mhurhangee/patent-ind-claim-en huggingface dataset:
A detergent composition comprising a) a variant of a DNase parent, wherein the variant comprises one or both motifs [D/M/L][S/T]GYSR[D/N] (SEQ ID NO: 25) or ASXNRSKG (SEQ ID NO: 26), wherein the variant comprises one or more substitution(s) compared to SEQ ID NO: 1, wherein the substitution is selected from the group consisting of: T1I, T1V, T1Y, T1M, T1E, G4N, T5F, T5C, P6V, P6G, S7D, S7T, K8V, S9K, S9Q, S9V, S9L, S9F, S9P, S9R, A10D, A10M, A10I, A10Q, A10V, A10L, A10K, Q12S, Q12V, Q12E, S13D, S13Y, S13Q, S13F, S13R, S13V, S13N, S13H, S13M, S13W, S13K, S13L, S13E, Q14M, Q14R, N16S, A17C, A17V, A17E, A17T, T19K, T19L, T19S, T19I, T19V, K21E, K21M, T22P, T22A, T22V, T22D, T22R, T22K, T22M, T22E, T22H, T22L, T22W, T22F, T22C, T22I, G24Y, S25P, S27N, S27I, S27M, S27D, S27V, S27F, S27A, S27C, S27L, S27E, G28L, Y29W, S30K, S30D, S30H, S30T, D32Q, I38V, I38M, S39A, S39P, S39Y, S39H, S39E, S39N, S39M, S39D, Q40V, S42C, S42L, S42M, S42F, S42W, V49R, L51I, K52I, K52H, A55S, D56I, D56L, D56T, S57W, S57F, S57H, S57C, S57P, S57V, S57R, S57T, Y58A, Y58T, S59C, S59T, S59L, S59Q, S59V, S59K, S59R, S59M, S59I, S59H, N61D, P63A, T65L, T65I, T65V, T65R, T65K, S68V, S68I, S68W, S68Y, S68H, S68C, S68T, S68L, V76G, V76L, V76C, V76K, V76H, V76E, V76A, V76Y, V76N, V76M, V76R, V76F, T77N, T77Y, T77W, T77R, F78I, F78H, F78Y, F78C, T79G, T79R, N80K, S82L, S82E, S82K, S82R, S82H, D83C, D83F, D83L, L92T, A93G, E94N, G99S, S101D, S101A, S102M, S102L, S102V, S102A, S102K, S102T, S102R, T104P, T104A, T105V, T105I, K107L, K107C, K107R, K107H, K107S, K107M, K107E, K107A, K107D, Q109R, Q109S, A112S, S116D, S116R, S116Q, S116H, S116V, S116A, S116E, S116K, A125K, S126I, S126E, S126A, S126C, T127C, T127V, S130E, G132R, D135R, T138Q, W139R, R143E, R143K, S144Q, S144H, S144L, S144P, S144E, S144K, G145V, G145E, G145D, G145A, A147Q, A147W, A147S, G149S, K152H, K152R, S156C, S156G, S156K, S156R, S156T, S156A, T157S, Y159F, K160V, W161L, W161Y, G162Q, G162D, G162M, G162R, G162A, G162S, G162E, G162L, G162K, G162V, G162H, S164R, S164T, Q166D, S167M, S167L, S167F, S167W, S167E, S167A, S167Y, S167H, S167C, S167I, S167Q, S167V, S167T, S168V, S168E, S168D, S168L, K170S, K170L, K170F, K170R, T171D, T171E, T171A, T171C, A172G, A172S, L173T, L173A, L173V, Q174L, G175D, G175E, G175N, G175R, M176H, L177I, N178D, N178E, N178T, N178S, N178A, S179E, S181R, S181E, S181D, S181F, S181H, S181W, S181L, S181M, S181Y, S181Q, S181G, S181A, Y182M, Y182C, Y182K, Y182G, Y182A, Y182S, Y182V, Y182D, Y182Q, Y182F, Y182L, Y182N, Y182I, Y182E, Y182T and Y182W, wherein the variant has a sequence identity to the polypeptide shown in SEQ ID NO: 1 of at least 90% and the variant has DNase activity; and b) an adjunct, preferably in an amount from 0.01 to 99.9 wt%.
