mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a mobile device that is attached to a network other than the home network of the mobile device , wherein location information for the mobile device in said other network is stored in a visitor location register , VLR, in said other network , the method in the mobile device comprising: sending a request for a service or session to said other network on expiry of a time period from a first signal sent from the mobile device to the home network or sent from the home network to the mobile device that indicates that a network reattachment procedure is to be initiated as the mobile device is in a part of said other network where there may be coverage from a more preferred network than said other network , the time period being sufficiently long to allow a second signal to be sent from the home network to the VLR in said other network to cause the location information for the mobile device to be deleted from the VLR in said other network and for the location information for the mobile device to be deleted from the VLR in said other network ; and on receiving a rejection of that request from said other network , initiating a network reattachment procedure in which the mobile device searches for signals from the home network or a more preferred network and reattaches to a network based on the result of the search. sending a request for a service or session to said other network on expiry of a time period from a first signal sent from the mobile device to the home network or sent from the home network to the mobile device that indicates that a network reattachment procedure is to be initiated as the mobile device is in a part of said other network where there may be coverage from a more preferred network than said other network , the time period being sufficiently long to allow a second signal to be sent from the home network to the VLR in said other network to cause the location information for the mobile device to be deleted from the VLR in said other network and for the location information for the mobile device to be deleted from the VLR in said other network ; and on receiving a rejection of that request from said other network , initiating a network reattachment procedure in which the mobile device searches for signals from the home network or a more preferred network and reattaches to a network based on the result of the search.
A method of processing video data, comprising: determining, for a conversion between a video region of a video and a bitstream of the video, whether a first coding tool is allowed or not for a first block of the video region, based on a height and a width of the first block and a maximum transform size of the video region, wherein in a case where the first coding tool is allowed, the first block is split into multiple transform blocks according to the first coding tool; and performing the conversion based on the determining, wherein in response to at least one of the height or the width of the first block being greater than the maximum transform size, the first coding tool is not allowed for the first block; wherein the first coding tool is a subblock transform (SBT) tool; wherein for a second block of the video region, a second coding tool is disabled in response to at least one of a height or a width of the second block being greater than 64; and wherein the second coding tool is an intra block copy (IBC) mode. determining, for a conversion between a video region of a video and a bitstream of the video, whether a first coding tool is allowed or not for a first block of the video region, based on a height and a width of the first block and a maximum transform size of the video region, wherein in a case where the first coding tool is allowed, the first block is split into multiple transform blocks according to the first coding tool; and performing the conversion based on the determining, wherein in response to at least one of the height or the width of the first block being greater than the maximum transform size, the first coding tool is not allowed for the first block; wherein the first coding tool is a subblock transform (SBT) tool; wherein for a second block of the video region, a second coding tool is disabled in response to at least one of a height or a width of the second block being greater than 64; and wherein the second coding tool is an intra block copy (IBC) mode.
A semiconductor laser device (100 200 300 400) at least comprising: a heat dissipation block (60 70) provided inside with a flow path (66 76) through which a coolant flows; and a first semiconductor laser module and a second semiconductor laser module disposed on the heat dissipation block (60 70), the heat dissipation block (60 70) including: a lower heat dissipation block (61 71) formed with a groove constituting the flow path (66 76); an insulating sealant (62 72) disposed in contact with an upper surface of the lower heat dissipation block (61 71), having an opening above the groove ; and an upper heat dissipation block (63a 63b 73 73a) made of an electrically conductive material disposed in contact with an upper surface of the insulating sealant (62 72), covering the opening, the first semiconductor laser module being disposed in contact with an upper surface of the upper heat dissipation block (63a 63b 73 73a), having a positive electrode side facing down and in electrical contact with the upper heat dissipation block; the second semiconductor laser module being disposed in contact with the upper surface of the upper heat dissipation block (63a 63b 73 73a), having a negative electrode side facing down and in electrical contact with the upper heat dissipation block. a heat dissipation block (60 70) provided inside with a flow path (66 76) through which a coolant flows; and a first semiconductor laser module and a second semiconductor laser module disposed on the heat dissipation block (60 70), the heat dissipation block (60 70) including: a lower heat dissipation block (61 71) formed with a groove constituting the flow path (66 76); an insulating sealant (62 72) disposed in contact with an upper surface of the lower heat dissipation block (61 71), having an opening above the groove ; and a lower heat dissipation block (61 71) formed with a groove constituting the flow path (66 76); an insulating sealant (62 72) disposed in contact with an upper surface of the lower heat dissipation block (61 71), having an opening above the groove ; and an upper heat dissipation block (63a 63b 73 73a) made of an electrically conductive material disposed in contact with an upper surface of the insulating sealant (62 72), covering the opening, the first semiconductor laser module being disposed in contact with an upper surface of the upper heat dissipation block (63a 63b 73 73a), having a positive electrode side facing down and in electrical contact with the upper heat dissipation block; the second semiconductor laser module being disposed in contact with the upper surface of the upper heat dissipation block (63a 63b 73 73a), having a negative electrode side facing down and in electrical contact with the upper heat dissipation block.
