mhurhangee/ep-ind-claims huggingface dataset:
A high strength steel sheet having excellent workability, comprising: in weight%, 0.06 to 0.18% of carbon, 1.5% or less and excluding 0% of silicon (Si), 1.7 to 2.5% of manganese (Mn), 0.15% or less and excluding 0% of molybdenum (Mo), 1.0% or less and excluding 0%, of chromium (Cr), 0.1% or less of phosphorus, 0.01% or less of sulfur, 1.0% or less and excluding 0%, of aluminum (Al), 0.001 to 0.04% of titanium (Ti), 0.001 to 0.04% of niobium (Nb), 0.01% or less of nitrogen, 0.01% or less and excluding 0%, of boron, 0.05% or less and excluding 0%, of antimony (Sb), and a remainder of Fe and other inevitable impurities, and as a microstructure, ferrite having an area fraction of 40% or more and bainite, fresh martensite, and retained austenite as a remainder, wherein a ratio (Mb/Mt) of a total fraction (Mt) of the fresh martensite and a fraction (Mb) of fresh martensite adjacent to the bainite is 60% or more, and a ratio (Ms/Mt) of the total fraction (Mt) of the fresh martensite and a fraction (Ms) of fine fresh martensite having an average particle size of 3 μm or less is 60% or more, wherein in the high strength steel sheet, a relationship of C, Si, Al, Mn, Mo and Cr satisfies the following relationship 1, wherein both the composition and microstructure are at 1/4 depth, wherein the high strength steel sheet comprises a zinc-based plating layer on at least one surface, wherein the high strength steel sheet has a tensile strength of 780 MPa or more, and a relationship between a strain hardening coefficient (n), a ductility (El), a tensile strength, and a yield ratio measured in a strain section of 4 to 6% satisfies the following relationship 2, Si + Al + C / Mn + Mo + Cr ≥ 0.25 where respective elements indicate a weight content, n × El × TS / YR ≥ 5000 where the unit is MPa%. wherein a ratio (Mb/Mt) of a total fraction (Mt) of the fresh martensite and a fraction (Mb) of fresh martensite adjacent to the bainite is 60% or more, and a ratio (Ms/Mt) of the total fraction (Mt) of the fresh martensite and a fraction (Ms) of fine fresh martensite having an average particle size of 3 μm or less is 60% or more, wherein in the high strength steel sheet, a relationship of C, Si, Al, Mn, Mo and Cr satisfies the following relationship 1, wherein both the composition and microstructure are at 1/4 depth, wherein the high strength steel sheet comprises a zinc-based plating layer on at least one surface, wherein the high strength steel sheet has a tensile strength of 780 MPa or more, and a relationship between a strain hardening coefficient (n), a ductility (El), a tensile strength, and a yield ratio measured in a strain section of 4 to 6% satisfies the following relationship 2, Si + Al + C / Mn + Mo + Cr ≥ 0.25 where respective elements indicate a weight content, n × El × TS / YR ≥ 5000 where the unit is MPa%.
A pusher drum for the tobacco processing industry having receiving grooves arranged sequentially in a row in the peripheral direction of the pusher drum for rod-shaped articles of the tobacco processing industry, in particular filter rods, and/or filter pieces, and/or segmented products, wherein the pusher drum can be rotated about an axis of rotation, wherein the receiving grooves each have a groove bottom, wherein the groove bottom of the receiving grooves are each bordered by a groove bar projecting in the delivery direction of the pusher drum, and by a groove bar trailing in the delivery direction of the pusher drum, wherein the groove bars extend parallel to the axis of rotation of the pusher drum, wherein the rod-shaped articles can be pushed or are pushed in the receiving grooves along the groove bars in the longitudinally axial direction during the rotation of the pusher drum, wherein the groove bars have at least one groove bar region that is stepped in height, characterized in that the groove bars of the receiving grooves have a maximum height between the groove bottom and a top side of the groove bars outside of the stepped groove bar region, wherein the stepped groove bar region or the stepped groove bar regions have a height between 15% and 85% of the maximum height, in particular between 20% and 60% of the maximum height.