A method performed at a wireless resource controller , the method comprising: receiving an indication that a first wireless device is experiencing data loss over a communication channel provided by a wireless access point utilizing a first radio access technology, RAT; receiving location information for the first wireless device and for other wireless devices (21a ... 21n); determining , based on the location information, which of the other wireless devices are within a threshold distance of the first wireless device; determining a plurality of congestion window values associated with the other wireless devices that share a shared wireless resource with the first wireless device and that are within the threshold distance of the first wireless device, wherein the shared wireless resource is provided by a base station of a cellular network utilizing a second RAT; determining an initial congestion window value for the first wireless device based on the plurality of congestion window values associated with the other wireless devices that share the shared wireless resource with the first wireless device and that are within the threshold distance of the first wireless device; and transmitting data to the first wireless device via the base station in accordance with the initial congestion window value for the first device in order to satisfy a performance criterion for the first wireless device. receiving an indication that a first wireless device is experiencing data loss over a communication channel provided by a wireless access point utilizing a first radio access technology, RAT; receiving location information for the first wireless device and for other wireless devices (21a ... 21n); determining , based on the location information, which of the other wireless devices are within a threshold distance of the first wireless device; determining a plurality of congestion window values associated with the other wireless devices that share a shared wireless resource with the first wireless device and that are within the threshold distance of the first wireless device, wherein the shared wireless resource is provided by a base station of a cellular network utilizing a second RAT; determining an initial congestion window value for the first wireless device based on the plurality of congestion window values associated with the other wireless devices that share the shared wireless resource with the first wireless device and that are within the threshold distance of the first wireless device; and transmitting data to the first wireless device via the base station in accordance with the initial congestion window value for the first device in order to satisfy a performance criterion for the first wireless device.
Release film having a nonplanar surface structure, characterized in that the nonplanar surface structure is unembossed and is not based on a foam structure, and the release film comprises at least one layer (s) constructed from at least one thermoplastic matrix polymer and comprising distributed solid microparticles having a particle size of at least 50 μm and having a melting point at least 10°C higher than that of the matrix polymer, and at least one of whose surfaces bears a release layer (b) as outer layer, constructed from at least one cured polysiloxane.
A composition comprising a pool of different subsets of multimeric major histocompatibility complexes (multimeric MHC), wherein each subset of multimeric MHC comprises i) two or more MHC molecules linked to a backbone molecule, and ii) at least one nucleic acid molecule linked to said backbone, said at least one nucleic acid molecule comprising a 5' first primer region, a central region (barcode region), and a 3' second primer region, wherein said barcode serves as a specific label for a given peptide-MHC molecule, wherein each subset of multimeric MHC has a different peptide decisive for T cell recognition and an associated unique nucleic acid molecule comprising a barcode region, wherein each barcode in each subset of multimeric MHC have shared amplification ends, enabling amplification of all barcodes simultaneously in a PCR reaction.
Tyre for vehicle wheels, comprising: a tread band ; at least one soundproofing layer having a radial height (t) and an axial width (L), wherein said soundproofing layer is attached to a radially inner surface of the tyre placed at the tread band ; wherein the soundproofing layer delimits, together with the radially inner surface , a channel ; wherein the channel is delimited by a groove formed in a radially outer face of the soundproofing layer and associated with the radially inner surface of the tyre and by said radially inner surface of the tyre ; wherein the channel is extended along a substantially circumferential direction; characterised in that , in a radial section, the ratio Ar/S between the area of a passage section (Ar) of the channel and an overall section (S) of the soundproofing layer is comprised between about 0.04 and about 0.2; wherein the overall section (S) of the soundproofing layer is the surface of a footprint section of said soundproofing layer , also comprising the surface of a groove section formed in the soundproofing layer . a tread band ; at least one soundproofing layer having a radial height (t) and an axial width (L), wherein said soundproofing layer is attached to a radially inner surface of the tyre placed at the tread band ; wherein the soundproofing layer delimits, together with the radially inner surface , a channel ; wherein the channel is delimited by a groove formed in a radially outer face of the soundproofing layer and associated with the radially inner surface of the tyre and by said radially inner surface of the tyre ; wherein the channel is extended along a substantially circumferential direction; characterised in that , in a radial section, the ratio Ar/S between the area of a passage section (Ar) of the channel and an overall section (S) of the soundproofing layer is comprised between about 0.04 and about 0.2; wherein the overall section (S) of the soundproofing layer is the surface of a footprint section of said soundproofing layer , also comprising the surface of a groove section formed in the soundproofing layer .
A rotor blade for a wind turbine, comprising: an electrically conductive coating ; and an electrical surface contact conductively connected to the coating and configured to conduct an electrical current to the coating, wherein the electrical surface contact comprises an electrically conductive braid, characterized in that the coating comprises a conductive paint. an electrically conductive coating ; and an electrical surface contact conductively connected to the coating and configured to conduct an electrical current to the coating, wherein the electrical surface contact comprises an electrically conductive braid, characterized in that the coating comprises a conductive paint.
