mhurhangee/patent-ind-claim-en huggingface dataset:
A method to control a washing machine , the washing machine including a tub and a drum , the drum being rotatably mounted inside the tub and apt to contain laundry to be washed, the method comprising: ∘ setting a washing cycle among a plurality of washing cycles; ∘ calculating a first weight of the laundry in the drum before water is supplied to the drum and/or tub; ∘ comparing the first weight to a first threshold (T1); ∘ if said first weight is below or equal to the first threshold, then the method further includes: • determining a parameter of the set washing cycle on the basis of said first weight; • washing and/or rinsing said laundry; characterized in that : ∘ if said first weight is above the first threshold, then the method further includes: • introducing water into the tub; • and, after water has been introduced into the tub: ▪ checking a level of water inside the drum; ▪ calculating a second weight of the laundry present into the drum on the basis of the amount of water needed to maintain a preset level of water in the drum; ▪ determining a parameter of the set washing cycle on the basis of said second weight, independently from the first weight; ▪ washing and/or rinsing said laundry. ∘ setting a washing cycle among a plurality of washing cycles; ∘ calculating a first weight of the laundry in the drum before water is supplied to the drum and/or tub; ∘ comparing the first weight to a first threshold (T1); ∘ if said first weight is below or equal to the first threshold, then the method further includes: • determining a parameter of the set washing cycle on the basis of said first weight; • washing and/or rinsing said laundry; • determining a parameter of the set washing cycle on the basis of said first weight; • washing and/or rinsing said laundry; characterized in that : ∘ if said first weight is above the first threshold, then the method further includes: • introducing water into the tub; • and, after water has been introduced into the tub: ▪ checking a level of water inside the drum; ▪ calculating a second weight of the laundry present into the drum on the basis of the amount of water needed to maintain a preset level of water in the drum; ▪ determining a parameter of the set washing cycle on the basis of said second weight, independently from the first weight; ▪ washing and/or rinsing said laundry. • introducing water into the tub; • and, after water has been introduced into the tub: ▪ checking a level of water inside the drum; ▪ calculating a second weight of the laundry present into the drum on the basis of the amount of water needed to maintain a preset level of water in the drum; ▪ determining a parameter of the set washing cycle on the basis of said second weight, independently from the first weight; ▪ washing and/or rinsing said laundry. ▪ checking a level of water inside the drum; ▪ calculating a second weight of the laundry present into the drum on the basis of the amount of water needed to maintain a preset level of water in the drum; ▪ determining a parameter of the set washing cycle on the basis of said second weight, independently from the first weight; ▪ washing and/or rinsing said laundry.
A signal processing method, wherein the method comprises: obtaining P real-number signals; performing at least number theoretic transform NTT processing on the P real-number signals to obtain P transform-domain first real-number signals; performing at least clock recovery on the P transform-domain first real-number signals to obtain P transform-domain second real-number signals; performing at least polarization compensation and inverse number theoretic transform INTT processing on the P transform-domain second real-number signals to obtain m time-domain complex-number signals X and m time-domain complex-number signals Y; and performing phase recovery and decoding on the m time-domain complex-number signals X and the m time-domain complex-number signals Y to obtain bit signals, wherein m and P are positive integers. obtaining P real-number signals; performing at least number theoretic transform NTT processing on the P real-number signals to obtain P transform-domain first real-number signals; performing at least clock recovery on the P transform-domain first real-number signals to obtain P transform-domain second real-number signals; performing at least polarization compensation and inverse number theoretic transform INTT processing on the P transform-domain second real-number signals to obtain m time-domain complex-number signals X and m time-domain complex-number signals Y; and performing phase recovery and decoding on the m time-domain complex-number signals X and the m time-domain complex-number signals Y to obtain bit signals, wherein m and P are positive integers.
A recombinant polypeptide comprising a truncated von Willebrand Factor (VWF) capable of binding to blood coagulation Factor VIII (FVIII), wherein said polypeptide lacks a functional VWF A1 domain, and wherein said polypeptide comprises a half-life extending moiety (HLEM), for use in reducing the immunogenicity of Factor VIII (FVIII) wherein said recombinant polypeptide and a blood coagulation Factor VIII (FVIII) protein are co-administered to a subject suffering from a blood coagulation disorder, wherein the subject is a subject previously untreated with FVIII and/or wherein the subject has a risk and/or is expected of developing an immune reaction against FVIII; and wherein the recombinant polypeptide is administered as a homo-dimer.
