mhurhangee/ep-ind-claims huggingface dataset:
A method of communicating over a network between a first endpoint and a second endpoint, the first endpoint being a client device or a server and the second endpoint being the other of the client device and server; the method comprising: establishing a first secure transport layer channel between the first and second endpoints, the first secure transport layer channel being defined by a first cryptographic key required to access content of traffic sent over the first secure transport layer channel; establishing a second secure transport layer channel between the first endpoint and a middlebox to which the first endpoint is to delegate processing of the traffic sent over the first secure transport layer channel, the second secure transport layer channel being defined by a second cryptographic key required to access content sent over the second secure transport layer channel; the first endpoint validating the middlebox via the respective second secure transport layer channel, and on condition of said validation sharing the first cryptographic key with the middlebox via the second secure transport layer channel; and causing the traffic sent over the channel to be routed via the middlebox; the method thereby enabling the middlebox to process, in the clear, content of the traffic sent over the first secure transport layer channel using the first cryptographic key. establishing a first secure transport layer channel between the first and second endpoints, the first secure transport layer channel being defined by a first cryptographic key required to access content of traffic sent over the first secure transport layer channel; establishing a second secure transport layer channel between the first endpoint and a middlebox to which the first endpoint is to delegate processing of the traffic sent over the first secure transport layer channel, the second secure transport layer channel being defined by a second cryptographic key required to access content sent over the second secure transport layer channel; the first endpoint validating the middlebox via the respective second secure transport layer channel, and on condition of said validation sharing the first cryptographic key with the middlebox via the second secure transport layer channel; and causing the traffic sent over the channel to be routed via the middlebox; the method thereby enabling the middlebox to process, in the clear, content of the traffic sent over the first secure transport layer channel using the first cryptographic key.
Method for producing packs of the hinge-lid type having a bottom part, a lid part and a closed frame which is arranged and fixed in the bottom part, extends all around and is included in part by the lid part when the pack is closed, wherein the flatly folded, closed frame is fed to an inserting or combining station for setting the frame upright and for inserting it into a bottom part which is held ready, wherein the set-upright, in particular rectangular or square frame is inserted in the separately prepared bottom part or onto a bottom wall of the same, and wherein the unit produced from bottom part and frame is then inserted into a holder, preferably as a result of an upward movement into a downwardly open pocket of an endless conveyor, in particular of a turret, wherein the bottom side walls (13, 14) are supported in the upright position in the pocket by pocket walls (42, 43), characterized in that sideways moveable pressure members or pressure pieces (44, 45) disposed inside the pocket act against inner surfaces of the frame or of the frame portions (18, 19) in such a manner that said inner surfaces of the frame or of the frame portions are connected to the assigned bottom side walls (13, 14) as a result of the sideways-directed pressure, in particular on account of a glue strip on the outside of the frame,
Device for manufacturing a pouch containing a brewable material accommodated in a wrapping, comprising a pouch manufacturing device adapted to manufacture a pouch containing brewable material, and a sealing station with jaw elements forming opposing sealing surfaces acting on the wrapping from opposite sides for sealing the pouch, characterized in that that at least one of the jaw elements forms a trough-shaped recess below the sealing surface, in which a helically laid heating conductor is accommodated.
Method for correcting the time defined by an internal clock of an entity able to receive signals from a satellite positioning system and to communicate with at least one other entity, said method, when the signals do not allow satellite positioning of said entity, comprising the following steps: - said entity receiving a message from said other entity, said message comprising a first item of time data T e associated with the transmission time of said message, - said entity determining a second item of time data T r associated with the time of reception of said message by said entity, - computing a time difference ΔT relating to the difference between the second item of time data T r and the first item of time data T e, and then - determining a temporal correction ε T to be made to the time defined by the internal clock of said entity on the basis of said time difference ΔT, the method being characterized in that the step of determining a temporal correction ε T comprises the following sub-steps: - determining a second updated item of time data T ra such that a theoretical time difference, ΔT th_DENM, ΔT th_CAM, between the second updated item of time data T ra and the first item of time data T e is equal to a determined value, and - determining the temporal correction ε T based on the second updated item of time data T ra and on the second item of time data T r. - said entity receiving a message from said other entity, said message comprising a first item of time data T e associated with the transmission time of said message, - said entity determining a second item of time data T r associated with the time of reception of said message by said entity, - computing a time difference ΔT relating to the difference between the second item of time data T r and the first item of time data T e, and then - determining a temporal correction ε T to be made to the time defined by the internal clock of said entity on the basis of said time difference ΔT, the method being characterized in that the step of determining a temporal correction ε T comprises the following sub-steps: - determining a second updated item of time data T ra such that a theoretical time difference, ΔT th_DENM, ΔT th_CAM, between the second updated item of time data T ra and the first item of time data T e is equal to a determined value, and - determining the temporal correction ε T based on the second updated item of time data T ra and on the second item of time data T r. - determining a second updated item of time data T ra such that a theoretical time difference, ΔT th_DENM, ΔT th_CAM, between the second updated item of time data T ra and the first item of time data T e is equal to a determined value, and - determining the temporal correction ε T based on the second updated item of time data T ra and on the second item of time data T r.
