mhurhangee/ep-ind-claims huggingface dataset:
A filler neck of a fuel tank comprising a receiving pipe intended to receive a filling nozzle, and a liquid-vapor separator (1a, 1b, 1c, 1d, 1e), comprising a hollow body into which a single vapor flow inlet pipe from the fuel tank, a drainage pipe flowing into the receiving pipe, and a vapor outlet pipe open, said hollow body containing separating means (130, 130a, 130b, 135, 139, 145) allowing the extraction of droplets present in the vapor flow such that they flow into the drainage pipe, characterized in that the separating means comprise at least one wall (130, 130a, 130b, 135, 139b, 145) movable between a first and a second configuration such that: - in the first configuration, the movable wall (130, 130a, 130b, 135, 139b, 145) is arranged substantially vertically and forms together with the walls of the hollow body a labyrinth in which the vapor flow passing from the inlet pipe to the outlet pipe is forced to circulate along a given path bypassing said wall, so that fuel droplets contained in the vapors are deposited on the movable wall and flow by gravity towards the receiving pipe, and that, - in the second configuration, the movable wall (130, 130a, 130b, 135, 139b, 145) is arranged so as to define a passage in which the vapor flow circulates from the inlet pipe to the outlet pipe along a path avoiding all or part of the path taken by said vapors when the movable wall is in the first configuration, the cross-section of said passage being arranged such that the load loss suffered by the vapor flow circulating in the hollow body between the inlet pipe and the outlet pipe is strictly smaller than that suffered by a same vapor flow when the movable wall is in the first configuration. - in the first configuration, the movable wall (130, 130a, 130b, 135, 139b, 145) is arranged substantially vertically and forms together with the walls of the hollow body a labyrinth in which the vapor flow passing from the inlet pipe to the outlet pipe is forced to circulate along a given path bypassing said wall, so that fuel droplets contained in the vapors are deposited on the movable wall and flow by gravity towards the receiving pipe, and that, - in the second configuration, the movable wall (130, 130a, 130b, 135, 139b, 145) is arranged so as to define a passage in which the vapor flow circulates from the inlet pipe to the outlet pipe along a path avoiding all or part of the path taken by said vapors when the movable wall is in the first configuration, the cross-section of said passage being arranged such that the load loss suffered by the vapor flow circulating in the hollow body between the inlet pipe and the outlet pipe is strictly smaller than that suffered by a same vapor flow when the movable wall is in the first configuration.
A power supply apparatus comprising: a power supply means configured to wirelessly supply power to an electronic apparatus; a communication means configured to communicate with the electronic apparatus; and a control means configured to determine whether information regarding the electronic apparatus that is received from the electronic apparatus is updated by the electronic apparatus, wherein the control means is configured to control, based on the information regarding the electronic apparatus that is received from the electronic apparatus, second power to be supplied from the power supply apparatus to the electronic apparatus, in a case where the information regarding the electronic apparatus that is received from the electronic apparatus is updated by the electronic apparatus, and wherein the control means is configured to control the power supply means so as to supply first power to the electronic apparatus without using the information regarding the electronic apparatus that is received from the electronic apparatus, in a case where the information regarding the electronic apparatus that is received from the electronic apparatus is not updated by the electronic apparatus. a power supply means configured to wirelessly supply power to an electronic apparatus; a communication means configured to communicate with the electronic apparatus; and a control means configured to determine whether information regarding the electronic apparatus that is received from the electronic apparatus is updated by the electronic apparatus, wherein the control means is configured to control, based on the information regarding the electronic apparatus that is received from the electronic apparatus, second power to be supplied from the power supply apparatus to the electronic apparatus, in a case where the information regarding the electronic apparatus that is received from the electronic apparatus is updated by the electronic apparatus, and wherein the control means is configured to control the power supply means so as to supply first power to the electronic apparatus without using the information regarding the electronic apparatus that is received from the electronic apparatus, in a case where the information regarding the electronic apparatus that is received from the electronic apparatus is not updated by the electronic apparatus.
