mhurhangee/patent-ind-claim-en huggingface dataset:
Ophthalmic lens comprising: - a transparent ophthalmic lens substrate, made of organic glass, - an adhesive layer covering at least one of the faces of the transparent substrate, - a transparent film made of thermoplastic polymer fixed to the transparent substrate via the adhesive layer, and - an abrasion-resistant coating directly deposited on one of the faces of the transparent film made of thermoplastic polymer in order to cover said transparent film made of thermoplastic polymer, - the ophthalmic lens having a minimum thickness at the centre of less than 2 mm, preferably of less than 1.5 mm, more preferably still of less than 1.2 mm; - the thermoplastic polymer forming the transparent film being chosen from cellulose triacetate (CTA) and poly(ethylene terephthalate) (PET); - the adhesive layer being a pressure-sensitive adhesive layer or a hot-melt adhesive layer. - a transparent ophthalmic lens substrate, made of organic glass, - an adhesive layer covering at least one of the faces of the transparent substrate, - a transparent film made of thermoplastic polymer fixed to the transparent substrate via the adhesive layer, and - an abrasion-resistant coating directly deposited on one of the faces of the transparent film made of thermoplastic polymer in order to cover said transparent film made of thermoplastic polymer, - the ophthalmic lens having a minimum thickness at the centre of less than 2 mm, preferably of less than 1.5 mm, more preferably still of less than 1.2 mm; - the thermoplastic polymer forming the transparent film being chosen from cellulose triacetate (CTA) and poly(ethylene terephthalate) (PET); - the adhesive layer being a pressure-sensitive adhesive layer or a hot-melt adhesive layer.
A wireless power transfer system comprising: a resonator comprising: a capacitor comprising: at least two active electrodes ; and a passive electrode adjacent the active electrodes and configured to encompass the active electrodes to at least partially eliminate environmental influences affecting the active electrodes ; and at least two inductive coils electrically connected to the active electrodes , wherein the at least two inductive coils are configured to excite the active electrodes of the capacitor to generate an electric field to transfer power or to extract power from a generated electric field, wherein the generated electric field induces a surface charge on the passive electrode such that the passive electrode provides additional capacitance to the capacitor of the resonator and lowers the inductance of the at least two inductive coils required to resonate the system . a resonator comprising: a capacitor comprising: at least two active electrodes ; and a passive electrode adjacent the active electrodes and configured to encompass the active electrodes to at least partially eliminate environmental influences affecting the active electrodes ; and at least two inductive coils electrically connected to the active electrodes , wherein the at least two inductive coils are configured to excite the active electrodes of the capacitor to generate an electric field to transfer power or to extract power from a generated electric field, a capacitor comprising: at least two active electrodes ; and a passive electrode adjacent the active electrodes and configured to encompass the active electrodes to at least partially eliminate environmental influences affecting the active electrodes ; and at least two active electrodes ; and a passive electrode adjacent the active electrodes and configured to encompass the active electrodes to at least partially eliminate environmental influences affecting the active electrodes ; and at least two inductive coils electrically connected to the active electrodes , wherein the at least two inductive coils are configured to excite the active electrodes of the capacitor to generate an electric field to transfer power or to extract power from a generated electric field, wherein the generated electric field induces a surface charge on the passive electrode such that the passive electrode provides additional capacitance to the capacitor of the resonator and lowers the inductance of the at least two inductive coils required to resonate the system .
A seat assembly positioning system configured to facilitate positioning of a seat assembly in relation to a seat track within an internal cabin of a vehicle, the seat assembly positioning system comprising: a seat assembly ; a position indicator , wherein the position indicator emits a proper position indication when the seat assembly is in a proper position in relation to the seat track , and wherein the position indicator emits a remedial position indication when the seat assembly is not in the proper position in relation to the seat track , and wherein the position indicator is coupled to an aft leg of the seat assembly proximate to at least one securing stud that secures the seat assembly to the seat track to allow for a readily discernable guide for locking the seat assembly to the seat track where such locking occurs. a seat assembly ; a position indicator , wherein the position indicator emits a proper position indication when the seat assembly is in a proper position in relation to the seat track , and wherein the position indicator emits a remedial position indication when the seat assembly is not in the proper position in relation to the seat track , and wherein the position indicator is coupled to an aft leg of the seat assembly proximate to at least one securing stud that secures the seat assembly to the seat track to allow for a readily discernable guide for locking the seat assembly to the seat track where such locking occurs.