A method of manufacturing a hybrid packaging material, comprising the steps of: 1) forming a colloidal inorganic nanosol; 2) surface-treating the inorganic nanosol of step 1) with an organic metal alkoxide containing an organic function group by stirring the inorganic nanosol together with the organic metal alkoxide; 3) replacing a solvent of the inorganic nanosol with an organic solvent different in type from the solvent to prepare an organic solvent-type inorganic nanosol; and 4) substituting the organic solvent of the inorganic nanosol of step 3) with a functional organic monomer or a silicon compound, followed by concentration to prepare a solvent-free organic-inorganic hybrid material. 1) forming a colloidal inorganic nanosol; 2) surface-treating the inorganic nanosol of step 1) with an organic metal alkoxide containing an organic function group by stirring the inorganic nanosol together with the organic metal alkoxide; 3) replacing a solvent of the inorganic nanosol with an organic solvent different in type from the solvent to prepare an organic solvent-type inorganic nanosol; and 4) substituting the organic solvent of the inorganic nanosol of step 3) with a functional organic monomer or a silicon compound, followed by concentration to prepare a solvent-free organic-inorganic hybrid material.
A method for controlling AC frequency of electrical power being distributed to a power distribution grid, wherein said power distribution grid includes a plurality of electrical loads (18, 18') interconnected with a plurality of power generation facilities (12, 12') and wherein a power generated by a given power generation facility (12, 12') is being adjusted to control the AC frequency, the frequency control method comprising the steps of: electrically coupling an energy storage sub-system (100,200) to the power distribution grid, said energy storage sub-system (100, 200) including one or more flywheel energy storage systems; controlling each of the flywheel energy storage systems responsive to total power being outputted by the plurality of power generation facilities (12, 12') and a total load imposed by the plurality of loads (18, 18'), wherein said controlling includes controlling each of the flywheel energy storage systems by absorbing power from the power distribution grid by the energy storage sub-system (100,200), by a determined amount, when the total power being outputted by the plurality of power generation facilities (12, 12') exceeds the total load imposed by the plurality of electrical loads (18, 18'), and by injecting power into the power distribution grid by the energy storage sub-system (100,200) by another determined amount, when the total power being outputted is less than the total load, wherein the determined amount and the another determined amount are determined by an evaluated difference between the total power and the total load, so as to regulate the AC frequency of the electrical power being distributed to the power distribution grid so as to be at or about a desired AC frequency. electrically coupling an energy storage sub-system (100,200) to the power distribution grid, said energy storage sub-system (100, 200) including one or more flywheel energy storage systems; controlling each of the flywheel energy storage systems responsive to total power being outputted by the plurality of power generation facilities (12, 12') and a total load imposed by the plurality of loads (18, 18'), wherein said controlling includes controlling each of the flywheel energy storage systems by absorbing power from the power distribution grid by the energy storage sub-system (100,200), by a determined amount, when the total power being outputted by the plurality of power generation facilities (12, 12') exceeds the total load imposed by the plurality of electrical loads (18, 18'), and by injecting power into the power distribution grid by the energy storage sub-system (100,200) by another determined amount, when the total power being outputted is less than the total load, wherein the determined amount and the another determined amount are determined by an evaluated difference between the total power and the total load, so as to regulate the AC frequency of the electrical power being distributed to the power distribution grid so as to be at or about a desired AC frequency.
A method for in vitro determining whether a cumulus cell is mature, comprising a step of measuring, in said cumulus cell, the expression level of: - at least one gene selected from the Table A wherein said at least one gene selected from the Table A comprises C14orf4, and wherein the overexpression of the at least one gene selected from Table A is indicative that said cumulus cell is a mature cumulus cell. - at least one gene selected from the Table A wherein said at least one gene selected from the Table A comprises C14orf4, and wherein the overexpression of the at least one gene selected from Table A is indicative that said cumulus cell is a mature cumulus cell.
