mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising: (a) 5 isolated FlaB peptides that each comprise a Borrelia T-cell epitope and are selected from the FlaB peptides as defined in SEQ ID NOS:1-5, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:1-5; (b) 13 isolated DbpB peptides that each comprise a Borrelia T-cell epitope and are selected from the DbpB peptides as defined in SEQ ID NOS:6-18, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:6-18; (c) 13 isolated p66 peptides that each comprise a Borrelia T-cell epitope and are selected from the p66 peptides as defined in SEQ ID NOS: 19-31, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS: 19-31; and (d) 2 isolated OspC peptides that each comprise a Borrelia T-cell epitope and are selected from the OspC peptides as defined in SEQ ID NOS:32-33, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:32-33. (a) 5 isolated FlaB peptides that each comprise a Borrelia T-cell epitope and are selected from the FlaB peptides as defined in SEQ ID NOS:1-5, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:1-5; (b) 13 isolated DbpB peptides that each comprise a Borrelia T-cell epitope and are selected from the DbpB peptides as defined in SEQ ID NOS:6-18, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:6-18; (c) 13 isolated p66 peptides that each comprise a Borrelia T-cell epitope and are selected from the p66 peptides as defined in SEQ ID NOS: 19-31, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS: 19-31; and (d) 2 isolated OspC peptides that each comprise a Borrelia T-cell epitope and are selected from the OspC peptides as defined in SEQ ID NOS:32-33, or one or more variants thereof having at least 80% amino acid sequence identity to the amino acid sequences set forth in SEQ ID NOS:32-33.
An assembling method for transportation of a cabinet, wherein the cabinet comprises a main cabinet and two side cabinets , the respective side cabinet includes three entity surfaces, the three entity surfaces comprising a center surface and a top surface and a bottom surface extending from the center surface in a U-shape in a side view, the edges of the entity surfaces of the respective side cabinet defining a first and a second side of the respective side cabinet, and comprises a side door on the second side of the side cabinet, and a cabinet door, the side door and the cabinet door are detachable, the main cabinet comprises a post and a subrack, the main cabinet includes three entity surfaces with a backplane and a top surface and a bottom surface extending from the backplane in a U- shape in a side view, the edges of the entity surfaces of the main cabinet defining a first and a second side of the main cabinet, the two side cabinets are connected at their respective first side to the first and second side, respectively of the main cabinet, connections between the two side cabinets and the main cabinet are detachable, and the assembling method for cabinet transportation comprises: disassembling the connections between the two side cabinets and the main cabinet, wherein the disassembled main cabinet and the disassembled two side cabinets are independent of each other; disassembling the side doors and the cabinet doors from the two side cabinets , wherein the side cabinet from which the side door and the cabinet door are disassembled is in its U- shape in the side view; placing side by side the two side cabinets from which the side doors and the cabinet doors are disassembled, such that a side of one side cabinet faces a side of the other side cabinet, and fixedly connecting the two side cabinets through a fixed connection apparatus; and buckling , with the main cabinet together in a staggered mode, the two fixedly connected side cabinets from which the side doors and the cabinet doors are disassembled wherein the U-shaped main cabinet is received in the U-shaped fixedly connected side cabinets . disassembling the connections between the two side cabinets and the main cabinet, wherein the disassembled main cabinet and the disassembled two side cabinets are independent of each other; disassembling the side doors and the cabinet doors from the two side cabinets , wherein the side cabinet from which the side door and the cabinet door are disassembled is in its U- shape in the side view; placing side by side the two side cabinets from which the side doors and the cabinet doors are disassembled, such that a side of one side cabinet faces a side of the other side cabinet, and fixedly connecting the two side cabinets through a fixed connection apparatus; and buckling , with the main cabinet together in a staggered mode, the two fixedly connected side cabinets from which the side doors and the cabinet doors are disassembled wherein the U-shaped main cabinet is received in the U-shaped fixedly connected side cabinets .
