mhurhangee/ep-ind-claims huggingface dataset:
A clamping system for connecting two tubes (1, 2; 1', 2') together in sealed manner, the facing ends of the two tubes having clamping surfaces (1A, 2A; 1'A, 2'A) that project relative to the cylindrical outside surfaces of said tubes, the system comprising a collar having a band suitable for co-operating with said clamping surfaces and means (12A, 12B, 16, 18) for tightening said band, the band having a first flank and a second flank between which an inside trough is defined that is suitable for receiving the clamping surfaces; said clamping system being characterized in that it further comprises a plurality of individual retaining clips (20; 20'; 120; 220; 320; 420; 520) distributed angularly around the first flank, each clip having an inside branch (30; 30'; 130; 230; 330; 430; 530) and an outside branch (32; 32'; 132; 232; 332; 432; 532) facing each other, the first flank being pinched between said inside branch and said outside branch, each clip further having a retaining portion (34; 34'; 134; 234; 334; 434; 534) situated radially further towards the inside, one of said inside and outside branches carrying a first bearing zone (36; 36'; 136; 236; 336; 436; 436'; 531') that co-operates with a first bearing surface (13'A; 14'A) of the collar that faces towards the axis of said collar, for resiliently urging the clip back towards the axis of the collar in such a manner that the retaining portion is suitable for co-operating with the clamping surface (1A; 1'A) of the first tube (1; 1') to retain the collar in a pre-attached state in which it is pre-attached to said tube while limiting movement of the collar relative to the first tube in the direction going towards the free end of said first tube, which end is provided with the clamping surface of said first tube.
Energy storage device for a motor vehicle including: - an assembly of energy storage cells (Ci) connected in series; - a balancing circuit arranged to balance the cells (Ci) while they are being discharged by passing one or more balancing currents through one or more cells of the assembly; - a diagnostic system arranged to allow at least one item of information associated with at least one of the cells of the assembly to be delivered; - the balancing circuit being arranged to control the one or more balancing currents and/or the balancing duration at least according to an external item of information independent of the assembly of the energy storage cells and/or an item of information associated with at least one of the cells, delivered by the diagnostic system, the device being characterized in that it is arranged to deliver information on the end of life of the one or more energy storage cells, in particular in the form of a warning signal, according to at least one activation frequency of the balancing circuit and the intensity of the one or more balancing currents. - an assembly of energy storage cells (Ci) connected in series; - a balancing circuit arranged to balance the cells (Ci) while they are being discharged by passing one or more balancing currents through one or more cells of the assembly; - a diagnostic system arranged to allow at least one item of information associated with at least one of the cells of the assembly to be delivered; - the balancing circuit being arranged to control the one or more balancing currents and/or the balancing duration at least according to an external item of information independent of the assembly of the energy storage cells and/or an item of information associated with at least one of the cells, delivered by the diagnostic system, the device being characterized in that it is arranged to deliver information on the end of life of the one or more energy storage cells, in particular in the form of a warning signal, according to at least one activation frequency of the balancing circuit and the intensity of the one or more balancing currents.
A method of operating a VoIP device having a de-jitter buffer, the method comprising the steps of a) determining the end to end delays of received VOIP packets during a time window at the VOIP device from a transmitter across a network, the VOIP packets containing an audio payload, by extracting an absolute timestamp contained after the SSRC identifier within the VOIP packet, and comparing the value of the absolute timestamp with a local clock synchronized to a universal clock to determine an absolute time delay for each VOIP packet, and b) determining an optimal operating point from an end-user perceived quality perspective for the de-jitter buffer, wherein the determined absolute delays are employed to calculate a transmission quality metric, which is a function of both mouth-to-ear delay and packet loss, for each of a plurality of predetermined playout deadlines, from which the predetermined playout deadline with the highest quality metric is selected as the optimal operating point for the de-jitter buffer. a) determining the end to end delays of received VOIP packets during a time window at the VOIP device from a transmitter across a network, the VOIP packets containing an audio payload, by extracting an absolute timestamp contained after the SSRC identifier within the VOIP packet, and comparing the value of the absolute timestamp with a local clock synchronized to a universal clock to determine an absolute time delay for each VOIP packet, and b) determining an optimal operating point from an end-user perceived quality perspective for the de-jitter buffer, wherein the determined absolute delays are employed to calculate a transmission quality metric, which is a function of both mouth-to-ear delay and packet loss, for each of a plurality of predetermined playout deadlines, from which the predetermined playout deadline with the highest quality metric is selected as the optimal operating point for the de-jitter buffer.
