mhurhangee/patent-ind-claim-en huggingface dataset:
A method for supporting inter-radio access technology, RAT, mobility of a user equipment, UE, in an eCall-only mode, comprising: establishing , by the UE, a communication session for a first eCall or a first test/reconfiguration call; releasing , by the UE, the communication session for the first eCall or the first test/reconfiguration call; starting , by the UE, a first timer based on at least one of (i) release , by the UE, of a Packet Switched, PS, signaling connection for a Universal Mobile Telecommunications Service, UMTS, access for the communication session, (ii) expiration at the UE of a READY timer for General Packet Radio Service, GPRS, wherein the READY timer was started by the UE following a PS handover of the communication session from a Long Term Evolution, LTE, access to a Global System for Mobile communication, GSM,-GPRS access, (iii) intersystem change by the UE from an LTE access to a GSM-GPRS access or a UMTS access, or (iv) intersystem change by the UE from a GSM access or a UMTS access to an LTE access; and performing , by the UE, an eCall inactivity procedure when the first timer expires, wherein the eCall inactivity procedure comprises detaching from a wireless network and refraining from transmitting signaling to the wireless network in the absence of a second eCall or a second test/reconfiguration call. establishing , by the UE, a communication session for a first eCall or a first test/reconfiguration call; releasing , by the UE, the communication session for the first eCall or the first test/reconfiguration call; starting , by the UE, a first timer based on at least one of (i) release , by the UE, of a Packet Switched, PS, signaling connection for a Universal Mobile Telecommunications Service, UMTS, access for the communication session, (ii) expiration at the UE of a READY timer for General Packet Radio Service, GPRS, wherein the READY timer was started by the UE following a PS handover of the communication session from a Long Term Evolution, LTE, access to a Global System for Mobile communication, GSM,-GPRS access, (iii) intersystem change by the UE from an LTE access to a GSM-GPRS access or a UMTS access, or (iv) intersystem change by the UE from a GSM access or a UMTS access to an LTE access; and performing , by the UE, an eCall inactivity procedure when the first timer expires, wherein the eCall inactivity procedure comprises detaching from a wireless network and refraining from transmitting signaling to the wireless network in the absence of a second eCall or a second test/reconfiguration call.
Method for decontaminating an outer surface of a preform made of thermoplastic material comprising a hollow body provided with a neck , said decontamination method comprising in succession at least: - a treatment step (a) consisting in depositing by condensation hydrogen peroxide (H 2 O 2 ) on the outer surface of at least the neck of the preform ; - a step (b) of evaporation of a part of the condensate of hydrogen peroxide (H 2 O 2 ) by forced air circulation over at least the outer surface of the neck; and - an irradiation step (c) consisting in irradiating at least the outer surface of the neck of the preform with at least an ultraviolet (UV) radiation to activate the hydrogen peroxide (H 2 O 2 ). - a treatment step (a) consisting in depositing by condensation hydrogen peroxide (H 2 O 2 ) on the outer surface of at least the neck of the preform ; - a step (b) of evaporation of a part of the condensate of hydrogen peroxide (H 2 O 2 ) by forced air circulation over at least the outer surface of the neck; and - an irradiation step (c) consisting in irradiating at least the outer surface of the neck of the preform with at least an ultraviolet (UV) radiation to activate the hydrogen peroxide (H 2 O 2 ).
An optical structure comprising: a waveguide resonator comprising an optical input , an optical output , and a waveguide having a resonant wavelength, the waveguide comprising a strained waveguide core and at least one cladding arranged to surround the waveguide core, wherein the at least one cladding comprises at least a lower cladding below the waveguide core and an upper cladding which extends over the waveguide core; wherein the waveguide core has a different thermal coefficient of expansion than the upper cladding material ; a thermo-optic compensating material on the upper cladding, wherein the thermo-optic compensating material has a negative thermo-optic coefficient and the waveguide core material has a positive thermo-optic coefficient; and at least a pair of electrodes electrically coupled to the waveguide resonator for providing an electric field which changes the resonant wavelength of the waveguide resonator. a waveguide resonator comprising an optical input , an optical output , and a waveguide having a resonant wavelength, the waveguide comprising a strained waveguide core and at least one cladding arranged to surround the waveguide core, wherein the at least one cladding comprises at least a lower cladding below the waveguide core and an upper cladding which extends over the waveguide core; wherein the waveguide core has a different thermal coefficient of expansion than the upper cladding material ; a thermo-optic compensating material on the upper cladding, wherein the thermo-optic compensating material has a negative thermo-optic coefficient and the waveguide core material has a positive thermo-optic coefficient; and at least a pair of electrodes electrically coupled to the waveguide resonator for providing an electric field which changes the resonant wavelength of the waveguide resonator.
