mhurhangee/ep-ind-claims huggingface dataset:
A method of facilitating a transaction in which a game is obtained for a game console (102; 202) using a presenting device (110; 204), the method, performed at the presenting device (110; 204), comprising: receiving as a user input user identity information and game identity information; generating an active tag code for presentation to the game console (102; 202), the active tag code encoding the user identity information and the game identity information; presenting a first portion of the active tag code to a sensor system (106; 214) used as an input device for the game console (102; 202) at a first time, the first portion of the active tag code encoding a first subset of information of a set of information encoded in the active tag code; and presenting a second portion of the active tag code to the sensor system (106; 214) at a second, later time, the second portion of the active tag code encoding a second subset of information of the set of information encoded in the active tag code. receiving as a user input user identity information and game identity information; generating an active tag code for presentation to the game console (102; 202), the active tag code encoding the user identity information and the game identity information; presenting a first portion of the active tag code to a sensor system (106; 214) used as an input device for the game console (102; 202) at a first time, the first portion of the active tag code encoding a first subset of information of a set of information encoded in the active tag code; and presenting a second portion of the active tag code to the sensor system (106; 214) at a second, later time, the second portion of the active tag code encoding a second subset of information of the set of information encoded in the active tag code.
A wireless telecommunications network user equipment method, comprising: determining a radio condition trigger indicative of an uplink-downlink decoupling opportunity; transmitting a decoupling opportunity notification if said radio condition trigger is met at user equipment; receiving decoupling preparation information relating to said uplink-downlink decoupling opportunity, said decoupling preparation information comprising an indication of an implementation trigger to be applied by said user equipment; and awaiting receipt of said implementation trigger to implement said uplink downlink decoupling. determining a radio condition trigger indicative of an uplink-downlink decoupling opportunity; transmitting a decoupling opportunity notification if said radio condition trigger is met at user equipment; receiving decoupling preparation information relating to said uplink-downlink decoupling opportunity, said decoupling preparation information comprising an indication of an implementation trigger to be applied by said user equipment; and awaiting receipt of said implementation trigger to implement said uplink downlink decoupling.
A dynamic sleeve seal fitting, comprising: a first sleeve having a tongue portion; a second sleeve having a groove configured to receive the tongue portion; a first seal member coupled to at least one of the tongue portion or the groove and configured to generate a seal between the first sleeve and the second sleeve in response to inserting the tongue portion into the groove; and a second seal member coupled to at least one of the tongue portion or the groove, wherein the first seal member is configured to seal between a radially inner surface of the groove and the tongue portion and wherein the second seal member is configured to seal between a radially outer surface of the groove and the tongue portion, characterised in that the dynamic sleeve seal fitting further comprises a third seal member (250; 450) and a fourth seal member each configured to generate a seal between the first sleeve and the second sleeve in response to a thermal expansion of the first sleeve and the second sleeve. a first sleeve having a tongue portion; a second sleeve having a groove configured to receive the tongue portion; a first seal member coupled to at least one of the tongue portion or the groove and configured to generate a seal between the first sleeve and the second sleeve in response to inserting the tongue portion into the groove; and a second seal member coupled to at least one of the tongue portion or the groove, wherein the first seal member is configured to seal between a radially inner surface of the groove and the tongue portion and wherein the second seal member is configured to seal between a radially outer surface of the groove and the tongue portion, characterised in that the dynamic sleeve seal fitting further comprises a third seal member (250; 450) and a fourth seal member each configured to generate a seal between the first sleeve and the second sleeve in response to a thermal expansion of the first sleeve and the second sleeve.
A method of adaptively governing a rotational speed of a rotor in an aircraft (101, 201), the method comprising: calculating a first power available by comparing an actual transmission torque to a transmission torque limit; calculating a second power available by comparing an actual engine exhaust temperature to an engine exhaust temperature limit; comparing the first power available to the second power available; and increasing a thrust by increasing an engine power in response to the first power available being greater than the second power available; or increasing a thrust by increasing a collective pitch of a plurality of rotor blades in response to the first power available being less than the second power available. calculating a first power available by comparing an actual transmission torque to a transmission torque limit; calculating a second power available by comparing an actual engine exhaust temperature to an engine exhaust temperature limit; comparing the first power available to the second power available; and increasing a thrust by increasing an engine power in response to the first power available being greater than the second power available; or increasing a thrust by increasing a collective pitch of a plurality of rotor blades in response to the first power available being less than the second power available.