Switching assembly intended to be joined onto a control assembly provided with an actuation member that can take a rest position and an actuation position, said switching assembly comprising: - a body , an electrical circuit comprising two fixed contacts , said electrical circuit being able to be controlled both by a control switch of normally-closed type comprising a first mobile contact bridge bearing a first mobile control contact and a second mobile control contact and by a monitoring switch, linked in series with said control switch and comprising a second mobile contact bridge bearing a first mobile monitoring contact and a second mobile monitoring contact , - the first mobile control contact being arranged to cooperate with the first fixed contact and the first mobile monitoring contact being arranged to cooperate with the second fixed contact , - characterized in that : - the monitoring switch is of normally-open type, and in that - the second mobile control contact is arranged to cooperate directly with the second mobile monitoring contact . - a body , an electrical circuit comprising two fixed contacts , said electrical circuit being able to be controlled both by a control switch of normally-closed type comprising a first mobile contact bridge bearing a first mobile control contact and a second mobile control contact and by a monitoring switch, linked in series with said control switch and comprising a second mobile contact bridge bearing a first mobile monitoring contact and a second mobile monitoring contact , - the first mobile control contact being arranged to cooperate with the first fixed contact and the first mobile monitoring contact being arranged to cooperate with the second fixed contact , - characterized in that : - the monitoring switch is of normally-open type, and in that - the second mobile control contact is arranged to cooperate directly with the second mobile monitoring contact .
A method for providing power optimization in a home automation system, comprising: monitoring user activity related to a room of a structure managed by the home automation system; maintaining a device (112-124) of the home automation system that is associated with the room in a low-power inactive state while there is no user activity related to the room, the device being an audio/video, A/V, device, a lighting device, a heating ventilation and cooling, HVAC, device, a security device or an interconnection device; in response to user activity related to the room, transitioning the device preemptively from the low-power inactive state to an in-use state , the device being transitioned to the in-use state absent a current attempt to use the device by a user or another device of the home automation system; and in response to expiration of a timer since a last use of the device or the transition to the in-use state was made and no actual use occurred, exiting the in-use state. monitoring user activity related to a room of a structure managed by the home automation system; maintaining a device (112-124) of the home automation system that is associated with the room in a low-power inactive state while there is no user activity related to the room, the device being an audio/video, A/V, device, a lighting device, a heating ventilation and cooling, HVAC, device, a security device or an interconnection device; in response to user activity related to the room, transitioning the device preemptively from the low-power inactive state to an in-use state , the device being transitioned to the in-use state absent a current attempt to use the device by a user or another device of the home automation system; and in response to expiration of a timer since a last use of the device or the transition to the in-use state was made and no actual use occurred, exiting the in-use state.
A method of manufacturing high quality lube base oil, comprising: - producing unconverted oils A and B of two different kinds in different hydrocrackers, unconverted oil A having a viscosity index (VI) of 110 ~ 140, 20 - 60 ppm sulfur and 4 ~ 8 ppm nitrogen and unconverted oil B having a viscosity index of 115 ~ 145, 5 - 25 ppm sulfur and 0.1 - 1.5 ppm nitrogen; - mixing unconverted oils A and B to obtain an unconverted oil mixture, a weight ratio of unconverted oil A and unconverted oil B of the mixture being 1 (A): 1 ~ 2 (B); - supplying the unconverted oil mixture to a vacuum distillation separator, thus separating one or more distillate fractions therefrom; - supplying all or part of the distillate fractions to a dewaxing reactor in the presence of an isomerization catalyst, thus obtaining a dewaxed oil fraction; and - supplying the dewaxed oil fraction to a hydrofinishing reactor in the presence of a hydrofinishing catalyst, thus obtaining a hydrofinished oil fraction, wherein make-up hydrogen is supplied upstream of the hydrofinishing reactor and downstream of the dewaxing reactor, thus increasing hydrogen partial pressure in the hydrofinishing reactor and lowering a reaction temperature of hydrofinishing. - producing unconverted oils A and B of two different kinds in different hydrocrackers, unconverted oil A having a viscosity index (VI) of 110 ~ 140, 20 - 60 ppm sulfur and 4 ~ 8 ppm nitrogen and unconverted oil B having a viscosity index of 115 ~ 145, 5 - 25 ppm sulfur and 0.1 - 1.5 ppm nitrogen; - mixing unconverted oils A and B to obtain an unconverted oil mixture, a weight ratio of unconverted oil A and unconverted oil B of the mixture being 1 (A): 1 ~ 2 (B); - supplying the unconverted oil mixture to a vacuum distillation separator, thus separating one or more distillate fractions therefrom; - supplying all or part of the distillate fractions to a dewaxing reactor in the presence of an isomerization catalyst, thus obtaining a dewaxed oil fraction; and - supplying the dewaxed oil fraction to a hydrofinishing reactor in the presence of a hydrofinishing catalyst, thus obtaining a hydrofinished oil fraction,
