mhurhangee/patent-ind-claim-en huggingface dataset:
A method for isolating flow within a wellbore comprising: a. obtaining a flow control device , wherein the flow control device includes apertures formed therein, wherein the flow control device includes an exclusion media , wherein the exclusion media limits the inflow of formation materials; b. inserting a temporary fusible alloy plug securely into each of the apertures, wherein the temporary fusible alloy plugs temporarily prevent flow through the apertures, wherein the temporary fusible alloy plugs are fabricated from any low melting temperature composition that is meltable at a T m , such that a first plurality of apertures has temporary fusible alloy plugs that melt at T m1 and a second plurality of apertures has temporary fusible alloy plugs that melt at T m2 , which is higher than Tm 1 ; c. installing the flow control device into the well; d. increasing the reservoir temperature to T m1 and removing said first plurality of temporary fusible alloy plugs when selective inflow through the apertures is desired; and e. increasing the reservoir temperature to Tm 2 and removing said second plurality of temporary fusible alloy plugs when inflow through the remaining apertures is desired. a. obtaining a flow control device , wherein the flow control device includes apertures formed therein, wherein the flow control device includes an exclusion media , wherein the exclusion media limits the inflow of formation materials; b. inserting a temporary fusible alloy plug securely into each of the apertures, wherein the temporary fusible alloy plugs temporarily prevent flow through the apertures, wherein the temporary fusible alloy plugs are fabricated from any low melting temperature composition that is meltable at a T m , such that a first plurality of apertures has temporary fusible alloy plugs that melt at T m1 and a second plurality of apertures has temporary fusible alloy plugs that melt at T m2 , which is higher than Tm 1 ; c. installing the flow control device into the well; d. increasing the reservoir temperature to T m1 and removing said first plurality of temporary fusible alloy plugs when selective inflow through the apertures is desired; and e. increasing the reservoir temperature to Tm 2 and removing said second plurality of temporary fusible alloy plugs when inflow through the remaining apertures is desired.
An RF tag system for conducting radio communications between an RF tag reader and an RF tag using radio waves of VHF band or above, the RF tag system is configured for operating in an environment with a scheduled start semi-passive RF tag and a remote start semi-passive RF tag , the RF tag reader is configured for reading and writing both of the RF tags , in the scheduled start semi-passive RF tag , an RF signal from the RF tag reader is received, and an impedance is converted in a resonant stub voltage multiplier circuit that detects a query from the RF tag reader ; and in the remote start semi-passive RF tag , the RF signal from the RF tag reader is received, the RF signal is subjected to voltage boost and to ASK demodulation in a stub resonance voltage multiplier-rectifier circuit , a pulse code key detecting circuit is configured to check a remote start key and is configured to take the signal as power feed for operation, and a signal is outputted to feed power to a control circuit , only when the remote start key is matched with a unique key of the remote start semi-passive RF tag , and the pulse code key detecting circuit determines whether a pulse width is within a certain range. the RF tag system is configured for operating in an environment with a scheduled start semi-passive RF tag and a remote start semi-passive RF tag , the RF tag reader is configured for reading and writing both of the RF tags , in the scheduled start semi-passive RF tag , an RF signal from the RF tag reader is received, and an impedance is converted in a resonant stub voltage multiplier circuit that detects a query from the RF tag reader ; and in the remote start semi-passive RF tag , the RF signal from the RF tag reader is received, the RF signal is subjected to voltage boost and to ASK demodulation in a stub resonance voltage multiplier-rectifier circuit , a pulse code key detecting circuit is configured to check a remote start key and is configured to take the signal as power feed for operation, and a signal is outputted to feed power to a control circuit , only when the remote start key is matched with a unique key of the remote start semi-passive RF tag , and the pulse code key detecting circuit determines whether a pulse width is within a certain range.
A light comprising: a primary lightpipe ; and, a light source ; wherein the primary lightpipe comprises: a lightpipe inlet side constructed and arranged to receive light from the light source and to allow it to enter the primary lightpipe; a back side being provided with a serrated structure , wherein the serrated structure has a first and a second surface and the first surface is provided with a reflecting surface to reflect light from the light source; and a front side constructed and arranged to internally reflect the light received from the light source to the back side of the primary lightpipe and to transmit light received from the reflecting surface, characterized in that the second surface is provided with a light absorbing surface , and the second surface is substantially perpendicular to the back side . a primary lightpipe ; and, a light source ; a lightpipe inlet side constructed and arranged to receive light from the light source and to allow it to enter the primary lightpipe; a back side being provided with a serrated structure , wherein the serrated structure has a first and a second surface and the first surface is provided with a reflecting surface to reflect light from the light source; and a front side constructed and arranged to internally reflect the light received from the light source to the back side of the primary lightpipe and to transmit light received from the reflecting surface, characterized in that the second surface is provided with a light absorbing surface , and the second surface is substantially perpendicular to the back side .
