mhurhangee/ep-ind-claims huggingface dataset:
A management system for controlling operations of at least one fluid tank, the management system comprising: a wireless transceiver in communication with a controller to allow the management system to communicate with the controller over a communications network, wherein the controller is associated with and is arranged to control a flow of fluid being discharged from the at least one fluid tank; a processor for: determining weather data for a particular region, wherein the at least one fluid tank is geographically located within the region; determining operation instructions for activating at least one flow control mechanism associated with the at least one fluid tank, wherein the operation instructions make use of a threshold fluid level, wherein the threshold fluid level is based on a volume of fluid to be discharged, which volume is determined based on a measured fluid level and a capacity of the at least one fluid tank and the weather data; and transmitting via the wireless transceiver a command signal to the controller, wherein the command signal includes the operation instructions. a wireless transceiver in communication with a controller to allow the management system to communicate with the controller over a communications network, wherein the controller is associated with and is arranged to control a flow of fluid being discharged from the at least one fluid tank; a processor for: determining weather data for a particular region, wherein the at least one fluid tank is geographically located within the region; determining operation instructions for activating at least one flow control mechanism associated with the at least one fluid tank, wherein the operation instructions make use of a threshold fluid level, wherein the threshold fluid level is based on a volume of fluid to be discharged, which volume is determined based on a measured fluid level and a capacity of the at least one fluid tank and the weather data; and transmitting via the wireless transceiver a command signal to the controller, wherein the command signal includes the operation instructions. determining weather data for a particular region, wherein the at least one fluid tank is geographically located within the region; determining operation instructions for activating at least one flow control mechanism associated with the at least one fluid tank, wherein the operation instructions make use of a threshold fluid level, wherein the threshold fluid level is based on a volume of fluid to be discharged, which volume is determined based on a measured fluid level and a capacity of the at least one fluid tank and the weather data; and transmitting via the wireless transceiver a command signal to the controller, wherein the command signal includes the operation instructions.
An insert for guiding a part of an optical cable comprising at least one optical fiber element and accommodated in a housing of an optical fiber assembly, said part of the optical cable has a cut-out portion exposing said at least one optical fiber element, wherein said insert comprises an optical cable guidance means for guiding said optical cable across the insert a recess surrounding the exposed optical fiber element, a bend element arranged at an end portion of the recess and projecting from the recess in a curved manner, wherein said bend element has a groove for guiding the optical fiber element in a pull back action the insert being characterised in that it comprises a crosslink extending transverse to the running direction of the optical cable and bridging the cut-out portion of the optical cable, wherein said bend element is fixed to said crosslink, wherein said crosslink has an abutment section on its lower side designed to abut against the cut-out portion of the optical cable, and wherein said abutment section is divided by the groove into two abutment faces.
Electrical energy supply system comprising a current source, a central inverter station and a large number of vehicles, wherein the inverter station has an inverter, which can be connected both to the current source and to the vehicles, and the central inverter station is constructed for supplying direct current for an energy store of a vehicle in each case, but also for the supply of alternating current from the vehicles to a current source, wherein the central inverter station is constructed in a garage facility, for example, at airports, wherein each vehicle has at least one electric motor, an energy store for providing drive energy for the electric motor, a plug type connector which is connected to the energy store for connection to the current source and a control system for controlling the current flow from the current source to the energy store, wherein the control system permits a current flow from the energy store of the vehicles to the current source, and wherein the inverter station is provided to feed the electrical power of the energy stores of the vehicles as an alternating current to the current source.
A control node which is used in connection with a core network, the control node comprising: at least one memory; and at least one processor coupled to the at least one memory and configured to transmit a relocation command message related to a first control-plane node that is located in the core network and performs mobility management and bearer management of a plurality of mobile terminals having attached to the core network, wherein the relocation command message causes relocation, from the first control-plane node to at least one second control-plane node, of the mobility management and the bearer management for at least one of the plurality of mobile terminals, regardless of the movement of the at least one of the mobile terminals, wherein the relocation command message contains a relocation policy, and the relocation policy contains an identifier of the at least one second control-plane node. at least one memory; and at least one processor coupled to the at least one memory and configured to transmit a relocation command message related to a first control-plane node that is located in the core network and performs mobility management and bearer management of a plurality of mobile terminals having attached to the core network, wherein the relocation command message causes relocation, from the first control-plane node to at least one second control-plane node, of the mobility management and the bearer management for at least one of the plurality of mobile terminals, regardless of the movement of the at least one of the mobile terminals, wherein the relocation command message contains a relocation policy, and the relocation policy contains an identifier of the at least one second control-plane node.
