mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: sending a request from an edge configuration device to an access control server, wherein the request requests shortest path bridging configuration information for a detected end device connected to the edge configuration device, wherein the edge configuration device is connected to an SPB network; receiving at the edge configuration device the SPB configuration information for the end device from the access control server; and configuring the edge configuration device to provide the end device access to the SPB network. sending a request from an edge configuration device to an access control server, wherein the request requests shortest path bridging configuration information for a detected end device connected to the edge configuration device, wherein the edge configuration device is connected to an SPB network; receiving at the edge configuration device the SPB configuration information for the end device from the access control server; and configuring the edge configuration device to provide the end device access to the SPB network.
Method for heat treatment of an austenitic steel of the High Nitrogen Steel or austenitic HNS type, or of an austenitic steel of the High Interstitial Steel or austenitic HIS type, said austenitic HNS or austenitic HIS containing precipitates of nitrides, carbides or carbonitrides of chromium and/or of molybdenum, this method comprising a step of: • before machining, make chromium and/or molybdenum nitride, carbide or carbonitride type precipitates appear in the austenitic HNS or austenitic HIS, this result being obtained by providing an austenitic HNS or austenitic HIS alloy which is brought to its austenitizing temperature or sintered at the austenitizing temperature, then this austenitic HNS or austenitic HIS alloy is subjected to a cooling heat treatment immediately from the austenitizing temperature, the cooling of the resulting austenitic HNS or austenitic HIS being interrupted when the temperature reaches a value at which the precipitates appear, this austenitic HNS or austenitic HIS being maintained at this temperature and for a duration such that the precipitates appear, and then finally the austenitic HNS or austenitic HIS is returned to ambient temperature; this method further comprising a step consisting in: • after machining the austenitic HNS or austenitic HIS containing the precipitates, in putting again the precipitates in solution by bringing the austenitic HNS or austenitic HIS to its austenitizing temperature, then by cooling the austenitic HNS or austenitic HIS sufficiently rapidly to avoid the re-formation of precipitates. • before machining, make chromium and/or molybdenum nitride, carbide or carbonitride type precipitates appear in the austenitic HNS or austenitic HIS, this result being obtained by providing an austenitic HNS or austenitic HIS alloy which is brought to its austenitizing temperature or sintered at the austenitizing temperature, then this austenitic HNS or austenitic HIS alloy is subjected to a cooling heat treatment immediately from the austenitizing temperature, the cooling of the resulting austenitic HNS or austenitic HIS being interrupted when the temperature reaches a value at which the precipitates appear, this austenitic HNS or austenitic HIS being maintained at this temperature and for a duration such that the precipitates appear, and then finally the austenitic HNS or austenitic HIS is returned to ambient temperature; • after machining the austenitic HNS or austenitic HIS containing the precipitates, in putting again the precipitates in solution by bringing the austenitic HNS or austenitic HIS to its austenitizing temperature, then by cooling the austenitic HNS or austenitic HIS sufficiently rapidly to avoid the re-formation of precipitates.
A method for optimizing radio resource for Ultra-Reliable Low Latency Communication services in a Dual Connectivity technology, the method comprising: receiving DownLink, DL, data by a user equipment, UE, apparatus using a first Radio Access Technology, RAT, from a base station; transmitting a first Acknowledgement, ACK, signal using the first RAT to the base station based on the DL data being successfully received; characterized in: maintaining internally to the UE a Packet Data Convergence Protocol, PDCP, sequence number to Code Block Group, CBG, mapping, herein referred as Mapping Table, updating the Mapping Table by the UE apparatus, based on the DL data being successfully received by the UE apparatus using the first RAT; checking the Mapping Table by the UE apparatus upon detecting an error in the received DL data using a second RAT; and sending a second ACK signal to the base station using the second RAT of the UE apparatus, based on the PDCP Sequence Number of the DL data being found in the Mapping Table. receiving DownLink, DL, data by a user equipment, UE, apparatus using a first Radio Access Technology, RAT, from a base station; transmitting a first Acknowledgement, ACK, signal using the first RAT to the base station based on the DL data being successfully received; characterized in: maintaining internally to the UE a Packet Data Convergence Protocol, PDCP, sequence number to Code Block Group, CBG, mapping, herein referred as Mapping Table, updating the Mapping Table by the UE apparatus, based on the DL data being successfully received by the UE apparatus using the first RAT; checking the Mapping Table by the UE apparatus upon detecting an error in the received DL data using a second RAT; and sending a second ACK signal to the base station using the second RAT of the UE apparatus, based on the PDCP Sequence Number of the DL data being found in the Mapping Table. maintaining internally to the UE a Packet Data Convergence Protocol, PDCP, sequence number to Code Block Group, CBG, mapping, herein referred as Mapping Table, updating the Mapping Table by the UE apparatus, based on the DL data being successfully received by the UE apparatus using the first RAT; checking the Mapping Table by the UE apparatus upon detecting an error in the received DL data using a second RAT; and sending a second ACK signal to the base station using the second RAT of the UE apparatus, based on the PDCP Sequence Number of the DL data being found in the Mapping Table.