A vertebral, in particular corpectomy, implant intended to be inserted into the rachis according to at least one approach route, for replacing a vertebral segment, the implant extending along a vertical axis, between upper and lower surfaces of the implant each intended to be placed in contact with a respectively upper and lower structure, of said vertebral segment, the implant including at least one end body and at least one intermediate body each having at least mutual fitting means in order to allow assembling of said end body and intermediate body by sliding along a sliding axis, the sliding axis of the end body and the intermediate body being substantially parallel to the approach route provided for inserting the implant into the rachis, and on the other hand, the implant being characterized in that it includes at least one distinct locking means retained in a housing within at least one of the end body and the intermediate body and distinct therefrom and at least one abutment portion of said locking means laid out for passing from a so-called open position, allowing sliding for the assembling of said end body and said intermediate body , to a so-called closed position locking said end body and said intermediate body assembled together by the contact between at least said abutment portion of said locking means and at least one abutment of at least one of said end body and said intermediate body , said abutment being oriented not parallel to the sliding axis and said abutment portion of said locking means passing from the open position to the closed position elastically by flexure or torsion, by means of at least one flexible portion of the locking means allowing withdrawal of said abutment portion of the locking means in an open position during the sliding of the end body and the intermediate body on the one hand and elastic return of said abutment portion of said locking means into the closed position when it is found facing said abutment of said end body or said intermediate body on the other hand.
A method for forming holes within an uncured composite sheet , the method comprising the steps of: perforating the uncured composite sheet with a plurality of pins of a metallic pin mat ; and heating the plurality of pins to heat portions of the uncured composite sheet , surrounding each one of the plurality of pins , wherein: the step of perforating the uncured composite sheet with the plurality of pins of the metallic pin mat comprises: positioning the uncured composite sheet between the metallic pin mat and a pressure backer ; and applying a compressive force between the metallic pin mat and the pressure backer to perforate the uncured composite sheet with the plurality of pins of the metallic pin mat ; the step of applying the compressive force between the metallic pin mat and the pressure backer comprises applying the compressive force until the plurality of pins perforates an entire thickness of the uncured composite sheet , and the plurality of pins perforates into the pressure backer ; and the pressure backer is formed from at least one of rubber and dense foam. perforating the uncured composite sheet with a plurality of pins of a metallic pin mat ; and heating the plurality of pins to heat portions of the uncured composite sheet , surrounding each one of the plurality of pins , wherein: the step of perforating the uncured composite sheet with the plurality of pins of the metallic pin mat comprises: positioning the uncured composite sheet between the metallic pin mat and a pressure backer ; and applying a compressive force between the metallic pin mat and the pressure backer to perforate the uncured composite sheet with the plurality of pins of the metallic pin mat ; the step of applying the compressive force between the metallic pin mat and the pressure backer comprises applying the compressive force until the plurality of pins perforates an entire thickness of the uncured composite sheet , and the plurality of pins perforates into the pressure backer ; and the pressure backer is formed from at least one of rubber and dense foam. the step of perforating the uncured composite sheet with the plurality of pins of the metallic pin mat comprises: positioning the uncured composite sheet between the metallic pin mat and a pressure backer ; and applying a compressive force between the metallic pin mat and the pressure backer to perforate the uncured composite sheet with the plurality of pins of the metallic pin mat ; positioning the uncured composite sheet between the metallic pin mat and a pressure backer ; and applying a compressive force between the metallic pin mat and the pressure backer to perforate the uncured composite sheet with the plurality of pins of the metallic pin mat ; the step of applying the compressive force between the metallic pin mat and the pressure backer comprises applying the compressive force until the plurality of pins perforates an entire thickness of the uncured composite sheet , and the plurality of pins perforates into the pressure backer ; and the pressure backer is formed from at least one of rubber and dense foam.
