mhurhangee/ep-ind-claims huggingface dataset:
A protection switching method, comprising: receiving, by an intermediate node (E, F, G), a first protection switching request message sent by an upstream neighboring node of the intermediate node, wherein the first protection switching request message requests to activate a first protection path, and the intermediate node is a node on the first protection path; further comprising: after receiving the first protection switching request message from the upstream neighboring node, selecting, by the intermediate node (E, F, G), a first group of N1 timeslots to be occupied by the first protection path from among N2 available timeslots in a preset order, wherein the N2 available timeslots are available timeslots comprised in a link (E-F, F-G, G-B) between the intermediate node and a downstream neighboring node of the intermediate node, N2 is greater than or equal to N1, and the preset order is determined based on a preset type of the intermediate node relative to the downstream neighboring node of the intermediate node; and sending, by the intermediate node (E, F, G), a second protection switching request message to the downstream neighboring node of the intermediate node, wherein the second protection switching request message requests the downstream neighboring node to complete a cross-connection, on the first protection path, between the downstream neighboring node and the intermediate node based on the first group of N1 timeslots. after receiving the first protection switching request message from the upstream neighboring node, selecting, by the intermediate node (E, F, G), a first group of N1 timeslots to be occupied by the first protection path from among N2 available timeslots in a preset order, wherein the N2 available timeslots are available timeslots comprised in a link (E-F, F-G, G-B) between the intermediate node and a downstream neighboring node of the intermediate node, N2 is greater than or equal to N1, and the preset order is determined based on a preset type of the intermediate node relative to the downstream neighboring node of the intermediate node; and sending, by the intermediate node (E, F, G), a second protection switching request message to the downstream neighboring node of the intermediate node, wherein the second protection switching request message requests the downstream neighboring node to complete a cross-connection, on the first protection path, between the downstream neighboring node and the intermediate node based on the first group of N1 timeslots.
A method comprising: detecting, by a first device in a network, a power restoration event subsequent to a power outage event, wherein power is restored to the first device during the power restoration event; synchronizing, by the first device, a channel hopping schedule of the first device to the detected power restoration event; and communicating, by the first device, with a neighboring device of the first device using the channel hopping schedule synchronized to the detected power restoration event, wherein power is restored to the neighboring device during the power restoration event and the neighboring device uses a corresponding channel hopping schedule to communicate with the first device that is also synchronized to the power restoration event. detecting, by a first device in a network, a power restoration event subsequent to a power outage event, wherein power is restored to the first device during the power restoration event; synchronizing, by the first device, a channel hopping schedule of the first device to the detected power restoration event; and communicating, by the first device, with a neighboring device of the first device using the channel hopping schedule synchronized to the detected power restoration event, wherein power is restored to the neighboring device during the power restoration event and the neighboring device uses a corresponding channel hopping schedule to communicate with the first device that is also synchronized to the power restoration event.
A method implemented in a computer system for producing a masked image having an obscured first region, the method comprising: capturing, by a camera comprising a visual image sensor and a thermal image sensor, an image composed by a plurality of pixels, analyzing the content of the image, determining a temperature differential between an object in the first region and the object's surroundings, creating a privacy mask by applying rules to the results of the analysis, one of said rules specifying that the privacy mask is to be applied when there is a certain temperature differential between the object and its surroundings, and another rule specifying that an obscurity level of the privacy mask varies based on the temperature differential; and applying the privacy mask to the image, thereby producing the masked image having obscured pixels in the first region based on the privacy mask's varying obscurity level. capturing, by a camera comprising a visual image sensor and a thermal image sensor, an image composed by a plurality of pixels, analyzing the content of the image, determining a temperature differential between an object in the first region and the object's surroundings, creating a privacy mask by applying rules to the results of the analysis, one of said rules specifying that the privacy mask is to be applied when there is a certain temperature differential between the object and its surroundings, and another rule specifying that an obscurity level of the privacy mask varies based on the temperature differential; and applying the privacy mask to the image, thereby producing the masked image having obscured pixels in the first region based on the privacy mask's varying obscurity level.
A shielding apparatus for shielding at least one implant (3, 4), consisting at least partially of a metallic material, in the body of a patient during an examination by magnetic resonance imaging, which apparatus can be attached temporarily on or in the vicinity of the body of the patient and comprises a shielding material, which is suitable for attenuating high-frequency alternating electromagnetic fields, wherein the shielding apparatus is suitable for adaptation to a contour of a body surface of the patient, characterised in that the shielding apparatus can be filled with a gaseous and/or liquid fluid for adaptation to the contour of the body surface of the patient.
