mhurhangee/ep-ind-claims huggingface dataset:
A pilot-operated solenoid valve (1; 101; 201; 301; 401) provided with a pilot valve unit having a fixed core and a movable core, and a passage block formed with a valve seat which a valve element comes into contact or separates from, wherein the valve element is a diaphragm valve element, the pilot valve unit includes an NO port, a common port, and an NC port, the passage block is formed with an inlet port, an outlet port, a back chamber defined by the diaphragm valve element, an NO passage for communicating the inlet port with the NO port, a common passage for communicating the back chamber with the common port, an NC passage communicated with the NC port, an external exhaust passage (48; 302; 402) for communicating the NC passage with atmosphere, and an internal exhaust passage (59, 303, 403) for communicating the outlet port with the NC passage, the pilot-operated solenoid valve further includes a sealing member (70, 71; 202, 203; 305) to seal one of the external exhaust passage (48; 302) and the internal exhaust passage (59; 303), the passage block has a rectangular parallelepiped shape having a pair of wide opposite surfaces and four side surfaces surrounding the wide opposite surfaces, the four side surfaces including a first surface attached thereon with the pilot valve unit and a second surface formed with at least one of the inlet port and the outlet port, the diaphragm valve element is placed in parallel with the pair of wide opposite surfaces, the passage block includes a block body and a flat cover having a flat plate shape, the flat cover including a recess forming the back chamber, and the flat cover is formed with a flat-cover communication passage for communicating the recess with the common port, characterized in that the external exhaust passage (48; 302) and the internal exhaust passage (59, 303) are coaxially provided, the external exhaust passage has a passage diameter larger than the internal exhaust passage, and the sealing member (70, 71; 202, 203) is one of a first sealing member (70; 202) press-fitted in the external exhaust passage and a second sealing member (71; 203) having an insertable size in the external exhaust passage and press-fitted in the internal exhaust passage.
A method for providing network communication between IP devices (D1 - D6, ID1 - ID3) via the Internet, wherein the IP devices (D1 - D6, ID1 - ID3) are located in different local IP networks (N1 - N9), and wherein at least one of the IP devices (D1 - D6, ID1 - ID3) is a gateway IP device (ID1, ID2) connected to a fieldbus, the method comprising: starting an adapter service (AS1 - AS4) within an IP network (N1 - N9), wherein the adapter service (AS1 - AS4) is configured to initiate an outbound HTTPS-connection to a pre-defined URL pointing to a web server (S1, S2) which provides a communication web service, and wherein said adapter service (AS1 - AS4) is acting as a gateway for fieldbus tools (T1 - T9) in the respective IP network (N1 - N9); initiating an outbound HTTPS-connection to the pre-defined URL pointing to the web server (S1, S2) which provides the communication web service by a gateway IP device (ID1, ID2) which is interfaced to a fieldbus (FB1 - FB3) connecting fieldbus devices (FDX, FDY, FDZ, FDB1 - FDB4); and creating a tunnel connection between the adapter service and a fieldbus device (FDX, FDY, FDZ, FDB1 - FDB4) via the communication web service to provide a fieldbus tool (T1 - T9) access to a fieldbus device (FDX, FDY, FDZ, FDB1 - FDB4); wherein the communication web service maintains a list of access rights that define which users have access to which fieldbus device (FDX, FDY, FDZ, FDB1 - FDB4), wherein in case of field issues it is possible to instantly change the access rights to fieldbus devices (FDX, FDY, FDZ, FDB1 - FDB4), at a central place in the communication web service by a centralized management of user access rights. starting an adapter service (AS1 - AS4) within an IP network (N1 - N9), wherein the adapter service (AS1 - AS4) is configured to initiate an outbound HTTPS-connection to a pre-defined URL pointing to a web server (S1, S2) which provides a communication web service, and wherein said adapter service (AS1 - AS4) is acting as a gateway for fieldbus tools (T1 - T9) in the respective IP network (N1 - N9); initiating an outbound HTTPS-connection to the pre-defined URL pointing to the web server (S1, S2) which provides the communication web service by a gateway IP device (ID1, ID2) which is interfaced to a fieldbus (FB1 - FB3) connecting fieldbus devices (FDX, FDY, FDZ, FDB1 - FDB4); and creating a tunnel connection between the adapter service and a fieldbus device (FDX, FDY, FDZ, FDB1 - FDB4) via the communication web service to provide a fieldbus tool (T1 - T9) access to a fieldbus device (FDX, FDY, FDZ, FDB1 - FDB4); wherein the communication web service maintains a list of access rights that define which users have access to which fieldbus device (FDX, FDY, FDZ, FDB1 - FDB4), wherein in case of field issues it is possible to instantly change the access rights to fieldbus devices (FDX, FDY, FDZ, FDB1 - FDB4), at a central place in the communication web service by a centralized management of user access rights.