A method for producing a thermoplastic resin composition, the method comprising: melt-blending 50 to 80 parts by mass of a crystalline polyester resin and 20 to 50 parts by mass of an amorphous polyester resin with an extruder, thereby producing a first polyester resin compound; melt-blending 90 to 99 parts by mass of the crystalline polyester resin and 1 to 10 parts by mass of a styrene-acrylonitrile-glycidyl methacrylate terpolymer with the extruder used for producing the first polyester resin compound or a different extruder, thereby producing a second polyester resin compound; and compounding 1 to 10 parts by mass of the first polyester resin compound, 1 to 10 parts by mass of the second polyester resin compound, 10 to 90 parts by mass of a polycarbonate resin, 1 to 40 parts by mass of a flame retardant, 0.1 to 1 parts by mass of an antidrip agent, 0.1 to 1 parts by mass of an antioxidant, 0.1 to 2 parts by mass of a lubricant and 1 to 20 parts by mass of a toughening agent. melt-blending 50 to 80 parts by mass of a crystalline polyester resin and 20 to 50 parts by mass of an amorphous polyester resin with an extruder, thereby producing a first polyester resin compound; melt-blending 90 to 99 parts by mass of the crystalline polyester resin and 1 to 10 parts by mass of a styrene-acrylonitrile-glycidyl methacrylate terpolymer with the extruder used for producing the first polyester resin compound or a different extruder, thereby producing a second polyester resin compound; and compounding 1 to 10 parts by mass of the first polyester resin compound, 1 to 10 parts by mass of the second polyester resin compound, 10 to 90 parts by mass of a polycarbonate resin, 1 to 40 parts by mass of a flame retardant, 0.1 to 1 parts by mass of an antidrip agent, 0.1 to 1 parts by mass of an antioxidant, 0.1 to 2 parts by mass of a lubricant and 1 to 20 parts by mass of a toughening agent.
A closable device comprising - a holding device for holding a content, comprising a closure opening and a first antenna; - a closure element for closing the closure opening in a closure position; wherein the closure element is a sliding door and comprises a second antenna and a display device for displaying content information relating to the content present within the holding device; wherein in the closure position the first antenna is in the vicinity of and opposite the second antenna; wherein only in the closure position a data protocol for content information as well as electrical energy for operating the display device are transmitted, by means of electromagnetic induction, from the first antenna to the second antenna; wherein the closure element comprises a receiving element, in particular in the form of a sensor, an infrared detector or a radio receiver, which allows to detect the presence of users in the vicinity of the display device and the distance of the users from the display device. - a holding device for holding a content, comprising a closure opening and a first antenna; - a closure element for closing the closure opening in a closure position;
A flushing arrangement for flushing a surface (51, 52) of a wet-mateable connector for subsea use, the surface (51, 52) being exposed to seawater when the connector is deployed subsea, the flushing arrangement comprising: - a cartridge (31, 32) adapted to form a chamber around the surface (51, 52) to be flushed prior to flushing, wherein the cartridge (31, 32) has a sealing portion adapted to be sealed against a part of the connector, the flushing arrangement formed by the cartridge being configured such that the chamber is sealed in a liquid tight manner against an ambient medium, against surrounding seawater when deployed subsea, - an inlet port for receiving a fluid from a fluid source (211, 214) and an outlet port for discharging a fluid, - plural flow channels (37, 38) formed in said cartridge (31, 32), said plural flow channels comprising flow channels providing a fluid connection between the inlet port and the chamber for enabling a flow of fluid into the chamber and flow channels (44, 47) providing a fluid connection between the chamber and the outlet port for enabling a flow of medium out of the chamber, wherein the cartridge (31, 32) does not form part of a housing of the connector, and wherein the cartridge (31, 32) is mountable to a front portion of a connector part (10, 20) of the connector such that it is exposed to the subsea environment when the connector part (10, 20) is deployed subsea. - a cartridge (31, 32) adapted to form a chamber around the surface (51, 52) to be flushed prior to flushing, wherein the cartridge (31, 32) has a sealing portion adapted to be sealed against a part of the connector, the flushing arrangement formed by the cartridge being configured such that the chamber is sealed in a liquid tight manner against an ambient medium, against surrounding seawater when deployed subsea, - an inlet port for receiving a fluid from a fluid source (211, 214) and an outlet port for discharging a fluid, - plural flow channels (37, 38) formed in said cartridge (31, 32), said plural flow channels comprising flow channels providing a fluid connection between the inlet port and the chamber for enabling a flow of fluid into the chamber and flow channels (44, 47) providing a fluid connection between the chamber and the outlet port for enabling a flow of medium out of the chamber,