A folding chair comprising: a seat pan being formed by a pair of seat bars, the seat pan being tensioned by a pair of vertical legs,wherein the vertical legs are each provided with an inner leg and an outer leg and the inner leg is configured to telescope out of the outer leg; a backrest being formed by a pair of diagonally extending backrest bars; a front frame formed by a pair of cross bars (142, 144); a rear frame formed by rear cross bars (146, 148); and a pair of armrests (112a, 112b); wherein the seat pan and the backrest are formed of a suspension fabric; wherein the backrest suspension fabric has an overlap and a core placed into a hollow section created by the overlap, characterized in that the core in the hollow section is secured in an asymmetrical notch in a top of the pair of diagonally extending backrest bars; wherein the suspension fabric overlap further includes a first yarn, a second yarn, and a thermoplastic polyurethane film wherein the first yarn is a polymer and the second yarn is more elastomeric than the first yarn and wherein the thermoplastic polyurethane film is heat pressed to the first yarn and the second yarn; wherein at least one of the vertical legs is provided with a latch for locking the outer leg to the inner leg, the latch comprising a rocker and a projection configured to rotate the projection out of a slot formed in the inner leg; wherein the backrest includes a tensioner (400, 500) configured to maintain the backrest in an unfolded position or a tensioned position. a seat pan being formed by a pair of seat bars, the seat pan being tensioned by a pair of vertical legs,wherein the vertical legs are each provided with an inner leg and an outer leg and the inner leg is configured to telescope out of the outer leg; a backrest being formed by a pair of diagonally extending backrest bars; a front frame formed by a pair of cross bars (142, 144); a rear frame formed by rear cross bars (146, 148); and a pair of armrests (112a, 112b); wherein the seat pan and the backrest are formed of a suspension fabric; wherein the backrest suspension fabric has an overlap and a core placed into a hollow section created by the overlap, characterized in that the core in the hollow section is secured in an asymmetrical notch in a top of the pair of diagonally extending backrest bars; wherein the suspension fabric overlap further includes a first yarn, a second yarn, and a thermoplastic polyurethane film wherein the first yarn is a polymer and the second yarn is more elastomeric than the first yarn and wherein the thermoplastic polyurethane film is heat pressed to the first yarn and the second yarn; wherein at least one of the vertical legs is provided with a latch for locking the outer leg to the inner leg, the latch comprising a rocker and a projection configured to rotate the projection out of a slot formed in the inner leg; wherein the backrest includes a tensioner (400, 500) configured to maintain the backrest in an unfolded position or a tensioned position.
Digital modulation method transforming a sequence of input words ( w k), each constituted of m information symbols, into a sequence of M-PSK modulation symbols where M = 2 m, characterised in that it comprises: - a step of transcoding wherein each input word ( w k) is coded into a code word ( w ' k) of variable length by means of a transcoding table, the transcoding table coding at least one first input word, leading to a first number of phase transitions in said sequence of modulation symbols, into a second word of size greater than m, leading to a second number of phase transitions less than said first number in said sequence; - a step of concatenation of the code words ( w ' k) obtained at the preceding step to supply a sequence of output words W k ", each output word being constituted of m information symbols; - a M-PSK modulation supplying for each output word of the sequence a corresponding M-PSK symbol. - a step of transcoding wherein each input word ( w k) is coded into a code word ( w ' k) of variable length by means of a transcoding table, the transcoding table coding at least one first input word, leading to a first number of phase transitions in said sequence of modulation symbols, into a second word of size greater than m, leading to a second number of phase transitions less than said first number in said sequence; - a step of concatenation of the code words ( w ' k) obtained at the preceding step to supply a sequence of output words W k ", each output word being constituted of m information symbols; - a M-PSK modulation supplying for each output word of the sequence a corresponding M-PSK symbol.
