mhurhangee/patent-ind-claim-en huggingface dataset:
An accommodating intraocular lens for placement within a lens capsule of an eye, the accommodating intraocular lens comprising: a first component having a first lens region and a first bellows region ; a second component having a second lens region and a second bellows region, the second component coupled to the first component ; a fluid chamber between the first lens region and the second lens region ; and a fluid reservoir between the first bellows region and the second bellows region , the fluid reservoir in fluid communication with the fluid chamber to transfer fluid between the fluid chamber and the fluid reservoir in response to shape changes of the lens capsule to provide optical power changes to the accommodating intraocular lens ; wherein the first component comprises a first annularly shaped coupling structure extending circumferentially between the first lens region and the first bellows region , wherein the first coupling structure is configured to inhibit radial movement of the first lens region with radial movement of the first bellows region , wherein the second component comprises a second annularly shaped coupling structure extending circumferentially between the second lens region and the second bellows region , and wherein the second coupling structure is configured to inhibit radial movement of the second lens region with radial movement of the second bellows region ; and wherein the first bellows region extends continuously circumferentially around the first lens region and the second bellows region extends continuously circumferentially around the second lens region . a first component having a first lens region and a first bellows region ; a second component having a second lens region and a second bellows region, the second component coupled to the first component ; a fluid chamber between the first lens region and the second lens region ; and a fluid reservoir between the first bellows region and the second bellows region , the fluid reservoir in fluid communication with the fluid chamber to transfer fluid between the fluid chamber and the fluid reservoir in response to shape changes of the lens capsule to provide optical power changes to the accommodating intraocular lens ; wherein the first component comprises a first annularly shaped coupling structure extending circumferentially between the first lens region and the first bellows region , wherein the first coupling structure is configured to inhibit radial movement of the first lens region with radial movement of the first bellows region , wherein the second component comprises a second annularly shaped coupling structure extending circumferentially between the second lens region and the second bellows region , and wherein the second coupling structure is configured to inhibit radial movement of the second lens region with radial movement of the second bellows region ; and wherein the first bellows region extends continuously circumferentially around the first lens region and the second bellows region extends continuously circumferentially around the second lens region .
A method for removing contaminants from a fluid stream, the method comprising contacting the fluid stream with a desulfurizing product which is a solid product comprising: a metal oxide composition that comprises a primary component, wherein the primary component comprises at least one metal oxide of the formula Me x O y • (H 2 0) z , wherein Me is selected from groups 4-12 of the periodic table of elements, O is oxygen; 1 < x < 3; 1≤ y ≤ 4, and 0 ≤ z ≤ 10; wherein the fluid stream is contacted with the agglomeration-resistant desulfurizing product for a period of time, at a pressure, and at a temperature sufficient to react at least a portion of the contaminants in the fluid stream with the metal oxide composition thereby removing contaminants from the fluid stream. characterised in that the solid product also comprises a polymeric crystallization inhibitor which comprises any of: a salt of acrylamido-methyl propane sulfonate/acrylic acid copolymer (AMPS/AA); a phosphonated maleic copolymer (PHOS/MA); a salt of polymaleic acid/acrylic acid/acrylamido-methyl propane sulfonate terpolymers (PMA/AMPS) or a polymer or copolymer comprising an acrylamide moiety, an acrylate moiety, an acrylic acid moiety, a quaternary ammonium salt moiety or combination thereof, a metal oxide composition that comprises a primary component, wherein the primary component comprises at least one metal oxide of the formula Me x O y • (H 2 0) z , wherein Me is selected from groups 4-12 of the periodic table of elements, O is oxygen; 1 < x < 3; 1≤ y ≤ 4, and 0 ≤ z ≤ 10; wherein the fluid stream is contacted with the agglomeration-resistant desulfurizing product for a period of time, at a pressure, and at a temperature sufficient to react at least a portion of the contaminants in the fluid stream with the metal oxide composition thereby removing contaminants from the fluid stream. characterised in that the solid product also comprises a polymeric crystallization inhibitor which comprises any of: a salt of acrylamido-methyl propane sulfonate/acrylic acid copolymer (AMPS/AA); a phosphonated maleic copolymer (PHOS/MA); a salt of polymaleic acid/acrylic acid/acrylamido-methyl propane sulfonate terpolymers (PMA/AMPS) or a polymer or copolymer comprising an acrylamide moiety, an acrylate moiety, an acrylic acid moiety, a quaternary ammonium salt moiety or combination thereof, a salt of acrylamido-methyl propane sulfonate/acrylic acid copolymer (AMPS/AA); a phosphonated maleic copolymer (PHOS/MA); a salt of polymaleic acid/acrylic acid/acrylamido-methyl propane sulfonate terpolymers (PMA/AMPS) or a polymer or copolymer comprising an acrylamide moiety, an acrylate moiety, an acrylic acid moiety, a quaternary ammonium salt moiety or combination thereof,