A purging agent comprising a hydrocarbon resin and metal salts of Groups 1 and 2 metals in the short form periodic table, wherein the metal salts comprise an inorganic salt and an organic salt, the ratio between the inorganic salt and the organic salt is inorganic salt/organic salt = 0.05 to 10 in weight ratio, the organic salt is an aliphatic carboxylate having from 10 to 25 carbon atoms and the inorganic salt is a carbonate the content of the metal salt based on the hydrocarbon resin is greater than 1 wt% in terms of the metal, and wherein the resin to be purged is an EVOH resin having a melting point of from 150 to 230°C.
A low thermal expansion Ni-base superalloy strengthened with γ' phase comprising, in terms of mass %: C: 0.15 % or less; Si: 1 % or less; Mn: 1 % or less; Cr: 5 % or more but less than 20 %; at least one of Mo, W and Re, in which Mo + 1/2(W + Re) is 5 % or more but less than 17 %; Mo: 10 % or less; W: 10 % or less; Al: 0.1 to 2.5 %; Ti: 0.10 to 0.95 %; Nb + 1/2 Ta: 1.5 % or less; B: 0.001 to 0.02 %; Zr: 0.001 to 0.2 %; Fe: 4.0 % or less; optionally contains: Co: less than 5.0%; and a balance of inevitable impurities and Ni, wherein the total amount of Al, Ti, Nb and Ta is 2.0 to 6.5 % in terms of atomic %. C: 0.15 % or less; Si: 1 % or less; Mn: 1 % or less; Cr: 5 % or more but less than 20 %; at least one of Mo, W and Re, in which Mo + 1/2(W + Re) is 5 % or more but less than 17 %; Mo: 10 % or less; W: 10 % or less; Al: 0.1 to 2.5 %; Ti: 0.10 to 0.95 %; Nb + 1/2 Ta: 1.5 % or less; B: 0.001 to 0.02 %; Zr: 0.001 to 0.2 %; Fe: 4.0 % or less; optionally contains: Co: less than 5.0%; and a balance of inevitable impurities and Ni, wherein the total amount of Al, Ti, Nb and Ta is 2.0 to 6.5 % in terms of atomic %.
A surge protection element, having a contact stud and a contact element spaced apart from the contact stud, wherein a connecting element is provided, which can be transferred into a first position and a second position, wherein in the first position the connecting element rests against the contact stud and the contact element in order to electrically connect the contact stud to the contact element, and in the second position the connecting element is arranged spaced apart from the contact stud and the contact element, wherein in the first position a thermally separable connection is provided between the connecting element and the contact stud and between the connecting element and the contact element, wherein in the first position the connecting element at least partially surrounds the contact stud and/or the contact element.
A method of manufacturing a biosensor, the method comprising: forming a buffer layer on a substrate layer; forming a metal layer on the buffer layer; forming a desired patterned electrode by patterning the metal layer using a first photolithography process; forming an inorganic insulation layer on the electrode; forming a plurality of a nanowell on the inorganic insulation layer by exposing an area of the electrode using a second photolithography process; washing the plurality of the nanowell with a sulfuric acid (H 2 SO 4) solution to remove an impurity from the electrode exposed by the plurality of the nanowell; and washing the plurality of the nanowell by a ferricyanide etching after washing with the sulfuric acid (H 2 SO 4) solution, wherein the ferricyanide etching is performed by immersing the biosensor in a mixed solution of K 3 Fe 6 and KCl, and applying the voltage of 0.9-1.5 V. forming a buffer layer on a substrate layer; forming a metal layer on the buffer layer; forming a desired patterned electrode by patterning the metal layer using a first photolithography process; forming an inorganic insulation layer on the electrode; forming a plurality of a nanowell on the inorganic insulation layer by exposing an area of the electrode using a second photolithography process; washing the plurality of the nanowell with a sulfuric acid (H 2 SO 4) solution to remove an impurity from the electrode exposed by the plurality of the nanowell; and washing the plurality of the nanowell by a ferricyanide etching after washing with the sulfuric acid (H 2 SO 4) solution, wherein the ferricyanide etching is performed by immersing the biosensor in a mixed solution of K 3 Fe 6 and KCl, and applying the voltage of 0.9-1.5 V.
REST ASSEMBLY FOR RECOVERING THE GEOELECTRIC FIELD which, formed from a mattress base and a latex mattress, consisting of a mattress base manufactured in steamed beech wood laminate, varnished with 100% natural water-based varnish, and a mattress formed from a core of latex, made from a 100% natural emulsion of the resin of the Hevea brasiliensis tree, whipped and baked in a furnace at 120 degrees, with no chemical additives, which, furthermore, incorporates an anti-moisture ionising sheet made of 100% natural steamed and pressed coconut fibre, characterized in that it further comprises a central layer of rocks of pink salt and white quartz, and an antibacterial mesh of bamboo fibre; and in that said mattress also has a cover made with fabric comprising 70% cashmere and 30% organic cotton, with a filling which, at least, covers the upper part of the mattress with a thickness of around 4 cm, made in 100% natural wool which incorporates a fabric of organic graphite and silver and an aluminium plate connected to a device acting as earth connection.