A device for optical monitoring of spatial coagulation of blood and its components in a sample of a test medium, the device comprising: a thermostatically controlled chamber manufactured with the ability of temperature regulation, a fluid which fills the chamber, a cuvette for holding the sample of the test medium which is located within the fluid filling the chamber, at least one means of illumination for illuminating the sample of the test medium in the cuvette, a means for registration of images of the illuminated sample of the test medium held in the cuvette, characterized in that the device further comprises a light trap formed by the geometry of the inner surfaces of the thermostatically controlled chamber, and a means of pressure regulation fluidly connected with the thermostatically controlled chamber or the cuvette, whereby at least one of the thermostatically controlled chamber or the cuvette is fluidly sealed except for the connection to the means of pressure regulation. a thermostatically controlled chamber manufactured with the ability of temperature regulation, a fluid which fills the chamber, a cuvette for holding the sample of the test medium which is located within the fluid filling the chamber, at least one means of illumination for illuminating the sample of the test medium in the cuvette, a means for registration of images of the illuminated sample of the test medium held in the cuvette, characterized in that the device further comprises a light trap formed by the geometry of the inner surfaces of the thermostatically controlled chamber, and a means of pressure regulation fluidly connected with the thermostatically controlled chamber or the cuvette, whereby at least one of the thermostatically controlled chamber or the cuvette is fluidly sealed except for the connection to the means of pressure regulation.
A method, suitable for an electronic apparatus comprising a first camera and a motion sensor, the method comprising: capturing a first image by the first camera; estimating an object pose indicating the position and/or the orientation of the objet from the first image according to an identification algorithm; fetching pose data from the motion sensor, the pose data being related to a position and/or orientation of the first camera when the first image is captured; analyzing a camera pose according to the pose data; tracking a relative motion according to the camera pose and the object pose when they are dynamically changed; providing a pre-defined model mask; adjusting the pre-defined model mask into an adaptive model mask by adjusting its shape according to the relative motion; and adaptively extracting the object from the first image according to the adaptive model mask. capturing a first image by the first camera; estimating an object pose indicating the position and/or the orientation of the objet from the first image according to an identification algorithm; fetching pose data from the motion sensor, the pose data being related to a position and/or orientation of the first camera when the first image is captured; analyzing a camera pose according to the pose data; tracking a relative motion according to the camera pose and the object pose when they are dynamically changed; providing a pre-defined model mask; adjusting the pre-defined model mask into an adaptive model mask by adjusting its shape according to the relative motion; and adaptively extracting the object from the first image according to the adaptive model mask.
A network access method, wherein the method comprises: receiving, by an access gateway, a point-to-point Over Ethernet, PPPoE, message or an internet Protocol over Ethernet, IPoE, message from a user terminal; obtaining, by the access gateway, access information of the user terminal comprised in the PPPoE message or the IPoE message; encapsulating, by the access gateway, the access information into a non-access stratum, NAS, message; sending, by the access gateway, the NAS message to a control plane, CP, function entity; and receiving (5, 6), by the access gateway, network interface information from the CP function entity, and sending the network interface information to the user terminal to enable the user terminal to access a network. receiving, by an access gateway, a point-to-point Over Ethernet, PPPoE, message or an internet Protocol over Ethernet, IPoE, message from a user terminal; obtaining, by the access gateway, access information of the user terminal comprised in the PPPoE message or the IPoE message; encapsulating, by the access gateway, the access information into a non-access stratum, NAS, message; sending, by the access gateway, the NAS message to a control plane, CP, function entity; and receiving (5, 6), by the access gateway, network interface information from the CP function entity, and sending the network interface information to the user terminal to enable the user terminal to access a network.