A method for producing a library of 3' and 5' modified nucleic acids suitable for paired end sequencing comprising; a) fragmenting a primary double stranded nucleic acid target sequence to produce a first population of linear nucleic acid target fragments with blunt ends, wherein the ends of the linear fragments are labelled; b) self-ligating the blunt ends of the fragments to form circular constructs without using an adapter of known sequence; c) treating the fragments of step b) to reduce the ratio of linear fragments to circular fragments, wherein treatment to reduce the ratio of linear to circular fragments comprises exonuclease treatment; d) fragmenting the circular constructs to produce a second population of linear fragments, a percentage of which will span the two ends of the first population of linear target fragments; e) selecting the linear fragments in the second population that span the two ends of the first population of linear fragments, wherein said selecting comprises isolating labelled linear fragments from unlabelled fragments by binding a ligand to the label in the linear fragments, and removing the unbound unlabelled fragments; and f) ligating adapter sequences to the 3' and 5' ends of the second population of linear fragments to produce a library of 3' and 5' modified nucleic acids suitable for paired end sequencing. a) fragmenting a primary double stranded nucleic acid target sequence to produce a first population of linear nucleic acid target fragments with blunt ends, wherein the ends of the linear fragments are labelled; b) self-ligating the blunt ends of the fragments to form circular constructs without using an adapter of known sequence; c) treating the fragments of step b) to reduce the ratio of linear fragments to circular fragments, wherein treatment to reduce the ratio of linear to circular fragments comprises exonuclease treatment; d) fragmenting the circular constructs to produce a second population of linear fragments, a percentage of which will span the two ends of the first population of linear target fragments; e) selecting the linear fragments in the second population that span the two ends of the first population of linear fragments, wherein said selecting comprises isolating labelled linear fragments from unlabelled fragments by binding a ligand to the label in the linear fragments, and removing the unbound unlabelled fragments; and f) ligating adapter sequences to the 3' and 5' ends of the second population of linear fragments to produce a library of 3' and 5' modified nucleic acids suitable for paired end sequencing.
A liquid composition comprising decellularized extracellular matrix derived from cardiac tissue, wherein the composition is suitable for delivery through a needle catheter without clogging the catheter, wherein the decellularized extracellular matrix is obtainable by a method comprising: (a) processing a cardiac tissue sample having an extracellular matrix component and a non-extracellular matrix component to remove the non-extracellular matrix component to obtain decellularized extracellular matrix; (b) lyophilizing and pulverizing the decellularized extracellular matrix into a powder; (c) producing a composition comprising the decellularized extracellular matrix powder in a liquid; (d) digesting the decellularized extracellular matrix in the composition of step (c) with a matrix degrading enzyme at pH 1-6; and (e) neutralizing the pH of the digested decellularized extracellular matrix of step (d) to produce the liquid composition; wherein the liquid composition transitions to a gel at body temperature. (a) processing a cardiac tissue sample having an extracellular matrix component and a non-extracellular matrix component to remove the non-extracellular matrix component to obtain decellularized extracellular matrix; (b) lyophilizing and pulverizing the decellularized extracellular matrix into a powder; (c) producing a composition comprising the decellularized extracellular matrix powder in a liquid; (d) digesting the decellularized extracellular matrix in the composition of step (c) with a matrix degrading enzyme at pH 1-6; and (e) neutralizing the pH of the digested decellularized extracellular matrix of step (d) to produce the liquid composition;
A method for controlling a protein separation process for separating a protein from a biologic fluid, said method comprising: obtaining an impedance measurement of a fluid from a step of said protein separation process; determining an amount of modification of a parameter that modifies solubility of said protein needed to cause an impedance measurement of said fluid to be within an acceptable tolerance of a target impedance value; and adjusting said parameter by said amount of modification, wherein said biologic fluid is a protein solution, a protein suspension, or a cell culture suspension, and wherein said parameter is selected from the group consisting of solute concentration, solvent concentration, pH, ionic strength, temperature, density, flow rate, and viscosity. obtaining an impedance measurement of a fluid from a step of said protein separation process; determining an amount of modification of a parameter that modifies solubility of said protein needed to cause an impedance measurement of said fluid to be within an acceptable tolerance of a target impedance value; and adjusting said parameter by said amount of modification, wherein said biologic fluid is a protein solution, a protein suspension, or a cell culture suspension, and wherein said parameter is selected from the group consisting of solute concentration, solvent concentration, pH, ionic strength, temperature, density, flow rate, and viscosity.
A detergent product comprising one or more filaments, wherein the one or more filaments comprises one or more filament-forming materials and one or more active agents, wherein the one or more filament-forming materials comprises a water-soluble hydroxyl polymer, wherein the detergent product comprises a total level of one or more active agents of 50% or greater by weight of the detergent product, wherein the one or more active agents is one or more fabric care active agents and wherein the detergent product exhibits a Basis Weight of less than 500 g/m 2 as measured according to the Basis Weight Test Method described herein.
A sensor system including a tag and a product (300, 400, 500), the tag including: at least one sensor adapted to transition from a first electrical state to a second electrical state in response to a predetermined change in an environment of the sensor, the sensor having at least one output terminal; a radio-frequency chip including a memory element including electrical storage of a binary coded word including at least one bit, input terminals and output terminals, the input terminals being disposed in electrical communication with the at least one output terminal of the at least one sensor and with at least one bit of memory; a first antenna being disposed in electrical communication with the output terminals of the chip; characterized in that the product comprises a battery, wherein the tag and sensor are configured to detect an open circuit voltage of the battery.
