mhurhangee/ep-ind-claims huggingface dataset:
A high-strength steel sheet having high impact resistance, the steel sheet comprising, by weight%, carbon: 0.05% to 0.14%, silicon (Si): 0.01% to 1.0%, manganese (Mn): 1.5% to 2.5%, aluminum (Al): 0.01% to 0.1%, chromium (Cr): 0.005% to 1.0%, phosphorus: 0.001% to 0.05%, sulfur: 0.001% to 0.01%, nitrogen: 0.001% to 0.01%, niobium (Nb): 0.005% to 0.06%, titanium (Ti): 0.005% to 0.11%, and the balance of iron (Fe) and inevitable impurities, wherein the steel sheet has a microstructure comprising ferrite and bainite in a total area fraction of 90% or more, and the steel sheet has a value of 0.05 to 1.0 as a shear texture ( <112>, <111>) area ratio of a center region ranging deeper than 1/10t to 1/2t in a thickness direction, t refers to thickness in mm, and a surface region ranging from a surface to 1/10t in the thickness direction, wherein the ferrite is contained in an area fraction of 10 to 80%, wherein the steel sheet has a tensile strength of 780MPa or more, wherein the microstructure and mechanical properties are measured with the respective methods disclosed in the description. the steel sheet has a value of 0.05 to 1.0 as a shear texture ( <112>, <111>) area ratio of a center region ranging deeper than 1/10t to 1/2t in a thickness direction, t refers to thickness in mm, and a surface region ranging from a surface to 1/10t in the thickness direction, wherein the ferrite is contained in an area fraction of 10 to 80%, wherein the steel sheet has a tensile strength of 780MPa or more, wherein the microstructure and mechanical properties are measured with the respective methods disclosed in the description.
An automatic temperature control device for an internal combustion engine comprising: an engine cylinder; an electrical control unit; and a motorized water valve driven through the electrical control unit, wherein the motorized water valve is used to control the temperature of the engine cylinder, the motorized water valve comprising a non-magnetic housing assembly; a rotor casing assembly fastened to the housing assembly; and an electromagnetic assembly, comprising the rotor casing assembly and an insert O-ring for external sealing, wherein said rotor casing assembly comprises an inlet port, a main flow port and a bypass port for supplying coolant to the engine cylinder, characterized in that, the motorized water valve further comprises a brushless DC motor (BLDC) for driving said valve, and the electrical control unit controls the ON and OFF condition of the motorized valve, whereby during ON condition the said main flow port remains close and said bypass port remains open for supplying coolant to the engine cylinder whereas during OFF condition said main flow port remains open and said bypass port remains close, the electrical control unit being able to place the motorized water valve in intermediary conditions, with both the main flow port and the bypass port closed or opened simultaneously. an engine cylinder; an electrical control unit; and a motorized water valve driven through the electrical control unit, wherein the motorized water valve is used to control the temperature of the engine cylinder, the motorized water valve comprising a non-magnetic housing assembly; a rotor casing assembly fastened to the housing assembly; and an electromagnetic assembly, comprising the rotor casing assembly and an insert O-ring for external sealing, wherein said rotor casing assembly comprises an inlet port, a main flow port and a bypass port for supplying coolant to the engine cylinder, characterized in that, the motorized water valve further comprises a brushless DC motor (BLDC) for driving said valve, and the electrical control unit controls the ON and OFF condition of the motorized valve, whereby during ON condition the said main flow port remains close and said bypass port remains open for supplying coolant to the engine cylinder whereas during OFF condition said main flow port remains open and said bypass port remains close, the electrical control unit being able to place the motorized water valve in intermediary conditions, with both the main flow port and the bypass port closed or opened simultaneously.
Method for determining a traffic gap between two vehicles for a lane change for a vehicle, comprising identification of the traffic gap on the basis of a first detection which is based on at least one vehicle-to-vehicle status message from at least one further vehicle, wherein, using the first detection, an area is determined in the oncoming traffic in which the traffic gap will be found with a sufficiently high probability; longitudinal control of the vehicle in parallel with the traffic gap identified with a sufficiently high probability using the first detection; and identification of the traffic gap on the basis of a second detection which is based on an on-board sensor system of the vehicle, when the traffic gap identified with a sufficiently high probability has entered a detection range of the on-board sensor system due to the longitudinal control. longitudinal control of the vehicle in parallel with the traffic gap identified with a sufficiently high probability using the first detection; and identification of the traffic gap on the basis of a second detection which is based on an on-board sensor system of the vehicle, when the traffic gap identified with a sufficiently high probability has entered a detection range of the on-board sensor system due to the longitudinal control.
