mhurhangee/ep-ind-claims huggingface dataset:
Method for authenticating a user of a user equipment provided with a mobile cellular network card module in a public wireless network, comprising: - during an authentication procedure following an attempt by the user to access through a web portal page of said public wireless network the public wireless network with the user equipment for availing of services provided by the public wireless network: - retrieving from the mobile cellular network card module a code that uniquely identifies such mobile cellular network card module; - retrieving from a database wireless credentials of the user associated with said retrieved code that uniquely identifies such mobile cellular network card module, the wireless credentials being associated with the web portal of said public wireless network, the database listing: - a name of said web portal of the public wireless network; - said wireless credentials associated with the web portal; - said code that uniquely identifies such mobile cellular network card module, said mobile cellular network card module having been used for a registration on said public wireless network through said web portal; - providing said retrieved wireless credentials of the user to the public wireless network; - granting (270, 280, 290) the user access to the public wireless network conditioned to the correctness of the provided wireless credentials (250; 260). - during an authentication procedure following an attempt by the user to access through a web portal page of said public wireless network the public wireless network with the user equipment for availing of services provided by the public wireless network: - retrieving from the mobile cellular network card module a code that uniquely identifies such mobile cellular network card module; - retrieving from a database wireless credentials of the user associated with said retrieved code that uniquely identifies such mobile cellular network card module, the wireless credentials being associated with the web portal of said public wireless network, the database listing: - a name of said web portal of the public wireless network; - said wireless credentials associated with the web portal; - said code that uniquely identifies such mobile cellular network card module, said mobile cellular network card module having been used for a registration on said public wireless network through said web portal; - a name of said web portal of the public wireless network; - said wireless credentials associated with the web portal; - said code that uniquely identifies such mobile cellular network card module, said mobile cellular network card module having been used for a registration on said public wireless network through said web portal; - providing said retrieved wireless credentials of the user to the public wireless network; - granting (270, 280, 290) the user access to the public wireless network conditioned to the correctness of the provided wireless credentials (250; 260).
A processing station for registering a passenger's luggage for a trip, the processing station comprising: an injector for receiving a piece of luggage associated with the passenger; at least one sensor (16a -16d) associated with the injector; a weighing machine associated with the injector for weighing the piece of luggage whilst in the injector; and a controller associated with the at least one sensor and the weighing machine, characterised in that the at least one sensor (16a - 16d), in combination with walls (30, 32) and a floor of the injector, creates a six-sided virtual box around the piece of luggage and wherein the virtual box includes at least one non-physical barrier; and wherein at least one sensoris adapted to generate a side of the virtual box; the controller being adapted to: monitor, via the at least one sensor (16a - 16d), intrusions through the virtual box to determine one or more of whether a predetermined limit on dimensions of the piece of luggage has been exceeded or whether a foreign object has intruded the virtual box from outside of the virtual box, and allow further processing of the piece of luggage only if no intrusion of the virtual box is detected. an injector for receiving a piece of luggage associated with the passenger; at least one sensor (16a -16d) associated with the injector; a weighing machine associated with the injector for weighing the piece of luggage whilst in the injector; and a controller associated with the at least one sensor and the weighing machine, characterised in that the at least one sensor (16a - 16d), in combination with walls (30, 32) and a floor of the injector, creates a six-sided virtual box around the piece of luggage and wherein the virtual box includes at least one non-physical barrier; and wherein at least one sensoris adapted to generate a side of the virtual box; the controller being adapted to: monitor, via the at least one sensor (16a - 16d), intrusions through the virtual box to determine one or more of whether a predetermined limit on dimensions of the piece of luggage has been exceeded or whether a foreign object has intruded the virtual box from outside of the virtual box, and allow further processing of the piece of luggage only if no intrusion of the virtual box is detected. monitor, via the at least one sensor (16a - 16d), intrusions through the virtual box to determine one or more of whether a predetermined limit on dimensions of the piece of luggage has been exceeded or whether a foreign object has intruded the virtual box from outside of the virtual box, and allow further processing of the piece of luggage only if no intrusion of the virtual box is detected.