A wearable device (10, 12, 14, 16) comprising: a microphone; a display; and a controller that: analyzes audio information picked up by the microphone; detects if a predetermined verbal address phrase is included in the audio information; identifies a direction from which audio corresponding to the predetermined verbal address phrase is emitted; and controls the display to display the indication at a position on the display that corresponds to the identified emitted direction, wherein for cases in which there are more than one emitted directions that correspond to the same position on the display, the controller controls the display to either display, on the same position, a different mark on the display depending on the identified emitted direction, or display, on the same position, a same mark on the display in a different state depending on the identified emitted direction. a microphone; a display; and analyzes audio information picked up by the microphone; detects if a predetermined verbal address phrase is included in the audio information; identifies a direction from which audio corresponding to the predetermined verbal address phrase is emitted; and controls the display to display the indication at a position on the display that corresponds to the identified emitted direction, wherein for cases in which there are more than one emitted directions that correspond to the same position on the display, the controller controls the display to either display, on the same position, a different mark on the display depending on the identified emitted direction, or display, on the same position, a same mark on the display in a different state depending on the identified emitted direction.
A running gear frame for a rail vehicle, comprising - a frame body defining a longitudinal direction, a transverse direction and a height direction; - said frame body comprising two longitudinal beams and a transverse beam unit providing a structural connection between said longitudinal beams in said transverse direction, such that a substantially H-shaped configuration is formed, - said transverse beam unit comprises at least one transverse beam (109.1); - each longitudinal beam having a free end section (108.1) forming a primary suspension interface for a primary suspension device (105.1) connected to an associated wheel unit; - each longitudinal beam having a pivot interface section associated to said free end section (108.1) and forming a pivot interface for a pivot arm connected to said associated wheel unit; - each longitudinal beam having an angled section (108.3) associated to said free end section (108.1); - said angled section (108.3) being arranged such that said free end section (108.1) forms a pillar section at least mainly extending in said height direction; - said pivot interface section being associated to said angled section (108.3); - said pivot interface section is integrated into to said angled section (108.3), - said frame body is formed as a monolithically cast component made of a grey cast iron material, characterized in that - said at least one transverse beam (109.1), in a sectional plane parallel to said longitudinal direction and said height direction, defines a substantially C-shaped cross section. - a frame body defining a longitudinal direction, a transverse direction and a height direction; - said frame body comprising two longitudinal beams and a transverse beam unit providing a structural connection between said longitudinal beams in said transverse direction, such that a substantially H-shaped configuration is formed, - said transverse beam unit comprises at least one transverse beam (109.1); - each longitudinal beam having a free end section (108.1) forming a primary suspension interface for a primary suspension device (105.1) connected to an associated wheel unit; - each longitudinal beam having a pivot interface section associated to said free end section (108.1) and forming a pivot interface for a pivot arm connected to said associated wheel unit; - each longitudinal beam having an angled section (108.3) associated to said free end section (108.1); - said angled section (108.3) being arranged such that said free end section (108.1) forms a pillar section at least mainly extending in said height direction; - said pivot interface section being associated to said angled section (108.3); - said pivot interface section is integrated into to said angled section (108.3), - said frame body is formed as a monolithically cast component made of a grey cast iron material, - said at least one transverse beam (109.1), in a sectional plane parallel to said longitudinal direction and said height direction, defines a substantially C-shaped cross section.
A fan cover shell, comprising: an outer frame; multiple annular auxiliary reinforcement ribs, arranged from the center of the fan cover shell towards the outer frame; and multiple main reinforcement ribs respectively extending from the center of the fan cover shell to the outer frame and intersecting with the auxiliary reinforcement ribs to form multiple ventilation grills; wherein the main reinforcement rib forms a multi-section curve, a first arc-shaped air guide surface is disposed on a windward side of the main reinforcement rib, and a width of the windward side of the main reinforcement rib is greater than that of a leeward side; characterised in that any two adjacent sections of curves of the multi-section curve bend toward a reverse direction. an outer frame; multiple annular auxiliary reinforcement ribs, arranged from the center of the fan cover shell towards the outer frame; and multiple main reinforcement ribs respectively extending from the center of the fan cover shell to the outer frame and intersecting with the auxiliary reinforcement ribs to form multiple ventilation grills; wherein the main reinforcement rib forms a multi-section curve, a first arc-shaped air guide surface is disposed on a windward side of the main reinforcement rib, and a width of the windward side of the main reinforcement rib is greater than that of a leeward side; characterised in that any two adjacent sections of curves of the multi-section curve bend toward a reverse direction.