An electric wire connecting structure comprising: a connector; a pair of electrical wires, one ends of which are connected to the connector; a pair of crimped terminals (29a, 29b) that are respectively connected to the other ends of the pair of electric wires; and a resin block to which the pair of crimped terminals (29a, 29b) are attached in a state that the pair of electric wires are curved, wherein each of the pair of crimped terminals (29a, 29b) including: a terminal part which is suitable to be connected to an external circuit; a crimped part and a conductor that connects the terminal part and the crimped part, the conductor being located between the terminal part and the crimped part; wherein the crimped part is crimped to the core wire of a respective electric wire and the electric wire is extended toward the conductor; and wherein the pair of electric wires are wired in a crossed state between the connector and the pair of crimped terminals (29a, 29b), characterised in that in each of the pair of crimped terminals (29a, 29b), the terminal part is bent in a direction substantially perpendicular to an extending direction of the conductor; and in that the pair of crimped terminals (29a, 29b) are so formed that angles that imaginary axes of the electric wires which are crimped to the crimped parts make with imaginary planes including the terminal parts are different from each other. a connector; a pair of electrical wires, one ends of which are connected to the connector; a pair of crimped terminals (29a, 29b) that are respectively connected to the other ends of the pair of electric wires; and a resin block to which the pair of crimped terminals (29a, 29b) are attached in a state that the pair of electric wires are curved, wherein each of the pair of crimped terminals (29a, 29b) including: a terminal part which is suitable to be connected to an external circuit; a crimped part and a conductor that connects the terminal part and the crimped part, the conductor being located between the terminal part and the crimped part; a terminal part which is suitable to be connected to an external circuit; a crimped part and a conductor that connects the terminal part and the crimped part, the conductor being located between the terminal part and the crimped part; wherein the crimped part is crimped to the core wire of a respective electric wire and the electric wire is extended toward the conductor; and wherein the pair of electric wires are wired in a crossed state between the connector and the pair of crimped terminals (29a, 29b), characterised in that in each of the pair of crimped terminals (29a, 29b), the terminal part is bent in a direction substantially perpendicular to an extending direction of the conductor; and in that the pair of crimped terminals (29a, 29b) are so formed that angles that imaginary axes of the electric wires which are crimped to the crimped parts make with imaginary planes including the terminal parts are different from each other.
A method for controlling operation of an inverter having an output configured to be connected in parallel with an output of a single-phase generator, wherein the single-phase generator includes a stator and a rotor, the method comprising the steps of: receiving an input signal at the inverter, the input signal corresponding to an angular position of the rotor in the single-phase generator; and executing a modulation routine in the inverter to generate an alternating current voltage, having a phase angle, at the output of the inverter, wherein the modulation routine receives the input signal corresponding to the angular position of the rotor and synchronizes the phase angle of the AC voltage to the angular position of the rotor, wherein the inverter is configured to execute the modulation routine in a first operating mode and in a second operating mode and wherein during the first operating mode, the inverter executes the modulation routine independent of the input signal and during the second operating mode, the inverter executes the modulation routine to synchronize the phase angle of the AC voltage to the angular position of the rotor, wherein the method further comprises the initial step of connecting an angular position sensor to a shaft of the generator, wherein the angular position sensor generates the input signal to the inverter. receiving an input signal at the inverter, the input signal corresponding to an angular position of the rotor in the single-phase generator; and executing a modulation routine in the inverter to generate an alternating current voltage, having a phase angle, at the output of the inverter, wherein the modulation routine receives the input signal corresponding to the angular position of the rotor and synchronizes the phase angle of the AC voltage to the angular position of the rotor, wherein the inverter is configured to execute the modulation routine in a first operating mode and in a second operating mode and wherein during the first operating mode, the inverter executes the modulation routine independent of the input signal and during the second operating mode, the inverter executes the modulation routine to synchronize the phase angle of the AC voltage to the angular position of the rotor, wherein the method further comprises the initial step of connecting an angular position sensor to a shaft of the generator, wherein the angular position sensor generates the input signal to the inverter.
Device for generating alternating current, comprising a comb-shaped magnet body consisting of a yoke and three rods substantially perpendicular thereto, namely a centre rod and two side rods substantially parallel to the centre rod, a winding arranged on the centre rod, a plunger located in a cylinder and forming cavities within the cylinder, wherein an induced voltage is generated in the winding by the periodic movement of the plunger, wherein the plunger is made of a material with a high magnetic permeability, wherein the plunger is set in motion by vapour or gas expansion, the vapour or gas thereby being under pressure, and wherein the vapour or gas is periodically fed into one or the other cavity of the cylinder, wherein the plunger in the end positions closes each one of the magnetic fluxes of the side bars via the centre bar, and wherein the side bars (5, 6) have unequal permanent magnetisations.