A method for setting values of control parameters (Kd, Ka) of a wind farm controller controlling a plurality of wind turbine controllers each controlling the operation of one wind turbine of a plurality of wind turbines of a wind farm, the method comprising the steps of determining a transfer function between a reference signal for the wind farm controller and a measurement signal being indicative for a voltage level at a point of common coupling of the wind farm; recognizing a change of the value of a first parameter (Kd) of the control parameters; varying the value of a second parameter (Ka) of the control parameters; calculating, based on (i) the determined transfer function, (ii) the changed value of the first parameter (Kd), and (iii) the varied value of the second parameter (Ka), for a reference signal change being virtually applied to the wind farm controller a virtual response function of a virtual voltage level at the point of common coupling; determining, based on the calculated virtual response function, whether an operational control of the wind farm by the wind farm controller with (i) the changed value of the first parameter (Kd) and (ii) the varied value of the second parameter (Ka) would lead to a stability of the voltage level at the point of common coupling, which stability fulfills given grid code requirements; and if the given grid code requirements are fulfilled, storing (i) the changed value of the first parameter (Kd) and (ii) the varied value of the second parameter (Ka) in the wind farm controller, and if the given grid code requirements are not fulfilled, repeating step. determining a transfer function between a reference signal for the wind farm controller and a measurement signal being indicative for a voltage level at a point of common coupling of the wind farm; recognizing a change of the value of a first parameter (Kd) of the control parameters; varying the value of a second parameter (Ka) of the control parameters; calculating, based on (i) the determined transfer function, (ii) the changed value of the first parameter (Kd), and (iii) the varied value of the second parameter (Ka), for a reference signal change being virtually applied to the wind farm controller a virtual response function of a virtual voltage level at the point of common coupling; determining, based on the calculated virtual response function, whether an operational control of the wind farm by the wind farm controller with (i) the changed value of the first parameter (Kd) and (ii) the varied value of the second parameter (Ka) would lead to a stability of the voltage level at the point of common coupling, which stability fulfills given grid code requirements; and if the given grid code requirements are fulfilled, storing (i) the changed value of the first parameter (Kd) and (ii) the varied value of the second parameter (Ka) in the wind farm controller, and if the given grid code requirements are not fulfilled, repeating step.
A method in a data processing center for determining distance between a mobile electronic device and a sensor detecting the mobile electronic device, comprising: receiving a first set of one or more packets transmitted by the sensor that include data associated with a first signal of the mobile electronic device detected by the sensor, wherein the data includes a signal strength value of the first signal; characterised by receiving a second set of a plurality of packets transmitted by the sensor that include data associated with a plurality of second signals from a set of one or more access points in proximity to the sensor, wherein the data includes a signal strength value for each second signal; determining a variation of signal strength value for the second signals over a period of time; associating a relatively higher or lower distance between the sensor and the mobile electronic device with the relatively higher or lower signal strength of the mobile electronic device and adjusting the relatively higher or lower distance based on the variations of signal strength value for the second signals; and determining a distance value between the mobile electronic device and the sensor using the signal strength value of the first signal and the adjusted association between the relatively higher or lower distance and the relatively higher or lower signal strength. receiving a first set of one or more packets transmitted by the sensor that include data associated with a first signal of the mobile electronic device detected by the sensor, wherein the data includes a signal strength value of the first signal; characterised by receiving a second set of a plurality of packets transmitted by the sensor that include data associated with a plurality of second signals from a set of one or more access points in proximity to the sensor, wherein the data includes a signal strength value for each second signal; determining a variation of signal strength value for the second signals over a period of time; associating a relatively higher or lower distance between the sensor and the mobile electronic device with the relatively higher or lower signal strength of the mobile electronic device and adjusting the relatively higher or lower distance based on the variations of signal strength value for the second signals; and determining a distance value between the mobile electronic device and the sensor using the signal strength value of the first signal and the adjusted association between the relatively higher or lower distance and the relatively higher or lower signal strength.