Process for manufacturing a multiblock polymer having a polycarbonate block comprising: ▪ a step of introducing, into a reactor: ∘ a monomer of formula (A1): in which R 1 and R 2 are identical or different alkyl groups, ∘ or a dimer of formula (A2): in which R 3 and R 4 are identical or different alkyl groups, ∘ or a mixture of (A1) and (A2); ▪ a step of introducing, into the reactor, a diol monomer (B1) or a triol monomer (B2) or a mixture of (B1) and (B2), (B1) and (B2) both being different from (A1) and (A2); ▪ the mole ratio in the reactor of (A1) and (A2) relative to (B1) and (B2) corresponding to the following formula: A 1 2 + A 2 2 / B 1 2 + B 2 3 < 1 , ▪ a subsequent step of polycondensation by transesterification of the monomers and dimers (A1), (A2), (B1) and (B2) to obtain an oligocarbonate polyol with a molar mass (M n ) of less than 5000 g/mol and at least two chain end groups of hydroxyl type, in which the molar mass is determined by size exclusion chromatography as indicated in the description, ▪ a step of recovering the oligocarbonate polyol, ▪ a step of reacting the oligocarbonate polyol with either: ∘ one or more diacids chosen from aromatic or aliphatic diacids, and with ∘ one or more compounds chosen from diols or diamines, or: ∘ one or more oligoether diols, and with ∘ one or more coupling agents. ▪ a step of introducing, into a reactor: ∘ a monomer of formula (A1): in which R 1 and R 2 are identical or different alkyl groups, ∘ or a dimer of formula (A2): in which R 3 and R 4 are identical or different alkyl groups, ∘ or a mixture of (A1) and (A2); ∘ a monomer of formula (A1): in which R 1 and R 2 are identical or different alkyl groups, ∘ or a dimer of formula (A2): in which R 3 and R 4 are identical or different alkyl groups, ∘ or a mixture of (A1) and (A2); ▪ a step of introducing, into the reactor, a diol monomer (B1) or a triol monomer (B2) or a mixture of (B1) and (B2), (B1) and (B2) both being different from (A1) and (A2); ▪ the mole ratio in the reactor of (A1) and (A2) relative to (B1) and (B2) corresponding to the following formula: A 1 2 + A 2 2 / B 1 2 + B 2 3 < 1 , ▪ a subsequent step of polycondensation by transesterification of the monomers and dimers (A1), (A2), (B1) and (B2) to obtain an oligocarbonate polyol with a molar mass (M n ) of less than 5000 g/mol and at least two chain end groups of hydroxyl type, in which the molar mass is determined by size exclusion chromatography as indicated in the description, ▪ a step of recovering the oligocarbonate polyol, ▪ a step of reacting the oligocarbonate polyol with either: ∘ one or more diacids chosen from aromatic or aliphatic diacids, and with ∘ one or more compounds chosen from diols or diamines, or: ∘ one or more oligoether diols, and with ∘ one or more coupling agents. ∘ one or more diacids chosen from aromatic or aliphatic diacids, and with ∘ one or more compounds chosen from diols or diamines, ∘ one or more oligoether diols, and with ∘ one or more coupling agents.
A resin composition for molding, comprising: a chlorinated polyvinyl chloride, having a thermal stabilizer and an antioxidant, the chlorinated polyvinyl chloride having structural units (a) to (c) represented by formulae (a) to (c) shown below: -CCl 2 - (a) -CHCl- (b), -CH 2 - (c), the proportion of the structural unit (a) being 17.5 mol% or less, the proportion of the structural unit (b) being 46.0 mol% or more, and the proportion of the structural unit (c) being 37.0 mol% or less, relative to the total number of moles of the structural units (a), (b), and (c) as determined by NMR measurement according to the description, the chlorinated polyvinyl chloride having a chlorine content measured according to JIS K 7229 of 63 mass% or more and less than 72 mass%, characterized in that the thermal stabilizer contains a calcium alkyl carboxylate and a zinc compound, an amount of the antioxidant is from 0.1 to 3 parts by mass based on 100 parts by mass of the chlorinated polyvinyl chloride, and the resin composition for molding has a loss in quantity on heating at 230°C measured using a thermogravimetric measurement apparatus according to the description of less than 2 mass%. a chlorinated polyvinyl chloride, having a thermal stabilizer and an antioxidant, the chlorinated polyvinyl chloride having structural units (a) to (c) represented by formulae (a) to (c) shown below: -CCl 2 - (a) -CHCl- (b), -CH 2 - (c), the proportion of the structural unit (a) being 17.5 mol% or less, the proportion of the structural unit (b) being 46.0 mol% or more, and the proportion of the structural unit (c) being 37.0 mol% or less, relative to the total number of moles of the structural units (a), (b), and (c) as determined by NMR measurement according to the description, the chlorinated polyvinyl chloride having a chlorine content measured according to JIS K 7229 of 63 mass% or more and less than 72 mass%, characterized in that the thermal stabilizer contains a calcium alkyl carboxylate and a zinc compound, an amount of the antioxidant is from 0.1 to 3 parts by mass based on 100 parts by mass of the chlorinated polyvinyl chloride, and the resin composition for molding has a loss in quantity on heating at 230°C measured using a thermogravimetric measurement apparatus according to the description of less than 2 mass%.