A perfluorinated thermoplastic elastomer [polymer (pF-TPE)] comprising: - at least one elastomeric block (A) consisting of a sequence of recurring units derived from tetrafluoroethylene (TFE) and recurring units derived from at least one perfluorinated monomer other than TFE, and possibly of a minor amount of recurring units derived from at least one bis-olefin [bis-olefin (OF)] of formula R A R B =CR C -T-CR D =R E R F , wherein R A , R B , R C , R D , R E and R F , equal to or different from each other, are selected from the group consisting of H, F, CI, C 1 -C 5 alkyl groups and C 1 -C 5 (per)fluoroalkyl groups, and T is a linear or branched C 1 -C 18 alkylene or cycloalkylene group, optionally comprising one or more than one ethereal oxygen atom, preferably at least partially fluorinated, or a (per)fluoropolyoxyalkylene group, wherein the molar percentage of recurring units derived from TFE in said block (A) is comprised between 40 and 82 % moles, with respect to the total moles of recurring units of the said block (A), and wherein said block (A) possesses a glass transition temperature of less than 25°C, as determined according to ASTM D3418, and - at least one thermoplastic block (B) consisting of a sequence of recurring units derived from tetrafluoroethylene (TFE) and recurring units derived from at least one perfluorinated monomer other than TFE, wherein the molar percentage of recurring units derived from TFE in said block (B) is comprised between 85 and 99.5 % moles, and wherein the crystallinity of said block (B) and its weight fraction in the polymer (pF-TPE) are such to provide for a heat of fusion of the polymer (pF-TPE) of at least 2.5 J/g, when determined according to ASTM D3418, wherein the said perfluorinated monomer other than TFE is the same in block (A) and block (B), and is preferably perfluoromethylvinylether. - at least one elastomeric block (A) consisting of a sequence of recurring units derived from tetrafluoroethylene (TFE) and recurring units derived from at least one perfluorinated monomer other than TFE, and possibly of a minor amount of recurring units derived from at least one bis-olefin [bis-olefin (OF)] of formula R A R B =CR C -T-CR D =R E R F , wherein R A , R B , R C , R D , R E and R F , equal to or different from each other, are selected from the group consisting of H, F, CI, C 1 -C 5 alkyl groups and C 1 -C 5 (per)fluoroalkyl groups, and T is a linear or branched C 1 -C 18 alkylene or cycloalkylene group, optionally comprising one or more than one ethereal oxygen atom, preferably at least partially fluorinated, or a (per)fluoropolyoxyalkylene group, wherein the molar percentage of recurring units derived from TFE in said block (A) is comprised between 40 and 82 % moles, with respect to the total moles of recurring units of the said block (A), and wherein said block (A) possesses a glass transition temperature of less than 25°C, as determined according to ASTM D3418, and - at least one thermoplastic block (B) consisting of a sequence of recurring units derived from tetrafluoroethylene (TFE) and recurring units derived from at least one perfluorinated monomer other than TFE,
A package, comprising: a glass container , including: a base ; a body extending axially from the base; and a neck finish extending from the body, the neck finish having an axial sealing surface , wherein at least a portion of the axial sealing surface extends both axially toward the base and radially outwardly, and a closure assembly that includes a skirt , a lid , and a seal for sealing the contents of the container under vacuum pressure, wherein the lid has a bottom on which a circumferential sealing surface extends radially inwardly with respect to an edge , and radially outwardly of a central region of the lid , characterised in that the sealing surface of the lid has a circumferential bevel or wedge extending more axially away from a top side of the lid at a radially inwardly portion of the sealing surface than at a radially outwardly portion . 2. a base ; a body extending axially from the base; and a neck finish extending from the body, the neck finish having an axial sealing surface , wherein at least a portion of the axial sealing surface extends both axially toward the base and radially outwardly, and a closure assembly that includes a skirt , a lid , and a seal for sealing the contents of the container under vacuum pressure, wherein the lid has a bottom on which a circumferential sealing surface extends radially inwardly with respect to an edge , and radially outwardly of a central region of the lid , characterised in that the sealing surface of the lid has a circumferential bevel or wedge extending more axially away from a top side of the lid at a radially inwardly portion of the sealing surface than at a radially outwardly portion . 2.