A method comprising: receiving a training data set (270, 352, 370) that includes a plurality of positive examples of sensitive data and a plurality of negative examples of sensitive data via a user interface; receiving a user selection of a memory allocation via the user interface; analyzing the training data set (270, 352, 370) using machine learning to train a machine learning-based detection profile (112, 128, 365), the MLD profile (112, 128, 365) to be used to classify new data as sensitive data or as non-sensitive data; computing a quality metric, wherein the quality metric includes at least one of a false positive rating or a false negative rating, and wherein the quality metric further includes a memory utilization rating, and wherein the memory utilization rating complies with the memory allocation; displaying the quality metric for the MLD profile (112, 128, 365) in the user interface; if the quality metric fails to meet a quality threshold: modifying the training data set (270, 352, 370) in response to user input by adding more training data to the training data set; and analyzing the modified training data set to retrain the MLD profile (112, 128, 365); and enabling a deploy operation if the false positive rating is within a false positive threshold and the false negative rating is within a false negative threshold. receiving a training data set (270, 352, 370) that includes a plurality of positive examples of sensitive data and a plurality of negative examples of sensitive data via a user interface; receiving a user selection of a memory allocation via the user interface; analyzing the training data set (270, 352, 370) using machine learning to train a machine learning-based detection profile (112, 128, 365), the MLD profile (112, 128, 365) to be used to classify new data as sensitive data or as non-sensitive data; computing a quality metric, wherein the quality metric includes at least one of a false positive rating or a false negative rating, and wherein the quality metric further includes a memory utilization rating, and wherein the memory utilization rating complies with the memory allocation; displaying the quality metric for the MLD profile (112, 128, 365) in the user interface; if the quality metric fails to meet a quality threshold: modifying the training data set (270, 352, 370) in response to user input by adding more training data to the training data set; and analyzing the modified training data set to retrain the MLD profile (112, 128, 365); and enabling a deploy operation if the false positive rating is within a false positive threshold and the false negative rating is within a false negative threshold. modifying the training data set (270, 352, 370) in response to user input by adding more training data to the training data set; and analyzing the modified training data set to retrain the MLD profile (112, 128, 365); and enabling a deploy operation if the false positive rating is within a false positive threshold and the false negative rating is within a false negative threshold.
A bearing comprising: a tubular member for containing a shaft on an inner circumferential surface side; and a coating layer (111, 911) that coats the inner circumferential surface of the tubular member, a plurality of grooves being provided therein so as to intersect the axial direction of the shaft, and peak portions formed between the adjacent grooves coming into contact with an outer circumferential surface of the shaft so as to support the shaft, characterized in that it is manufactured such that a thickness (t R0) from the inner circumferential surface of the tubular member to the peak portion, at a center of the tubular member in the axial direction, is greater than a thickness (t R1, t R3) from the inner circumferential surface of the tubular member to the peak portion at an end (R1,R3) of the tubular member in the axial direction. a tubular member for containing a shaft on an inner circumferential surface side; and a coating layer (111, 911) that coats the inner circumferential surface of the tubular member, a plurality of grooves being provided therein so as to intersect the axial direction of the shaft, and peak portions formed between the adjacent grooves coming into contact with an outer circumferential surface of the shaft so as to support the shaft, characterized in that it is manufactured such that a thickness (t R0) from the inner circumferential surface of the tubular member to the peak portion, at a center of the tubular member in the axial direction, is greater than a thickness (t R1, t R3) from the inner circumferential surface of the tubular member to the peak portion at an end (R1,R3) of the tubular member in the axial direction.