A method of calculating the derived cetane number of a liquid hydrocarbon sample, the method comprising: (a) injecting a sample into a combustion chamber , the combustion chamber being held at a constant volume; (b) combusting the sample in the combustion chamber; (c) measuring the pressure in the constant volume combustion chamber as a function of time after the injection until combustion is completed; and (d) obtaining a pressure versus time combustion profile of the sample injected into said constant volume combustion chamber, wherein the profile comprises a first region and a second region , the first region including the start of combustion, and the second region relating to a later time than the first region; and characterised by : (e) selecting a single data point from the second region of the combustion profile, said single data point representing a combustion delay of the combustion profile, wherein the combustion delay is defined as the elapsed time between injection of the sample, and the time at which the midpoint of the net pressure increase of the combustion pressure curve is reached; and (f) calculating a derived cetane number for the sample using the time value associated with said single data point. (a) injecting a sample into a combustion chamber , the combustion chamber being held at a constant volume; (b) combusting the sample in the combustion chamber; (c) measuring the pressure in the constant volume combustion chamber as a function of time after the injection until combustion is completed; and (d) obtaining a pressure versus time combustion profile of the sample injected into said constant volume combustion chamber, wherein the profile comprises a first region and a second region , the first region including the start of combustion, and the second region relating to a later time than the first region; (e) selecting a single data point from the second region of the combustion profile, said single data point representing a combustion delay of the combustion profile, wherein the combustion delay is defined as the elapsed time between injection of the sample, and the time at which the midpoint of the net pressure increase of the combustion pressure curve is reached; and (f) calculating a derived cetane number for the sample using the time value associated with said single data point.
A method of additive manufacturing comprising, (i) providing a thermoplastic material comprised of an olefin block copolymer, wherein the olefin block copolymer is comprised of an isotactic polypropylene block and a polyethylene rich block, (ii) heating and dispensing said thermoplastic material through a nozzle to form an extrudate deposited on a base, (iii) moving the base, nozzle or combination thereof while dispensing the thermoplastic material so that there is horizontal displacement between the base and nozzle in a predetermined pattern to form an initial layer of the material on the base, and (iv) repeating steps (ii) and (iii) to form a successive layer of the material adhered on the initial layer to form an additive manufactured part. (i) providing a thermoplastic material comprised of an olefin block copolymer, wherein the olefin block copolymer is comprised of an isotactic polypropylene block and a polyethylene rich block, (ii) heating and dispensing said thermoplastic material through a nozzle to form an extrudate deposited on a base, (iii) moving the base, nozzle or combination thereof while dispensing the thermoplastic material so that there is horizontal displacement between the base and nozzle in a predetermined pattern to form an initial layer of the material on the base, and (iv) repeating steps (ii) and (iii) to form a successive layer of the material adhered on the initial layer to form an additive manufactured part.