A sterilizing apparatus, in particular for sterilizing post-consumer absorbent sanitary products, comprising: - a container rotatable about a horizontal axis, and having a hollow wall including an inner wall, an outer wall, and a gap defined between the inner wall and the outer wall, - a rotary joint coaxial to said horizontal axis and having a steam inlet chamber and a condensate discharge chamber, wherein the steam inlet chamber and the condensate discharge chamber of said rotary joint are in communication with respective zones of said gap via a steam supply tube and a condensate collection tube, wherein the condensate collection tube has a condensate inlet end attached to the outer wall of the container and communicating with the gap, characterized in that: said apparatus comprises a condensate collection container fixed to the container inside the gap, wherein the condensate collection container extends from a first end shaped around said condensate inlet end of said condensate collection tube to a second end provided with a lip located at a distance from a cylindrical surface of the outer wall, wherein the condensate in the gap can enter into the condensate collection container through said lip when the condensate collection container reaches the lowest position during rotation of the container, and the shape of said condensate collection container from said first end to said second end allows the condensate to remain within the condensate collection container during rotation of the container and then to fall off by gravity into the condensate inlet end of the condensate collection tube when the condensate collection container reaches its highest position during rotation of the container. - a container rotatable about a horizontal axis, and having a hollow wall including an inner wall, an outer wall, and a gap defined between the inner wall and the outer wall, - a rotary joint coaxial to said horizontal axis and having a steam inlet chamber and a condensate discharge chamber, wherein the steam inlet chamber and the condensate discharge chamber of said rotary joint are in communication with respective zones of said gap via a steam supply tube and a condensate collection tube, wherein the condensate collection tube has a condensate inlet end attached to the outer wall of the container and communicating with the gap,
A screen projection method, performed by a receiving end device, characterized in that the method comprises: searching for a sending end device by using a preset wireless scanning technology (S101; S201); establishing a wireless connection with the sending end device when the sending end device, which has enabled a same wireless function as that of the receiving end device and a distance from the receiving end device being within a certain range, is found (S102; S202); wherein the establishing a wireless connection with the sending end device when the sending end device is found (S102; S202), comprises: sending a request packet to the sending end device when the sending end device is found; receiving a response packet fed back by the sending end device, wherein the response packet carries identification information indicating whether the sending end device has opened a screen projection software; and establishing the wireless connection with the sending end device when it is determined that the sending end device has opened the screen projection software based on the identification information; acquiring a screen projection code, and sending the screen projection code to the connected sending end device, so that the connected sending end device displays the screen projection code to prompt a screen projection operation. searching for a sending end device by using a preset wireless scanning technology (S101; S201); establishing a wireless connection with the sending end device when the sending end device, which has enabled a same wireless function as that of the receiving end device and a distance from the receiving end device being within a certain range, is found (S102; S202); wherein the establishing a wireless connection with the sending end device when the sending end device is found (S102; S202), comprises: sending a request packet to the sending end device when the sending end device is found; receiving a response packet fed back by the sending end device, wherein the response packet carries identification information indicating whether the sending end device has opened a screen projection software; and establishing the wireless connection with the sending end device when it is determined that the sending end device has opened the screen projection software based on the identification information; acquiring a screen projection code, and sending the screen projection code to the connected sending end device, so that the connected sending end device displays the screen projection code to prompt a screen projection operation.
Method for controlling a synchronous electric machine controlled by an inverter provided with several switching arms, wherein the following steps are implemented: a) a torque setpoint (TQ sp) of said electric machine is acquired; b) a setpoint or a measurement of at least one control variable for said electric machine is acquired; characterized in that: c) a correction parameter (Pco) for said control variable is determined as a function of an absolute voltage prediction (V abs pred) which is dependent on currents in the phases of said electric machine and as a function of voltage setpoints (V d sp, V q sp); d) current setpoints (i d sp, i q sp) of said electric machine are determined by means of at least one control model which connects said torque setpoint (TQ sp), said control variable (VAR corr) corrected by means of said correction parameter (Pco), and said current setpoints (i d sp, i q sp) of said electric machine; e) a switching control signal for said inverter is determined by means of said current setpoints (i d sp, i q sp); and f) said inverter is controlled by means of said switching control signal. a) a torque setpoint (TQ sp) of said electric machine is acquired; b) a setpoint or a measurement of at least one control variable for said electric machine is acquired; characterized in that: c) a correction parameter (Pco) for said control variable is determined as a function of an absolute voltage prediction (V abs pred) which is dependent on currents in the phases of said electric machine and as a function of voltage setpoints (V d sp, V q sp); d) current setpoints (i d sp, i q sp) of said electric machine are determined by means of at least one control model which connects said torque setpoint (TQ sp), said control variable (VAR corr) corrected by means of said correction parameter (Pco), and said current setpoints (i d sp, i q sp) of said electric machine; e) a switching control signal for said inverter is determined by means of said current setpoints (i d sp, i q sp); and f) said inverter is controlled by means of said switching control signal.
