mhurhangee/patent-ind-claim-en huggingface dataset:
A puncture sealant, comprising: at least one natural rubber latex; at least one antioxidant; at least one antifreezing agent; and at least one selected from the group consisting of protease inhibitors and phosphatase inhibitors; wherein the puncture sealant comprises, based on 100% by mass of the total puncture sealant, 15 to 45% by mass of the at least one natural rubber latex in terms of rubber solids, 0.01 to 3% by mass of the at least one antioxidant, 20 to 64% by mass of the at least one antifreezing agent, and 0.001 to 0.5% by mass in total of the at least one selected from the group consisting of protease inhibitors and phosphatase inhibitors. at least one natural rubber latex; at least one antioxidant; at least one antifreezing agent; and at least one selected from the group consisting of protease inhibitors and phosphatase inhibitors;
Method for controlling an electric battery comprising one or more elementary cells (Ci) for storing electrical energy, this method including, for each cell (Ci), the following steps: a) measuring a quantity representative of the temperature (T) of the cell; b) measuring a quantity representative of the state of charge of the cell; c) determining, as a function of the state of charge of the cell using a predetermined mathematical function or a predetermined correlation table, a first predetermined threshold (T0) corresponding to a temperature of occurrence of a thermal runaway of the cell; and when the temperature of the cell exceeds the first threshold (T0), activating a discharge circuit (403_i) of the cell. a) measuring a quantity representative of the temperature (T) of the cell; b) measuring a quantity representative of the state of charge of the cell; c) determining, as a function of the state of charge of the cell using a predetermined mathematical function or a predetermined correlation table, a first predetermined threshold (T0) corresponding to a temperature of occurrence of a thermal runaway of the cell; and
A surgical apparatus for use by a surgeon during a surgical procedure, the surgical apparatus comprising: one or more sealed sterilized surgical packs configured to be unsealed before the surgical procedure and disposed of after a single or a limited number of surgical procedures, the one or more sealed sterilized surgical packs comprising: a sterile surgical instrument ; and a sterile surgical tray comprising a top surface configured to be part of a sterile field of the surgical procedure, the sterile surgical tray further comprising walls that define a recess sized and configured to receive a reusable non-sterile module , the recess configured to encapsulate the reusable non-sterile module to isolate the reusable non-sterile module from the sterile field of the surgical procedure, wherein the walls of the sterile surgical tray comprises one or more interfaces positioned and configured to enable one or more functions of the reusable non-sterile module to be utilized in the sterile field of the surgical procedure outside of the recess, the one or more interfaces comprising at least an electronic communication interface configured to enable an electronic controller of the reusable non-sterile module to electronically communicate with the sterile surgical tray or the sterile surgical instrument. a sterile surgical instrument ; and a sterile surgical tray comprising a top surface configured to be part of a sterile field of the surgical procedure, the sterile surgical tray further comprising walls that define a recess sized and configured to receive a reusable non-sterile module , the recess configured to encapsulate the reusable non-sterile module to isolate the reusable non-sterile module from the sterile field of the surgical procedure, wherein the walls of the sterile surgical tray comprises one or more interfaces positioned and configured to enable one or more functions of the reusable non-sterile module to be utilized in the sterile field of the surgical procedure outside of the recess, the one or more interfaces comprising at least an electronic communication interface configured to enable an electronic controller of the reusable non-sterile module to electronically communicate with the sterile surgical tray or the sterile surgical instrument. the recess configured to encapsulate the reusable non-sterile module to isolate the reusable non-sterile module from the sterile field of the surgical procedure, wherein the walls of the sterile surgical tray comprises one or more interfaces positioned and configured to enable one or more functions of the reusable non-sterile module to be utilized in the sterile field of the surgical procedure outside of the recess, the one or more interfaces comprising at least an electronic communication interface configured to enable an electronic controller of the reusable non-sterile module to electronically communicate with the sterile surgical tray or the sterile surgical instrument.