Shearing device, intended to fragment waste, in particular fragment a metal strip into multiple pieces, said device comprising two counter-rotating drums (2,3) positioned facing each other, the axes of rotation (A1, A2) of the drums (2, 3) being parallel to each other, a drive device connecting the drums and synchronising the speed of rotation of said drums, and at least one pair of blades (20, 30, 21, 31, 22, 32, 23,33), the blades (20, 30; 21, 31; 22, 32; 23,33) of the pair being carried by the two drums (2,3), respectively, the blades of the pair being intended to cooperate via a shearing effect during the rotation of the drums (2,3) in order to cut the waste, the blades of the pair having, starting from the cutting edge of said blades, flat faces, called overlapping faces (5,6), that overlap with each other and face each other at least locally during the shearing between blades (20, 30; 21, 31; 22, 32; 23, 33), each blade being attached transversely to the drum (2;3), at an angle with respect to the axis of rotation (A1;A2) of the drum (2;3) and in such a way that the plane passing through said overlapping face (5,6) of the blade forms an angle with the axis of rotation (A1;A2) of the corresponding drum, the blade cutting edge (2,3) and the axis of rotation (A1;A2) of the corresponding drum being not coplanar, the blades of the pair carried by the two drums having opposite diagonal orientations and in such a way as to produce progressive shearing, said overlapping face (5;6) of each blade (20; 30; 21; 31; 22, 32; 23,33) is doubly inclined with respect to the drum (2;3) in such a way that the plane (P1;P2) passing through said overlapping face (5;6) does not intersect the axis of rotation of the drum (2; 3) over the active width (L1;L2) of the drum, said shearing device being characterised in that the plane (P1;P2) intersects the axis of rotation of the drum at a point (I1; 12) located outside of the segment of the axis (A1;A2) corresponding to the active width (L1;L2) of the drum (2,3).
Method for managing an integrated satellite-terrestrial network, the integrated satellite-terrestrial network comprising a terrestrial network component, and a satellite network component transmitting a plurality of satellite beams, forming a satellite full coverage pattern, the method comprising: - detecting the occurrence of an abnormal situation based on a change in a traffic load of the terrestrial network component and/or the satellite network component, - performing a first method of managing the abnormal situation, wherein the first method of managing the abnormal situation comprises: - determining parameters (C b, R b) of a target beam footprint defining a circular region covering at least partially an area of occurrence of the abnormal situation; - identifying a first beam among the plurality of satellite beams transmitted by the satellite network component whose footprint corresponds to the circular region; - identifying all second beams whose footprint neighbors the first beam; - determining parameters for a reconfigured first beam footprint based on the parameters defining the circular region; - determining parameters for reconfigured second beams footprints based on the parameters determined for the reconfigured first beam; - transmitting to the satellite network component a beam reconfiguration request for reconfiguring at least the first satellite beam (Ci, Ri) and the second satellite beams transmitted by the satellite network component according to the parameters determined for the reconfigured first beam and second beams footprints. - detecting the occurrence of an abnormal situation based on a change in a traffic load of the terrestrial network component and/or the satellite network component, - performing a first method of managing the abnormal situation, wherein the first method of managing the abnormal situation comprises: - determining parameters (C b, R b) of a target beam footprint defining a circular region covering at least partially an area of occurrence of the abnormal situation; - identifying a first beam among the plurality of satellite beams transmitted by the satellite network component whose footprint corresponds to the circular region; - identifying all second beams whose footprint neighbors the first beam; - determining parameters for a reconfigured first beam footprint based on the parameters defining the circular region; - determining parameters for reconfigured second beams footprints based on the parameters determined for the reconfigured first beam; - transmitting to the satellite network component a beam reconfiguration request for reconfiguring at least the first satellite beam (Ci, Ri) and the second satellite beams transmitted by the satellite network component according to the parameters determined for the reconfigured first beam and second beams footprints.
A soft magnetic metal powder, comprising iron as the main component and containing boron, wherein the content of iron in the soft magnetic metal powder is 98 mass% or more and the metal particle of the soft magnetic metal powder comprises a film of boron nitride on the surface, characterized in that the content of boron inside the metal particle is 10 to 150 ppm.
A method for use in identifying cyber-security threats for an aircraft, said method comprising: storing parts information relating to at least some hardware and software components used on the aircraft; receiving, by a computing device, a cyber-security threat; and determining, by the computing device, that a threat is relevant to the aircraft by comparing the received threats to the stored parts information; the method further comprising providing a threat tree model that is configured to provide a connectivity configuration for a plurality of hardware components and software components on the aircraft; and prioritizing the determined threat by comparing the determined threat to the provided threat tree model, wherein the priority is lower where an increased number of systems and networks are required in a threat's path and higher where a threat has direct access to a targeted system. storing parts information relating to at least some hardware and software components used on the aircraft; receiving, by a computing device, a cyber-security threat; and determining, by the computing device, that a threat is relevant to the aircraft by comparing the received threats to the stored parts information; the method further comprising providing a threat tree model that is configured to provide a connectivity configuration for a plurality of hardware components and software components on the aircraft; and prioritizing the determined threat by comparing the determined threat to the provided threat tree model, wherein the priority is lower where an increased number of systems and networks are required in a threat's path and higher where a threat has direct access to a targeted system.