A method performed by a terminal in a wireless communication system, the method comprising: identifying at least one of a master information block, MIB, or a system information block, SIB, transmitted from a first base station, wherein at least one of the MIB or the SIB includes configuration information on an initial access to a second base station, and wherein the configuration information includes information on a transmit power of a synchronization signal block, SSB, of a second cell controlled by the second base station and random access channel configuration information for the second cell; obtaining a pathloss of the SSB of the second cell based on the information on the transmit power of the SSB; identifying the second cell for transmitting a random access preamble on a random access channel based on the obtained pathloss; transmitting the random access preamble on the random access channel to the second base station based on the random access channel configuration information; receiving a random access response, RAR, in response to the random access preamble from the first base station; and performing a scheduled transmission to the second base station based on the RAR. identifying at least one of a master information block, MIB, or a system information block, SIB, transmitted from a first base station, wherein at least one of the MIB or the SIB includes configuration information on an initial access to a second base station, and wherein the configuration information includes information on a transmit power of a synchronization signal block, SSB, of a second cell controlled by the second base station and random access channel configuration information for the second cell; obtaining a pathloss of the SSB of the second cell based on the information on the transmit power of the SSB; identifying the second cell for transmitting a random access preamble on a random access channel based on the obtained pathloss; transmitting the random access preamble on the random access channel to the second base station based on the random access channel configuration information; receiving a random access response, RAR, in response to the random access preamble from the first base station; and performing a scheduled transmission to the second base station based on the RAR.
An information processing apparatus capable of setting arrangement of a structural member of a robot system which includes an imaging unit and which works based on an image captured by the imaging unit, the information processing apparatus comprising: an arrangement unit configured to arrange a virtual object corresponding to the structural member in a virtual space corresponding to a working space of the robot system; a first acquisition unit configured to acquire a virtual space image in the virtual space which corresponds to the captured image and in which the virtual object is arranged; and a second acquisition unit configured to acquire an evaluation value indicating adaptation of arrangement of the virtual object to the work of the robot system based on the virtual space image. an arrangement unit configured to arrange a virtual object corresponding to the structural member in a virtual space corresponding to a working space of the robot system; a first acquisition unit configured to acquire a virtual space image in the virtual space which corresponds to the captured image and in which the virtual object is arranged; and a second acquisition unit configured to acquire an evaluation value indicating adaptation of arrangement of the virtual object to the work of the robot system based on the virtual space image.
A method for reducing the amount of CO 2 discharged into the atmosphere with the exhaust gas stream emitted by an internal combustion engine used to power a vehicle, the method comprising: a. passing the exhaust gas stream into contact with a CO 2 capture agent on board the vehicle, the capture agent having a predetermined capacity to extract CO 2 from the exhaust stream; b. discharging a treated exhaust gas stream having a reduced CO 2 content into the atmosphere; c. discontinuing the passage of the exhaust gas stream in contact with the capture agent when the concentration of the CO 2 extracted by the capture agent has reached a predetermined level; d. heating the CO 2 capture agent to release the extracted CO 2 and regenerate the capture agent; e. recovering an essentially pure CO 2 gas stream; f. recovering heat and energy from the hot exhaust gas stream emitted by the ICE by means of a heat recovery component that converts heart energy into mechanical work or electrical power; g. compressing the recovered CO 2 gas on board the vehicle to reduce its volume, wherein at least a portion of electrical power and/or mechanical work produced by the heat recovery component in step (f) is used to power auxiliary electrical and/or mechanical systems on board of the vehicle and using the electrical power to compress the CO 2; and h. temporarily storing the compressed CO 2 on board the vehicle. a. passing the exhaust gas stream into contact with a CO 2 capture agent on board the vehicle, the capture agent having a predetermined capacity to extract CO 2 from the exhaust stream; b. discharging a treated exhaust gas stream having a reduced CO 2 content into the atmosphere; c. discontinuing the passage of the exhaust gas stream in contact with the capture agent when the concentration of the CO 2 extracted by the capture agent has reached a predetermined level; d. heating the CO 2 capture agent to release the extracted CO 2 and regenerate the capture agent; e. recovering an essentially pure CO 2 gas stream; f. recovering heat and energy from the hot exhaust gas stream emitted by the ICE by means of a heat recovery component that converts heart energy into mechanical work or electrical power; g. compressing the recovered CO 2 gas on board the vehicle to reduce its volume, wherein at least a portion of electrical power and/or mechanical work produced by the heat recovery component in step (f) is used to power auxiliary electrical and/or mechanical systems on board of the vehicle and using the electrical power to compress the CO 2; and h. temporarily storing the compressed CO 2 on board the vehicle.
A system for generating a vanishing illusion, the system comprising: a first room; a second room, wherein the second room mirrors the first room; a wall separating the first room from the second room, wherein the wall comprises: a transition glass comprising a mirrored portion and a transparent portion; and a frame through which the transition glass is configured to move; and an actuator configured to move the transition glass with respect to the frame such that the mirrored portion is in alignment or out of alignment relative to the frame based on a trigger or a condition being met, such that, in use, depending on the position of the transition glass relative to the frame, a guest in the first room views a mirrored image of the first room or views the second room through the transparent portion. a first room; a second room, wherein the second room mirrors the first room; a wall separating the first room from the second room, wherein the wall comprises: a transition glass comprising a mirrored portion and a transparent portion; and a frame through which the transition glass is configured to move; and an actuator configured to move the transition glass with respect to the frame such that the mirrored portion is in alignment or out of alignment relative to the frame based on a trigger or a condition being met, such that, in use, depending on the position of the transition glass relative to the frame, a guest in the first room views a mirrored image of the first room or views the second room through the transparent portion. a transition glass comprising a mirrored portion and a transparent portion; and a frame through which the transition glass is configured to move; and an actuator configured to move the transition glass with respect to the frame such that the mirrored portion is in alignment or out of alignment relative to the frame based on a trigger or a condition being met, such that, in use, depending on the position of the transition glass relative to the frame, a guest in the first room views a mirrored image of the first room or views the second room through the transparent portion.
