mhurhangee/patent-ind-claim-en huggingface dataset:
A plug-in module having a first side face , comprising: a first elastic strip and a first pull tab provided on a same end of the first side face ; the first elastic strip has an elongated shape, and is provided with at least one first limiting lug on a first surface of the first elastic strip opposite to the first side face, wherein an end of the first elastic strip located in close proximity to the first pull tab is referred to as an opposite end, and another end of the first elastic strip is referred to as a distal end, and the distal end is affixed to the first side face , and wherein the opposite end is provided with an elastic strip retraction head , and the elastic strip retraction head is arranged in a position corresponding to the first pull tab , the plug-in module further comprises a second side face in contact with the end of the first side face , wherein the first pull tab comprises a first handle and two first connecting arms , an end of the two first connecting arms is arranged on the second side face , another end of the two first connecting arms is connected to the first handle , characterized in that the elastic strip retraction head is arranged between the two first connecting arms and located in the gap formed by the two first connecting arms and extends below the first handle , so that when the elastic strip retraction head is pulled upward, it can pass through the gap and hook up with the first handle . a first elastic strip and a first pull tab provided on a same end of the first side face ; the first elastic strip has an elongated shape, and is provided with at least one first limiting lug on a first surface of the first elastic strip opposite to the first side face, wherein an end of the first elastic strip located in close proximity to the first pull tab is referred to as an opposite end, and another end of the first elastic strip is referred to as a distal end, and the distal end is affixed to the first side face , and wherein the opposite end is provided with an elastic strip retraction head , and the elastic strip retraction head is arranged in a position corresponding to the first pull tab , the plug-in module further comprises a second side face in contact with the end of the first side face , wherein the first pull tab comprises a first handle and two first connecting arms , an end of the two first connecting arms is arranged on the second side face , another end of the two first connecting arms is connected to the first handle , characterized in that the elastic strip retraction head is arranged between the two first connecting arms and located in the gap formed by the two first connecting arms and extends below the first handle , so that when the elastic strip retraction head is pulled upward, it can pass through the gap and hook up with the first handle .
Process for colouring hair keratin fibers comprising the application of a composition A and a composition B to hair keratin fibers, in which: composition A comprises at least one (poly)carbodiimide compound, and composition B comprises: - at least one associative polymer; and - at least one compound, different from the associative polymers, containing at least one carboxylic acid group; composition A and/or composition B comprising at least one colouring agent chosen from pigments, direct dyes and mixtures thereof; and in which composition A and composition B are applied simultaneously or sequentially to the hair keratin fibers. composition A comprises at least one (poly)carbodiimide compound, and composition B comprises: - at least one associative polymer; and - at least one compound, different from the associative polymers, containing at least one carboxylic acid group; - at least one associative polymer; and - at least one compound, different from the associative polymers, containing at least one carboxylic acid group; composition A and/or composition B comprising at least one colouring agent chosen from pigments, direct dyes and mixtures thereof; and in which composition A and composition B are applied simultaneously or sequentially to the hair keratin fibers.
A traction energy storage system for a vehicle, comprising: multiple electrical energy stores , wherein each of the energy stores comprises one or more interconnected cell modules and an energy store controller connected to the at least one cell module for signal transmission purposes, and the at least one cell module respectively comprises multiple interconnected storage cells and a cell module controller connected to the storage cells for signal transmission purposes, wherein each cell module controller is designed to detect cell states of the storage cells connected for signal transmission purposes and to take the detected cell states as a basis for outputting a module state, and wherein each energy store controller is designed to take the at least one module state as a basis for determining a storage state; and a system controller connected to the energy store controllers for signal transmission purposes, wherein the system controller is designed to take the storage states as a basis for outputting a control instruction for aligning the cell states with the energy store controllers , and wherein the energy store controllers are further designed to control the cell module controllers to align the cell states according to the control instruction. multiple electrical energy stores , wherein each of the energy stores comprises one or more interconnected cell modules and an energy store controller connected to the at least one cell module for signal transmission purposes, and the at least one cell module respectively comprises multiple interconnected storage cells and a cell module controller connected to the storage cells for signal transmission purposes, wherein each cell module controller is designed to detect cell states of the storage cells connected for signal transmission purposes and to take the detected cell states as a basis for outputting a module state, and wherein each energy store controller is designed to take the at least one module state as a basis for determining a storage state; and a system controller connected to the energy store controllers for signal transmission purposes, wherein the system controller is designed to take the storage states as a basis for outputting a control instruction for aligning the cell states with the energy store controllers , and wherein the energy store controllers are further designed to control the cell module controllers to align the cell states according to the control instruction.
