mhurhangee/patent-ind-claim-en huggingface dataset:
A process for producing methane from a carbon matrix waste through high temperature conversion >1000°C with oxygen, as a gasification with oxygen, without any pollutant emission, and in particular emissions of nitrogen and sulphur oxides, comprising the following steps: - a high temperature conversion >1000°C with oxygen of waste to syngas; - a first purification treatment to remove particulate, metals, chlorine and NH 3 compounds from the obtained raw syngas; - a compression step of the syngas coming from said first purification treatment , followed by - a second purification treatment which comprises in a single line • demetallization , and • dechlorine step followed by: - an H 2 S conversion and sulphur removal step which comprises in series: • an hydrolysis section where C0S is converted into CO 2 and H 2 S; • an H 2 S removing unit and transforming it into elementary sulfur in a solid form ; • a deep polishing step where traces of H 2 S are removed from the syngas; - a water gas shift , to convert the CO in the deep polished syngas with steam into CO 2 and H 2 followed by: - a methanation step , where the CO 2 is converted into CH 4 through reaction with H 2 followed by: - a CO 2 removal unit via a cryogenic or amine unit or membrane separation to remove the CO 2 from the obtained methane stream, wherein the carbon matrix waste is selected from a solid municipal waste, a derived waste fuel as refuse derived fuel, agricultural waste, urban and/or industrial sludge, biomass, plastic waste, a solid chemical waste and combination thereof. - a high temperature conversion >1000°C with oxygen of waste to syngas; - a first purification treatment to remove particulate, metals, chlorine and NH 3 compounds from the obtained raw syngas; - a compression step of the syngas coming from said first purification treatment , followed by - a second purification treatment which comprises in a single line • demetallization , and • dechlorine step followed by: • demetallization , and • dechlorine step followed by: - an H 2 S conversion and sulphur removal step which comprises in series: • an hydrolysis section where C0S is converted into CO 2 and H 2 S; • an H 2 S removing unit and transforming it into elementary sulfur in a solid form ; • a deep polishing step where traces of H 2 S are removed from the syngas; • an hydrolysis section where C0S is converted into CO 2 and H 2 S; • an H 2 S removing unit and transforming it into elementary sulfur in a solid form ; • a deep polishing step where traces of H 2 S are removed from the syngas; - a water gas shift , to convert the CO in the deep polished syngas with steam into CO 2 and H 2 followed by: - a methanation step , where the CO 2 is converted into CH 4 through reaction with H 2 followed by: - a CO 2 removal unit via a cryogenic or amine unit or membrane separation to remove the CO 2 from the obtained methane stream, wherein
An assembly suitable for a photovoltaic cell comprising: a barrier film interposed between: a first polymeric film substrate having a first coefficient of thermal expansion and comprising at least one of polyethylene terephthalate, polyethylene naphthalate, polyetheretherketone, polyaryletherketone, polyarylate, polyetherimide, polyarylsulfone, polyethersulfone, polyamideimide, or polyimide, any of which may optionally be heat-stabilized, and a first major surface of a pressure sensitive adhesive layer, wherein the pressure sensitive adhesive layer has a second major surface opposite the first major surface that is disposed on a second polymeric film substrate having a second coefficient of thermal expansion and comprising a fluoropolymer, wherein the assembly is transmissive to visible and infrared light, and wherein the second coefficient of thermal expansion is at least 40 parts per million per Kelvin higher than the first coefficient of thermal expansion, wherein the barrier film comprises at least first and second polymer layers separated by an inorganic barrier layer. a barrier film interposed between: a first polymeric film substrate having a first coefficient of thermal expansion and comprising at least one of polyethylene terephthalate, polyethylene naphthalate, polyetheretherketone, polyaryletherketone, polyarylate, polyetherimide, polyarylsulfone, polyethersulfone, polyamideimide, or polyimide, any of which may optionally be heat-stabilized, and a first major surface of a pressure sensitive adhesive layer, wherein the pressure sensitive adhesive layer has a second major surface opposite the first major surface that is disposed on a second polymeric film substrate having a second coefficient of thermal expansion and comprising a fluoropolymer, a first polymeric film substrate having a first coefficient of thermal expansion and comprising at least one of polyethylene terephthalate, polyethylene naphthalate, polyetheretherketone, polyaryletherketone, polyarylate, polyetherimide, polyarylsulfone, polyethersulfone, polyamideimide, or polyimide, any of which may optionally be heat-stabilized, and a first major surface of a pressure sensitive adhesive layer, wherein the pressure sensitive adhesive layer has a second major surface opposite the first major surface that is disposed on a second polymeric film substrate having a second coefficient of thermal expansion and comprising a fluoropolymer, wherein the assembly is transmissive to visible and infrared light, and wherein the second coefficient of thermal expansion is at least 40 parts per million per Kelvin higher than the first coefficient of thermal expansion, wherein the barrier film comprises at least first and second polymer layers separated by an inorganic barrier layer.