A vehicle travel control method for performing autonomous travel control of a vehicle to a target stop position on a basis of a remote operation command from a remote operation device located outside the vehicle, the vehicle having an autonomous travel control function including an autonomous parking control and an automatic locking/unlocking function for a door of the vehicle, wherein the autonomous travel control is executed under a precondition that a locking/unlocking device for the door is unlocked, characterized in that the vehicle travel control method comprises: prohibiting the automatic locking/unlocking function from locking the locking/unlocking device for the door while the vehicle is executing the autonomous travel control; detecting (S161, S162) a distance between the vehicle and the remote operation device when the vehicle stops at the target stop position; setting a temporal interval (t) from when the vehicle stops until the locking/unlocking device for the door is locked using the automatic locking/unlocking function to a temporal interval (t) in accordance with the distance; and locking the locking/unlocking device for the door using the automatic locking/unlocking function when the temporal interval (t) has elapsed. prohibiting the automatic locking/unlocking function from locking the locking/unlocking device for the door while the vehicle is executing the autonomous travel control; detecting (S161, S162) a distance between the vehicle and the remote operation device when the vehicle stops at the target stop position; setting a temporal interval (t) from when the vehicle stops until the locking/unlocking device for the door is locked using the automatic locking/unlocking function to a temporal interval (t) in accordance with the distance; and locking the locking/unlocking device for the door using the automatic locking/unlocking function when the temporal interval (t) has elapsed.
Method for operating a heating system, the heating system having a burner, at least two burner circuits (12, 14) and a water tank, it being possible for the temperature of a heating medium for the at least two burner circuits (12, 14) to be controlled via the burner, specifically on the one hand for the first burner circuit for heating radiators and on the other hand for the second burner circuit for heating water stored in the water tank, and the heating system also having a solar system with a solar circuit and a solar collector, via which the temperature of heating medium for the solar circuit can be controlled in order to heat the water stored in the water tank via the solar circuit, additionally or alternatively to the second burner circuit, characterized in that when a temperature of the water stored in the water tank reaches or exceeds a first limiting temperature and, in addition, a temperature of the heating medium for the solar circuit in the region of the solar collector, which is measured by means of a temperature sensor assigned to the solar collector, reaches or exceeds a defined limiting temperature, the heating system is operated in such a way that the heating medium of the two burner circuits (12, 14) is heated via the water stored in the water tank, for which purpose conveying devices (16, 17) of the two burner circuits (12, 14) are switched on and the burner is preferably switched off.
A process for carrying out an oxidation on a sprayable feed including a crude acid dehydration product of a natural hexose as a furanic substrate to be oxidized and a catalytically effective combination of cobalt, manganese, and bromide components for catalyzing the oxidation of the furanic substrate, comprising the steps of: acid dehydrating the natural hexose to provide a crude dehydration product comprising 5-hydroxymethylfurfural and humins as a furanic substrate to be oxidized, directly incorporating the crude dehydration product into the sprayable feed spraying the feed into a reactor vessel; supplying oxygen or an oxygen-containing gas as an oxidant to the reactor vessel; reacting the furanic substrate and the oxidant in the presence of the cobalt, manganese and bromide components to form 2,5-furandicarboxylic acid; recovering 2,5-furandicarboxylic acid from the reactor vessel; and limiting the exothermic temperature rise due to the reaction, through a selection and control of the operating pressure within the reactor vessel. acid dehydrating the natural hexose to provide a crude dehydration product comprising 5-hydroxymethylfurfural and humins as a furanic substrate to be oxidized, directly incorporating the crude dehydration product into the sprayable feed spraying the feed into a reactor vessel; supplying oxygen or an oxygen-containing gas as an oxidant to the reactor vessel; reacting the furanic substrate and the oxidant in the presence of the cobalt, manganese and bromide components to form 2,5-furandicarboxylic acid; recovering 2,5-furandicarboxylic acid from the reactor vessel; and limiting the exothermic temperature rise due to the reaction, through a selection and control of the operating pressure within the reactor vessel.