A method of controlling radio transmissions performed by an access node (100; 600; 700) in a wireless communication network, the method comprising: - determining a lower target and an upper target for a signal to noise ratio of uplink radio transmissions from a radio device to the wireless communication network; and - scheduling the uplink radio transmissions by allocating radio resources for the uplink radio transmissions and controlling a transmit power of the uplink radio transmissions , wherein said scheduling comprises: - depending on a bandwidth of radio resources to be allocated for an uplink radio transmission and a current value of the transmit power, determining an estimate of the signal-to-noise ratio of the uplink radio transmission ; - comparing the estimate of the signal-to-noise ratio to at least one of the lower target and the upper target; and - depending on a result of the comparison, adapting the bandwidth and allocating radio resources for the uplink radio transmission in accordance with the adapted bandwidth; - in response to the estimate of the signal-to-noise ratio being between the lower target and the upper target, maintaining the bandwidth and the current value of the transmit power and allocating radio resources for the uplink radio transmission in accordance with the maintained bandwidth; - determining whether the radio device operates at a maximum transmit power; and - in response to the estimate of the signal-to-noise ratio being below the lower target and determining that the radio device operates below the maximum transmit power, controlling the radio device to increase the transmit power. - determining a lower target and an upper target for a signal to noise ratio of uplink radio transmissions from a radio device to the wireless communication network; and - scheduling the uplink radio transmissions by allocating radio resources for the uplink radio transmissions and controlling a transmit power of the uplink radio transmissions , wherein said scheduling comprises: - depending on a bandwidth of radio resources to be allocated for an uplink radio transmission and a current value of the transmit power, determining an estimate of the signal-to-noise ratio of the uplink radio transmission ; - comparing the estimate of the signal-to-noise ratio to at least one of the lower target and the upper target; and - depending on a result of the comparison, adapting the bandwidth and allocating radio resources for the uplink radio transmission in accordance with the adapted bandwidth; - in response to the estimate of the signal-to-noise ratio being between the lower target and the upper target, maintaining the bandwidth and the current value of the transmit power and allocating radio resources for the uplink radio transmission in accordance with the maintained bandwidth; - determining whether the radio device operates at a maximum transmit power; and - in response to the estimate of the signal-to-noise ratio being below the lower target and determining that the radio device operates below the maximum transmit power, controlling the radio device to increase the transmit power.
A method of preparing a sequencing library for sequencing a target nucleic acid without the use of nanodrops comprising: (a) combining in a single mixture (i) first fragments of target nucleic acid comprising nicks and/or gaps, and (ii) a population of beads, wherein each bead comprises a plurality of 3' branch ligation adapters comprising an adaptor oligonucleotide immobilized on the bead at its 3' end, wherein each adapter oligonucleotide comprises a barcode sequence, wherein the 3' branch ligation adapters immobilized on the same individual bead comprise the same barcode sequence and a majority of beads have different barcode sequences, and (b) ligating the adapter oligonucleotide of the branch ligation adapters of individual beads to the first fragments of the target nucleic acid at the nicks and/or gaps via 3' branch ligation. (a) combining in a single mixture (i) first fragments of target nucleic acid comprising nicks and/or gaps, and (ii) a population of beads, wherein each bead comprises a plurality of 3' branch ligation adapters comprising an adaptor oligonucleotide immobilized on the bead at its 3' end, wherein each adapter oligonucleotide comprises a barcode sequence, wherein the 3' branch ligation adapters immobilized on the same individual bead comprise the same barcode sequence and a majority of beads have different barcode sequences, and wherein each bead comprises a plurality of 3' branch ligation adapters comprising an adaptor oligonucleotide immobilized on the bead at its 3' end, wherein each adapter oligonucleotide comprises a barcode sequence, wherein the 3' branch ligation adapters immobilized on the same individual bead comprise the same barcode sequence and a majority of beads have different barcode sequences, and (b) ligating the adapter oligonucleotide of the branch ligation adapters of individual beads to the first fragments of the target nucleic acid at the nicks and/or gaps via 3' branch ligation.