An electronic apparatus comprising: a display control means configured to display an input image, a first GUI image, and a second GUI image at a display; a first detecting means configured to detect a position of a predetermined object in the input image; and a second detecting means configured to detect a gazing point at which a user is looking in the input image; wherein the display control means is configured to display the first GUI image in a position corresponding to the position of the predetermined object detected by the first detecting means and display the second GUI image in a position corresponding to the gazing point detected by the second detecting means, characterized in that the electronic apparatus further comprises a determination means configured to determine whether the first GUI image and the second GUI image overlap, and in a case where it is determined that the first GUI image and the second GUI image overlap, the display control means is configured to make the second GUI image less noticeable than in a case where it is determined that the first GUI image and the second GUI image do not overlap. a display control means configured to display an input image, a first GUI image, and a second GUI image at a display; a first detecting means configured to detect a position of a predetermined object in the input image; and a second detecting means configured to detect a gazing point at which a user is looking in the input image; wherein the display control means is configured to display the first GUI image in a position corresponding to the position of the predetermined object detected by the first detecting means and display the second GUI image in a position corresponding to the gazing point detected by the second detecting means, characterized in that the electronic apparatus further comprises a determination means configured to determine whether the first GUI image and the second GUI image overlap, and in a case where it is determined that the first GUI image and the second GUI image overlap, the display control means is configured to make the second GUI image less noticeable than in a case where it is determined that the first GUI image and the second GUI image do not overlap.
Device for dosing liquid from a liquid intake , wherein the liquid intake comprises an outlet valve , wherein a dosing system is provided, wherein the dosing system comprises a first actuating blade and a second actuating blade , which can be arranged around the liquid intake and are movable can be moved towards each other compressing the liquid receptacle , characterized in that the first actuating blade has a first pressure piston and the second actuating blade has a second pressure piston , wherein an output chamber is arranged so as to be able to be pressed out by the pressure pistons which are movably mounted relative to one another, and the two pressure pistons are resettable arranged by a spring element and/or partial springs (39, 39.1).
A hemiprosthesis implant, with a replacement joint part with an articular surface for tribological pairing with a joint surface of a natural joint counterpart, wherein the articular surface is embodied with a coating applied to a substrate , wherein the substrate comprises a relief for the adhesion of the coating , wherein the relief comprises at least one indentation, and wherein several indentations are arranged two-dimensionally for the embodiment of regions with a plurality of indentations, wherein the indentations are embodied in the form of depressions, characterised in that , directly on an outer base of a base body forming the substrate , an at least partially circumferential anchoring groove is embodied, and that the material of the coating is less rigid than the material of the substrate . a replacement joint part with an articular surface for tribological pairing with a joint surface of a natural joint counterpart, wherein the articular surface is embodied with a coating applied to a substrate , wherein the substrate comprises a relief for the adhesion of the coating , wherein the relief comprises at least one indentation, and wherein several indentations are arranged two-dimensionally for the embodiment of regions with a plurality of indentations, wherein the indentations are embodied in the form of depressions,
A method of detecting a presence of an object , the method comprising: transmitting commissioning radar signals throughout an area using a radar transceiver of a radar system ; mapping a commissioning image of the area using the commissioning radar signals ; transmitting current radar signals throughout the area using the radar transceiver ; mapping a current image of the area using the current radar signals; detecting a difference between the current image and the commissioning image; identifying an object as the difference between the current image and the commissioning image; and determining an identity of the object ; characterised in that the commissioning and current radar signals are frequency-modulated continuous wave radar signals, and the radar system is a frequency-modulated continuous wave radar system; and in that determining an identity of the object comprises identifying whether the object is an animate object or an inanimate object; wherein identifying whether the object is an animate object or an inanimate object comprises determining whether the object is breathing; and wherein determining whether the object is breathing comprises detecting movements of the object using the current frequency-modulated continuous wave radar signals; determining the movements are periodic having a first frequency; and determining the first frequency is within a range of respiratory rates. transmitting commissioning radar signals throughout an area using a radar transceiver of a radar system ; mapping a commissioning image of the area using the commissioning radar signals ; transmitting current radar signals throughout the area using the radar transceiver ; mapping a current image of the area using the current radar signals; detecting a difference between the current image and the commissioning image; identifying an object as the difference between the current image and the commissioning image; and determining an identity of the object ; characterised in that the commissioning and current radar signals are frequency-modulated continuous wave radar signals, and the radar system is a frequency-modulated continuous wave radar system; and in that determining an identity of the object comprises identifying whether the object is an animate object or an inanimate object; wherein identifying whether the object is an animate object or an inanimate object comprises determining whether the object is breathing; and wherein determining whether the object is breathing comprises detecting movements of the object using the current frequency-modulated continuous wave radar signals; determining the movements are periodic having a first frequency; and determining the first frequency is within a range of respiratory rates.