Valve, in particular for a heat transfer medium flow circuit in a vehicle, comprising at least one valve member and an actuator arrangement assigned to the at least one valve member , wherein: - the at least one valve member comprises a first valve element and, in a first valve position, the first valve element is seated on a first valve seat assigned to the first valve element and, in a second valve position, is lifted off the first valve seat , - the at least one valve member comprises a second valve element and the second valve element is lifted off a second valve seat associated with the second valve element in the first valve position and is seated on the second valve seat in the second valve position, - the actuator arrangement comprises at least one shape memory material actuator constructed with the shape of a helical spring and a biasing unit for biasing the at least one valve member in a first actuating direction (R 1 ), wherein the at least one valve member is biased into the first valve position by the biasing unit , characterized in that - the actuator arrangement comprises at least two shape memory material actuators which are constructed in the form of a helical spring and are arranged nested in one another, - the at least one valve member can be acted upon by the at least two shape memory material actuators for movement in the same direction of movement to a different extent of movement, - the at least two shape memory material actuators are adapted to displace the at least one valve member in a second actuating direction (R 2 ) opposite to the prestressing action of the biasing unit . - the at least one valve member comprises a first valve element and, in a first valve position, the first valve element is seated on a first valve seat assigned to the first valve element and, in a second valve position, is lifted off the first valve seat , - the at least one valve member comprises a second valve element and the second valve element is lifted off a second valve seat associated with the second valve element in the first valve position and is seated on the second valve seat in the second valve position, - the actuator arrangement comprises at least one shape memory material actuator constructed with the shape of a helical spring and a biasing unit for biasing the at least one valve member in a first actuating direction (R 1 ), wherein the at least one valve member is biased into the first valve position by the biasing unit , - the actuator arrangement comprises at least two shape memory material actuators which are constructed in the form of a helical spring and are arranged nested in one another, - the at least one valve member can be acted upon by the at least two shape memory material actuators for movement in the same direction of movement to a different extent of movement, - the at least two shape memory material actuators are adapted to displace the at least one valve member in a second actuating direction (R 2 ) opposite to the prestressing action of the biasing unit .
A droplet discharge head that is configured to execute, between sub scans in which a medium (P) is conveyed in a sub scanning direction (X) intersecting a main scanning direction (Y), a main scan in which droplets are discharged onto a main scanning line by movement in the main scanning direction with respect to the medium, thereby configured to perform multi-path recording in which dots are formed in the medium and dot recording in the main scanning line is completed by n main scans when n is an integer of 2 or more, the droplet discharge head comprising: a plurality of nozzles configured to discharge a liquid as the droplets; a pressure chamber defining substrate defining a pressure chamber communicating with the nozzles; a piezoelectric element including a first electrode , a second electrode , and a piezoelectric layer disposed between the first electrode and the second electrode, the piezoelectric layer containing a perovskite-type composite oxide containing potassium, sodium, and niobium as a main component; and a vibration plate disposed between the pressure chamber defining substrate and the piezoelectric element, forming a part of a wall surface of the pressure chamber , and configured to vibrate by driving of the piezoelectric element , wherein the number of paths n in the multi-path recording, a piezoelectric constant d 31 [m/V] of the piezoelectric element, and a ratio x of a sodium molar fraction to a total value of a potassium molar fraction and the sodium molar fraction in the piezoelectric layer satisfy a relationship represented by a following formula . 8.0 × 10 − 8 m / V ≤ n ⋅ d 31 ⋅ x ≤ 9.6 × 10 − 6 m / V a plurality of nozzles configured to discharge a liquid as the droplets; a pressure chamber defining substrate defining a pressure chamber communicating with the nozzles; a piezoelectric element including a first electrode , a second electrode , and a piezoelectric layer disposed between the first electrode and the second electrode, the piezoelectric layer containing a perovskite-type composite oxide containing potassium, sodium, and niobium as a main component; and a vibration plate disposed between the pressure chamber defining substrate and the piezoelectric element, forming a part of a wall surface of the pressure chamber , and configured to vibrate by driving of the piezoelectric element , wherein the number of paths n in the multi-path recording, a piezoelectric constant d 31 [m/V] of the piezoelectric element, and a ratio x of a sodium molar fraction to a total value of a potassium molar fraction and the sodium molar fraction in the piezoelectric layer satisfy a relationship represented by a following formula . 8.0 × 10 − 8 m / V ≤ n ⋅ d 31 ⋅ x ≤ 9.6 × 10 − 6 m / V
An electric two-wheeled vehicle comprising: an electric motor that drives a driving wheel ; a battery that supplies electric power to the electric motor; and a drive control device composed of an EV controller part that outputs a control signal on the basis of an operation amount of an accelerator device and an inverter part that increases and decreases an amount of electric power to be supplied to the electric motor on the basis of the control signal of the EV controller part , and wherein a vehicle body below a seating seat is covered with a body cover , a storage box integrally molded of a synthetic resin that has an upper opening to be freely opened and closed by the seating seat is arranged below the seating seat ; characterized in that the EV controller part and the inverter part of the drive control device are formed in a divided manner and that the storage box stores the battery and a spare battery insertable and removable in a rearwards tilted direction, and the EV controller part is attached and supported on an outer periphery of a side wall of the storage box . an electric motor that drives a driving wheel ; a battery that supplies electric power to the electric motor; and a drive control device composed of an EV controller part that outputs a control signal on the basis of an operation amount of an accelerator device and an inverter part that increases and decreases an amount of electric power to be supplied to the electric motor on the basis of the control signal of the EV controller part , and wherein a vehicle body below a seating seat is covered with a body cover , a storage box integrally molded of a synthetic resin that has an upper opening to be freely opened and closed by the seating seat is arranged below the seating seat ; characterized in that the EV controller part and the inverter part of the drive control device are formed in a divided manner and that the storage box stores the battery and a spare battery insertable and removable in a rearwards tilted direction, and the EV controller part is attached and supported on an outer periphery of a side wall of the storage box .