Automatic process for the identification and working of defects on used scraped worn tyres to be re-treaded, which tyres are assembled on a rotative support and centering means, characterized in that it comprises the steps of: a. starting the rotation of the tyre; b. automatic scanning of the working surface of the tyre to identify the morphology of defects by means of automatic identification means (8, 41) of defects; c. automatic comparison, performed by computerised means, between the morphology of the defect identified and a virtual library of defects of reference and selection of the working and of the tool to use; d. automatic charging of the tool on an anthropomorphic robot; e. executing, by the anthropomorphic robot, the selected working onto the defect to form a crater suitable to be coated; said steps being managed by a computerized control unit comprising said virtual library of defects. a. starting the rotation of the tyre; b. automatic scanning of the working surface of the tyre to identify the morphology of defects by means of automatic identification means (8, 41) of defects; c. automatic comparison, performed by computerised means, between the morphology of the defect identified and a virtual library of defects of reference and selection of the working and of the tool to use; d. automatic charging of the tool on an anthropomorphic robot; e. executing, by the anthropomorphic robot, the selected working onto the defect to form a crater suitable to be coated;
A method for routing packets in a wired meshed network comprising: a. detecting non-configured neighboring nodes in a wired meshed network, b. assigning an IPv4 address to each detected non-configured node, and c. routing packets between the configured nodes, characterized in that the step of detection comprises (i) sending a scoped link-local multicast packet over a point-to-point Label Switched Path, LSP, connection, carrying an Ethernet tunnel reserved for topology detection from a configured node to a non-configured neighboring node, (ii) detecting whether said non-configured neighboring node responds, and (iii) if a response is detected, sending an update from said configured node to a Network Management System, NMS, assigning an IPv4 address to said detected non-configured node thereby configuring it, and further characterized in that the step of routing packets occurs via a link state routing protocol. a. detecting non-configured neighboring nodes in a wired meshed network, b. assigning an IPv4 address to each detected non-configured node, and c. routing packets between the configured nodes,
An integrated air data sensor (10; 310) comprising: a transducer (16; 316); and a probe (14; 314) operably attached to the transducer (16; 316) by a sealing feature such that a first gas path defined by the probe (14; 314) is fluidically coupled to a second gas path defined by the transducer (16; 316) via an inlet to the second gas path with the sealing feature (40; 340) including a first membrane configured to allow pressure to be conveyed from the first gas path to the second gas path characterised in that the first membrane is fully impermeable such that no gas, liquid or solid can flow through the membrane. a transducer (16; 316); and a probe (14; 314) operably attached to the transducer (16; 316) by a sealing feature such that a first gas path defined by the probe (14; 314) is fluidically coupled to a second gas path defined by the transducer (16; 316) via an inlet to the second gas path with the sealing feature (40; 340) including a first membrane configured to allow pressure to be conveyed from the first gas path to the second gas path characterised in that the first membrane is fully impermeable such that no gas, liquid or solid can flow through the membrane.
A fluid tank system comprising a tank and a fluid handling apparatus for ejecting fluid into the tank and draining fluid from the tank, the fluid handling apparatus comprises: a fluid duct for draining fluid from the tank or for supplying fluid to the tank, wherein the fluid duct is in fluid communication with a tank opening at a bottom of the tank; a fluid inlet pipe for supplying fluid to the tank, wherein the fluid inlet pipe is extending at least partly through the fluid duct and extends through the tank opening into the tank; a rotary fluid ejection device being in fluid communication with the fluid inlet pipe, wherein the rotary fluid ejection device is located inside the tank; a rotary drive shaft extending at least partly inside the fluid inlet pipe, wherein the rotary drive shaft is rotatably connected to the rotary fluid ejection device. a fluid duct for draining fluid from the tank or for supplying fluid to the tank, wherein the fluid duct is in fluid communication with a tank opening at a bottom of the tank; a fluid inlet pipe for supplying fluid to the tank, wherein the fluid inlet pipe is extending at least partly through the fluid duct and extends through the tank opening into the tank; a rotary fluid ejection device being in fluid communication with the fluid inlet pipe, wherein the rotary fluid ejection device is located inside the tank; a rotary drive shaft extending at least partly inside the fluid inlet pipe, wherein the rotary drive shaft is rotatably connected to the rotary fluid ejection device.