Multiband patch antenna, preferably a multiband PCB antenna, comprises a ground plane , at least one feedpoint , and at least two different patch fields (16; 24, 26, 28) defining a continuous antenna area and being of at least two different patch field types (A, B, C), wherein each patch field type (A, B, C) is designed for a different predefined resonance frequency (f 1 , f 2 , f 3 ), wherein at least two of the patch fields (16; 24, 26, 28) have overlapping areas (O), and wherein the feedpoint is positioned in a way that, when a feed signal is fed to the feedpoint , each of the at least two patch fields (16; 24, 26, 28) emits electromagnetic radiation having the frequency of the predefined resonance frequency (f 1 , f 2 , f 3 ) of the respective patch field (16; 24, 26, 28) and/or a combination of two or more of the at least two patch fields (16; 24, 26, 28) emits electromagnetic radiation having a frequency of one of the resonance frequencies (f 1 , f 2 , f 3 ), characterized in that the multiband patch antenna comprises a first patch field of a first patch field type (A) with a first resonance frequency (f 1 ), at least one second patch field of a second patch field type (B) with a second resonance frequency (f 2 ) and at least one third patch field of a third patch field type (C) with a third resonance frequency (f 3 ), wherein the first patch field partly overlaps with the at least one second patch field and the at least one third patch field . wherein each patch field type (A, B, C) is designed for a different predefined resonance frequency (f 1 , f 2 , f 3 ), wherein at least two of the patch fields (16; 24, 26, 28) have overlapping areas (O), and wherein the feedpoint is positioned in a way that, when a feed signal is fed to the feedpoint , each of the at least two patch fields (16; 24, 26, 28) emits electromagnetic radiation having the frequency of the predefined resonance frequency (f 1 , f 2 , f 3 ) of the respective patch field (16; 24, 26, 28) and/or a combination of two or more of the at least two patch fields (16; 24, 26, 28) emits electromagnetic radiation having a frequency of one of the resonance frequencies (f 1 , f 2 , f 3 ), characterized in that the multiband patch antenna comprises a first patch field of a first patch field type (A) with a first resonance frequency (f 1 ), at least one second patch field of a second patch field type (B) with a second resonance frequency (f 2 ) and at least one third patch field of a third patch field type (C) with a third resonance frequency (f 3 ), wherein the first patch field partly overlaps with the at least one second patch field and the at least one third patch field .
Method for attaching a roaming telecommunication terminal to a visited network, said terminal comprising a security element, said method comprising: transmitting, from a home network of said terminal to said terminal, a rejection message, wherein said rejection message is a function of technical features of said terminal and of said security element, in order that said home network can send a rejection message which is adapted to, and understandable by, said terminal and said security element, said technical features of said terminal being determined based upon one of: i. an International Mobile Equipment Identity, IMEI, of said terminal or ii. a combination of at least two of: a manufacturer, a model, a type, and a version of said terminal, and said technical features of said security element being determined on the basis of: i. an Integrated Circuit Card Identifier, ICCID, of said security element or ii. an International Mobile Subscriber Identity, IMSI, of said security element, wherein the transmitted rejection message is configured to cause said terminal to attach to a preferred visited network. transmitting, from a home network of said terminal to said terminal, a rejection message, wherein said rejection message is a function of technical features of said terminal and of said security element, in order that said home network can send a rejection message which is adapted to, and understandable by, said terminal and said security element, said technical features of said terminal being determined based upon one of: i. an International Mobile Equipment Identity, IMEI, of said terminal or ii. a combination of at least two of: a manufacturer, a model, a type, and a version of said terminal, and i. an International Mobile Equipment Identity, IMEI, of said terminal or ii. a combination of at least two of: a manufacturer, a model, a type, and a version of said terminal, and said technical features of said security element being determined on the basis of: i. an Integrated Circuit Card Identifier, ICCID, of said security element or ii. an International Mobile Subscriber Identity, IMSI, of said security element, i. an Integrated Circuit Card Identifier, ICCID, of said security element or ii. an International Mobile Subscriber Identity, IMSI, of said security element, wherein the transmitted rejection message is configured to cause said terminal to attach to a preferred visited network.
A method of producing syngas, the method comprising the steps of: providing a cupola for containing a metal bath ; delivering a feedstock to the cupola; operating an inductive element to react with the metal bath ; and supplementing said step of operating an inductive element by the further step of operating a plasma torch for assisting heating the metal bath , characterized in that the plasma torch is configured to operate on the metal bath indirectly. providing a cupola for containing a metal bath ; delivering a feedstock to the cupola; operating an inductive element to react with the metal bath ; and supplementing said step of operating an inductive element by the further step of operating a plasma torch for assisting heating the metal bath , characterized in that the plasma torch is configured to operate on the metal bath indirectly.