A method for inerting a fire at a plurality of indoor locations, the method comprising the steps of: - providing a first fire inerting gas system configured to detect and inert a fire at a first indoor location , the first fire inerting gas system comprising at least one first container comprising a fire inerting gas, a first conduit connecting the at least one first container with an outlet at the first indoor location and a first control system; - providing a second fire inerting gas system configured to detect and inert a fire at a second indoor location , the second fire inerting gas system comprising at least one second container comprising a fire inerting gas, a second conduit connecting the at least one second container and an outlet at the second indoor location and a second control system; - providing the first fire inerting gas system with a first communication module ; - providing the second fire inerting gas system with a second communication module ,wherein the first and second communication modules are configured for mutual communication and - providing a stand alone detector for detecting a state of an intermittent pathway between the first indoor location and the second indoor location, the stand alone detector comprising a detector communication module; characterised in that the second inerting gas system delivering fire inerting gas to the second indoor location if: ∘ the first fire inerting gas system detects a fire at the first indoor location; and ∘ the stand alone detector detects an open state of the intermittent pathway. - providing a first fire inerting gas system configured to detect and inert a fire at a first indoor location , the first fire inerting gas system comprising at least one first container comprising a fire inerting gas, a first conduit connecting the at least one first container with an outlet at the first indoor location and a first control system; - providing a second fire inerting gas system configured to detect and inert a fire at a second indoor location , the second fire inerting gas system comprising at least one second container comprising a fire inerting gas, a second conduit connecting the at least one second container and an outlet at the second indoor location and a second control system; - providing the first fire inerting gas system with a first communication module ; - providing the second fire inerting gas system with a second communication module ,wherein the first and second communication modules are configured for mutual communication and - providing a stand alone detector for detecting a state of an intermittent pathway between the first indoor location and the second indoor location, the stand alone detector comprising a detector communication module; ∘ the first fire inerting gas system detects a fire at the first indoor location; and ∘ the stand alone detector detects an open state of the intermittent pathway.
A signal distribution network for an antenna arrangement comprising signal interfaces and antenna elements , the signal distribution network comprising: a first signal processing module operatively connected between the antenna elements and K of the signal interfaces, wherein the first signal processing module comprises a first analog beamforming network configured to process high bit rate data signalling; and a second signal processing module operatively connected between the antenna elements and M signal interfaces other than those operatively connected to the first signal processing module , wherein the second signal processing module comprises a second analog beamforming network configured to process low bit rate control or data signalling; wherein digital-to-analog or analog-to-digital converters of the second signal processing module have lower sampling rate than corresponding converters of the first signal processing module ; and wherein the signal distribution network is configured for simultaneous signalling between the antenna elements and the first signal processing module and between the antenna elements and the second signal processing module . a first signal processing module operatively connected between the antenna elements and K of the signal interfaces, wherein the first signal processing module comprises a first analog beamforming network configured to process high bit rate data signalling; and a second signal processing module operatively connected between the antenna elements and M signal interfaces other than those operatively connected to the first signal processing module , wherein the second signal processing module comprises a second analog beamforming network configured to process low bit rate control or data signalling; wherein digital-to-analog or analog-to-digital converters of the second signal processing module have lower sampling rate than corresponding converters of the first signal processing module ; and wherein the signal distribution network is configured for simultaneous signalling between the antenna elements and the first signal processing module and between the antenna elements and the second signal processing module .