Method for industrial centrifugal separation of packaged food waste, using a centrifugal separator, into a first stream mainly constituted of biomass and a second stream mainly constituted of plastic packaging materials, characterized in that the moisture content of the first stream is detected and regulated as a function of the detected moisture content of the first stream, in order to obtain a first stream comprising a solids content of between 20% and 30%.
A mobile communication terminal comprising: application execution means (11, 111,21) for executing one or more applications; location registration means (12, 112, 22) for performing location registration in only one mobile communication network for establishing a communication state; communication network specifying means (13, 113, 23) for specifying the only one mobile communication network in which location registration is made by the location registration means (12, 112,22); and application control means (14, 24) for performing control on the application execution means so as to start an application corresponding to the only one mobile communication network specified by the communication network specifying means (13, 113, 23), further comprising a location registration control means for selecting the only one mobile communication network in which location registration is to be performed, in accordance with an application to be started by the application control means (14, 24) upon location registration, and performing control on the location registration means (12, 112, 22) so as to make location registration in the selected only one mobile communication network, characterized in that the location registration control means selects the only one mobile communication network in which location registration is to be performed, in accordance with the number of applications to be started by the application control means (14, 24) upon location registration. application execution means (11, 111,21) for executing one or more applications; location registration means (12, 112, 22) for performing location registration in only one mobile communication network for establishing a communication state; communication network specifying means (13, 113, 23) for specifying the only one mobile communication network in which location registration is made by the location registration means (12, 112,22); and application control means (14, 24) for performing control on the application execution means so as to start an application corresponding to the only one mobile communication network specified by the communication network specifying means (13, 113, 23), further comprising
A method of transporting saponified ethylene-vinyl ester-based copolymer pellets comprising: maintaining an interior of a hermetic container in a state of higher pressure than ambient atmosphere during a transport of the saponified ethylene-vinyl ester-based copolymer pellets encased in the hermetic container. maintaining an interior of a hermetic container in a state of higher pressure than ambient atmosphere during a transport of the saponified ethylene-vinyl ester-based copolymer pellets encased in the hermetic container.
An optical glass comprising: a P 2 O 5 component of 30 to 60 mass% (exclusive of 30); an Al 2 O 3 component of 2 to 10 mass% (exclusive of 2); a TiO 2 component of 10 to 36 mass% (exclusive of 36); an Nb 2 O 5 component of 0 to 5 mass%; a Ta 2 O 5 component of 0 to 15 mass%; a Bi 2 O 3 component of 0 to 5 mass% (exclusive of 5); an Sb 2 O 3 component of 0 to 1 mass%; an Na 2 O component of 10 to 20% mass%; a ZnO component of 1 to 8 mass%; and an Li 2 O component of 0 mass%. a P 2 O 5 component of 30 to 60 mass% (exclusive of 30); an Al 2 O 3 component of 2 to 10 mass% (exclusive of 2); a TiO 2 component of 10 to 36 mass% (exclusive of 36); an Nb 2 O 5 component of 0 to 5 mass%; a Ta 2 O 5 component of 0 to 15 mass%; a Bi 2 O 3 component of 0 to 5 mass% (exclusive of 5); an Sb 2 O 3 component of 0 to 1 mass%; an Na 2 O component of 10 to 20% mass%; a ZnO component of 1 to 8 mass%; and an Li 2 O component of 0 mass%.
A method comprising: receiving a first electrode for an electrochemical cell; receiving a microporous film comprising PVDF; using an adhesive to bond said microporous film to said first electrode to form a first subassembly, said adhesive comprising: a solvent capable of dissolving said PVDF of said microporous film; a non-solvent having a surface energy higher than a surface energy of said solvent; and PVDF; assembling said first subassembly to a second electrode to form said electrochemical cell, wherein prior to said bonding: said adhesive is applied to said first electrode; and said adhesive is allowed to dry. receiving a first electrode for an electrochemical cell; receiving a microporous film comprising PVDF; using an adhesive to bond said microporous film to said first electrode to form a first subassembly, said adhesive comprising: a solvent capable of dissolving said PVDF of said microporous film; a non-solvent having a surface energy higher than a surface energy of said solvent; and PVDF; a solvent capable of dissolving said PVDF of said microporous film; a non-solvent having a surface energy higher than a surface energy of said solvent; and PVDF; assembling said first subassembly to a second electrode to form said electrochemical cell, wherein prior to said bonding: said adhesive is applied to said first electrode; and said adhesive is allowed to dry. said adhesive is applied to said first electrode; and said adhesive is allowed to dry.