A method for visually presenting data preloading, comprising: acquiring (S110) a current playback progress of digital media content; presenting (S120) a first icon on a progress bar of a player of the digital media content according to the current playback progress, wherein the first icon divides the progress bar into a part that has been played and a part that has not been played; and determining (S130) a parameter that is used to indicate a data preloading speed of the digital media content, wherein the parameter is a data volume preloaded within a unit time; characterized by presenting (S140), according to the parameter, a plurality of data points in the part of the progress bar, that has not been played, so as to indicate the data preloading speed, wherein the plurality of data points are arranged at equal space with an interval of the unit time, and wherein for each data point a size of the data point represents a size of a data volume that is preloaded within the unit time, which means that a larger data point indicates a larger data volume that is preloaded within the unit time and a smaller data point indicates a smaller data volume that is preloaded within the unit time. acquiring (S110) a current playback progress of digital media content; presenting (S120) a first icon on a progress bar of a player of the digital media content according to the current playback progress, wherein the first icon divides the progress bar into a part that has been played and a part that has not been played; and determining (S130) a parameter that is used to indicate a data preloading speed of the digital media content, wherein the parameter is a data volume preloaded within a unit time; characterized by presenting (S140), according to the parameter, a plurality of data points in the part of the progress bar, that has not been played, so as to indicate the data preloading speed, wherein the plurality of data points are arranged at equal space with an interval of the unit time, and wherein for each data point a size of the data point represents a size of a data volume that is preloaded within the unit time, which means that a larger data point indicates a larger data volume that is preloaded within the unit time and a smaller data point indicates a smaller data volume that is preloaded within the unit time.
A test method performed using a lens which comes into contact with a human body during use, the test method comprising: providing a membrane member including a membrane (24 ; 824) swellable upon absorbing water and a supporting base having an annular shape to support an outer periphery of the membrane (24 ; 824); allowing cells to adhere onto the membrane (24 ; 824) of the membrane member ; and bringing the membrane (24 ; 824) to which the cells are adhered into close contact with a surface of the lens , by immersing the membrane member and the lens into a liquid and deforming the membrane (24 ; 824) in a swollen state along the surface of the lens . providing a membrane member including a membrane (24 ; 824) swellable upon absorbing water and a supporting base having an annular shape to support an outer periphery of the membrane (24 ; 824); allowing cells to adhere onto the membrane (24 ; 824) of the membrane member ; and bringing the membrane (24 ; 824) to which the cells are adhered into close contact with a surface of the lens , by immersing the membrane member and the lens into a liquid and deforming the membrane (24 ; 824) in a swollen state along the surface of the lens .
An article of footwear comprising: a sole structure having an inner surface ; a guide (30A-30H) secured to the inner surface of the sole structure ; an upper having a bottom, an outer surface of the bottom secured to the inner surface of the sole structure around the guide (30A-30H) with the guide (30A-30H) between the bottom of the upper and the sole structure , the upper and the guide (30A-30H) forming a passage (34A-34E); and a tensioning component (32A-32H) extending along the guide (30A-30H) in the passage (34A-34E), and extending out of the passage (34A-34E) at at least one of a medial side or a lateral side of the upper , and the tensioning component (32A-32H) having a fixed end (53A-35E) adhered to the inner surface of the sole structure , the tensioning component (32A-32H) movable in the passage (34A-34E) relative to the upper and the guide (30A-30H) in response to an increase in tension in the tensioning component (32A-32H) to flexibly conform the sole structure to a foot disposed in the upper . a sole structure having an inner surface ; a guide (30A-30H) secured to the inner surface of the sole structure ; an upper having a bottom, an outer surface of the bottom secured to the inner surface of the sole structure around the guide (30A-30H) with the guide (30A-30H) between the bottom of the upper and the sole structure , the upper and the guide (30A-30H) forming a passage (34A-34E); and a tensioning component (32A-32H) extending along the guide (30A-30H) in the passage (34A-34E), and extending out of the passage (34A-34E) at at least one of a medial side or a lateral side of the upper , and the tensioning component (32A-32H) having a fixed end (53A-35E) adhered to the inner surface of the sole structure , the tensioning component (32A-32H) movable in the passage (34A-34E) relative to the upper and the guide (30A-30H) in response to an increase in tension in the tensioning component (32A-32H) to flexibly conform the sole structure to a foot disposed in the upper .