A method to recover hydrocarbon gas from a seabed, the method comprising: deploying at least one autonomous, self-propelled drilling device to the seabed from a surface location; drilling a plurality of wells from the seabed into a hydrocarbon bearing formation using the at least one autonomous, self-propelled drilling device, wherein each of the wells has a respective seabed origination point; positioning a bladder over the seabed origination points of the plurality of wells; sensing a presence of hydrocarbon deposits in the hydrocarbon bearing formation using sensors located on the at least one autonomous, self-propelled drilling device; causing sublimation of the hydrocarbon deposits in the hydrocarbon bearing formation using a sublimation mechanism located on the at least one autonomous, self-propelled drilling device, thereby causing hydrocarbon gas to be released from the hydrocarbon bearing formation; and capturing the released hydrocarbon gas in the bladder. deploying at least one autonomous, self-propelled drilling device to the seabed from a surface location; drilling a plurality of wells from the seabed into a hydrocarbon bearing formation using the at least one autonomous, self-propelled drilling device, wherein each of the wells has a respective seabed origination point; positioning a bladder over the seabed origination points of the plurality of wells; sensing a presence of hydrocarbon deposits in the hydrocarbon bearing formation using sensors located on the at least one autonomous, self-propelled drilling device; causing sublimation of the hydrocarbon deposits in the hydrocarbon bearing formation using a sublimation mechanism located on the at least one autonomous, self-propelled drilling device, thereby causing hydrocarbon gas to be released from the hydrocarbon bearing formation; and capturing the released hydrocarbon gas in the bladder.
A biocompatible metal-organic framework (bMOF) comprising: a plurality of biocompatible metal cores, each metal core comprising one or more metal ions selected from Na +, Mg 2+, Ca 2+, Zr 4+, Mn 3+, Fe 3+, Fe 2+, Cu 2+, Cu +, and Zn 2+; and a plurality of biocompatible charged multidentate linking ligands that connect adjacent metal cores, wherein the multidentate linking ligands comprise anions of parent compounds selected from citric acid, malic acid, tartaric acid, aldaric acid, oxalic acid, malonic acid, succinic acid, glutaric acid, adipic acid, isocitric acid, aconitic acid and propane-1,2,3-tricarboxylic acid; or alternatively the bMOF comprises repeating units having a general formula: wherein M is a metal ion selected from Na +, Mg 2+, Ca 2+, Zr 4+, Mn 3+, Fe 3+, Fe 2+, Pd 2+, Pd +, Pt 2+, Pt +, Cu 2+, Cu +, and Zn 2+; or alternatively the bMOF comprises repeating units having a general formula: wherein M is a metal ion selected from Na +, Mg 2+, Ca 2+, Zr 4+, Mn 3+, Fe 3+, Fe 2+, Pd 2+, Pd +, Pt 2+, Pt +, Cu 2+, Cu +, and Zn 2+. a plurality of biocompatible metal cores, each metal core comprising one or more metal ions selected from Na +, Mg 2+, Ca 2+, Zr 4+, Mn 3+, Fe 3+, Fe 2+, Cu 2+, Cu +, and Zn 2+; and a plurality of biocompatible charged multidentate linking ligands that connect adjacent metal cores, wherein the multidentate linking ligands comprise anions of parent compounds selected from citric acid, malic acid, tartaric acid, aldaric acid, oxalic acid, malonic acid, succinic acid, glutaric acid, adipic acid, isocitric acid, aconitic acid and propane-1,2,3-tricarboxylic acid;
A robot cleaner comprising: an infrared sensor including a light emitting device configured to output an infrared ray to a floor and a light receiving device configured to receive the infrared ray reflected from the floor and convert the received infrared ray into an electric signal and output the electric signal; characterized in that said robot cleaner further comprises a processor configured to determine an output voltage of the electrical signal if the electrical signal is received from the infrared sensor, control a travel direction of the robot cleaner based on the output voltage and a predetermined first threshold voltage, and control a suction mode of the robot cleaner based on the output voltage and a predetermined second threshold voltage, wherein the second threshold voltage is higher than the first threshold voltage. an infrared sensor including a light emitting device configured to output an infrared ray to a floor and a light receiving device configured to receive the infrared ray reflected from the floor and convert the received infrared ray into an electric signal and output the electric signal; characterized in that said robot cleaner further comprises a processor configured to determine an output voltage of the electrical signal if the electrical signal is received from the infrared sensor, control a travel direction of the robot cleaner based on the output voltage and a predetermined first threshold voltage, and control a suction mode of the robot cleaner based on the output voltage and a predetermined second threshold voltage, wherein the second threshold voltage is higher than the first threshold voltage.