A flat knitting machine comprising: a needle bed having a plurality of knitting needles; a yarn feeder that is attached to a rail that is parallel to a length direction of the needle beds , the yarn feeder travelling along the rail and capable of feeding a knitting yarn to a needle bed gap of the needle beds ; the yarn feeder includes a carrier portion that is attached to the rail , and a suspended portion that extends downward from the carrier portion and has a smaller width than the carrier portion a knitting condition adjustment apparatus that is a tension adjustment apparatus that is provided on the yarn feeder and adjusts the tension of the knitting yarn by acting on a portion of the knitting yarn that is upstream of the tension sensor ; and a knitting condition control unit that controls the knitting condition adjustment apparatus based on a tension of the knitting yarn , wherein the yarn feeder includes a tension sensor that acquires information correlated with the tension of the knitting yarn and outputs the information to the knitting condition control unit ; characterized in that the tension adjustment apparatus is provided completely under the rail at a position on a lateral side of the suspended portion in a front view of the yarn feeder from a direction orthogonal to the rail . a needle bed having a plurality of knitting needles; a yarn feeder that is attached to a rail that is parallel to a length direction of the needle beds , the yarn feeder travelling along the rail and capable of feeding a knitting yarn to a needle bed gap of the needle beds ; the yarn feeder includes a carrier portion that is attached to the rail , and a suspended portion that extends downward from the carrier portion and has a smaller width than the carrier portion a knitting condition adjustment apparatus that is a tension adjustment apparatus that is provided on the yarn feeder and adjusts the tension of the knitting yarn by acting on a portion of the knitting yarn that is upstream of the tension sensor ; and a knitting condition control unit that controls the knitting condition adjustment apparatus based on a tension of the knitting yarn , wherein the yarn feeder includes a tension sensor that acquires information correlated with the tension of the knitting yarn and outputs the information to the knitting condition control unit ;
An underwater vehicle, comprising: - an on board power grid , the power grid comprising powerlines , - a plurality of DC energy storage sources based on lithium-ion batteries, each source having a positive terminal and a negative terminal, and being connected on the one hand to charging means and on the other hand to energy consumers of the vehicle, one of the terminals of each source being connected to a first powerline of the power grid , the other terminal of each source being connected on the one hand by a second powerline of the power grid to the charging means through first one-way semiconductor conducting means , said first one-way semiconductor conducting means being mounted in the forward direction defined from the second powerline to the other terminal of each source , characterized in that the other terminal of each source is connected on the other hand by a third powerline of the electric grid to consumers through second one-way semiconductor conducting means , and in that said second one-way semiconductor conducting means are mounted in the forward direction defined from the other terminal of each source to the third powerline . - an on board power grid , the power grid comprising powerlines , - a plurality of DC energy storage sources based on lithium-ion batteries, each source having a positive terminal and a negative terminal, and being connected on the one hand to charging means and on the other hand to energy consumers of the vehicle, one of the terminals of each source being connected to a first powerline of the power grid , the other terminal of each source being connected on the one hand by a second powerline of the power grid to the charging means through first one-way semiconductor conducting means , said first one-way semiconductor conducting means being mounted in the forward direction defined from the second powerline to the other terminal of each source , characterized in that the other terminal of each source is connected on the other hand by a third powerline of the electric grid to consumers through second one-way semiconductor conducting means , and in that said second one-way semiconductor conducting means are mounted in the forward direction defined from the other terminal of each source to the third powerline .