A patient simulator , comprising: a simulated respiratory system, comprising: a lung valve ; a first simulated lung in communication with the lung valve ; and a breathing pump including a cylinder and a piston dividing the cylinder into first and second chambers , the first chamber being in communication with the lung valve via at least a first flow path, the second chamber being in communication with the lung valve via at least a second flow path, and the piston being adapted to reciprocate within the cylinder ; and a simulated airway system configured to be in communication with the second chamber of the breathing pump via at least a third flow path. a simulated respiratory system, comprising: a lung valve ; a first simulated lung in communication with the lung valve ; and a breathing pump including a cylinder and a piston dividing the cylinder into first and second chambers , the first chamber being in communication with the lung valve via at least a first flow path, the second chamber being in communication with the lung valve via at least a second flow path, and the piston being adapted to reciprocate within the cylinder ; and a lung valve ; a first simulated lung in communication with the lung valve ; and a breathing pump including a cylinder and a piston dividing the cylinder into first and second chambers , the first chamber being in communication with the lung valve via at least a first flow path, the second chamber being in communication with the lung valve via at least a second flow path, and the piston being adapted to reciprocate within the cylinder ; and a simulated airway system configured to be in communication with the second chamber of the breathing pump via at least a third flow path.
An encapsulated magnet assembly comprising at least one pole piece including coils with resin therebetween and an encapsulation housing , wherein at least one portion of said encapsulation housing is adjacent to said at least one pole piece and wherein at least one recess is provided in said encapsulation housing next to said at least one portion for establishing fluid flow, wherein said at least one recess has at least one of a beveled inlet and a beveled outlet for facilitating said fluid flow and comprising further coil supports , and wherein said recesses are adjacent to said coil supports .
An organic light emitting diode (OLED) display comprising: an emissive OLED layer ; and a nanostructured interface between first and second layers , the second layer disposed between the first layer and the emissive OLED layer , the first layer having a first refractive index, the second layer having a different second refractive index being at least 1.4, the nanostructured interface disposed proximate to and outside an evanescent zone of the emissive OLED layer , the nanostructured interface having a substantially azimuthally symmetric power spectral density, PSD, a wavenumber-PSD product having a maximum for a wavenumber larger than 6 radians/micrometer times the second refractive index, wherein for all wavenumbers less than 6 radians/micrometer times the second refractive index, the wavenumber-PSD product is no more than 0.3 times the maximum. an emissive OLED layer ; and a nanostructured interface between first and second layers , the second layer disposed between the first layer and the emissive OLED layer , the first layer having a first refractive index, the second layer having a different second refractive index being at least 1.4, the nanostructured interface disposed proximate to and outside an evanescent zone of the emissive OLED layer , the nanostructured interface having a substantially azimuthally symmetric power spectral density, PSD, a wavenumber-PSD product having a maximum for a wavenumber larger than 6 radians/micrometer times the second refractive index, wherein for all wavenumbers less than 6 radians/micrometer times the second refractive index, the wavenumber-PSD product is no more than 0.3 times the maximum.
A power routing module for electrically interconnecting solar cells in an array , when the solar cells are attached to a substrate , wherein the power routing module includes: an electrically conductive layer configured for electrically interconnecting the solar cells , wherein the electrically conductive layer of the power routing module is comprised of one or more corner conductors ; an insulation layer configured for electrically insulating the electrically conductive layer ; an adhesive for attaching the power routing module to the substrate ; and an electrical joint for connecting the one or more corner conductors of the power routing module to one or more corner conductors of the substrate ; wherein each of the solar cells has at least one cropped corner that defines a corner region , wherein the solar cells are attached to the substrate such that the corner regions of adj acent ones of the solar cells are aligned, thereby exposing an area of the substrate ; wherein the area of the substrate in the corner regions remains exposed when the solar cells are attached to the substrate ; and wherein the power routing module is attachable to the substrate in the area of the substrate in the corner regions , that remains exposed when the solar cells are attached to the substrate , such that an electrical connection is formed by the electrical joint sandwiched between the one or more of corner conductors of the power routing module and the one or more corner conductors of the substrate . an electrically conductive layer configured for electrically interconnecting the solar cells , wherein the electrically conductive layer of the power routing module is comprised of one or more corner conductors ; an insulation layer configured for electrically insulating the electrically conductive layer ; an adhesive for attaching the power routing module to the substrate ; and an electrical joint for connecting the one or more corner conductors of the power routing module to one or more corner conductors of the substrate ; wherein each of the solar cells has at least one cropped corner that defines a corner region , wherein the solar cells are attached to the substrate such that the corner regions of adj acent ones of the solar cells are aligned, thereby exposing an area of the substrate ; wherein the area of the substrate in the corner regions remains exposed when the solar cells are attached to the substrate ; and wherein the power routing module is attachable to the substrate in the area of the substrate in the corner regions , that remains exposed when the solar cells are attached to the substrate , such that an electrical connection is formed by the electrical joint sandwiched between the one or more of corner conductors of the power routing module and the one or more corner conductors of the substrate .