A method for performing random access channel procedure by a User Equipment, UE , for unlicensed operation in a wireless network, the method comprising: determining, by the UE , a first measurement metric value and a second measurement metric value for one of a plurality of Synchronization Signal Blocks, SSB, and a plurality of Channel State Information- Reference Signals, CSI-RSs; selecting, by the UE , one of a first set of SSBs and a first set of CSI-RSs from one of the plurality of SSBs and the plurality of CSI-RSs based on the first measurement metric; selecting, by the UE , one of a second set of SSBs and a second set of CSI-RSs from one of the first set of SSBs and the first set of CSI-RSs based on the second measurement metric; determining, by the UE , a selection criteria; and selecting, by the UE , one of at least one candidate SSBs and at least one candidate CSI RS from one of the second set of SSBs and the second set of CSI-RSs based on the selection criteria. determining, by the UE , a first measurement metric value and a second measurement metric value for one of a plurality of Synchronization Signal Blocks, SSB, and a plurality of Channel State Information- Reference Signals, CSI-RSs; selecting, by the UE , one of a first set of SSBs and a first set of CSI-RSs from one of the plurality of SSBs and the plurality of CSI-RSs based on the first measurement metric; selecting, by the UE , one of a second set of SSBs and a second set of CSI-RSs from one of the first set of SSBs and the first set of CSI-RSs based on the second measurement metric; determining, by the UE , a selection criteria; and selecting, by the UE , one of at least one candidate SSBs and at least one candidate CSI RS from one of the second set of SSBs and the second set of CSI-RSs based on the selection criteria.
A disposable absorbent insert comprising: a liquid permeable topsheet ; a liquid impermeable backsheet ; and an absorbent core comprising absorbent material therein and being sandwiched between said topsheet and backsheet ; wherein the insert comprises a perimeter formed by first and second transverse edges and first and second longitudinal edges connecting the first and second transverse edges ; a longitudinal centerline (y) extending substantially parallel to said first and second longitudinal edges and interposed therebetween such to divide said insert into a first longitudinal half between said longitudinal centerline (y) and said first longitudinal edge and a second longitudinal half between said longitudinal centerline (y) and said second longitudinal edge ; and a transverse centerline (x) extending substantially parallel to said first and second transverse edges and interposed therebetween such to divide said insert into a first transverse half between said transverse centerline (x) and said first transverse edge and a second transverse half between said transverse centerline (x) and said second transverse edge ; characterised in that the insert comprises longitudinally extending folds (F o , F o ') proximal to each said first and second longitudinal edges wherein said folds (F o , F o ') comprise a contact surface where a first portion of the backsheet is in contact with a second portion of the backsheet and in that said contact surface is a garment-facing surface of said backsheet . a liquid permeable topsheet ; a liquid impermeable backsheet ; and an absorbent core comprising absorbent material therein and being sandwiched between said topsheet and backsheet ; wherein the insert comprises a perimeter formed by first and second transverse edges and first and second longitudinal edges connecting the first and second transverse edges ; a longitudinal centerline (y) extending substantially parallel to said first and second longitudinal edges and interposed therebetween such to divide said insert into a first longitudinal half between said longitudinal centerline (y) and said first longitudinal edge and a second longitudinal half between said longitudinal centerline (y) and said second longitudinal edge ; and a transverse centerline (x) extending substantially parallel to said first and second transverse edges and interposed therebetween such to divide said insert into a first transverse half between said transverse centerline (x) and said first transverse edge and a second transverse half between said transverse centerline (x) and said second transverse edge ; characterised in that the insert comprises longitudinally extending folds (F o , F o ') proximal to each said first and second longitudinal edges wherein said folds (F o , F o ') comprise a contact surface where a first portion of the backsheet is in contact with a second portion of the backsheet and in that said contact surface is a garment-facing surface of said backsheet .