Sensor comprising a sensor element for detecting the concentration of a gas component or the temperature or a solid constituent part or a liquid constituent part of an exhaust gas from an internal combustion engine, wherein the sensor element has a first end region and a second end region which are situated opposite one another in its longitudinal direction, wherein the sensor element has, in the first end region, a functional element (31, 311, 312, 313) which is electrically conductively connected to a contact area (43, 44, 45, 46) which is arranged on the outer surface of the sensor element in the second end region, wherein the contact area has, on its side that is averted from the first end region, a rounded portion and wherein the contact area (43, 44, 45) has a body region (431, 441, 451), a head region (432, 442, 452) and a neck region (433, 443, 453), wherein the body region (431, 441, 451) is arranged on that side of the contact area (43, 44, 45) which is averted from the first end region, wherein the head region (432, 442, 452) is arranged on that side of the contact area (43, 44, 45) which faces the first end region, wherein the neck region (433, 443, 453) is arranged between the body region (431, 441, 451) and the head region (432, 442, 452), in which neck region the width of the contact area (43, 44, 45) is smaller than in the body region (431, 441, 451) and in the head region (432, 442, 452), wherein the head region (432, 442, 452) constitutes the connection to a bushing (501, 502, 503) which leads from the head region (432, 442, 452) into the interior of the sensor element perpendicularly to the contact area (43, 44, 45), wherein the body region is of oval design with straight side edges which run in the longitudinal direction, and comprising a metal contact element which electrically contact-connects the sensor element to the contact area (43, 44, 45, 46) in a force-fitting and/or interlocking manner from outside the sensor element.
A device for picking up particles from a water surface, in particular dirt particles, with a floating body, in which a particle separating chamber is formed, into which particle-containing water flows in via an inflow opening during operation, and out of which water at least partially freed of the particles flows via an outflow opening, and in which particles are separated from the inflowing water according to the principle of a hydrodynamic separation, wherein incline or slope members belonging to a separation device for separating the particles are set up to separate the particles to be separated from the particle separating chamber into adjacently arranged particle accumulating chambers (12, 13), in which the particles are concentrated, characterized in that - for respective opening and closing purposes, the inflow opening is provided with an inflow flap assembly and the outflow opening is provided with an outflow flap assembly, and - the particle separating chamber and particle collecting chamber (12, 13) form a closed chamber, which is hermetically sealed off from the environment, and whose internal pressure can be set with the help of a pressure regulating device, so as to in this way set a fill level of the particle-containing water in the particle separating chamber, as a result of which the fill level is set relative to the incline or slope members, which in turn influences the separation of dirt particles from the particle separating chamber into the particle accumulating chambers (12, 13). - for respective opening and closing purposes, the inflow opening is provided with an inflow flap assembly and the outflow opening is provided with an outflow flap assembly, and - the particle separating chamber and particle collecting chamber (12, 13) form a closed chamber, which is hermetically sealed off from the environment, and whose internal pressure can be set with the help of a pressure regulating device, so as to in this way set a fill level of the particle-containing water in the particle separating chamber, as a result of which the fill level is set relative to the incline or slope members, which in turn influences the separation of dirt particles from the particle separating chamber into the particle accumulating chambers (12, 13).
A heating structure comprising: an insulator disposed on a top surface of a structure; an ondol panel disposed on a top surface of the insulator, the ondol panel having a hot water passage comprising an inlet port and an outlet port; a pipe housing having a top surface to correspond to the top surface of the insulator, the pipe housing comprising a connection pipe receiving part therein; a hot water supply pipe having one end connected to the inlet port and the other end connected to a hot water supply part, the hot water supply pipe being received in the connection pipe receiving part; and a hot water discharge pipe having one end connected to the outlet port and the other end connected to a hot water discharge part, the hot water discharge pipe being received in the connection pipe receiving part, wherein the ondol panel includes an upper plate and a lower plate separately manufactured, a passage being formed in each of surfaces of the upper and lower plates to be coupled to each other, characterized in that the upper and lower plates being bonded to each other to form the hot water passage directly contacting to the hot water flowing in the hot water passage. an insulator disposed on a top surface of a structure; an ondol panel disposed on a top surface of the insulator, the ondol panel having a hot water passage comprising an inlet port and an outlet port; a pipe housing having a top surface to correspond to the top surface of the insulator, the pipe housing comprising a connection pipe receiving part therein; a hot water supply pipe having one end connected to the inlet port and the other end connected to a hot water supply part, the hot water supply pipe being received in the connection pipe receiving part; and a hot water discharge pipe having one end connected to the outlet port and the other end connected to a hot water discharge part, the hot water discharge pipe being received in the connection pipe receiving part, wherein the ondol panel includes an upper plate and a lower plate separately manufactured, a passage being formed in each of surfaces of the upper and lower plates to be coupled to each other, characterized in that the upper and lower plates being bonded to each other to form the hot water passage directly contacting to the hot water flowing in the hot water passage.