A fuel additive composition, comprising: (a) a Mannich reaction product of a hydrocarbyl-substituted phenol wherein the hydrocarbyl substituent has a number average molecular weight of from 500 to 3000, an aldehyde, and an amine; and (b) a polyetheramine represented by the formula R[OCH 2 CH(R 1)] n A wherein R is a hydrocarbyl group; R 1 is selected from the group consisting of hydrogen, hydrocarbyl groups of 1 to 16 carbon atoms, and mixtures thereof; n is a number from 2 to 50; A is selected from the group consisting of -OCH 2 CH 2 CH 2 NR 2 R 2 and -NR 3 R 3 wherein each R 2 is independently hydrogen or hydrocarbyl; each R 3 is independently hydrogen, hydrocarbyl or -R 4 N(R 5)] p R 6 wherein R 4 is C 2 -C 10 alkylene; R 5 and R 6 are independently hydrogen or hydrocarbyl; p is a number from 1-7; and the weight ratio on an actives basis of component (a) to component (b) is 1:5.5-8. (a) a Mannich reaction product of a hydrocarbyl-substituted phenol wherein the hydrocarbyl substituent has a number average molecular weight of from 500 to 3000, an aldehyde, and an amine; and (b) a polyetheramine represented by the formula R[OCH 2 CH(R 1)] n A wherein R is a hydrocarbyl group; R 1 is selected from the group consisting of hydrogen, hydrocarbyl groups of 1 to 16 carbon atoms, and mixtures thereof; n is a number from 2 to 50; A is selected from the group consisting of -OCH 2 CH 2 CH 2 NR 2 R 2 and -NR 3 R 3 wherein each R 2 is independently hydrogen or hydrocarbyl; each R 3 is independently hydrogen, hydrocarbyl or -R 4 N(R 5)] p R 6 wherein R 4 is C 2 -C 10 alkylene; R 5 and R 6 are independently hydrogen or hydrocarbyl; p is a number from 1-7; and the weight ratio on an actives basis of component (a) to component (b) is 1:5.5-8.
A motion prediction method, comprising: (a) obtaining a plurality of motion vector predictors to be included in a candidate set for motion prediction of a current unit of a current frame; (b) comparing the motion vector predictors of the candidate set with each other; (c) when the motion vector predictors of the candidate set are all equal to each other, selecting a backup motion vector predictor; (d) adding the backup motion vector predictor to the candidate set; and (e) predicting a motion vector of the current unit according to the motion vector predictors of the candidate set and generating an index of the predicted motion vector, characterized in that selection of the backup motion vector predictor comprises: selecting a target motion vector predictor from a plurality of predetermined motion vector predictors; comparing the target motion vector predictor with the motion vector predictors of the candidate set; when the target motion vector predictor is different from the motion vector predictors of the candidate set, determining the target motion vector predictor to be the backup motion vector predictor; and when the target motion vector predictor is equal to the motion vector predictors of the candidate set, repeating selection of the target motion vector predictor and comparison of the target motion vector predictor and the candidate set until the target motion vector predictor is different from the motion vector predictors of the candidate set to determine the target motion vector predictor to be the backup motion vector predictor. (a) obtaining a plurality of motion vector predictors to be included in a candidate set for motion prediction of a current unit of a current frame; (b) comparing the motion vector predictors of the candidate set with each other; (c) when the motion vector predictors of the candidate set are all equal to each other, selecting a backup motion vector predictor; (d) adding the backup motion vector predictor to the candidate set; and (e) predicting a motion vector of the current unit according to the motion vector predictors of the candidate set and generating an index of the predicted motion vector, selecting a target motion vector predictor from a plurality of predetermined motion vector predictors; comparing the target motion vector predictor with the motion vector predictors of the candidate set; when the target motion vector predictor is different from the motion vector predictors of the candidate set, determining the target motion vector predictor to be the backup motion vector predictor; and when the target motion vector predictor is equal to the motion vector predictors of the candidate set, repeating selection of the target motion vector predictor and comparison of the target motion vector predictor and the candidate set until the target motion vector predictor is different from the motion vector predictors of the candidate set to determine the target motion vector predictor to be the backup motion vector predictor.