A light emitting device comprising: a semiconductor light source emitting blue light, wherein the blue light emitted by the semiconductor light source has a peak at from 430 nm to 465 nm and a full width at half maximum of 10 nm to 35 nm; a first phosphor arranged to be excited by the blue light emitted by the semiconductor light source and in response emit green light having a peak emission at from 500 nm to 550 nm with a full width at half maximum of 30 nm to 50 nm; and a second phosphor arranged to be excited by the blue light emitted by the semiconductor light source and in response emit red light having a peak emission at a wavelength from 620 nm and less than or equal to 635 nm, and a full width at half maximum of 70 nm to 100 nm; wherein an overall emission spectrum from the light emitting device has a depression between 550 nm and 580 nm, and the minimum intensity in the depression is greater than or equal to 25% and less than or equal to 75% of the maximum intensity in the overall emission spectrum in the range from 400 nm to 700 nm. a semiconductor light source emitting blue light, wherein the blue light emitted by the semiconductor light source has a peak at from 430 nm to 465 nm and a full width at half maximum of 10 nm to 35 nm; a first phosphor arranged to be excited by the blue light emitted by the semiconductor light source and in response emit green light having a peak emission at from 500 nm to 550 nm with a full width at half maximum of 30 nm to 50 nm; and a second phosphor arranged to be excited by the blue light emitted by the semiconductor light source and in response emit red light having a peak emission at a wavelength from 620 nm and less than or equal to 635 nm, and a full width at half maximum of 70 nm to 100 nm; wherein an overall emission spectrum from the light emitting device has a depression between 550 nm and 580 nm, and the minimum intensity in the depression is greater than or equal to 25% and less than or equal to 75% of the maximum intensity in the overall emission spectrum in the range from 400 nm to 700 nm.
Polymer compound comprising a proportion of a fully fluorinated thermoplastically workable polymer material as well as a proportion of at least one further high-performance polymer different therefrom selected from the group of polyphenylene sulfide (PPS), polyphenylene sulfone (PPSO 2 ), polyamide (PA), polyimide (PI), polyamideimide (PAI), and polyetherimide (PEI) as well as copolymers of these polymers and copolymers, wherein the weight ratio of the proportions of the fully fluorinated thermoplastically workable plastics material to the proportions of the further high-performance polymer is 20 : 80 to 70 : 30, wherein the compound is produced by way of melt-compounding and has a homogeneous distribution of the proportions of the polymers and the polymer material.
A method for producing an antibacterial biological implant, the method comprising subjecting a substrate made of a metal material successively to an anodization treatment, an acid treatment, and an iodine treatment to obtain an antibacterial biological implant, the antibacterial biological implant comprising the substrate and an anodized coating provided on the substrate, the anodized coating comprising an iodine-rich layer located close to an interface between the anodized coating and the substrate.
Method for manufacturing an external component for watches or jewellery, especially a bracelet or strap , including the steps of: - providing a substrate including a first face opposite to a second face, - co-extrusion coating the first face and the second face of said substrate respectively with a first and a second band of synthetic material; the first band forming a transparent or translucent layer on the first face so that all or part of the substrate remains visible, the method being characterized in that : - the said substrate is formed of an adhesive band and the adhesive band includes mineral particles, organic particles or metal particles. - providing a substrate including a first face opposite to a second face, - co-extrusion coating the first face and the second face of said substrate respectively with a first and a second band of synthetic material; the first band forming a transparent or translucent layer on the first face so that all or part of the substrate remains visible, the method being characterized in that : - the said substrate is formed of an adhesive band and the adhesive band includes mineral particles, organic particles or metal particles.
Domestic technology assembly having a functional unit, a frame assigned to the functional unit and having screws (2a1, 2b1) and a wall mounting box with nuts , to which the frame should be adjustably screwed using the screws (2a1, 2b1) and nuts for the screws, said nuts being guided in the wall mounting box so as be able to move back and forth , for the purpose of adjusting the functional unit, , wherein at least two through holes are present in the frame , characterized in that the screws (2a1, 2b1) are held captive on the frame behind the through holes . a functional unit, a frame assigned to the functional unit and having screws (2a1, 2b1) and a wall mounting box with nuts , to which the frame should be adjustably screwed using the screws (2a1, 2b1) and nuts for the screws, said nuts being guided in the wall mounting box so as be able to move back and forth , for the purpose of adjusting the functional unit, , wherein at least two through holes are present in the frame , characterized in that the screws (2a1, 2b1) are held captive on the frame behind the through holes .