A seat belt device comprising: a webbing whose longitudinal direction intermediate portion passes-through a through-hole formed in a tongue of the seat belt device, and at which the tongue is provided so as to be moveable in the longitudinal direction, and at which, in an applied state to a body of a passenger, further toward one longitudinal direction end side than the through-hole, the webbing is a lap webbing that restrains a waist portion of the passenger, and, further toward the other longitudinal direction end side than the through-hole, the webbing is a shoulder webbing that restrains a chest portion and a shoulder portion of the passenger; and characterized by further comprising a dilatant characteristic portion that is provided at a region of the webbing, which region includes a portion that is positioned at an inner side of the through-hole in the applied state, and that is structured to include a material having a dilatant characteristic of hardening due to load of a predetermined magnitude or greater being applied. a webbing whose longitudinal direction intermediate portion passes-through a through-hole formed in a tongue of the seat belt device, and at which the tongue is provided so as to be moveable in the longitudinal direction, and at which, in an applied state to a body of a passenger, further toward one longitudinal direction end side than the through-hole, the webbing is a lap webbing that restrains a waist portion of the passenger, and, further toward the other longitudinal direction end side than the through-hole, the webbing is a shoulder webbing that restrains a chest portion and a shoulder portion of the passenger; and characterized by further comprising a dilatant characteristic portion that is provided at a region of the webbing, which region includes a portion that is positioned at an inner side of the through-hole in the applied state, and that is structured to include a material having a dilatant characteristic of hardening due to load of a predetermined magnitude or greater being applied.
A computing device, comprising: - a non-volatile storage storing device specific identifier base data; and - a processor configured to: - validate a certificate of an application being executed on the computing device, the certificate containing a code signer identifier for a code signer of the application; - receive a request for an application code signer-specific ID from the application, wherein the request for the application code signer-specific ID contains the code signer ID; - generate, on the computing device, the application code signer-specific ID from the code signer ID and the device specific ID base data, wherein to generate the application code signer-specific ID the processor is configured to combine the code signer ID with the device specific ID base data and calculate a one-way hash of the combination of the code signer ID and the device specific ID base data; and - return the generated application code signer-specific ID to the application. - a non-volatile storage storing device specific identifier base data; and - a processor configured to: - validate a certificate of an application being executed on the computing device, the certificate containing a code signer identifier for a code signer of the application; - receive a request for an application code signer-specific ID from the application, wherein the request for the application code signer-specific ID contains the code signer ID; - generate, on the computing device, the application code signer-specific ID from the code signer ID and the device specific ID base data, wherein to generate the application code signer-specific ID the processor is configured to combine the code signer ID with the device specific ID base data and calculate a one-way hash of the combination of the code signer ID and the device specific ID base data; and - return the generated application code signer-specific ID to the application. - validate a certificate of an application being executed on the computing device, the certificate containing a code signer identifier for a code signer of the application; - receive a request for an application code signer-specific ID from the application, wherein the request for the application code signer-specific ID contains the code signer ID; - generate, on the computing device, the application code signer-specific ID from the code signer ID and the device specific ID base data, wherein to generate the application code signer-specific ID the processor is configured to combine the code signer ID with the device specific ID base data and calculate a one-way hash of the combination of the code signer ID and the device specific ID base data; and - return the generated application code signer-specific ID to the application.