A device to control activation of oxygen saturation (SpO2) measurements in a cardio-pulmonary resuscitation procedure, comprising: a compression detection module for receiving a compression signal and providing compression presence data and compression rate data; a pulse oximetry module for receiving one or more photoplethysmography (PPG) signals and providing PPG data; a signal processing unit for carrying out a compression detection algorithm, a PPG-based pulse detection algorithm, and an SpO2 measurement algorithm based on the received compression presence data, compression rate data, and PPG data; wherein the SpO2 measurement algorithm is deactivated when compressions are present; and wherein the SpO2 measurement algorithm is activated when a spontaneous pulse has been detected and compressions are not detected during a predetermined time period. a compression detection module for receiving a compression signal and providing compression presence data and compression rate data; a pulse oximetry module for receiving one or more photoplethysmography (PPG) signals and providing PPG data; a signal processing unit for carrying out a compression detection algorithm, a PPG-based pulse detection algorithm, and an SpO2 measurement algorithm based on the received compression presence data, compression rate data, and PPG data; wherein the SpO2 measurement algorithm is deactivated when compressions are present; and wherein the SpO2 measurement algorithm is activated when a spontaneous pulse has been detected and compressions are not detected during a predetermined time period.
A paper-based packaging film comprising: a first layer comprising a fiber-based component, a second layer comprising a polymeric film comprising a thickness from 2 micron and 8 micron, the polymeric film coated with a barrier material comprising a metal, a metal oxide or an inorganic oxide, a third layer comprising a sealable polymer, and an adhesive layer located between the first layer and the second layer, the adhesive layer comprising a water-soluble adhesive, wherein the second layer is located between the first layer and the third layer, the barrier material is located between the polymeric film and the first layer, the polymeric film of the second layer comprises at least one of oriented polyester film, oriented polylactic acid film, polyester, polylactic acid, ethylene vinyl alcohol copolymer and polyvinyl alcohol copolymer, the total composition of the paper-based packaging film comprises a fiber content greater than 80 %, greater than 85 %, greater than 90 % or greater than 95 %, by weight, and wherein the first layer is an outer layer. a first layer comprising a fiber-based component, a second layer comprising a polymeric film comprising a thickness from 2 micron and 8 micron, the polymeric film coated with a barrier material comprising a metal, a metal oxide or an inorganic oxide, a third layer comprising a sealable polymer, and an adhesive layer located between the first layer and the second layer, the adhesive layer comprising a water-soluble adhesive, wherein the second layer is located between the first layer and the third layer, the barrier material is located between the polymeric film and the first layer, the polymeric film of the second layer comprises at least one of oriented polyester film, oriented polylactic acid film, polyester, polylactic acid, ethylene vinyl alcohol copolymer and polyvinyl alcohol copolymer, the total composition of the paper-based packaging film comprises a fiber content greater than 80 %, greater than 85 %, greater than 90 % or greater than 95 %, by weight, and wherein the first layer is an outer layer.
A method of synchronizing control logic for an automation controller with a representation of the control logic stored at a communication network , the automation controller being located remotely from the communication network , the method comprising: initially deploying , by a processor of a communication network controller , control logic from the communication network controller to the automation controller ; storing the control logic at the automation controller ; sending , by the processor , a representation of the control logic to a memory of the communication network ; storing the representation of the control logic in the memory at the communication network ; receiving, by the processor , a change request from a third party at the communication network for a change to be made to the representation of the control logic; creating a changed representation of the control logic in the memory at the communication network based on the change request; re-deploying , by the processor , the control logic to the automation controller so that the operation of the re-deployed control logic is synchronized with the changed representation of the control logic at the communication network ; and remotely servicing , from a service center , the changed representation of the control logic at the communication network. initially deploying , by a processor of a communication network controller , control logic from the communication network controller to the automation controller ; storing the control logic at the automation controller ; sending , by the processor , a representation of the control logic to a memory of the communication network ; storing the representation of the control logic in the memory at the communication network ; receiving, by the processor , a change request from a third party at the communication network for a change to be made to the representation of the control logic; creating a changed representation of the control logic in the memory at the communication network based on the change request; re-deploying , by the processor , the control logic to the automation controller so that the operation of the re-deployed control logic is synchronized with the changed representation of the control logic at the communication network ; and remotely servicing , from a service center , the changed representation of the control logic at the communication network.