A method, comprising subjecting a pea protein composition to high pressure homogenization to obtain a homogenized pea protein composition, wherein the homogenized pea protein composition has a nitrogen solubility index determined by the Kjeldahl nitrogen determination method from the PRC National Standard GB5009.5-2010 that is greater than or equal to 88.0%, and wherein subjecting the pea protein composition to high pressure homogenization comprises subjecting an aqueous fluid containing the pea protein composition to high pressure homogenization, wherein the high pressure homogenization is from 15 MPa to 200 MPa and wherein the fluid has a pH value from 7.2 to 10.0.
An apparatus of a client operable to decode dynamic adaptive streaming over HTTP (DASH) content received from a server, the apparatus comprising one or more processors and memory configured to: decode, at the client, a message received from the server that includes an indication of a bandwidth allocation for the client, wherein the bandwidth allocation for the client is determined using feedback information received at the server, the feedback information including an average quality perceived by a user and a number of re-buffering events experienced by the client; decode, at the client, a media presentation description (MPD) file received from the server that includes a bandwidth associated with each of a plurality of representations; select, at the client, a representation of DASH content from the MPD with a bandwidth that is within the bandwidth allocation for the client; decode, at the client, the selected representation of DASH content received from the server; and encode a message for transmission to the server that includes a buffer level for the selected representation of DASH content being accessed at the client. decode, at the client, a message received from the server that includes an indication of a bandwidth allocation for the client, wherein the bandwidth allocation for the client is determined using feedback information received at the server, the feedback information including an average quality perceived by a user and a number of re-buffering events experienced by the client; decode, at the client, a media presentation description (MPD) file received from the server that includes a bandwidth associated with each of a plurality of representations; select, at the client, a representation of DASH content from the MPD with a bandwidth that is within the bandwidth allocation for the client; decode, at the client, the selected representation of DASH content received from the server; and encode a message for transmission to the server that includes a buffer level for the selected representation of DASH content being accessed at the client.
A station for use in an OFDM-based communication system, the station comprising: a transceiver unit configured to communicate using a predetermined frequency band of the OFDM-based communication system, wherein the transceiver unit is configured to advertise plural and distinct station identifiers each associated to one of a plurality of mutually different sub-bands of the predetermined frequency band, wherein the station is a wireless local area network, WLAN, access point , and wherein the station identifiers are Basic Service Set IDs, BSSIDs; and an OFDM modulator configured to transmit signals to a plurality of clients in parallel via said different sub-bands of the predetermined frequency band corresponding to said different station identifiers. a transceiver unit configured to communicate using a predetermined frequency band of the OFDM-based communication system, wherein the transceiver unit is configured to advertise plural and distinct station identifiers each associated to one of a plurality of mutually different sub-bands of the predetermined frequency band, wherein the station is a wireless local area network, WLAN, access point , and wherein the station identifiers are Basic Service Set IDs, BSSIDs; and an OFDM modulator configured to transmit signals to a plurality of clients in parallel via said different sub-bands of the predetermined frequency band corresponding to said different station identifiers.
Decorative assembly provided with a setting comprising an open elastic ring carrying elements for setting a decorative element , said setting being placed in a radially compressed state inside a hollow provided in a support of an article to be decorated and being held without play in the substrate by the elastic recovery of the ring, in which setting the setting elements are plastically deformable and wherein the support is made of a material which does not exhibit sufficient plastic deformation to allow the decorative element to be set, the decorative element being set by plastic deformation of the setting elements .
Device for transcutaneously locating an intracorporeal, subcutaneously located medical implant , comprising a medical implant having an implant surface , on which at least one first electrical coil is arranged, which comprises at least one coil winding surrounding one area of the implant surface , as well as with an extracorporeally operable unit, to which at least one electrical coil is applied, which is connected to an electrical control unit as well as a lamp, wherein the extracorporeally operable unit designed in the form of a surface substrate comprises a plurality of further electrical coils , the coil diameters of which like the coil diameter of the at least one coil are dimensioned to be equal to or smaller than a coil diameter assigned to an electrical coil on the implant side, characterised in that the electrical coils applied onto or on the surface substrate are each connected to the electrical control unit and to one of the lamps and are arranged and designed in such a way that at least in the case of a maximum inductive coupling between at least one of the electrical coils applied on the extracorporeally operable unit and the at least one of the electrical coils applied on the implant side, through illumination of the lamp of at least the electrical coil (2*) with maximum inductive coupling, externally visible coil identification is possible. wherein the extracorporeally operable unit designed in the form of a surface substrate comprises a plurality of further electrical coils , the coil diameters of which like the coil diameter of the at least one coil are dimensioned to be equal to or smaller than a coil diameter assigned to an electrical coil on the implant side, characterised in that the electrical coils applied onto or on the surface substrate are each connected to the electrical control unit and to one of the lamps and are arranged and designed in such a way that at least in the case of a maximum inductive coupling between at least one of the electrical coils applied on the extracorporeally operable unit and the at least one of the electrical coils applied on the implant side, through illumination of the lamp of at least the electrical coil (2*) with maximum inductive coupling, externally visible coil identification is possible.