A method of seeding comprising: (a) making a plurality of seeding passes across a field using a cultivation air seeder having a mobile frame ; (b) cultivating the ground during each seeding pass using a set of cultivators mounted on said frame and disposed in a lowered position as said frame traverses the ground; (c) opening furrows in the cultivated ground during each seeding pass using a set of openers mounted on said frame in a lowered position behind said cultivators ; (d) metering seeds from a seed meter into an air stream that delivers seeds to said openers during each seeding pass; (e) depositing the metered seeds in the furrows with said openers as said frame traverses the ground; and (f) as said mobile frame approaches a headland at an end of a seeding pass, raising said cultivators and said openers out of the ground sequentially and into raised positions in such a manner that said cultivators are raised first and said openers are raised after said cultivators, said raising step including controlling the position of said cultivators and said openers in a manner to cause raising of said cultivators out of the ground while continuing said opening and depositing steps by said openers in their lowered position until said cultivators reach their fully raised position, said raising of said openers from their lowered position commencing only after said cultivators have first reached their raised position, terminating said metering of seeds into said air stream by said seed meter when said cultivators commence raising toward their raised position from their lowered position. (a) making a plurality of seeding passes across a field using a cultivation air seeder having a mobile frame ; (b) cultivating the ground during each seeding pass using a set of cultivators mounted on said frame and disposed in a lowered position as said frame traverses the ground; (c) opening furrows in the cultivated ground during each seeding pass using a set of openers mounted on said frame in a lowered position behind said cultivators ; (d) metering seeds from a seed meter into an air stream that delivers seeds to said openers during each seeding pass; (e) depositing the metered seeds in the furrows with said openers as said frame traverses the ground; and (f) as said mobile frame approaches a headland at an end of a seeding pass, raising said cultivators and said openers out of the ground sequentially and into raised positions in such a manner that said cultivators are raised first and said openers are raised after said cultivators,
A complex formed from hypericin or a hypericin salt and polyvinylpyrrolidone (PVP), characterized in that the mean proportion by weight of hypericin or of hypericin salt with respect to the total complex is more than 6 % by weight.
A combination comprising a capture oligomer and a complementary oligomer, wherein: (a) the capture oligomer comprises, in the 5' to 3' direction: a capture sequence comprising first and second portions, an internal extension blocker, a spacer sequence comprising first and second portions, and a target-hybridizing sequence; and (b) the complementary oligomer comprises, in the 3' to 5' direction: a complement of the second portion of the capture sequence, and a complement of at least the first portion of the spacer sequence, wherein the complement of the second portion of the capture sequence and the complement of the at least first portion of the spacer sequence are configured to anneal simultaneously to the capture oligomer in the absence of a complement of the spacer sequence. (a) the capture oligomer comprises, in the 5' to 3' direction: a capture sequence comprising first and second portions, an internal extension blocker, a spacer sequence comprising first and second portions, and a target-hybridizing sequence; and a capture sequence comprising first and second portions, an internal extension blocker, a spacer sequence comprising first and second portions, and a target-hybridizing sequence; and (b) the complementary oligomer comprises, in the 3' to 5' direction: a complement of the second portion of the capture sequence, and a complement of at least the first portion of the spacer sequence, wherein the complement of the second portion of the capture sequence and the complement of the at least first portion of the spacer sequence are configured to anneal simultaneously to the capture oligomer in the absence of a complement of the spacer sequence. a complement of the second portion of the capture sequence, and a complement of at least the first portion of the spacer sequence, wherein the complement of the second portion of the capture sequence and the complement of the at least first portion of the spacer sequence are configured to anneal simultaneously to the capture oligomer in the absence of a complement of the spacer sequence.