A molten salt electrolysis apparatus comprising: an electrolysis vessel accommodating a melt electrolyte including a melt metal chloride; and an electrode unit provided with electrically conductive electrodes having anode surface portions and cathode surface portions associated with the anode surface portions, first insulation members fixedly attached to upper end surfaces of the electrodes to correspondingly cover the upper end surfaces while extending upward from the upper end surfaces, second insulation members fixedly attached to lower end surfaces of the electrodes to correspondingly cover the lower end surfaces while extending downward from the lower end surfaces, and an electrode frame provided with a sidewall composed of an insulating body surrounding the electrodes, the electrode unit being immersed in the melt electrolyte, wherein thicknesses of the second insulation members decrease toward distal ends of the second insulation members in an L-shaped cross-sectional configuration, with surfaces of the second insulation members only on the same sides of the cathode surface portions being set to be concaved toward the sides of the anode surface portions. an electrolysis vessel accommodating a melt electrolyte including a melt metal chloride; and an electrode unit provided with electrically conductive electrodes having anode surface portions and cathode surface portions associated with the anode surface portions, first insulation members fixedly attached to upper end surfaces of the electrodes to correspondingly cover the upper end surfaces while extending upward from the upper end surfaces, second insulation members fixedly attached to lower end surfaces of the electrodes to correspondingly cover the lower end surfaces while extending downward from the lower end surfaces, and an electrode frame provided with a sidewall composed of an insulating body surrounding the electrodes, the electrode unit being immersed in the melt electrolyte, wherein thicknesses of the second insulation members decrease toward distal ends of the second insulation members in an L-shaped cross-sectional configuration, with surfaces of the second insulation members only on the same sides of the cathode surface portions being set to be concaved toward the sides of the anode surface portions.
A method for controlling a flow of traffic, in which information about a period of time before a set of traffic lights changes to another traffic light phase is used to provide a driver of a vehicle with a speed recommendation for approaching the traffic lights, wherein a database is used to store a position and change times (Si) of a set of traffic lights, and said position and change times can be retrieved by a vehicle via a mobile radio communication link, and that the driver of the vehicle is provided with the speed recommendation using this information, characterized in that dynamic adaptation of traffic light phases involves the database being dynamically updated.
A robotic ground conveyor vehicle (100, 100') for transporting pallets comprising, - a loading surface with; - a plurality of vertically adjustable load support members (130, 140) for supporting a pallet carried by the robotic ground conveyor vehicle, wherein the load support members (130, 140) are arranged spaced apart on the loading surface and such that a pallet supported by the load support members (130, 140) may be engaged by forks of a forklift truck, characterised in that the loading surface extends in a longitudinal direction between a front end and a rear end of the robotic ground conveyor vehicle (100, 100'), the load support members (130, 140) are spaced apart at least in the longitudinal direction of the loading surface, the load support members are arranged in at least two rows (130', 130"), wherein each row comprises at least two load support members (130.1', 130.2'; 130.1", 130.2"), and wherein the load support members are spaced apart such that an opening is formed between at least two adjacent load support members (130.1', 130.2'; 130.1", 130.2') of each row (130', 130"), wherein the opening is configured to receive a fork of a forklift truck. - a loading surface with; - a plurality of vertically adjustable load support members (130, 140) for supporting a pallet carried by the robotic ground conveyor vehicle, wherein the load support members (130, 140) are arranged spaced apart on the loading surface and such that a pallet supported by the load support members (130, 140) may be engaged by forks of a forklift truck, characterised in that the loading surface extends in a longitudinal direction between a front end and a rear end of the robotic ground conveyor vehicle (100, 100'), the load support members (130, 140) are spaced apart at least in the longitudinal direction of the loading surface, the load support members are arranged in at least two rows (130', 130"), wherein each row comprises at least two load support members (130.1', 130.2'; 130.1", 130.2"), and wherein the load support members are spaced apart such that an opening is formed between at least two adjacent load support members (130.1', 130.2'; 130.1", 130.2') of each row (130', 130"), wherein the opening is configured to receive a fork of a forklift truck.
Apparatus for signalling a fault in a vehicle, having a first interface to a control device for diagnosing the fault and having a second interface to an output unit for outputting a warning to other road users in the surroundings of the vehicle, the output unit having a third interface to a vehicle-to-vehicle communication device for outputting the warning to other road users, having an evaluation unit which receives a diagnosis of the fault from the control device via the first interface, determines, on the basis of the diagnosis of the fault, that a change in a driving behaviour of the vehicle can be expected as a result of the fault and causes a warning based on the fault to be output via the second interface.