A turbofan engine including an exhaust casing through which passes a primary flow (FP) and surrounded by a secondary flow (FS) both circulating from upstream (AM) to downstream (AV) of the turbofan engine during operation, and an outlet cone having an upstream end carried by this exhaust casing , the outlet cone delimiting an inner space (E), wherein the exhaust casing includes a hollow radial arm crossing the primary flow (FP) which conveys part of the secondary flow (FS) in order to form a cooling flow (Fr) to cool down one or several component(s) located in the inner space (E), and wherein the outlet cone terminates in an opening (S) for discharging the cooling flow (Fr) characterized in that the outlet cone includes a main wall and an inner lining wall which running parallel to the main wall over most of its surface area while being spaced therefrom so as to delimit, together with this main wall , an inter-wall space (Ei), and wherein a portion of the cooling flow (Fr) passes through the inter-wall space (Ei) before being discharged by the outlet opening (S), and wherein the inner lining wall comprises an upstream end that extends radially into the hollow radial arm to collect the portion of the cooling flow (Fr) that passes through the inter-wall space (Ei).
A method for utilizing a system cache for resolving dynamic random access memory, DRAM defects in a DRAM system comprising an error correction code, ECC module for detecting and correcting one or more bit errors associated with a failed physical codeword address and for storing error-corrected data in the DRAM system, the method comprising: identifying the failed physical codeword address in the DRAM system electrically coupled to a system on chip, SoC comprising the system cache and one or more memory clients configured to request memory resources from the DRAM system ; fetching the error-corrected data associated with the failed physical codeword address from the DRAM system ; storing the error-corrected data in the system cache residing on the SoC ; and servicing a memory transaction for the failed physical codeword address from the system cache instead of the DRAM system, wherein a cache line associated with the failed physical codeword address is locked, whereby for a locked cache line any clean or invalidate operation from a memory client does not take effect. identifying the failed physical codeword address in the DRAM system electrically coupled to a system on chip, SoC comprising the system cache and one or more memory clients configured to request memory resources from the DRAM system ; fetching the error-corrected data associated with the failed physical codeword address from the DRAM system ; storing the error-corrected data in the system cache residing on the SoC ; and servicing a memory transaction for the failed physical codeword address from the system cache instead of the DRAM system, wherein a cache line associated with the failed physical codeword address is locked, whereby for a locked cache line any clean or invalidate operation from a memory client does not take effect.
Circuitry (32a-e) for temperature measurement using temperature-dependent sensor resistors (36, 39a-e), wherein different temperature-dependent sensor resistors are selectable by a change in supply voltage (U V ) and the measurement results are transferable via a bipolar connection , characterized by : - at least three unit arrangements (M1) of a first type, each including a semiconductor device (41a-d, 46e) and in series thereto a temperature-dependent sensor resistor (39a-e), - at least two unit arrangements (M2-M4) of a second type, each provided by one of the unit arrangements (M1) of the first type and a semiconductor device (41c"-41d"; 42d"; 46e") connected in series thereto, wherein each unit arrangement (M2-M4) of the second type is connected in parallel to the previous unit arrangement (M1) of the first type, - a supply voltage (U V ), - a bipolar connection , - a measuring resistor connected in series to unit arrangements (M1) of the first type, - a voltage dropping across the measuring resistor , wherein said voltage drops by a sum current composed of two partial currents across the measuring resistor, wherein each partial current flows through exactly one unit arrangement (M1) of the first type or one unit arrangement (M2-M4) of the second type. - at least three unit arrangements (M1) of a first type, each including a semiconductor device (41a-d, 46e) and in series thereto a temperature-dependent sensor resistor (39a-e), - at least two unit arrangements (M2-M4) of a second type, each provided by one of the unit arrangements (M1) of the first type and a semiconductor device (41c"-41d"; 42d"; 46e") connected in series thereto, wherein each unit arrangement (M2-M4) of the second type is connected in parallel to the previous unit arrangement (M1) of the first type, - a supply voltage (U V ), - a bipolar connection , - a measuring resistor connected in series to unit arrangements (M1) of the first type, - a voltage dropping across the measuring resistor , wherein said voltage drops by a sum current composed of two partial currents across the measuring resistor, wherein each partial current flows through exactly one unit arrangement (M1) of the first type or one unit arrangement (M2-M4) of the second type.