An implantable transvenous single chamber bipolar cardiac lead having a lead length extending axially from a proximal lead end to a distal lead end, wherein the proximal lead end is configured to be permanently or removably connectable to an active implantable medical device, the lead comprising: a) a first electrode contactable with biological cells; b) a first conductor having a first length extending from an electrical connection to the first electrode at the distal lead end to a proximal first conductor end at or near the proximal lead end; c) a second electrode contactable with biological cells; d) a second conductor separate from the first conductor and having a second length extending from an electrical connection to the second electrode at a position between the first electrode and the proximal lead end to a proximal second conductor end at or near the proximal lead end; e) a first bandstop filter electrically coupled in series along the first conductor; f) a first inductance electrically coupled in series along the first conductor at an intermediate location between the first bandstop filter and the second electrode; g) a second bandstop filter electrically coupled in series along the second conductor; and h) a second inductance electrically coupled in series along the second conductor at an intermediate location between the second bandstop filter and the proximal second conductor end, characterised in that said first bandstop filter is at a position that is proximal the first electrode, wherein said first bandstop filter is intermediate the first and second electrodes along the axial lead length, and said second bandstop filter is at a position that is proximal the second electrode so that said second bandstop filter is intermediate the second electrode and the proximal second conductor end along the axial lead length. a) a first electrode contactable with biological cells; b) a first conductor having a first length extending from an electrical connection to the first electrode at the distal lead end to a proximal first conductor end at or near the proximal lead end; c) a second electrode contactable with biological cells; d) a second conductor separate from the first conductor and having a second length extending from an electrical connection to the second electrode at a position between the first electrode and the proximal lead end to a proximal second conductor end at or near the proximal lead end; e) a first bandstop filter electrically coupled in series along the first conductor; f) a first inductance electrically coupled in series along the first conductor at an intermediate location between the first bandstop filter and the second electrode; g) a second bandstop filter electrically coupled in series along the second conductor; and h) a second inductance electrically coupled in series along the second conductor at an intermediate location between the second bandstop filter and the proximal second conductor end,
A composition, comprising: a CoNiCrAlY alloy, wherein three or more elements of the CoNiCrAlY alloy are present in equimolar amounts, one of the three or more elements of the CoNiCrAlY alloy being aluminum (Al), and wherein a molar fraction of Al is between 0.20 and 0.25; a transition metal boride including at least one of: cobalt boride,Co 2 B, titanium boride, TiB 2, zirconium boride, ZrB 2, tantalum boride, TaB 2, niobium boride, NiB 2, or molybdenum boride, Mo 2 B; and a refractory alloy, wherein the refractory alloy includes molybdenum niobium or M-Mo-Cr-Si, where M includes Ni or Co; and wherein when the refractory alloy includes molybdenum niobium, MoNb, the composition includes, based on the total weight of the composition, between 10% and 70% by weight the CoNiCrAlY alloy, between 20% and 60% by weight the transition metal boride, and between 0.5% and 10% by weigh MoNb; or wherein when the refractory alloy includes M-Mo-Cr-Si, where M includes Ni or Co, the composition includes, based on the total weight of the composition, between 30% and 70% by weight the CoNiCrAlY alloy, between 20% and 40% by weight the transition metal boride, and between 20% and 60% by weight the refractory alloy. a CoNiCrAlY alloy, wherein three or more elements of the CoNiCrAlY alloy are present in equimolar amounts, one of the three or more elements of the CoNiCrAlY alloy being aluminum (Al), and wherein a molar fraction of Al is between 0.20 and 0.25; a transition metal boride including at least one of: cobalt boride,Co 2 B, titanium boride, TiB 2, zirconium boride, ZrB 2, tantalum boride, TaB 2, niobium boride, NiB 2, or molybdenum boride, Mo 2 B; and a refractory alloy, wherein the refractory alloy includes molybdenum niobium or M-Mo-Cr-Si, where M includes Ni or Co; and wherein when the refractory alloy includes molybdenum niobium, MoNb, the composition includes, based on the total weight of the composition, between 10% and 70% by weight the CoNiCrAlY alloy, between 20% and 60% by weight the transition metal boride, and between 0.5% and 10% by weigh MoNb; or wherein when the refractory alloy includes M-Mo-Cr-Si, where M includes Ni or Co, the composition includes, based on the total weight of the composition, between 30% and 70% by weight the CoNiCrAlY alloy, between 20% and 40% by weight the transition metal boride, and between 20% and 60% by weight the refractory alloy.