A display device comprising: one or more modules each configured to operate according to one or more modes; a communication interface configured to transmit state information of the one or more modules to a server or to an adjacent device (100-2 to 100-6), and configured to receive, from the adjacent device (100-2 to 100-6) via the server or from the adjacent device (100-2 to 100-6), a parameter based on the transmitted state information, the parameter indicating a mode of one or more modules of the adjacent device (100-2 to 100-6); and a controller configured: to change a mode of the one or more modules to correspond to a first mode indicated by a parameter having a first priority, to determine whether the display device is operating normally in the first mode, in the event that the display device is operating normally, to continue to operate the one or more modules in the first mode, and in the event that the display device is not operating normally, to change the mode of the one or more modules to correspond to a second mode indicated by a parameter having the next-highest priority. one or more modules each configured to operate according to one or more modes; a communication interface configured to transmit state information of the one or more modules to a server or to an adjacent device (100-2 to 100-6), and configured to receive, from the adjacent device (100-2 to 100-6) via the server or from the adjacent device (100-2 to 100-6), a parameter based on the transmitted state information, the parameter indicating a mode of one or more modules of the adjacent device (100-2 to 100-6); and a controller configured: to change a mode of the one or more modules to correspond to a first mode indicated by a parameter having a first priority, to determine whether the display device is operating normally in the first mode, in the event that the display device is operating normally, to continue to operate the one or more modules in the first mode, and in the event that the display device is not operating normally, to change the mode of the one or more modules to correspond to a second mode indicated by a parameter having the next-highest priority. to change a mode of the one or more modules to correspond to a first mode indicated by a parameter having a first priority, to determine whether the display device is operating normally in the first mode, in the event that the display device is operating normally, to continue to operate the one or more modules in the first mode, and in the event that the display device is not operating normally, to change the mode of the one or more modules to correspond to a second mode indicated by a parameter having the next-highest priority.
An assay that is capable of unambiguously detecting the presence or absence of M analytes, in any combination of presence or absence, in a single sample volume without immobilization, mass spectrometry, or melting curve analysis, wherein each of the analytes is encoded as a value of one component of a signal, wherein M = log 2 (F + 1) and F is the maximum cumulative value of the one component of the signal when all of the analytes are present, and wherein M is equal to or greater than 7, wherein the assay comprises performing a detecting step with reagents comprising hybridization probes, wherein at least one of the analytes comprises a polynucleotide, wherein the value is an intensity or range of intensities. wherein each of the analytes is encoded as a value of one component of a signal, wherein M = log 2 (F + 1) and F is the maximum cumulative value of the one component of the signal when all of the analytes are present, and wherein M is equal to or greater than 7, wherein the assay comprises performing a detecting step with reagents comprising hybridization probes, wherein at least one of the analytes comprises a polynucleotide, wherein the value is an intensity or range of intensities.
A method at a network element for providing data access to a network, wherein the network element is designating as a cluster head device in a role of an intermediate node in communication between a cluster of delay tolerant devices and the network, said method comprising: receiving a control signal to initiate a random access procedure for the entire cluster of delay tolerant devices , wherein the delay tolerant devices within the cluster are co-located and have a similar timing advance; based on the control signal , initiating a random access procedure with said network for the cluster by sending a random access channel, RACH, preamble for the cluster via said network element to said network, such that the timing advance for the delay tolerant devices can be estimated through the preamble sent by the network element designated as the cluster head device ; sending a Radio Resource Control, RRC, connection request to the network along with a group identification of the cluster to establish an RRC connection between the network element and the network as a primary communication channel with said network via a first wireless interface of said network element; establishing a complementary communication channel with one or more of the cluster of delay tolerant devices via a second wireless interface of said network element; receiving data from the one or more delay tolerant devices in said cluster ; aggregating said received data; and transferring said aggregated data on said established primary communication channel to said network. receiving a control signal to initiate a random access procedure for the entire cluster of delay tolerant devices , wherein the delay tolerant devices within the cluster are co-located and have a similar timing advance; based on the control signal , initiating a random access procedure with said network for the cluster by sending a random access channel, RACH, preamble for the cluster via said network element to said network, such that the timing advance for the delay tolerant devices can be estimated through the preamble sent by the network element designated as the cluster head device ; sending a Radio Resource Control, RRC, connection request to the network along with a group identification of the cluster to establish an RRC connection between the network element and the network as a primary communication channel with said network via a first wireless interface of said network element; establishing a complementary communication channel with one or more of the cluster of delay tolerant devices via a second wireless interface of said network element; receiving data from the one or more delay tolerant devices in said cluster ; aggregating said received data; and transferring said aggregated data on said established primary communication channel to said network.