A device for spacecraft attitude control, which has a container partially filled with a magnetizable fluid and a device for generating at least one rotating or wandering magnetic field, with which the magnetizable fluid in the container can be magnetized and made to continuously move on a closed orbit in an orbital plane by means of the rotation or movement of the at least one magnetic field, wherein the device for generating at least one rotating or wandering magnetic field has several electric coils for generating the magnetic field, whose coil axes lie in the orbital plane and each are aligned perpendicularly to a next section of the closed orbit, and a controller, with which a phase-shifted current flow through the electric coils can be generated and controlled or regulated, characterized in that either an interior volume of the container remaining due to the only partial filling with the magnetizable fluid is filled up with a liquid medium, which has a higher density than the magnetizable fluid, and does not mix with the magnetizable fluid, or the container is filled with the magnetizable fluid in such a way that several partial volumes of the magnetizable fluid separated from each other are present. has a container partially filled with a magnetizable fluid and a device for generating at least one rotating or wandering magnetic field, with which the magnetizable fluid in the container can be magnetized and made to continuously move on a closed orbit in an orbital plane by means of the rotation or movement of the at least one magnetic field, wherein the device for generating at least one rotating or wandering magnetic field has several electric coils for generating the magnetic field, whose coil axes lie in the orbital plane and each are aligned perpendicularly to a next section of the closed orbit, and a controller, with which a phase-shifted current flow through the electric coils can be generated and controlled or regulated, characterized in that either an interior volume of the container remaining due to the only partial filling with the magnetizable fluid is filled up with a liquid medium, which has a higher density than the magnetizable fluid, and does not mix with the magnetizable fluid, or the container is filled with the magnetizable fluid in such a way that several partial volumes of the magnetizable fluid separated from each other are present.
A battery module, comprising: - at least one battery cell; - a protective circuit module electrically coupled to the battery cell and including a rigid printed circuit board; - at least one temperature sensitive element provided at a surface of the battery cell; - a flexible printed circuit board including a first end portion, a second end portion and an inner portion connecting the first end portion and the second end portion, the flexible printed circuit board being fixed with the first end portion and the second end portion to a surface of the rigid printed circuit board facing the battery cell such that the inner portion forms a loop, wherein the flexible printed circuit board is electrically connecting the protective circuit module and the temperature sensitive element and wherein the temperature sensitive element is centrally positioned on the inner portion of the flexible printed circuit board; and - a spring element being arranged within the loop of the flexible printed circuit board such that the temperature sensitive element is pushed towards the battery cell. - at least one battery cell; - a protective circuit module electrically coupled to the battery cell and including a rigid printed circuit board; - at least one temperature sensitive element provided at a surface of the battery cell; - a flexible printed circuit board including a first end portion, a second end portion and an inner portion connecting the first end portion and the second end portion, the flexible printed circuit board being fixed with the first end portion and the second end portion to a surface of the rigid printed circuit board facing the battery cell such that the inner portion forms a loop, wherein the flexible printed circuit board is electrically connecting the protective circuit module and the temperature sensitive element and wherein the temperature sensitive element is centrally positioned on the inner portion of the flexible printed circuit board; and - a spring element being arranged within the loop of the flexible printed circuit board such that the temperature sensitive element is pushed towards the battery cell.
A medical device for filtering emboli from blood flowing in a blood vessel of patient, the medical device comprising: an elongate support member; an elongate side branch member connected to the elongate support member; and a filter element being expandable from a collapsed configuration when the filter element is restrained to an expanded configuration when the filter element is unrestrained, wherein the filter element comprises a material having pores, wherein the filter element has proximal and distal portions, the filter element having a shape in the expanded configuration which defines an interior cavity having a proximal facing opening, the filter element being attached to the elongate side branch member by a proximal filter element slider and a distal filter element slider, the elongate side branch member being adapted to maintain the filter element centered in the lumen of the vessel, characterised in that the elongate side branch member is connected to the elongate support member by the proximal side branch member slider and the distal side branch member slider, the proximal filter element slider being configured to slide over the elongate side branch member, and the elongate side branch member angling away from the elongate support member over at least a portion of a length of the elongate side branch member to maintain the elongate support member centered in the lumen of the vessel; and wherein the elongate support member includes a proximal stop and a distal stop with both stops (109a, 109b) being distal to the distal side branch member slider and proximal of the distal filter element slider. an elongate support member; an elongate side branch member connected to the elongate support member; and a filter element being expandable from a collapsed configuration when the filter element is restrained to an expanded configuration when the filter element is unrestrained, wherein the filter element comprises a material having pores, wherein the filter element has proximal and distal portions, the filter element having a shape in the expanded configuration which defines an interior cavity having a proximal facing opening, the filter element being attached to the elongate side branch member by a proximal filter element slider and a distal filter element slider, the elongate side branch member being adapted to maintain the filter element centered in the lumen of the vessel, characterised in that the elongate side branch member is connected to the elongate support member by the proximal side branch member slider and the distal side branch member slider, the proximal filter element slider being configured to slide over the elongate side branch member, and the elongate side branch member angling away from the elongate support member over at least a portion of a length of the elongate side branch member to maintain the elongate support member centered in the lumen of the vessel; and wherein the elongate support member includes a proximal stop and a distal stop with both stops (109a, 109b) being distal to the distal side branch member slider and proximal of the distal filter element slider.