A method of producing an aerosol-generating article for generating an aerosol upon heating, the method comprising the steps of: forming a rod by: providing a first continuous sheet comprising an aerosol-forming material, providing a second continuous sheet comprising a thermally-conductive material, simultaneously gathering the first and second continuous sheets transversely relative to the longitudinal axes thereof; circumscribing the gathered sheets with a wrapper to form a continuous rod, and severing the continuous rod into a plurality of discrete rods; combining one of the plurality of discrete rods with a hollow cellulose acetate tube, a spacer element, and a mouthpiece filter, arranged sequentially and in coaxial alignment circumscribing the rod, hollow cellulose acetate tube, spacer element, and mouthpiece filter with a cigarette paper. forming a rod by: providing a first continuous sheet comprising an aerosol-forming material, providing a second continuous sheet comprising a thermally-conductive material, simultaneously gathering the first and second continuous sheets transversely relative to the longitudinal axes thereof; circumscribing the gathered sheets with a wrapper to form a continuous rod, and severing the continuous rod into a plurality of discrete rods; providing a first continuous sheet comprising an aerosol-forming material, providing a second continuous sheet comprising a thermally-conductive material, simultaneously gathering the first and second continuous sheets transversely relative to the longitudinal axes thereof; circumscribing the gathered sheets with a wrapper to form a continuous rod, and severing the continuous rod into a plurality of discrete rods; combining one of the plurality of discrete rods with a hollow cellulose acetate tube, a spacer element, and a mouthpiece filter, arranged sequentially and in coaxial alignment circumscribing the rod, hollow cellulose acetate tube, spacer element, and mouthpiece filter with a cigarette paper.
Sole for a running shoe with a soft-elastic midsole, which comprises an underside coming at least partially into contact with the ground during running, wherein the midsole comprises a plurality of channels (3a, 3b, 3c and 3d) running in the transverse direction, wherein the channels (3a, 3b, 3c and 3d) are arranged in a lateral area of the midsole in a horizontal plane, and wherein at least a portion of the channels (3a, 3b) is arranged in the forefoot area and/or a portion of the channels is arranged in the midfoot area and/or a portion of the channels is arranged in the heel area of the midsole, and wherein the channels (3a, 3b, 3c and 3d) are each delimited in the longitudinal direction by a front wall and a rear wall, characterized in that the channels (3a, 3b, 3cand 3d) have an elongated shape in cross-section along the running direction and the channels (3a, 3b, 3c and 3d) are deformable vertically and/or horizontally in the longitudinal direction until closure under the action of forces occurring during running, acting vertically and/or in the longitudinal direction.
Pipe joint for connecting a first pipe to a second pipe, comprising a hollow pin member on the side of the first pipe, comprising a hollow box member, which is at least partially surrounding the pin member and which is connected to a second pipe, wherein a first ring is placed near an end of said pin member and a second ring is engaged with the box member, and wherein the second ring abuts axially against the first ring, wherein the second ring is generally extending from the first ring in the direction opposite to said end of the pin member which is next to the box member, and wherein the first ring abuts axially against said box member, characterized in that the first ring is connected to the pin member via a threaded connection.
Process for producing polycrystalline silicon, comprising depositing polycrystalline silicon on support bodies present in at least one reactor to obtain polycrystalline silicon rods, deinstalling the polycrystalline silicon rods from the at least one reactor, comminuting the deinstalled polycrystalline silicon rods into chunks, wherein the deinstallation of the polycrystalline silicon rods from the at least one reactor is followed by, and the comminution of the deinstalled polycrystalline silicon rods into chunks is preceded by, classification of the polycrystalline silicon in rod form into at least two quality classes on the basis of at least one feature, said at least two quality classes being sent to separate comminuting steps.
A method for open-loop and closed-loop control of an internal combustion engine, wherein the rail pressure (pCR) is controlled by means of a low-pressure side suction throttle as a first pressure regulator in a closed-loop rail pressure control circuit; and wherein a rail pressure disturbance variable (VDRV) for influencing the rail pressure (pCR) is generated by means of a high-pressure side pressure control valve as a second pressure regulator, by which fuel is commanded from the rail back into a fuel tank, characterized in that the rail pressure disturbance variable (VDRV) is calculated as a function of the actual rail pressure (pCR) and a nominal volume flow (VDV) of the pressure control valve by means of a characteristic diagram for the pressure control valve, wherein the nominal volume flow (VDV) of the pressure control valve is calculated as a function of a nominal injection quantity, alternatively, a nominal torque, and an engine speed (nMOT) by means of a characteristic diagram for the nominal volume flow, and wherein the characteristic diagram for the nominal volume flow is configured so that a nominal volume flow (VDV) having a positive value is calculated in a low-load range, and a nominal volume flow (VDV) of zero is calculated in a normal operating range.