A composition comprising a mixture comprising a first compound of formula 11 wherein C n is a fullerene composed of n carbon atoms, optionally with one or more atoms trapped inside m is 0, o is 1 or 2, one substituent R is benzene, and the other substituent R is an ester group of formula C-34 wherein a is 3, and R 11 is methyl, and a second compound of formula 11, wherein m is 0, o is 1 or 2, one substituent R is benzene, and the other substituent R is an ester group of formula C-34, wherein a is 3 and R 11 is ethyl, propyl, butyl, pentyl or hexyl, as electron acceptor or n-type component, and further comprising one or more semiconducting compounds which have electron donor or p-type properties. C n is a fullerene composed of n carbon atoms, optionally with one or more atoms trapped inside m is 0, o is 1 or 2, one substituent R is benzene, and the other substituent R is an ester group of formula C-34 wherein a is 3, and R 11 is methyl, and a second compound of formula 11, wherein m is 0, o is 1 or 2, one substituent R is benzene, and the other substituent R is an ester group of formula C-34, wherein a is 3 and R 11 is ethyl, propyl, butyl, pentyl or hexyl, as electron acceptor or n-type component, and further comprising one or more semiconducting compounds which have electron donor or p-type properties.
Valve device for controlled introduction of a blowing medium of a blow moulding machine into plastic parisons, comprising at least one controllable valve body , at least one actuating device , and also a control device for controlling the actuating device , wherein the actuating device is at least indirectly operatively connected to the valve body , characterised in that the actuating device comprises at least one piezoelectric actuator , wherein by means of actuation of the actuating device and a control of the piezoelectric actuator , which is associated therewith, by the control device in dependence on the current impressed into the piezoelectric actuator and/or the voltage applied thereto the valve body can be moved from an open position into a closed position and vice versa, and in the closed position a main flow path , for introduction of the blowing medium into the plastic parisons, is closed, wherein at least one sealing surface between a sealing piston of the valve body and a housing of the valve body has a different degree of hardness from the degree of hardness of the sealing piston .
A cylindrical sleeve for a sheave for a passenger conveyor system, the cylindrical sleeve comprising: an outer surface comprising a groove arranged to receive a belt; and an inner surface defining a cylindrical cavity ; wherein the cylindrical sleeve is substantially made of a polymer-based composite material including a polymeric material with fibre reinforcement, and wherein the cylindrical sleeve is made by disc gate injection moulding; further wherein the cylindrical sleeve comprises: a core made of the polymeric material with a first weight percentage of fibre reinforcement; and characterized in that the sleeve further comprises: two surface layers defining the outer surface and the inner surface , respectively, wherein the surface layers are made of the polymeric material with a second weight percentage of fibre reinforcement; wherein the second weight percentage of fibre reinforcement is lower than the first weight percentage of fibre reinforcement. an outer surface comprising a groove arranged to receive a belt; and an inner surface defining a cylindrical cavity ; wherein the cylindrical sleeve is substantially made of a polymer-based composite material including a polymeric material with fibre reinforcement, and wherein the cylindrical sleeve is made by disc gate injection moulding; further wherein the cylindrical sleeve comprises: a core made of the polymeric material with a first weight percentage of fibre reinforcement; and characterized in that the sleeve further comprises: two surface layers defining the outer surface and the inner surface , respectively, wherein the surface layers are made of the polymeric material with a second weight percentage of fibre reinforcement; wherein the second weight percentage of fibre reinforcement is lower than the first weight percentage of fibre reinforcement. two surface layers defining the outer surface and the inner surface , respectively, wherein the surface layers are made of the polymeric material with a second weight percentage of fibre reinforcement; wherein the second weight percentage of fibre reinforcement is lower than the first weight percentage of fibre reinforcement.