A non-transitory computer-readable medium containing instructions to configure a processor to perform operations comprising: executing an application to generate one or more alerts on a device relating to a glucose level of a patient, the executing comprising: accessing a current glucose level of the patient; accessing one or more conditions associated with the one or more alerts, the one or more conditions defining a relationship between the current glucose level and one or more threshold values ; determining whether the one or more conditions are satisfied; generating the one or more alerts when the one or more conditions are satisfied, the one or more alerts that are generated based on one or more of a state of the device and a state of the application, wherein the one or more alerts comprise a low alert, a high alert, a rise rate alert, a fall rate alert, or a no data alert; and characterised by adjusting, when the device is muted, the one or more threshold values associated with the one or more alerts, the adjusting causing the one or more conditions of one or more alerts to be satisfied more frequently than without the adjusting. accessing a current glucose level of the patient; accessing one or more conditions associated with the one or more alerts, the one or more conditions defining a relationship between the current glucose level and one or more threshold values ; determining whether the one or more conditions are satisfied; generating the one or more alerts when the one or more conditions are satisfied, the one or more alerts that are generated based on one or more of a state of the device and a state of the application, wherein the one or more alerts comprise a low alert, a high alert, a rise rate alert, a fall rate alert, or a no data alert; and characterised by adjusting, when the device is muted, the one or more threshold values associated with the one or more alerts, the adjusting causing the one or more conditions of one or more alerts to be satisfied more frequently than without the adjusting.
Anchoring element for hanging and connecting objects on pre-walls and / or metal surfaces, without the need for tools, comprising: - a front face with a broadly flat geometry intended to rest opposite the wall plane; - a back face provided with coupling means , for coupling the anchoring element to a fixing element , and / or a hole configured to contain a magnetic element , ; - characterized in that the anchoring element further comprises projections located in recesses arranged on the periphery of the back face , in such a way that the anchoring element can receive support elements , both in the direction from the X and Y axes of the wall plane. - a front face with a broadly flat geometry intended to rest opposite the wall plane; - a back face provided with coupling means , for coupling the anchoring element to a fixing element , and / or a hole configured to contain a magnetic element , ; - characterized in that the anchoring element further comprises projections located in recesses arranged on the periphery of the back face , in such a way that the anchoring element can receive support elements , both in the direction from the X and Y axes of the wall plane.
A recombinant DNA molecule comprising a DNA sequence selected from the group consisting of: a) a sequence with at least 85 percent sequence identity to any of SEQ ID NOs:1-3, wherein the DNA sequence has gene-regulatory activity; b) a sequence comprising any of SEQ ID NOs:1-3; and c) a fragment of any of SEQ ID NOs:1-3, wherein the fragment has gene-regulatory activity. a) a sequence with at least 85 percent sequence identity to any of SEQ ID NOs:1-3, wherein the DNA sequence has gene-regulatory activity; b) a sequence comprising any of SEQ ID NOs:1-3; and c) a fragment of any of SEQ ID NOs:1-3, wherein the fragment has gene-regulatory activity.
A method for performing echo estimation or echo management on an input audio signal, said method including steps of: (a) determining an M-bin, frequency domain representation of the input audio signal, and a sparse prediction filter set consisting of N prediction filters, where each of the N prediction filters is used to process audio data values in a respective bin of a selected N-bin subset of the M-bin frequency domain representation, where N and M are positive integers and N is less than M; and (b) performing echo estimation on the input audio signal, including by adapting the N prediction filters to generate a set of N adapted prediction filter impulse responses, and generating an estimate of echo content of the input audio signal including by processing the N adapted prediction filter impulse responses. (a) determining an M-bin, frequency domain representation of the input audio signal, and a sparse prediction filter set consisting of N prediction filters, where each of the N prediction filters is used to process audio data values in a respective bin of a selected N-bin subset of the M-bin frequency domain representation, where N and M are positive integers and N is less than M; and (b) performing echo estimation on the input audio signal, including by adapting the N prediction filters to generate a set of N adapted prediction filter impulse responses, and generating an estimate of echo content of the input audio signal including by processing the N adapted prediction filter impulse responses.