A method comprising: forming a composite repair structure , wherein the composite repair structure comprises a repair laminate , and wherein the forming the composite repair structure comprises applying a film sealant to a first surface of the repair laminate ; coupling the composite repair structure to a vehicle structure ; and curing and/or bonding the composite repair structure to the vehicle structure by providing a positive pressure to the composite repair structure coupled to the vehicle structure , wherein the film sealant prevents air intrusion into the repair laminate during the curing and/or bonding of the composite repair structure to the vehicle structure ; wherein the repair laminate comprises a resin , wherein the film sealant has a higher minimum viscosity temperature than the resin ; wherein the sealant minimum viscosity temperature is a temperature where the resin at least partially gels; and wherein the positive pressure is provided without vacuum. forming a composite repair structure , wherein the composite repair structure comprises a repair laminate , and wherein the forming the composite repair structure comprises applying a film sealant to a first surface of the repair laminate ; coupling the composite repair structure to a vehicle structure ; and curing and/or bonding the composite repair structure to the vehicle structure by providing a positive pressure to the composite repair structure coupled to the vehicle structure , wherein the film sealant prevents air intrusion into the repair laminate during the curing and/or bonding of the composite repair structure to the vehicle structure ; wherein the repair laminate comprises a resin , wherein the film sealant has a higher minimum viscosity temperature than the resin ; wherein the sealant minimum viscosity temperature is a temperature where the resin at least partially gels; and wherein the positive pressure is provided without vacuum.
A computer-implemented method of operating an autonomous driving vehicle, ADV, the method comprising: receiving , at an autonomous driving system, ADS, on the ADV, a stream of audio signals captured using one or more audio capturing devices and a sequence of image frames captured using one or more image capturing devices mounted on the ADV, wherein the sequence of image frames captures images of a surrounding environment of the ADV; extracting , by the ADS, a first feature vector from the stream of captured audio signals, and a second feature vector from the sequence of captured image frames; concatenating , by the ADS, the first feature vector and the second feature vector to create a concatenated feature vector, wherein the concatenating is performed using a weighted feature-level fusion approach such that features from the first feature vector and the second feature vector are selected according to a weighted factor, wherein the weighted factor is a signal-to-noise ratio, wherein the signal-to-noise ratio, determined empirically, is used to measure a level of noisiness on a road segment at different times of a day in different weather conditions, and the noisier the surrounding environment of the ADV when travelling on the road segment, the more features from the first feature vector are selected; and determining , by the ADS using a first neural network model based on the concatenated feature vector, that an emergency vehicle is present in the surrounding environment of the ADV. receiving , at an autonomous driving system, ADS, on the ADV, a stream of audio signals captured using one or more audio capturing devices and a sequence of image frames captured using one or more image capturing devices mounted on the ADV, wherein the sequence of image frames captures images of a surrounding environment of the ADV; extracting , by the ADS, a first feature vector from the stream of captured audio signals, and a second feature vector from the sequence of captured image frames; concatenating , by the ADS, the first feature vector and the second feature vector to create a concatenated feature vector, wherein the concatenating is performed using a weighted feature-level fusion approach such that features from the first feature vector and the second feature vector are selected according to a weighted factor, wherein the weighted factor is a signal-to-noise ratio, wherein the signal-to-noise ratio, determined empirically, is used to measure a level of noisiness on a road segment at different times of a day in different weather conditions, and the noisier the surrounding environment of the ADV when travelling on the road segment, the more features from the first feature vector are selected; and determining , by the ADS using a first neural network model based on the concatenated feature vector, that an emergency vehicle is present in the surrounding environment of the ADV.
Measuring device for the detection of at least one measured value of a fluid medium, comprising a measuring tube with a measuring apparatus which is arranged on and/or in the former, and a control and/or processing device which is arranged outside the measuring tube, the measuring apparatus being connected to the control and/or processing device via one or more cable connections which runs/run outside the measuring tube to the control and/or processing device, the measuring tube being enclosed at least in sections with a thermally insulating casing which is applied at least in sections in a positively locking manner to, or with a defined gap from, the outer side of the measuring tube, characterized in that the one or more cable connections is/are received in the casing in one or more ducts configured on the inner side of the casing .
