run-length encoding is applied on the image data, a histogram indicative of the number of occurrences for each gradation value is generated for each group, in the ink consumption amount estimation step, a predicted value of an ink consumption amount is calculated for each group based on information on the number of occurrences for each gradation value indicated by the histogram and the information on the ink consumption amount for each gradation value held in the ink consumption amount table, and a sum of predicted values calculated for all groups is taken as the predicted ink consumption amount. an image data compression step of compressing image data after RIP processing by run-length encoding; and an ink consumption amount estimation step of calculating a predicted ink consumption amount when printing based on the image data is performed by an inkjet printing device, wherein an ink consumption amount table is prepared for each group obtained by dividing the entire print width of the inkjet printing device into two or more, the ink consumption amount table holding information on an ink consumption amount for each gradation value, in the image data compression step, when run-length encoding is applied on the image data, a histogram indicative of the number of occurrences for each gradation value is generated for each group, in the ink consumption amount estimation step, a predicted value of an ink consumption amount is calculated for each group based on information on the number of occurrences for each gradation value indicated by the histogram and the information on the ink consumption amount for each gradation value held in the ink consumption amount table, and a sum of predicted values calculated for all groups is taken as the predicted ink consumption amount.
A computer-implemented method for migrating data, comprising: receiving, by a migration source terminal, an application migration instruction, and determining, by the migration source terminal, a target application and a migration target terminal corresponding to the application migration instruction; establishing, by the migration source terminal, a communication connection with the migration target terminal; acquiring, by the migration source terminal, a target system type of the migration target terminal and a local system type of the migration source terminal, upon detecting that the communication connection is established successfully; and instructing, by the migration source terminal, the migration target terminal to download the target application by sending an application download instruction to the migration target terminal, when the local system type is not matched with the target system type; acquiring (S 106) user data of the target application; and migrating the user data to the migration target terminal after the migration target terminal downloads the target application, characterised in that: when the communication connection between the migration source terminal and the migration target terminal fails to be established,counting, by the migration source terminal, time elapsed after determining the target application and the migration target terminal corresponding to the application migration instruction, and resending, by the migration source terminal, a request for establishing the communication connection to the migration target terminal when the time exceeds a preset threshold. receiving, by a migration source terminal, an application migration instruction, and determining, by the migration source terminal, a target application and a migration target terminal corresponding to the application migration instruction; establishing, by the migration source terminal, a communication connection with the migration target terminal; acquiring, by the migration source terminal, a target system type of the migration target terminal and a local system type of the migration source terminal, upon detecting that the communication connection is established successfully; and instructing, by the migration source terminal, the migration target terminal to download the target application by sending an application download instruction to the migration target terminal, when the local system type is not matched with the target system type; acquiring (S 106) user data of the target application; and migrating the user data to the migration target terminal after the migration target terminal downloads the target application,
A method for detection of malicious files, the method comprising: training a mapping model for mapping files in a probability space characterizing one or more families of malicious files, wherein the probability space comprises a multidimensional space in which a pair of one of the plurality of characteristics of the file and one of a plurality of attributes associated with the behavior of the file are matched up with a probability that the behavior described by the one the plurality of attributes is typical to the file having the one of the plurality of characteristics; determining a plurality of characteristics of an analyzed file based on a set of rules; generating, using the mapping model, a mapping of the analyzed file in the probability space based on the determined plurality of characteristics; searching a first database using the generated mapping of the analyzed file to determine whether the analyzed file is associated with a family of malicious files, wherein the first database stores mappings associated with one or more families of malicious files; and in response to determining that the analyzed file is associated with the family of malicious files, selecting one or more methods of malware detection from a second database, wherein the second database stores a plurality of malware detection methods and wherein the selected one or more methods are used to detect the associated family of malicious files. training a mapping model for mapping files in a probability space characterizing one or more families of malicious files, wherein the probability space comprises a multidimensional space in which a pair of one of the plurality of characteristics of the file and one of a plurality of attributes associated with the behavior of the file are matched up with a probability that the behavior described by the one the plurality of attributes is typical to the file having the one of the plurality of characteristics; determining a plurality of characteristics of an analyzed file based on a set of rules; generating, using the mapping model, a mapping of the analyzed file in the probability space based on the determined plurality of characteristics; searching a first database using the generated mapping of the analyzed file to determine whether the analyzed file is associated with a family of malicious files, wherein the first database stores mappings associated with one or more families of malicious files; and in response to determining that the analyzed file is associated with the family of malicious files, selecting one or more methods of malware detection from a second database, wherein the second database stores a plurality of malware detection methods and wherein the selected one or more methods are used to detect the associated family of malicious files.
A method being performed by a base station associated with a first cell for a wireless communication system, the method comprising: identifying a data radio bearer, DRB, configured as a dual active protocol stack, DAPS, bearer, established with a user equipment, UE (1-35, 601, 720, 1101, 1501, 1703, 1803, 2003, 2201); identifying that a robust header compression, ROHC, is configured for a packet data convergence protocol, PDCP, entity associated with the DRB; and transmitting downlink data to the UE (1-35, 601, 720, 1101, 1501, 1703, 1803, 2003, 2201) based on maintaining an initialization and refresh, IR, state for a ROHC protocol of the first cell during a DAPS handover before a release of a second cell, wherein the ROHC protocol operates in an unidirectional mode, U-mode, or a bidirectional optimistic mode, O-mode. identifying a data radio bearer, DRB, configured as a dual active protocol stack, DAPS, bearer, established with a user equipment, UE (1-35, 601, 720, 1101, 1501, 1703, 1803, 2003, 2201); identifying that a robust header compression, ROHC, is configured for a packet data convergence protocol, PDCP, entity associated with the DRB; and transmitting downlink data to the UE (1-35, 601, 720, 1101, 1501, 1703, 1803, 2003, 2201) based on maintaining an initialization and refresh, IR, state for a ROHC protocol of the first cell during a DAPS handover before a release of a second cell, wherein the ROHC protocol operates in an unidirectional mode, U-mode, or a bidirectional optimistic mode, O-mode.