Cleaning station for an optical element comprising - an optical element holder for holding the optical element, - a first drive for rotating the optical element holder around a rotation axis, the rotation axis coinciding with the optical axis of the optical element when held by the optical element holder, - a cleaning nozzle configured to project a cleaning jet of a cleaning liquid towards the optical element, wherein the cleaning station further comprises a separate drying nozzle configured to project a drying jet towards the optical element, and the cleaning nozzle and the drying nozzle are configured to move in order to direct respectively the cleaning jet / the drying jet successively to different locations on the optical element and the cleaning liquid comprises deionized water, in particular completed with a lens drying additive characterized in that the cleaning station further comprising a piston operated pump unit having a stroke number monitoring unit for delivering a high pressure cleaning liquid to the cleaning nozzle, the pressure of the cleaning liquid being comprised between 150-200bars, the stroke number monitoring unit being configured to count the number of strokes of the piston operated pump unit and to stop processing of the cleaning station if the counted number of strokes is out of a defined range, where the defined range is defined as +/- 15% of a reference value. - an optical element holder for holding the optical element, - a first drive for rotating the optical element holder around a rotation axis, the rotation axis coinciding with the optical axis of the optical element when held by the optical element holder, - a cleaning nozzle configured to project a cleaning jet of a cleaning liquid towards the optical element, wherein the cleaning station further comprises a separate drying nozzle configured to project a drying jet towards the optical element, and the cleaning nozzle and the drying nozzle are configured to move in order to direct respectively the cleaning jet / the drying jet successively to different locations on the optical element and the cleaning liquid comprises deionized water, in particular completed with a lens drying additive characterized in that the cleaning station further comprising a piston operated pump unit having a stroke number monitoring unit for delivering a high pressure cleaning liquid to the cleaning nozzle, the pressure of the cleaning liquid being comprised between 150-200bars, the stroke number monitoring unit being configured to count the number of strokes of the piston operated pump unit and to stop processing of the cleaning station if the counted number of strokes is out of a defined range, where the defined range is defined as +/- 15% of a reference value.
A method performed by a User Equipment, UE, the method comprising: receiving a Configuration Update Command message from an Access and mobility Management Function, AMF,; determining whether the Configuration Update Command message includes: acknowledgement indication indicating that acknowledgement for the Configuration Update Command message is requested to the UE, and Short Message Service, SMS, indication indicating whether or not the UE is allowed for SMS over Non-Access Stratum, NAS, sending a Configuration Update Complete message to the AMF, if the Configuration Update Command message includes the acknowledgement indication; and considering the SMS over NAS is not allowed for the UE if the SMS indication indicates that the UE is not allowed for the SMS over NAS. receiving a Configuration Update Command message from an Access and mobility Management Function, AMF,; determining whether the Configuration Update Command message includes: acknowledgement indication indicating that acknowledgement for the Configuration Update Command message is requested to the UE, and Short Message Service, SMS, indication indicating whether or not the UE is allowed for SMS over Non-Access Stratum, NAS, acknowledgement indication indicating that acknowledgement for the Configuration Update Command message is requested to the UE, and Short Message Service, SMS, indication indicating whether or not the UE is allowed for SMS over Non-Access Stratum, NAS, sending a Configuration Update Complete message to the AMF, if the Configuration Update Command message includes the acknowledgement indication; and considering the SMS over NAS is not allowed for the UE if the SMS indication indicates that the UE is not allowed for the SMS over NAS.
A method for use in controlling an access point mode of operation of a mobile terminal for reducing interference to a surrounding wireless network, the method comprising: operating the mobile terminal in an access point mode of operation for communication with one or more other mobile terminals; receiving, from the one or more other mobile terminals, network information comprising one or more network identifiers which identify one or more surrounding wireless networks within coverage of the one or more other mobile terminals; and in response to identifying at the mobile terminal that one of the received network identifiers corresponds to a predetermined wireless network or predetermined type of wireless network: disabling the access point mode of operation of the mobile terminal as a source of interference to the surrounding wireless network identified by the received network identifier corresponding to the predetermined wireless network or predetermined type of wireless network. operating the mobile terminal in an access point mode of operation for communication with one or more other mobile terminals; receiving, from the one or more other mobile terminals, network information comprising one or more network identifiers which identify one or more surrounding wireless networks within coverage of the one or more other mobile terminals; and in response to identifying at the mobile terminal that one of the received network identifiers corresponds to a predetermined wireless network or predetermined type of wireless network: disabling the access point mode of operation of the mobile terminal as a source of interference to the surrounding wireless network identified by the received network identifier corresponding to the predetermined wireless network or predetermined type of wireless network.