A gas cell adapted to provide wavelength stability to a coherent beam of light comprising: a optic fiber wound in a plurality winding turns where the optic fiber transports the coherent beam of light from an input fiber end to an output fiber end; an encapsulating material that engages and holds the windings in a fixed structure; a plurality of slots define severed portions of the optic fiber windings generally transverse to the windings and portions of the encapsulating material so that the optic fiber is divided into a plurality of end to end segments with open space filling the slots between respective facing ends of the severed optic fibers; a wavelength reference gas disposed within the open space of the slots so that the beam of light is exposed to the reference gas at each of the plurality of the end to end segments; the beam of light passing from the input fiber end, through respective facing ends of the optic fiber segments and wavelength reference gas in the corresponding slots to traverse a path through the plurality of windings to the output fiber end, characterised by each slot forming N end to end segments where N is determined by the number of windings such that an effective length of the wavelength reference gas to which the light beam is exposed is calculated by: width of each slot x number of slots x number of optic fiber windings. a optic fiber wound in a plurality winding turns where the optic fiber transports the coherent beam of light from an input fiber end to an output fiber end; an encapsulating material that engages and holds the windings in a fixed structure; a plurality of slots define severed portions of the optic fiber windings generally transverse to the windings and portions of the encapsulating material so that the optic fiber is divided into a plurality of end to end segments with open space filling the slots between respective facing ends of the severed optic fibers; a wavelength reference gas disposed within the open space of the slots so that the beam of light is exposed to the reference gas at each of the plurality of the end to end segments; the beam of light passing from the input fiber end, through respective facing ends of the optic fiber segments and wavelength reference gas in the corresponding slots to traverse a path through the plurality of windings to the output fiber end,
A method for wireless communication at a user equipment, UE , comprising: identifying , from a plurality of component carriers, CCs, used in carrier aggregation, CA, communication, a first CC having a first transmission time interval, TTI, duration as a reference CC and a second CC having a second TTI duration different from the first TTI duration; determining , at a first TTI boundary of a first TTI of the reference CC, a first transmit power for the reference CC during the first TTI and a second transmit power for the second CC of the plurality of CCs during a second TTI that at least partially overlaps with the first TTI; determining an amount of transmit power to be reserved during the first TTI for adjusting the second transmit power at second TTI boundaries of the second CC, based at least in part on expected transmit power increases on the second CC during the first TTI of the reference CC; selecting a power amplifier, PA, gain value for a calibration point based at least in part on the amount of transmit power reserved during the first TTI, the first transmit power, and the second transmit power, wherein a same PA is used by the UE for transmissions on the reference CC and the second CC; and transmitting , during the first TTI, at the first transmit power for the reference CC and at the second transmit power for the second CC, based at least in part on the amount of transmit power reserved, wherein the transmitting comprises digitally backing off from a transmit power corresponding to the PA gain value for the calibration point. identifying , from a plurality of component carriers, CCs, used in carrier aggregation, CA, communication, a first CC having a first transmission time interval, TTI, duration as a reference CC and a second CC having a second TTI duration different from the first TTI duration; determining , at a first TTI boundary of a first TTI of the reference CC, a first transmit power for the reference CC during the first TTI and a second transmit power for the second CC of the plurality of CCs during a second TTI that at least partially overlaps with the first TTI; determining an amount of transmit power to be reserved during the first TTI for adjusting the second transmit power at second TTI boundaries of the second CC, based at least in part on expected transmit power increases on the second CC during the first TTI of the reference CC; selecting a power amplifier, PA, gain value for a calibration point based at least in part on the amount of transmit power reserved during the first TTI, the first transmit power, and the second transmit power, wherein a same PA is used by the UE for transmissions on the reference CC and the second CC; and transmitting , during the first TTI, at the first transmit power for the reference CC and at the second transmit power for the second CC, based at least in part on the amount of transmit power reserved, wherein the transmitting comprises digitally backing off from a transmit power corresponding to the PA gain value for the calibration point.
A method of non invasive in vivo measurement of composition of calcifications comprised in a tissue within a part of a human or animal subject, comprising: directing radiation into the part through a first exterior surface region of the part; collecting a portion of said radiation emerging at a second exterior surface region of the part following forward scattering through the part; detecting, in said collected radiation, characteristics of said radiation arising from Raman scattering by said calcifications; and determining a measurement of composition of said calcifications from said characteristics. directing radiation into the part through a first exterior surface region of the part; collecting a portion of said radiation emerging at a second exterior surface region of the part following forward scattering through the part; detecting, in said collected radiation, characteristics of said radiation arising from Raman scattering by said calcifications; and determining a measurement of composition of said calcifications from said characteristics.