Method for retrofitting a mattress with an electromotive adjustable support device , wherein the mattress has a closable casing and a foam body incorporated into the casing, wherein the casing is opened, wherein an electromotive adjustable support device is used which comprises a basic body with at least two support elements that are adjustable relative to one another that support spring elements, wherein on the support device at least one electromotive adjusting device is arranged for adjusting the support elements relative to one another, which has at least one electric motor, which is in operative connection with the support elements for adjusting the latter, wherein the support device with adjusting device arranged thereon is inserted into a recess formed in the foam body and wherein an electric line arrangement , which comprises power supply lines for supplying power and/or control lines for controlling the adjusting device, is guided out through a recess formed in the casing and wherein the covering is closed again.
A railway wagon configured to carry a semitrailer or the like, said railway wagon comprising a first bogie , a second bogie and a carrying section ; said carrying section being movable between a first position in which it extends between said bogies , and a second position in which the carrying section is turned out from the railway wagon for loading and unloading of a semitrailer ; wherein said railway wagon comprises a beam assembly configured to be moved out from and back to the railway wagon and to support a front portion of the carrying section ; wherein the beam assembly comprises a leg which is arranged at an outer end of the beam assembly , and which is configured to support against the ground (G); wherein the beam assembly further comprises an actuator which is configured to lower and raise the leg ; and wherein said beam assembly leg has a foot at its free end, said foot being configured to abut the ground (G); characterized in that said actuator is arranged substantially in parallel with a main extension of the beam assembly ; that a force or pressure sensing device (22-26) is arranged in connection with the foot of the beam assembly leg ; that said force or pressure sensing device (22-26) comprises a sensor configured to send signals to control systems ensuring that correct pressure or load is put on the foot and thereby on the leg and the entire beam assembly ; and that said sensing device (22-26) is configured to sense when the foot gets into contact with the ground (G) and to send signals to the actuator which controls the movements of the foot .
A user equipment method, comprising: when a radio resource control connection re-establishment procedure is initiated for said user equipment when operating in a dual-connectivity mode, retaining configuration information of at least one data bearer utilised in said dual-connectivity mode for subsequent re-use, wherein said at least one data bearer comprises a data radio bearer comprising at least one of a split data radio bearer and a secondary base station cell group bearer of a secondary base station special cell.
A milk meter for measuring a flow rate of a milk flow, provided with an inlet to which, in use, the milk flow is supplied, an outlet where the milk flow leaves the milk meter, in use, and a liquid flow path extending from the inlet to the outlet, wherein the milk meter is furthermore provided with a stabilization chamber which is included in the liquid flow path and a float which is in the stabilization chamber and is configured to float on milk of the milk flow that is in the stabilization chamber, wherein the milk meter is configured such that a level of milk in the stabilization chamber depends on the flow rate of the milk flow, wherein the milk meter is furthermore provided with at least one sensor device for determining the position of the float in the stabilization chamber in the direction in which the level of the milk can rise and fall in the stabilization chamber for therewith determining the flow rate of the milk flow through the milk meter , wherein the milk meter is further provided with an outflow channel , wherein an outflow opening is in fluid communication with the outlet via the outflow channel, characterized in that the sensor device is provided with at least a first and a second coil which have a fixed distance to each other and at least a third coil , wherein the first and the second coil on the one hand and the third coil on the other hand are displaceable relative to each other, wherein the first, second and third coil are mounted such that the position of the third coil on the one hand and the positions of first and second coil on the other hand change with respect to each other when the float moves up or down in the stabilization chamber and wherein the milk meter is further provided with transmitter means for supplying a transmitting signal to the third coil so that the first and second coil each generate a receiving signal upon receiving the transmitting signal which has been emitted with the aid of the third coil, wherein the milk meter is furthermore provided with signal processing means for, on the basis of the receiving signals of the first and second coil, determining the position of the float with respect to the stabilization chamber and therewith the magnitude of the flow rate.
Method for reconfiguring the information relating to redundant grand master clocks in a generalized Precision Time Protocol gPTP network by sending a teardown message from one network element (A, B, C, D) to an adjacent network element, which teardown message changes the information relating to at least one of the redundant grand master clocks (A, D) in the network elements of the gPTP network, wherein the teardown message is a first Announce+ message which, as information, contains only the clock ID and the serial number of the grand master clock before the change, wherein thereafter a new announcement message is sent, which is a second Announce+ message and contains changed results relating to a selection of a new best grand master clock and the information from the teardown message, and, after receiving the teardown message, the information relating to the affected grand master clocks is removed from the local database of the receiving network element and the selection of the new best grand master clock is carried out.