A device (10; 810, 910) for gathering tissue of a heart valve leaflet, the device comprising: an outer tube (16; 916) extending in an elongation direction; a capture tool moveable in the outer tube between a contained position and a use position, the capture tool including a first element (20; 120; 220; 920) and a second element (22; 122; 722; 922) that are operable to capture tissue of the heart valve leaflet therebetween and to draw the captured tissue into the outer tube in a gathered configuration, a tissue securing component disposed at a distal end of the outer tube and adapted to be applied to the captured tissue to hold the captured tissue in the gathered configuration, the device being characterized in that the first element (20; 120; 220; 920) and the second element (22; 122; 722; 922) are moveable relative to one another in the elongation direction, the second element being translatable in the elongation direction relative to the first element for movement between a first position in which the first and second elements are spaced apart by a first distance and a second position in which the first and second elements are spaced apart by a second distance less than the first distance to capture tissue therebetween. an outer tube (16; 916) extending in an elongation direction; a capture tool moveable in the outer tube between a contained position and a use position, the capture tool including a first element (20; 120; 220; 920) and a second element (22; 122; 722; 922) that are operable to capture tissue of the heart valve leaflet therebetween and to draw the captured tissue into the outer tube in a gathered configuration, a tissue securing component disposed at a distal end of the outer tube and adapted to be applied to the captured tissue to hold the captured tissue in the gathered configuration, the device being characterized in that the first element (20; 120; 220; 920) and the second element (22; 122; 722; 922) are moveable relative to one another in the elongation direction, the second element being translatable in the elongation direction relative to the first element for movement between a first position in which the first and second elements are spaced apart by a first distance and a second position in which the first and second elements are spaced apart by a second distance less than the first distance to capture tissue therebetween.
Plasma device comprising at least two plasma cells (Cx), each plasma cell having a gas inlet comprising a through hole and a core, an internal chamber defined by a lateral wall, and a front wall having a front opening, said gas inlet being connected to a plasma precursor unit, and said front wall comprising a first electrode and a second electrode separated by an insulating layer, the plasma device further comprising a command unit, wherein the first and the second electrodes of a given plasma cell are independent from the corresponding first and second electrodes of the contiguous plasma cells, wherein the electrodes of each plasma cell are independently connected to the command unit, and wherein the command unit comprises a high voltage pulse generator and a radiofrequency generator, wherein said high voltage pulse generator and radiofrequency generator are both mutually protected by one or several filtering elements.
A computer-implemented method for selecting a subject for treatment of ovarian cancer comprising: (i) inputting expression data of a panel of serum metabolic biomarkers in a serum sample obtained from the subject; and (ii) determining whether expression of the metabolic biomarkers in the serum sample obtained from the subject is indicative of ovarian cancer using a computer system programmed with a trained machine learning classifier for distinguishing subjects with ovarian cancer and without ovarian cancer; wherein the machine learning classifier has been trained using expression data of a panel of serum metabolic biomarkers obtained from patients having ovarian cancer and from control subjects that do not have ovarian cancer; and (iii) selecting the subject wherein the expression data of the panel of serum metabolic biomarkers in the serum sample obtained from the subject is correlated by the computer system to be indicative of ovarian cancer, and wherein the diagnostic accuracy is at least 80%, and wherein the panel of serum metabolic biomarkers comprises each of D-1-Piperideine-2-carboxylic acid, 2-Phenylacetamide, D-Glyceraldehyde 3-phosphate, 5-Methoxytryptophan, N-(2-hydroxyethyl) icosanamide, Isopentenyladenine-9-N-glucoside, Asp-Val-Thr, LysoSM(d18:0) and His-Tyr-Arg. (i) inputting expression data of a panel of serum metabolic biomarkers in a serum sample obtained from the subject; and (ii) determining whether expression of the metabolic biomarkers in the serum sample obtained from the subject is indicative of ovarian cancer using a computer system programmed with a trained machine learning classifier for distinguishing subjects with ovarian cancer and without ovarian cancer; wherein the machine learning classifier has been trained using expression data of a panel of serum metabolic biomarkers obtained from patients having ovarian cancer and from control subjects that do not have ovarian cancer; and (iii) selecting the subject wherein the expression data of the panel of serum metabolic biomarkers in the serum sample obtained from the subject is correlated by the computer system to be indicative of ovarian cancer, and wherein the diagnostic accuracy is at least 80%, and wherein the panel of serum metabolic biomarkers comprises each of D-1-Piperideine-2-carboxylic acid, 2-Phenylacetamide, D-Glyceraldehyde 3-phosphate, 5-Methoxytryptophan, N-(2-hydroxyethyl) icosanamide, Isopentenyladenine-9-N-glucoside, Asp-Val-Thr, LysoSM(d18:0) and His-Tyr-Arg.