A production method of 1,1,3-trichloro-1-propene, comprising the following steps A and B; Step A: 1,1,1,3-tetrachloropropane is dehydrochlorinated at a temperature between 30°C and 50°C in the presence of at least one base selected from the group consisting of alkal metal hydroxides and alkaline earth metal hydroxides, and a phase transfer catalyst, Step B: 3,3,3-trichloro-1-propene obtained in the step A is isomerized into 1,1,3-trichloro-1-propene in the presence of a metal catalyst; wherein the metal catalyst is selected from: iron, ferrous chloride hydrate, ferric oxide, copper, cuprous oxide, zinc, zinc oxide, zinc chloride, silver, nickel, palladium, manganese, tin and bismuth. Step A: 1,1,1,3-tetrachloropropane is dehydrochlorinated at a temperature between 30°C and 50°C in the presence of at least one base selected from the group consisting of alkal metal hydroxides and alkaline earth metal hydroxides, and a phase transfer catalyst, Step B: 3,3,3-trichloro-1-propene obtained in the step A is isomerized into 1,1,3-trichloro-1-propene in the presence of a metal catalyst;
A method of managing a wireless access point device having a local network interface for wireless and wired connections via a respective wireless network and wired network, and an interface to remote networks, the wireless access point being connected, via the local network interface, to at least one cellular network base station device for providing cellular network connectivity to cellular network devices, the method comprising: monitoring characteristics of flows of data of packets travelling between the at least one cellular network base station device and a remote resource located on a remote network, determining, based on the monitored characteristics, whether said at least one cellular network base station device is an interference device which can affect a wireless network environment of the wireless access point; sending instructions to alter a configuration of the wireless access point in response to a determination that an interference device is present; accessing a location data store storing the geographic location of the wireless access point and a second wireless access point to determine the relative geographic distance therebetween; determining whether the interference device can affect the wireless network of the second wireless access point, by comparing the calculated geographic distance with a threshold; and sending instructions to alter a configuration of the second wireless access point if the determination is made that the interference device can affect a wireless network of the second access point. monitoring characteristics of flows of data of packets travelling between the at least one cellular network base station device and a remote resource located on a remote network, determining, based on the monitored characteristics, whether said at least one cellular network base station device is an interference device which can affect a wireless network environment of the wireless access point; sending instructions to alter a configuration of the wireless access point in response to a determination that an interference device is present; accessing a location data store storing the geographic location of the wireless access point and a second wireless access point to determine the relative geographic distance therebetween; determining whether the interference device can affect the wireless network of the second wireless access point, by comparing the calculated geographic distance with a threshold; and sending instructions to alter a configuration of the second wireless access point if the determination is made that the interference device can affect a wireless network of the second access point.
A light emitting device comprising: a light transmissive member; a light emitting element having a substrate and a semiconductor stacked layer portion on the substrate; and electrodes (13, 14) respectively disposed on the semiconductor stacked layer portion in this order; wherein the substrate has, from the light transmissive member side, a first region and a second region, the light transmissive member has, from the light emitting element side, a third region and a fourth region; the first region has an irregular atomic arrangement compared with the second region; the third region has an irregular atomic arrangement compared with the fourth region, and the first region and the third region are directly bonded. a light transmissive member; a light emitting element having a substrate and a semiconductor stacked layer portion on the substrate; and electrodes (13, 14) respectively disposed on the semiconductor stacked layer portion in this order; wherein the substrate has, from the light transmissive member side, a first region and a second region, the light transmissive member has, from the light emitting element side, a third region and a fourth region; the first region has an irregular atomic arrangement compared with the second region; the third region has an irregular atomic arrangement compared with the fourth region, and the first region and the third region are directly bonded.