A Method of picking and placing plant-bulbs , comprising: • supplying a plurality of plant-bulbs on a supply surface of a plant-bulbs supply system ; • identifying a plant-bulb as suitable for pick up, • picking said identified plant-bulb from the supply surface with a pick-and-place head ; • reorienting the picked bulb; and • placing the reoriented plant-bulb into a holder, preferably a pin bearing holder , characterized in that the method comprises: • identifying a major axis (X) of the identified bulb, • identifying and selecting a minor axis (Y) of the identified bulb, said minor axis (Y) being substantially perpendicular to the major axis (X), and wherein the step of picking said identified plant-bulb comprises the pick-and-place head gripping said identified plant-bulb at opposed ends of said minor axis (Y), and the step of reorienting the picked plant-bulb comprises shifting the major axis (X). • supplying a plurality of plant-bulbs on a supply surface of a plant-bulbs supply system ; • identifying a plant-bulb as suitable for pick up, • picking said identified plant-bulb from the supply surface with a pick-and-place head ; • reorienting the picked bulb; and • placing the reoriented plant-bulb into a holder, preferably a pin bearing holder , • identifying a major axis (X) of the identified bulb, • identifying and selecting a minor axis (Y) of the identified bulb, said minor axis (Y) being substantially perpendicular to the major axis (X), and wherein the step of picking said identified plant-bulb comprises the pick-and-place head gripping said identified plant-bulb at opposed ends of said minor axis (Y), and the step of reorienting the picked plant-bulb comprises shifting the major axis (X).
A data transmission method, comprising: establishing, by a first access network device , a data radio bearer, DRB-based tunnel and a session-based tunnel with a second access network device ; and receiving, by the first access network device , forwarded data packets from the second access network device via the DRB-based tunnel and the session-based tunnel, wherein the DRB-based tunnel is used by the first access network device to receive a Packet Data Convergence Protocol, PDCP layer data packet from the second access network device ; and the session-based tunnel is used by the first access network device to receive a Service Data Adaptation Protocol, SDAP layer data packet from the second access network device ; and the method further comprises: mapping, by the first access network device , a PDCP layer data packet on a DRB of the second access network device to a first DRB corresponding to the DRB of the second access network device ; sending, by the first access network device , the PDCP layer data packet to a terminal on the first DRB; and after the sending, by the first access network device , the PDCP layer data packet to the terminal on the first DRB, sending, by the first access network device to the terminal on the first DRB, a data packet received from a core network. establishing, by a first access network device , a data radio bearer, DRB-based tunnel and a session-based tunnel with a second access network device ; and receiving, by the first access network device , forwarded data packets from the second access network device via the DRB-based tunnel and the session-based tunnel, wherein the DRB-based tunnel is used by the first access network device to receive a Packet Data Convergence Protocol, PDCP layer data packet from the second access network device ; and the session-based tunnel is used by the first access network device to receive a Service Data Adaptation Protocol, SDAP layer data packet from the second access network device ; and the method further comprises: mapping, by the first access network device , a PDCP layer data packet on a DRB of the second access network device to a first DRB corresponding to the DRB of the second access network device ; sending, by the first access network device , the PDCP layer data packet to a terminal on the first DRB; and after the sending, by the first access network device , the PDCP layer data packet to the terminal on the first DRB, sending, by the first access network device to the terminal on the first DRB, a data packet received from a core network. mapping, by the first access network device , a PDCP layer data packet on a DRB of the second access network device to a first DRB corresponding to the DRB of the second access network device ; sending, by the first access network device , the PDCP layer data packet to a terminal on the first DRB; and after the sending, by the first access network device , the PDCP layer data packet to the terminal on the first DRB, sending, by the first access network device to the terminal on the first DRB, a data packet received from a core network.
An implantable device, comprising: a first electrode and a second electrode configured to engage a peripheral nerve and detect an electrophysiological signal, characterized in that the device further comprises an integrated circuit comprising a multi-transistor circuit and a modulation circuit configured to modulate a current based on the electrophysiological signal; and an ultrasonic transducer configured to emit an ultrasonic backscatter encoding the electrophysiological signal from the peripheral nerve based on the modulated current. a first electrode and a second electrode configured to engage a peripheral nerve and detect an electrophysiological signal, characterized in that the device further comprises an integrated circuit comprising a multi-transistor circuit and a modulation circuit configured to modulate a current based on the electrophysiological signal; and an ultrasonic transducer configured to emit an ultrasonic backscatter encoding the electrophysiological signal from the peripheral nerve based on the modulated current.