Device for supporting Hybrid Automatic Repeat Request, HARQ, the device being configured to transmit to a receiver an Aggregated Media Access Control Protocol Data Unit, A-MPDU , according to the IEEE 802.11 standards and including at least two data units , and to transmit to the receiver , together with the A-MPDU , HARQ block information about a division of the A-MPDU into a plurality of determined HARQ Blocks , wherein the device is further configured to scramble and encode the A-MPDU by performing scrambling and by using Forward Error Correction, FEC, independently on each of the plurality of HARQ blocks , and to retransmit to the receiver , if a decoding of at least one data unit failed at the receiver , at least a part of the A-MPDU including the at least one failed data unit , wherein each HARQ block includes at least one data unit , wherein the retransmitted part contains each HARQ block that includes a failed data unit , and wherein the device is further configured to scramble and encode the at least one failed data unit in the retransmitted part by performing scrambling based on the same scrambling seed and by using FEC with the same FEC outputs that were used for scrambling and encoding said data unit in the A-MPDU . transmit to a receiver an Aggregated Media Access Control Protocol Data Unit, A-MPDU , according to the IEEE 802.11 standards and including at least two data units , and to transmit to the receiver , together with the A-MPDU , HARQ block information about a division of the A-MPDU into a plurality of determined HARQ Blocks , wherein the device is further configured to scramble and encode the A-MPDU by performing scrambling and by using Forward Error Correction, FEC, independently on each of the plurality of HARQ blocks , and to retransmit to the receiver , if a decoding of at least one data unit failed at the receiver , at least a part of the A-MPDU including the at least one failed data unit , wherein each HARQ block includes at least one data unit , wherein the retransmitted part contains each HARQ block that includes a failed data unit , and wherein the device is further configured to scramble and encode the at least one failed data unit in the retransmitted part by performing scrambling based on the same scrambling seed and by using FEC with the same FEC outputs that were used for scrambling and encoding said data unit in the A-MPDU .
A device for producing vacuum using the Venturi effect comprising: a housing defining a suction chamber , a motive passageway having a main passageway and a gradually, continuously tapering section converging toward the suction chamber from the main passageway toward a motive exit and in fluid communication with the suction chamber, a discharge passageway diverging away from the suction chamber and in fluid communication therewith, and a suction passageway in fluid communication with the suction chamber; wherein, within the suction chamber , the motive exit of the motive passageway is generally aligned with and spaced apart from a discharge entrance of the discharge passageway to define a Venturi gap , and the motive passageway terminates in a spout protruding into the suction chamber disposed spaced apart from all one or more sidewalls of the suction chamber thereby providing suction flow around the entirety of an exterior surface of the spout ; characterized in that the motive exit and the discharge entrance both define openings that are non-circular and the exterior surface of the spout transitions into a chamfer proximate an outlet end of the motive passageway , wherein the chamfer changes a generally circular frustoconical exterior surface of the spout to a non circular frustoconical shape. a housing defining a suction chamber , a motive passageway having a main passageway and a gradually, continuously tapering section converging toward the suction chamber from the main passageway toward a motive exit and in fluid communication with the suction chamber, a discharge passageway diverging away from the suction chamber and in fluid communication therewith, and a suction passageway in fluid communication with the suction chamber; wherein, within the suction chamber , the motive exit of the motive passageway is generally aligned with and spaced apart from a discharge entrance of the discharge passageway to define a Venturi gap , and the motive passageway terminates in a spout protruding into the suction chamber disposed spaced apart from all one or more sidewalls of the suction chamber thereby providing suction flow around the entirety of an exterior surface of the spout ; characterized in that the motive exit and the discharge entrance both define openings that are non-circular and the exterior surface of the spout transitions into a chamfer proximate an outlet end of the motive passageway , wherein the chamfer changes a generally circular frustoconical exterior surface of the spout to a non circular frustoconical shape.
A tobacco material manufacturing method comprising a step of heating a tobacco leaf material with a water content of 2.5 wt% or less by bringing the tobacco leaf material into contact with a heating container heated to 200°C or higher so as to have a product temperature of the tobacco leaf material of 100°C to 200°C.