An electronic device, comprising: a touch panel having a fingerprint sensing region, a fingerprint module , a main processor and a coprocessor ; wherein the coprocessor is configured to detect a touch event on the touch panel ; the fingerprint module is configured to collect touch data of the fingerprint sensing region that corresponds to the detected touch event; the coprocessor is further configured to acquire the touch data collected by the fingerprint module , and determine whether the touch event is a false touch according to the touch data, only when the touch event is determined to be an effective finger touch, store the touch data in a memory of the electronic device and wake up the main processor ; and the main processor is configured to acquire the touch data stored in the memory, and perform fingerprint identification according to the touch data.
Method for obtaining a backscatter modulated receive signal in an RFID system, comprising the steps: providing a carrier wave (V LO ) by a local oscillator ; generating a transmit signal (V T ) based on the carrier wave (V LO ) and an input signal (V I ); transmitting said transmit signal (V T ); receiving a backscatter modulated receive signal (V R ) in response to the transmit signal (V T ); and combining the receive signal (V R ) with a cancel signal (V C ) to obtain a corrected receive signal (V D ); wherein the method further comprises the step of determining a phase shift (P) and an amplitude adjust (A) from the corrected receive signal (V D ); characterized in that the determined phase shift (P) is applied as a phase rotation when generating the transmit signal (V T ); and in that the cancel signal (V C ) is based on the un-shifted carrier wave (V LO ) and the determined amplitude adjust (A). providing a carrier wave (V LO ) by a local oscillator ; generating a transmit signal (V T ) based on the carrier wave (V LO ) and an input signal (V I ); transmitting said transmit signal (V T ); receiving a backscatter modulated receive signal (V R ) in response to the transmit signal (V T ); and combining the receive signal (V R ) with a cancel signal (V C ) to obtain a corrected receive signal (V D ); wherein the method further comprises the step of determining a phase shift (P) and an amplitude adjust (A) from the corrected receive signal (V D ); characterized in that the determined phase shift (P) is applied as a phase rotation when generating the transmit signal (V T ); and in that the cancel signal (V C ) is based on the un-shifted carrier wave (V LO ) and the determined amplitude adjust (A).
A phosphorescent compound of formula (la): wherein: M is selected from iridium, platinum, osmium, palladium, rhodium and ruthenium; L in each occurrence is independently a mono- or poly-dentate ligand; R 1 in each occurrence is independently a branched C 3-20 alkyl group, a cyclic C 5-20 alkyl group or group of formula (II): wherein each R 5 is independently a C 1-10 alkyl group; each R 6 is independently selected from F; CN; branched, linear or cyclic C 1-20 alkyl wherein non-adjacent C atoms of the C 1-20 alkyl may be replaced with -O-, -S-, -NR 8 -, -SiR 8 2 - or -COO- and one or more H atoms may be replaced with F, wherein R 8 is H or a substituent; z is 0 or a positive integer; and * is a point of attachment of the group of formula (II); R 2 independently in each occurrence is a linear, branched or cyclic C 1-10 alkyl group R 3 is a linear, branched or cyclic C 1-10 alkyl group or a group of formula -(Ar 1 ) p wherein Ar 1 in each occurrence is independently an aryl or heteroaryl group and p is at least 1; R 4 is selected from a linear, branched or cyclic C 1-20 alkyl group and a group of formula -(Ar 1 ) p ; w is 1; x is at least 1; and y is 0 or a positive integer. M is selected from iridium, platinum, osmium, palladium, rhodium and ruthenium; L in each occurrence is independently a mono- or poly-dentate ligand; R 1 in each occurrence is independently a branched C 3-20 alkyl group, a cyclic C 5-20 alkyl group or group of formula (II): wherein each R 5 is independently a C 1-10 alkyl group; each R 6 is independently selected from F; CN; branched, linear or cyclic C 1-20 alkyl wherein non-adjacent C atoms of the C 1-20 alkyl may be replaced with -O-, -S-, -NR 8 -, -SiR 8 2 - or -COO- and one or more H atoms may be replaced with F, wherein R 8 is H or a substituent; z is 0 or a positive integer; and * is a point of attachment of the group of formula (II); R 2 independently in each occurrence is a linear, branched or cyclic C 1-10 alkyl group R 3 is a linear, branched or cyclic C 1-10 alkyl group or a group of formula -(Ar 1 ) p wherein Ar 1 in each occurrence is independently an aryl or heteroaryl group and p is at least 1; R 4 is selected from a linear, branched or cyclic C 1-20 alkyl group and a group of formula -(Ar 1 ) p ; w is 1; x is at least 1; and y is 0 or a positive integer. wherein each R 5 is independently a C 1-10 alkyl group; each R 6 is independently selected from F; CN; branched, linear or cyclic C 1-20 alkyl wherein non-adjacent C atoms of the C 1-20 alkyl may be replaced with -O-, -S-, -NR 8 -, -SiR 8 2 - or -COO- and one or more H atoms may be replaced with F, wherein R 8 is H or a substituent; z is 0 or a positive integer; and * is a point of attachment of the group of formula (II); R 2 independently in each occurrence is a linear, branched or cyclic C 1-10 alkyl group R 3 is a linear, branched or cyclic C 1-10 alkyl group or a group of formula -(Ar 1 ) p wherein Ar 1 in each occurrence is independently an aryl or heteroaryl group and p is at least 1; R 4 is selected from a linear, branched or cyclic C 1-20 alkyl group and a group of formula -(Ar 1 ) p ; w is 1; x is at least 1; and y is 0 or a positive integer.