A force sensor comprising a measuring object, a transducer (8, 73) with a measuring element (15, 74) operatively connected to the measuring object for generating measuring signals of a force acting on the measuring object, and at least two transmission channels (4, 5, 104, 105) configured to transmit mutually corresponding signals of said measuring signals independently from one another, wherein each transmission channel (4, 5, 104, 105) comprises a positive signal line (33, 34, 133, 134) and a negative signal line (35, 36, 135, 136), said transmission channels (4, 5, 104, 105) are connected in parallel to the same transducer (8, 73) such that the transmitted signals at the output of each transmission channel (4, 5, 104, 105) can be verified, wherein said transducer (8, 73) comprises a positive and a negative electrode (16, 17, 76, 77) for collecting said measuring signals generated by said measuring element (15, 74), the positive signal lines (33, 34, 133, 134) are connected to the positive electrode (16, 76), and the negative signal lines (35, 36, 135, 136) are connected to the negative electrode (17, 177), so that each of said electrodes (16, 17, 76, 77) is connected to each of said transmission channels (4, 5, 104, 105), and wherein said transducer (8, 73) is a single transducer operatively connected to the measuring object.
Timepiece resonator comprising at least one weight oscillating with respect to a connecting element comprised in said resonator and which is arranged to be directly or indirectly secured to a structure of a timepiece movement, said at least one weight being suspended from said connecting element by crossed strips (3, 4) which are resilient strips that extend at a distance from each other in two parallel planes, and the projections of the directions of said strips on one of said parallel planes intersect at a virtual pivot axis of said weight, and define together a first angle (α) which is the apex angle, from said virtual pivot axis, opposite which there extends the portion of said connecting element that is located between the attachments of said crossed strips (3, 4) to said connecting element, characterized in that said first angle (α) is comprised between 68° and 76°.
A video decoding apparatus for decoding a bit stream including uncompressed data of a video signal, comprising: a decoding unit configured to perform an arithmetic decoding process using a context value on the bit stream including uncompressed data; characterized in further comprising a receiving unit configured to receive a bit indicating whether or not the bit stream includes uncompressed data of the video signal; an encoding method judgment unit configured to judge based on the bit whether or not a unit of encoding of the bit stream includes uncompressed data; and a controlling unit (81, 84, 85) configured to control the arithmetic decoding process so as to perform a termination process for the arithmetic decoding process in case of receiving a bit indicating that the bit stream includes uncompressed data. a decoding unit configured to perform an arithmetic decoding process using a context value on the bit stream including uncompressed data; characterized in further comprising a receiving unit configured to receive a bit indicating whether or not the bit stream includes uncompressed data of the video signal; an encoding method judgment unit configured to judge based on the bit whether or not a unit of encoding of the bit stream includes uncompressed data; and a controlling unit (81, 84, 85) configured to control the arithmetic decoding process so as to perform a termination process for the arithmetic decoding process in case of receiving a bit indicating that the bit stream includes uncompressed data.
A ski or snowboard comprising a multi-layered gliding board body defining a longitudinal axis extending in the direction of its length, the gliding board body comprising - at least one strength-relevant upper chord - at least one strength-relevant lower chord, - at least one core element arranged therebetween, - at least one cover layer of a plastic material forming the upper side of the gliding board body, and - at least one running surface covering forming the underside of the gliding board body, wherein at least one depression is embossed in a surface of the at least one cover layer facing away from the core element, and that at least two small plates arranged at a distance from one another in the direction of the longitudinal axis are glued into the at least one depression, which small plates are formed from a material which has a higher elastic modulus than the plastic material of the cover layer, characterized in that a distance between small plates directly following one another in the longitudinal direction of the gliding board body is between 1 mm and 20 mm, in particular between 2 mm and 10 mm, preferably between 3 mm and 5 mm. - at least one strength-relevant upper chord - at least one strength-relevant lower chord, - at least one core element arranged therebetween, - at least one cover layer of a plastic material forming the upper side of the gliding board body, and - at least one running surface covering forming the underside of the gliding board body, wherein at least one depression is embossed in a surface of the at least one cover layer facing away from the core element, and that at least two small plates arranged at a distance from one another in the direction of the longitudinal axis are glued into the at least one depression, which small plates are formed from a material which has a higher elastic modulus than the plastic material of the cover layer, characterized in that a distance between small plates directly following one another in the longitudinal direction of the gliding board body is between 1 mm and 20 mm, in particular between 2 mm and 10 mm, preferably between 3 mm and 5 mm.