A method for making a shaped porous body comprising interlocking alpha-alumina platelets, the method comprising: a. providing a vessel in which a total pressure can be varied and controlled; b. introducing into the vessel a shaped precursor body which comprises at least one alpha-alumina precursor; c. heating the vessel containing the shaped precursor body to a temperature of 750 to 1150°C prior to introducing a fluorine-containing gas; d. introducing into the vessel, as the fluorine-containing gas at the conditions of introduction, a fluorine-containing compound; e. establishing a total pressure within the vessel of between about 1 torr and 100,000 torr; and f. contacting the introduced fluorine-containing gas with at least a portion of the shaped precursor body, at one or more temperatures above 700°C, for one or more partial pressures of the fluorine containing gas, wherein the one or more partial pressures of the fluorine-containing gas are of from 1 to less than 760 torr, for one or more time periods, wherein the one or more time periods are from 1 minute to 48 hours, sufficient to convert at least 50 % of the alpha-alumina precursor to alpha-alumina platelets. a. providing a vessel in which a total pressure can be varied and controlled; b. introducing into the vessel a shaped precursor body which comprises at least one alpha-alumina precursor; c. heating the vessel containing the shaped precursor body to a temperature of 750 to 1150°C prior to introducing a fluorine-containing gas; d. introducing into the vessel, as the fluorine-containing gas at the conditions of introduction, a fluorine-containing compound; e. establishing a total pressure within the vessel of between about 1 torr and 100,000 torr; and f. contacting the introduced fluorine-containing gas with at least a portion of the shaped precursor body, at one or more temperatures above 700°C, for one or more partial pressures of the fluorine containing gas, wherein the one or more partial pressures of the fluorine-containing gas are of from 1 to less than 760 torr, for one or more time periods, wherein the one or more time periods are from 1 minute to 48 hours, sufficient to convert at least 50 % of the alpha-alumina precursor to alpha-alumina platelets.
A reactive hot melt (RHM) composition comprising a mixture of: a urethane prepolymer which is a reaction product of (i) at least one crystallizable polyol, (ii) a perfluropolyether polyol, and (iii) at least one isocyanate; a filler material; and a leachable plasticizer consisting of an aliphatic ester of a carboxylic acid, wherein - the leachable plasticizer is at least one selected from the group consisting of triethyl citrate, tributyl acetylcitrate and diethyl malonate, - the leachable plasticizer is present in an amount between 1.0 wt.% to 40 wt.%, and - the at least one isocyanate comprises a mixture of hexamethylene diisocyanate (HDI) trimer and methylenediphenyl diisocyanate (MDI) in a 1:1 weight ratio. a urethane prepolymer which is a reaction product of (i) at least one crystallizable polyol, (ii) a perfluropolyether polyol, and (iii) at least one isocyanate; (i) at least one crystallizable polyol, (ii) a perfluropolyether polyol, and (iii) at least one isocyanate; a filler material; and a leachable plasticizer consisting of an aliphatic ester of a carboxylic acid, wherein - the leachable plasticizer is at least one selected from the group consisting of triethyl citrate, tributyl acetylcitrate and diethyl malonate, - the leachable plasticizer is present in an amount between 1.0 wt.% to 40 wt.%, and - the at least one isocyanate comprises a mixture of hexamethylene diisocyanate (HDI) trimer and methylenediphenyl diisocyanate (MDI) in a 1:1 weight ratio. - the leachable plasticizer is at least one selected from the group consisting of triethyl citrate, tributyl acetylcitrate and diethyl malonate, - the leachable plasticizer is present in an amount between 1.0 wt.% to 40 wt.%, and - the at least one isocyanate comprises a mixture of hexamethylene diisocyanate (HDI) trimer and methylenediphenyl diisocyanate (MDI) in a 1:1 weight ratio.
Group of motor vehicles, wherein the motor vehicles of each group have at least one module which is designed as a common part, wherein the common parts are bodyshell parts which are produced by the same deep-drawing tool or by the same casting tool or by the same extrusion tool, wherein at least two front-end modules (V, V1, V2) with different spacings (D1, D2) between the engine mounts and at least two passenger cell modules (F, F1, F2) with different spacings between the front seats are provided, wherein the front-end modules (V, V1, V2) and the passenger cell modules (F, F1, F2) can be combined in such a way that three groups of motor vehicles of the different vehicle classes "compact", "midsize" and "large" can be produced from two front-end modules (V, V1, V2) and two passenger cell modules (F, F1, F2), - wherein the motor vehicles of the vehicle class "compact" are formed from the combination of the front-end module (V1) and the passenger cell module (F1) of the base variant, - wherein the motor vehicles of the vehicle class "large" are formed from the combination of the front-end module (V2) and the passenger cell module (F2) of the high variant, and - wherein the motor vehicles of the vehicle class "midsize" are formed from the combination of the front-end module (V1) of the base variant and the passenger cell module (F2) of the high variant, or - wherein the motor vehicles of the vehicle class "midsize" are formed from the combination of the front-end module (V2) of the high variant and the passenger cell module (F1) of the base variant. - wherein the motor vehicles of the vehicle class "compact" are formed from the combination of the front-end module (V1) and the passenger cell module (F1) of the base variant, - wherein the motor vehicles of the vehicle class "large" are formed from the combination of the front-end module (V2) and the passenger cell module (F2) of the high variant, and - wherein the motor vehicles of the vehicle class "midsize" are formed from the combination of the front-end module (V1) of the base variant and the passenger cell module (F2) of the high variant, or - wherein the motor vehicles of the vehicle class "midsize" are formed from the combination of the front-end module (V2) of the high variant and the passenger cell module (F1) of the base variant.