A casing, applicable to a portable electronic device, the casing comprising: a casing body comprising a back surface for covering a backside of the electronic device and a plurality of side surfaces (114, 114a, 114b, 114c) connecting to the back surface, the back surface having a camera opening for exposing a camera shutter of the portable electronic device and the back surface having a supporter opening having a bevel side not parallel to any of the side surfaces (114, 114a, 114b, 114c); and a supporter connected to the bevel side and forming part of the back surface and comprising a first side and a second side, wherein the first side and the second side define a vertex angle, and the supporter is adapted to rotate about the bevel side between a covering position and a supporting position, and when the supporter is at the covering position, the supporter covers the supporter opening, and the vertex angle and the camera opening are arranged diagonally, and when the supporter is at the supporting position, the casing is supported by the vertex angle and one of the side surfaces (114a, 114b, 114c) away from the camera opening for the portable electronic device to perform a landscape display or a portrait display. a casing body comprising a back surface for covering a backside of the electronic device and a plurality of side surfaces (114, 114a, 114b, 114c) connecting to the back surface, the back surface having a camera opening for exposing a camera shutter of the portable electronic device and the back surface having a supporter opening having a bevel side not parallel to any of the side surfaces (114, 114a, 114b, 114c); and a supporter connected to the bevel side and forming part of the back surface and comprising a first side and a second side, wherein the first side and the second side define a vertex angle, and the supporter is adapted to rotate about the bevel side between a covering position and a supporting position, and when the supporter is at the covering position, the supporter covers the supporter opening, and the vertex angle and the camera opening are arranged diagonally, and when the supporter is at the supporting position, the casing is supported by the vertex angle and one of the side surfaces (114a, 114b, 114c) away from the camera opening for the portable electronic device to perform a landscape display or a portrait display.
An image sensor comprising: a sensor substrate comprising a plurality of first pixels configured to sense light having a first wavelength and a plurality of second pixels configured to sense light having a second wavelength that is different from the first wavelength; a nano-photonic lens array having a light incident surface and comprising a plurality of nanostructures configured to condense an incident light onto the plurality of first pixels and the plurality of second pixels; and characterised in that an antireflection layer is disposed on the light incident surface of the nano-photonic lens array and comprising a plurality of holes arranged periodically and two-dimensionally, wherein the plurality of holes comprises: a plurality of first holes provided at positions corresponding to a boundary between first pixels, among the plurality of first pixels, and second pixels, among the plurality of second pixels, that are adjacent to the first pixels; and a plurality of second holes facing an inner region of at least one of a first pixel of the plurality of first pixels or a second pixel of the plurality of second pixels. a sensor substrate comprising a plurality of first pixels configured to sense light having a first wavelength and a plurality of second pixels configured to sense light having a second wavelength that is different from the first wavelength; a nano-photonic lens array having a light incident surface and comprising a plurality of nanostructures configured to condense an incident light onto the plurality of first pixels and the plurality of second pixels; and characterised in that an antireflection layer is disposed on the light incident surface of the nano-photonic lens array and comprising a plurality of holes arranged periodically and two-dimensionally, wherein the plurality of holes comprises: a plurality of first holes provided at positions corresponding to a boundary between first pixels, among the plurality of first pixels, and second pixels, among the plurality of second pixels, that are adjacent to the first pixels; and a plurality of second holes facing an inner region of at least one of a first pixel of the plurality of first pixels or a second pixel of the plurality of second pixels. a plurality of first holes provided at positions corresponding to a boundary between first pixels, among the plurality of first pixels, and second pixels, among the plurality of second pixels, that are adjacent to the first pixels; and a plurality of second holes facing an inner region of at least one of a first pixel of the plurality of first pixels or a second pixel of the plurality of second pixels.
A method for generating a superpixel cluster for an image or a sequence of images through successive propagation stages leading to add neighboring superpixels into said superpixel cluster, the method comprising at each of said propagation stages: - generating a primary superpixel cluster based on color information using a fixed reference superpixel by analyzing distances in color between superpixels and the fixed reference superpixel; and - generating two or more secondary superpixel clusters based on depth information using propagating reference superpixels by analyzing distances in depth between superpixels and the respective propagating reference superpixel, wherein for each propagating reference superpixel a corresponding secondary superpixel cluster is generated; characterized by: - forming pairwise intersections between the primary superpixel cluster and each of the two or more secondary superpixel clusters; and - accumulating the pairwise intersections to generate a final superpixel cluster at the propagation stage. - generating a primary superpixel cluster based on color information using a fixed reference superpixel by analyzing distances in color between superpixels and the fixed reference superpixel; and - generating two or more secondary superpixel clusters based on depth information using propagating reference superpixels by analyzing distances in depth between superpixels and the respective propagating reference superpixel, wherein for each propagating reference superpixel a corresponding secondary superpixel cluster is generated; - forming pairwise intersections between the primary superpixel cluster and each of the two or more secondary superpixel clusters; and - accumulating the pairwise intersections to generate a final superpixel cluster at the propagation stage.