A lighting device, configured to be detachably attached with a light source comprising an LED device as a lighting object, the lighting device comprising: a voltage converter configured to convert a DC voltage supplied from a DC power supply into a predetermined DC voltage (V out); and a controller configured to control the voltage converter so that a current (If) flowing through a light source is constant; and characterized by a detector configured to detect the predetermined DC voltage (V out) applied across the light source and to generate a detection voltage (V A); a determination unit configured to determine whether the detection voltage (V A) generated by the detector is a preset first reference voltage (V S) or higher; and the controller is configured to stop an operation of the voltage converter when the determination unit determines that the detection voltage (V A) generated by the detector is the preset first reference voltage (V S) or higher; in that the determination unit comprises a setting unit configured to set the preset first reference voltage (V S) higher by a specified voltage (V m) than the detection voltage (V A), wherein the specified voltage (V m) is a voltage that is 1% to 10% of the detection voltage (V A), and in that the determination unit has a time constant that is larger than those of the voltage converter and controller so that the preset first reference voltage (V S) varies more slowly than the detection voltage (V A). a voltage converter configured to convert a DC voltage supplied from a DC power supply into a predetermined DC voltage (V out); and a controller configured to control the voltage converter so that a current (If) flowing through a light source is constant; and characterized by a detector configured to detect the predetermined DC voltage (V out) applied across the light source and to generate a detection voltage (V A); a determination unit configured to determine whether the detection voltage (V A) generated by the detector is a preset first reference voltage (V S) or higher; and the controller is configured to stop an operation of the voltage converter when the determination unit determines that the detection voltage (V A) generated by the detector is the preset first reference voltage (V S) or higher; in that the determination unit comprises a setting unit configured to set the preset first reference voltage (V S) higher by a specified voltage (V m) than the detection voltage (V A), wherein the specified voltage (V m) is a voltage that is 1% to 10% of the detection voltage (V A), and in that the determination unit has a time constant that is larger than those of the voltage converter and controller so that the preset first reference voltage (V S) varies more slowly than the detection voltage (V A).
A system for storing a gas in a cavity accessible via a well having a base provided with a cemented tubing forming an outer wall of the well inside which a production tube and a dedicated sealing system (210, 212) of said production tube are inserted so as to guide the gas between the surface on the one hand, and a chimney situated at the inlet of the cavity and with no cemented tubing on the other hand, characterized in that a protective tube is fastened to the cemented tubing so as to be maintained in the chimney independently of the production tube and its dedicated sealing system (210, 212).
A system for canceling echo, the system comprising: a transmitter configured to transmit a first signal on at least one band selected from the group consisting of: D1 band and D2 band; a first path (140, 240) configured to receive a second signal on a U0 band; a second path (140, 240) configured to receive a third signal on a band selected from the group consisting of: U1 band and U2 band, wherein the transmitter is capable of transmitting the first signal at the same time that the first path (140, 240) receives the second signal and the second path (140, 240) receives the third signal; and an echo canceller (104, 204) tuned to a Nyquist frequency of the U0 band so as to cancel echo on only the second signal in the first and second paths (140, 240). a transmitter configured to transmit a first signal on at least one band selected from the group consisting of: D1 band and D2 band; a first path (140, 240) configured to receive a second signal on a U0 band; a second path (140, 240) configured to receive a third signal on a band selected from the group consisting of: U1 band and U2 band, wherein the transmitter is capable of transmitting the first signal at the same time that the first path (140, 240) receives the second signal and the second path (140, 240) receives the third signal; and an echo canceller (104, 204) tuned to a Nyquist frequency of the U0 band so as to cancel echo on only the second signal in the first and second paths (140, 240).
Sorting device for sorting moving products, a) comprising a first, stationary shaft which extends along a first axis (S A) in a preferably horizontal axial direction, and b) further comprising a second shaft which is spaced from the first shaft and extends along an axis (S B) which is in parallel with the axis (S A), c) a continuous transport medium being placed around the first shaft and the second shaft and thereby forming an upper strand for supporting and conveying products, d) it being possible for the second shaft to be pivoted from a bottom pivot position about a stationary pivot axis (S K) into a top pivot position and back, characterized in that e) the pivot axis (S K) is spaced from and arranged in parallel with the first axis (S A), and f) the upper strand is straight in both pivot positions (O, U). a) comprising a first, stationary shaft which extends along a first axis (S A) in a preferably horizontal axial direction, and b) further comprising a second shaft which is spaced from the first shaft and extends along an axis (S B) which is in parallel with the axis (S A), c) a continuous transport medium being placed around the first shaft and the second shaft and thereby forming an upper strand for supporting and conveying products, d) it being possible for the second shaft to be pivoted from a bottom pivot position about a stationary pivot axis (S K) into a top pivot position and back, e) the pivot axis (S K) is spaced from and arranged in parallel with the first axis (S A), and f) the upper strand is straight in both pivot positions (O, U).