A method of forming a three-dimensional object, comprising the steps of: providing a carrier and a pool of immiscible liquid, said pool having a liquid build surface, said carrier and said liquid build surface defining a build region therebetween; filling said build region with a polymerizable liquid, wherein said immiscible liquid is immiscible with said polymerizable liquid, irradiating said build region through at least a portion of said pool of immiscible liquid to form a solid polymer from said polymerizable liquid and advancing said carrier away from said liquid build surface to form said three-dimensional object comprised of said solid polymer, and characterized in that said immiscible liquid further comprises a viscosity-enhancing agent. providing a carrier and a pool of immiscible liquid, said pool having a liquid build surface, said carrier and said liquid build surface defining a build region therebetween; filling said build region with a polymerizable liquid, wherein said immiscible liquid is immiscible with said polymerizable liquid, irradiating said build region through at least a portion of said pool of immiscible liquid to form a solid polymer from said polymerizable liquid and advancing said carrier away from said liquid build surface to form said three-dimensional object comprised of said solid polymer, and characterized in that said immiscible liquid further comprises a viscosity-enhancing agent.
A network service system, comprising: a multi-access edge computing cloud server (MEC), configured to receive a service request from a terminal device (TD) and record an internal Internet protocol address (Inter_ID) of the terminal device (TD); and a core cloud server (CCS), configured to receive the internal Internet protocol address (Inter_ID) transmitted from the terminal device (TD) or the multi-access edge computing cloud server (MEC), and record a correspondence between the internal Internet protocol address (Inter_ID) and an external Internet protocol address of the terminal device (TD) in a correspondence table (TB3); characterised in that the core cloud server (CCS) is further configured to receive a multi-access edge computing cloud server identifier (MEC_ID) from the multi-access edge computing cloud server (MEC); and the core cloud server (CCS) records the internal Internet protocol address (Inter_ID) and correspondence between the multi-access edge computing cloud server identifier (MEC_ID) and the external Internet protocol address in the correspondence table (TB3). a multi-access edge computing cloud server (MEC), configured to receive a service request from a terminal device (TD) and record an internal Internet protocol address (Inter_ID) of the terminal device (TD); and a core cloud server (CCS), configured to receive the internal Internet protocol address (Inter_ID) transmitted from the terminal device (TD) or the multi-access edge computing cloud server (MEC), and record a correspondence between the internal Internet protocol address (Inter_ID) and an external Internet protocol address of the terminal device (TD) in a correspondence table (TB3); characterised in that the core cloud server (CCS) is further configured to receive a multi-access edge computing cloud server identifier (MEC_ID) from the multi-access edge computing cloud server (MEC); and the core cloud server (CCS) records the internal Internet protocol address (Inter_ID) and correspondence between the multi-access edge computing cloud server identifier (MEC_ID) and the external Internet protocol address in the correspondence table (TB3).
A water processing module with a tubular receiving container with a base member and a releasable cover , through which the liquid to be processed may be supplied from above into the interior of the receiving container, a tubular filter element , which is sealed by an annular seal with respect to the inner wall of the receiving container and with at least one removal opening for processed liquid, which extends through the wall of the receiving container and/or the base member , characterised in that , fastened to the upper side of the cover there is a connector coupling for the liquid to be supplied, which is in communication with circularly arranged through openings , which extend obliquely to the lower edge of the cover, that the filter element is releasably suspended in the inner wall of the receiving container , that the filter element is connected at its upper end to an upper filter holder , which rests on an inner shoulder on the inner wall of the receiving container , that the upper holder has a filling opening for the filter material, such as mixed bed resin or activated carbon, which may be closed by a closure cover and that the cover has a central cavity on its under side for receiving the closure cover , that the lower end of the filter element is connected to a lower filter holder and that both filter holders have circularly arranged through openings , which are covered by filter strainers . a tubular filter element , which is sealed by an annular seal with respect to the inner wall of the receiving container and with at least one removal opening for processed liquid, which extends through the wall of the receiving container and/or the base member , characterised in that , fastened to the upper side of the cover there is a connector coupling for the liquid to be supplied, which is in communication with circularly arranged through openings , which extend obliquely to the lower edge of the cover, that the filter element is releasably suspended in the inner wall of the receiving container , that the filter element is connected at its upper end to an upper filter holder , which rests on an inner shoulder on the inner wall of the receiving container , that the upper holder has a filling opening for the filter material, such as mixed bed resin or activated carbon, which may be closed by a closure cover and that the cover has a central cavity on its under side for receiving the closure cover , that the lower end of the filter element is connected to a lower filter holder and that both filter holders have circularly arranged through openings , which are covered by filter strainers .