Ornithine for use in preventing or treating hyperammonemia in a subject having chronic liver disease or acute liver failure, wherein said ornithine is used in combination with at least one of phenylacetate and phenylbutyrate.
A process for producing a conjugated diene polymer, the process comprising: a production step of producing a conjugated diene polymer solution comprising a conjugated diene polymer and a solvent; and a devolatilization step of heating the conjugated diene polymer solution while conveying the conjugated diene polymer solution with an apparatus comprising rotary twin screws, thereby devolatilizing the solvent, wherein a motor current value of the screw in the devolatilization step and a motor current value of the screw under no load satisfy following relational expression: 1.05 ≤ I 1 / I 0 ≤ 2.00 wherein I 1 represents the motor current value of the screw in the devolatilization step and I 0 represents the motor current value of the screw under no load. a production step of producing a conjugated diene polymer solution comprising a conjugated diene polymer and a solvent; and a devolatilization step of heating the conjugated diene polymer solution while conveying the conjugated diene polymer solution with an apparatus comprising rotary twin screws, thereby devolatilizing the solvent, wherein a motor current value of the screw in the devolatilization step and a motor current value of the screw under no load satisfy following relational expression: 1.05 ≤ I 1 / I 0 ≤ 2.00 wherein I 1 represents the motor current value of the screw in the devolatilization step and I 0 represents the motor current value of the screw under no load.
Phase detector circuitry configured to measure a phase of a signal, the phase detector circuitry comprising: • oscillator circuitry configured to provide a sawtooth oscillator signal (OSC st); • edge detection and correction circuitry configured to: • receive an in-phase signal (I in) and a quadrature signal (Q in); • provide an edge detection signal (E det) during each edge of the in-phase signal and the quadrature signal; and • provide an edge correction signal (E corr), wherein the edge correction signal is based on whether the edge is in the in-phase signal or the quadrature signal and whether the edge is a rising edge or a falling edge; • sampler circuitry coupled to the oscillator circuitry and the edge detection and correction circuitry, the sampler circuitry configured to sample the sawtooth oscillator signal in response to the edge detection signal; and • adder circuitry coupled to the sampler circuitry and the edge detection and correction circuitry, the adder circuitry configured to subtract the edge correction signal from the sampled sawtooth oscillator signal (OSC st (t)) to provide a phase estimate signal (PH est). • oscillator circuitry configured to provide a sawtooth oscillator signal (OSC st); • edge detection and correction circuitry configured to: • receive an in-phase signal (I in) and a quadrature signal (Q in); • provide an edge detection signal (E det) during each edge of the in-phase signal and the quadrature signal; and • provide an edge correction signal (E corr), wherein the edge correction signal is based on whether the edge is in the in-phase signal or the quadrature signal and whether the edge is a rising edge or a falling edge; • receive an in-phase signal (I in) and a quadrature signal (Q in); • provide an edge detection signal (E det) during each edge of the in-phase signal and the quadrature signal; and • provide an edge correction signal (E corr), wherein the edge correction signal is based on whether the edge is in the in-phase signal or the quadrature signal and whether the edge is a rising edge or a falling edge; • sampler circuitry coupled to the oscillator circuitry and the edge detection and correction circuitry, the sampler circuitry configured to sample the sawtooth oscillator signal in response to the edge detection signal; and • adder circuitry coupled to the sampler circuitry and the edge detection and correction circuitry, the adder circuitry configured to subtract the edge correction signal from the sampled sawtooth oscillator signal (OSC st (t)) to provide a phase estimate signal (PH est).
A node (110, 115), comprising: one or more processors (1420, 1520), the one or more processors (1420, 1520) configured to: determine a first route from a first source node to a destination, the first route comprising one or more relay nodes (515, 615); and determine an energy-harvesting routing metric, characterised in that the energy-harvesting routing metric maximizes interference between the first and second routes for use in determining a second route from a second source node to the destination; and in that the one or more processors are further configured to determine the second route from the second source node to the destination, the determined second route comprising one or more relay nodes (515, 615) not already chosen for the first route and selected to maximize the determined energy-harvesting routing metric. determine a first route from a first source node to a destination, the first route comprising one or more relay nodes (515, 615); and determine an energy-harvesting routing metric, characterised in that the energy-harvesting routing metric maximizes interference between the first and second routes for use in determining a second route from a second source node to the destination; and in that the one or more processors are further configured to determine the second route from the second source node to the destination, the determined second route comprising one or more relay nodes (515, 615) not already chosen for the first route and selected to maximize the determined energy-harvesting routing metric.