A storage assembly having reinforcement elements for reinforcing a concrete structure in the region of the transition between a first concrete-casting portion and a second concrete-casting portion adjacent to the first concreting portion, wherein the reinforcement elements are arranged in or on the storage assembly in a movable and/or bendable and/or screwable manner, and wherein the storage assembly comprises at least one wall portion, wherein claw elements are arranged in or on the wall portion and protrude out of the wall portion in at least one direction, wherein the claw elements are formed as pins or bolts , wherein the storage assembly is formed as a storage box comprising a profile with a U-shaped cross section, wherein the storage box comprises two side walls and a rear wall arranged between the side walls , and wherein the claw elements are arranged on or in the rear wall , characterised in that the pins or bolts protrude into the storage box , and in that the part of the pins or bolts that protrudes into the storage box has a length that corresponds or virtually corresponds to the dimensions of the side walls and in this respect to the height of the storage box . wherein claw elements are arranged in or on the wall portion and protrude out of the wall portion in at least one direction, wherein the claw elements are formed as pins or bolts , wherein the storage assembly is formed as a storage box comprising a profile with a U-shaped cross section, wherein the storage box comprises two side walls and a rear wall arranged between the side walls , and wherein the claw elements are arranged on or in the rear wall , characterised in that the pins or bolts protrude into the storage box , and in that the part of the pins or bolts that protrudes into the storage box has a length that corresponds or virtually corresponds to the dimensions of the side walls and in this respect to the height of the storage box .
A first device being a network a network device of a mobile core network, comprising: means for receiving , at the first device , first information indicating a change in an application related to a second device being a terminal device from the second device ; means for updating a profile, stored at the first device , for applications on the second device based on the first information, the profile associated with traffics of the applications on the second device ; means for generating second information indicating at least a part of the updating of the profile; and means for transmitting the second information to a third device being a network device of the mobile core network for generating a route policy for the second device , the route policy specifying route selection for the applications on the second device . means for receiving , at the first device , first information indicating a change in an application related to a second device being a terminal device from the second device ; means for updating a profile, stored at the first device , for applications on the second device based on the first information, the profile associated with traffics of the applications on the second device ; means for generating second information indicating at least a part of the updating of the profile; and means for updating a profile, stored at the first device , for applications on the second device based on the first information, the profile associated with traffics of the applications on the second device ; means for generating second information indicating at least a part of the updating of the profile; and means for transmitting the second information to a third device being a network device of the mobile core network for generating a route policy for the second device , the route policy specifying route selection for the applications on the second device .
A stent with a continuous, interior, tubular or cylindrical cavity bounded by a wall, wherein the wall is configured to be tubular, in particular cylindrical, extending about an axis running in a longitudinal direction (x) and comprises a structure running about the wall, wherein the structure is formed from elements and the elements are formed from loops, which are arranged in a radial direction (y) about the longitudinal axis, and they have loop peaks and loop valleys arranged in an alternating manner and running parallel to the longitudinal direction (x), wherein all elements are firmly connected to preceding or respectively following elements by connection points in the region of the loop valleys of the elements and the loop peaks of the following elements or respectively in the region of the loop peaks of the elements and the loop valleys of the preceding elements, such that a one-piece tubular, in particular cylindrical, wall structure is created, characterized in that the loop peaks and the loop valleys opposite to the loop peaks in the longitudinal direction stand in direct contact or overlap each other, and that a web S 1 running substantially parallel to the longitudinal direction (x) and a web S 3 running substantially parallel to the radial direction (y) is formed for each of the connection points , wherein S 1 has at least the width of a web S 2 in the region of the loop line between the loop peak and the loop valley and acute angles (φ) are present in the region of the connection points between loop valleys and loop peaks , wherein the acute angles (φ) have their starting points on the loop line in the region between the loop peak and the loop valley .