A method implemented in a decoder, the method comprising receiving, by a receiver of the decoder, a bitstream including picture data coded in a plurality of slices; determining, by a processor of the decoder, a top left tile index and a bottom right tile index associated with a first slice; reconstructing, by the processor, the first slice to generate a reconstructed image based on the top left tile index associated with a first slice, characterized in that; wherein each of the tiles contains one or more coding tree units, CTUs, containing coded picture data, and wherein addresses of the CTUs are assigned based on tile indexes of the corresponding tiles, wherein reconstructing the first slice comprises determining the addresses of all the CTUs in the first slice based on the top left tile index and the bottom right tile index. receiving, by a receiver of the decoder, a bitstream including picture data coded in a plurality of slices; determining, by a processor of the decoder, a top left tile index and a bottom right tile index associated with a first slice; reconstructing, by the processor, the first slice to generate a reconstructed image based on the top left tile index associated with a first slice, characterized in that; wherein each of the tiles contains one or more coding tree units, CTUs, containing coded picture data, and wherein addresses of the CTUs are assigned based on tile indexes of the corresponding tiles, wherein reconstructing the first slice comprises determining the addresses of all the CTUs in the first slice based on the top left tile index and the bottom right tile index.
Ceiling marge sheathing element with an insulating body (11a; 11b) of PUR rigid foam and/or PIR rigid foam that is configured for an insulation of a ceiling marge of a concrete ceiling, and with a separating layer (12a; 12b) that is configured for a decoupling of the insulating body (11a; 11b) from the concrete ceiling, characterised by an elastic material which is applied on the insulating body and which forms the separating layer, wherein concrete combines with the separating layer when the concrete ceiling is poured. characterised by an elastic material which is applied on the insulating body and which forms the separating layer, wherein concrete combines with the separating layer when the concrete ceiling is poured.
A data transmission method, comprising: obtaining, by an optical line terminal, OLT, a data template; obtaining, by the OLT, ONT data based on the data template; encoding, by the OLT, the ONT data according to an external data representation, XDR, format; and sending, by the OLT, encoded ONT data to a management server, wherein the management server is an Internet protocol detail record, IPDR server; wherein the obtaining, by an OLT, a data template comprises receiving, by the OLT, the data template sent by the management server, wherein the data template comprises at least two data types associated with an ONT, and further comprises an XDR object corresponding to each data type associated with the ONT such that one or more parameters, including a character data type and a data length that correspond to the ONT data in the data template are consistent with one or more parameters including a character data type and a data length that correspond to CM data in an IPDR data collection template defined in data over cable service interface specification, DOCSIS. obtaining, by an optical line terminal, OLT, a data template; obtaining, by the OLT, ONT data based on the data template; encoding, by the OLT, the ONT data according to an external data representation, XDR, format; and sending, by the OLT, encoded ONT data to a management server, wherein the management server is an Internet protocol detail record, IPDR server; wherein the obtaining, by an OLT, a data template comprises receiving, by the OLT, the data template sent by the management server, wherein the data template comprises at least two data types associated with an ONT, and further comprises an XDR object corresponding to each data type associated with the ONT such that one or more parameters, including a character data type and a data length that correspond to the ONT data in the data template are consistent with one or more parameters including a character data type and a data length that correspond to CM data in an IPDR data collection template defined in data over cable service interface specification, DOCSIS.
A method for content encoding pre-synchronization, comprising: receiving, by a network device, data; slicing the data; performing a hash calculation on the sliced data to replace the sliced data with an index for content encoding; and storing all indexes for content encoding into the network device; selecting, by the network device, an index, with a number of appearances being greater than a first preset threshold, from all indexes for content encoding stored by the network device as a popular index; determining, by the network device, among base stations being managed by the network device, all base stations which have received both the popular index and data corresponding to the popular index; for each of all the base stations, querying, by the network device, other base stations of the same type as the base station in a pre-built base station classification table, wherein names of the base stations of the same type are associatively stored in the pre-built base station classification table; and selecting, by the network device from the other base stations, base stations which have not received the popular index and the data corresponding to the popular index as target base stations; and sending, by the network device, the popular index and the data corresponding to the popular index to one of the target base stations, in the case where a data link from the network device to the target base station is idle. receiving, by a network device, data; slicing the data; performing a hash calculation on the sliced data to replace the sliced data with an index for content encoding; and storing all indexes for content encoding into the network device; selecting, by the network device, an index, with a number of appearances being greater than a first preset threshold, from all indexes for content encoding stored by the network device as a popular index; determining, by the network device, among base stations being managed by the network device, all base stations which have received both the popular index and data corresponding to the popular index; for each of all the base stations, querying, by the network device, other base stations of the same type as the base station in a pre-built base station classification table, wherein names of the base stations of the same type are associatively stored in the pre-built base station classification table; and selecting, by the network device from the other base stations, base stations which have not received the popular index and the data corresponding to the popular index as target base stations; and sending, by the network device, the popular index and the data corresponding to the popular index to one of the target base stations, in the case where a data link from the network device to the target base station is idle.