A system for analyzing athletic activity, comprising: an article of apparel including a sensor system comprising a plurality of sensors engaged with the article of apparel and configured to sense a biomechanical parameter of a user while the user is in biomechanical movement; and an electronic device in communication with the sensor system , the electronic device configured to perform: receiving data generated by the sensor system ; analyzing the data to determine whether a deviation from a desired biomechanical movement pattern exists in the biomechanical movement of the user, comprising comparing the data to a biomechanical movement template corresponding to the desired biomechanical movement pattern to determine whether a deviation from the biomechanical movement template exists; characterized by generating an indication to the user when the deviation from the desired biomechanical movement pattern is determined to exist, wherein the indication further includes a degree of deviation from the biomechanical movement template for each of the plurality of sensors . an article of apparel including a sensor system comprising a plurality of sensors engaged with the article of apparel and configured to sense a biomechanical parameter of a user while the user is in biomechanical movement; and an electronic device in communication with the sensor system , the electronic device configured to perform: receiving data generated by the sensor system ; analyzing the data to determine whether a deviation from a desired biomechanical movement pattern exists in the biomechanical movement of the user, comprising comparing the data to a biomechanical movement template corresponding to the desired biomechanical movement pattern to determine whether a deviation from the biomechanical movement template exists; receiving data generated by the sensor system ; analyzing the data to determine whether a deviation from a desired biomechanical movement pattern exists in the biomechanical movement of the user, comprising comparing the data to a biomechanical movement template corresponding to the desired biomechanical movement pattern to determine whether a deviation from the biomechanical movement template exists;
A heater system comprising: a plurality of heaters ; a controller for supplying power to the plurality of heaters a plurality of sets of auxiliary wires extending from the plurality of heaters; and a wire harness for connecting the plurality of sets of auxiliary wires to the controller; characterised in that the heater system further comprises a plurality of connector parts connected to the sets of auxiliary wires, each connector part being configured to be connected to another connector part directly or via connecting wires; wherein each set of auxiliary wires includes a temperature sensing wire , an auxiliary power supply wire , and an auxiliary power return wire , wherein in each set of auxiliary wires, the temperature sensing wire is joined to one of the auxiliary power supply wire and the auxiliary power return wire to form a thermocouple junction , and the material of the temperature sensing wire is different from the one of the auxiliary power supply wire and the auxiliary power return wire such that each of the plurality of heaters is operable to function as both a heater and a temperature sensor. a plurality of heaters ; a controller for supplying power to the plurality of heaters a plurality of sets of auxiliary wires extending from the plurality of heaters; and a wire harness for connecting the plurality of sets of auxiliary wires to the controller; characterised in that the heater system further comprises a plurality of connector parts connected to the sets of auxiliary wires, each connector part being configured to be connected to another connector part directly or via connecting wires; sets of auxiliary wires extending from the plurality of heaters; and a wire harness for connecting the plurality of sets of auxiliary wires to the controller; characterised in that the heater system further comprises a plurality of connector parts connected to the sets of auxiliary wires, each connector part being configured to be connected to another connector part directly or via connecting wires; wherein each set of auxiliary wires includes a temperature sensing wire , an auxiliary power supply wire , and an auxiliary power return wire , wherein in each set of auxiliary wires, the temperature sensing wire is joined to one of the auxiliary power supply wire and the auxiliary power return wire to form a thermocouple junction , and the material of the temperature sensing wire is different from the one of the auxiliary power supply wire and the auxiliary power return wire such that each of the plurality of heaters is operable to function as both a heater and a temperature sensor. an auxiliary power supply wire , and an auxiliary power return wire , wherein in each set of auxiliary wires, the temperature sensing wire is joined to one of the auxiliary power supply wire and the auxiliary power return wire to form a thermocouple junction , and the material of the temperature sensing wire is different from the one of the auxiliary power supply wire and the auxiliary power return wire such that each of the plurality of heaters is operable to function as both a heater and a temperature sensor.
An image processing apparatus comprising processing circuitry configured to: obtain a first irradiance volume for a previous time point by performing a first light simulation process on volumetric image data, wherein the first light simulation process simulates light from at least one simulated light source ; obtain a current, different irradiance volume for a current time point subsequent to the previous time point by performing a second light simulation process on the volumetric image data, wherein the second light simulation process simulates light from the at least one simulated light source , and wherein a position or other property of the at least one simulated light source is changed between the previous time point and the current time point; and render an image from the volumetric image data for the current time point based on illumination from the at least one simulated light source , characterized in that : the illumination is determined by combining contributions from the first irradiance volume and the current irradiance volume. obtain a first irradiance volume for a previous time point by performing a first light simulation process on volumetric image data, wherein the first light simulation process simulates light from at least one simulated light source ; obtain a current, different irradiance volume for a current time point subsequent to the previous time point by performing a second light simulation process on the volumetric image data, wherein the second light simulation process simulates light from the at least one simulated light source , and wherein a position or other property of the at least one simulated light source is changed between the previous time point and the current time point; and render an image from the volumetric image data for the current time point based on illumination from the at least one simulated light source , characterized in that : the illumination is determined by combining contributions from the first irradiance volume and the current irradiance volume.