A method, comprising: designing a mold for molding a cannula for a medical device so that an intentional flash is formed at parting lines of the mold during molding of a cannula; molding a cannula using the mold; maintaining the flash on the molded cannula after the molding; and installing the molded cannula with the flash in a medical device: wherein designing the mold comprises designing the mold so that the intentional flash is bladelike. designing a mold for molding a cannula for a medical device so that an intentional flash is formed at parting lines of the mold during molding of a cannula; molding a cannula using the mold; maintaining the flash on the molded cannula after the molding; and installing the molded cannula with the flash in a medical device: wherein designing the mold comprises designing the mold so that the intentional flash is bladelike.
A method of laser separation of an epitaxial film or of an epitaxial film layer from a growth substrate of an epitaxial semiconductor structure, the method comprising: using selective doping of some regions of the epitaxial semiconductor structure with shallow donor or acceptor impurities when growing the epitaxial film or the epitaxial film layer, so that a resulting concentration of the shallow donor or acceptor impurities in selectively doped regions exceeds a background concentration in undoped regions; directing a focused laser beam to the epitaxial semiconductor structure so that a beam focus is placed in the selectively doped regions of the epitaxial semiconductor structure in which selective absorption of laser radiation takes place; moving the focused laser beam so as to scan the selectively doped regions of the epitaxial semiconductor structure with the beam focus with partial thermal decomposition of the selectively doped regions and weakening of their mechanical strength; and after laser scanning, gluing the epitaxial semiconductor structure onto a temporary substrate and separating the epitaxial film or the epitaxial film layer from the growth substrate or from the growth substrate with a part of the epitaxial film by applying mechanical or thermomechanical stress. using selective doping of some regions of the epitaxial semiconductor structure with shallow donor or acceptor impurities when growing the epitaxial film or the epitaxial film layer, so that a resulting concentration of the shallow donor or acceptor impurities in selectively doped regions exceeds a background concentration in undoped regions; directing a focused laser beam to the epitaxial semiconductor structure so that a beam focus is placed in the selectively doped regions of the epitaxial semiconductor structure in which selective absorption of laser radiation takes place; moving the focused laser beam so as to scan the selectively doped regions of the epitaxial semiconductor structure with the beam focus with partial thermal decomposition of the selectively doped regions and weakening of their mechanical strength; and after laser scanning, gluing the epitaxial semiconductor structure onto a temporary substrate and separating the epitaxial film or the epitaxial film layer from the growth substrate or from the growth substrate with a part of the epitaxial film by applying mechanical or thermomechanical stress.
A measuring method using a biosensor, the method comprising: a step of introducing a sample containing a substance to be measured into an electrochemical measurement cell, wherein the electrochemical measurement cell comprises: an insulating base plate; and an electrode system formed on the insulating base plate and comprising two or more electrodes, wherein at least one of the electrodes contains an oxidoreductase; a first voltage application step of applying a first voltage to the electrode system, wherein the first voltage is a voltage of not more than the reduction potential of the oxidoreductase; a second voltage application step of applying a second voltage to the electrode system, wherein the second voltage is a voltage of not less than the oxidation potential of the oxidoreductase; a step of obtaining a first signal dependent on the amount of the oxidoreductase which is capable of catalyzing an oxidation reduction reaction and contributing to an electron transfer to and from the electrode, in the first voltage application step; a step of obtaining a second signal dependent on the amount of the substance to be measured in the sample, in the second voltage application step; and a step of correcting the value of the second signal based on the value of the first signal whereby to determine the concentration of the substance in the sample. a step of introducing a sample containing a substance to be measured into an electrochemical measurement cell, wherein the electrochemical measurement cell comprises: an insulating base plate; and an electrode system formed on the insulating base plate and comprising two or more electrodes, wherein at least one of the electrodes contains an oxidoreductase; wherein the electrochemical measurement cell comprises: an insulating base plate; and an electrode system formed on the insulating base plate and comprising two or more electrodes, wherein at least one of the electrodes contains an oxidoreductase; an insulating base plate; and an electrode system formed on the insulating base plate and comprising two or more electrodes, wherein at least one of the electrodes contains an oxidoreductase; a first voltage application step of applying a first voltage to the electrode system, wherein the first voltage is a voltage of not more than the reduction potential of the oxidoreductase; a second voltage application step of applying a second voltage to the electrode system, wherein the second voltage is a voltage of not less than the oxidation potential of the oxidoreductase; a step of obtaining a first signal dependent on the amount of the oxidoreductase which is capable of catalyzing an oxidation reduction reaction and contributing to an electron transfer to and from the electrode, in the first voltage application step; a step of obtaining a second signal dependent on the amount of the substance to be measured in the sample, in the second voltage application step; and a step of correcting the value of the second signal based on the value of the first signal whereby to determine the concentration of the substance in the sample.