mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling an idling stop of a vehicle, the method comprising: determining whether or not predetermined conditions are met; performing an idling stop of an engine when the predetermined conditions are met; and cancelling the idling stop and restarting the engine upon detecting a disembarkation operation performed by a driver during the idling stop, characterized by: preventing the idling stop from being performed due to ending of the disembarkation operation performed by the driver until after the vehicle starts traveling, by setting a travel history condition flag as one of the predetermined conditions when the vehicle travels at or above a predetermined vehicle speed, the predetermined conditions being determined to be met on condition that the travel history condition flag is set, and resetting the travel history condition flag upon detecting the disembarkation operation has been performed by the driver. determining whether or not predetermined conditions are met; performing an idling stop of an engine when the predetermined conditions are met; and cancelling the idling stop and restarting the engine upon detecting a disembarkation operation performed by a driver during the idling stop, characterized by: preventing the idling stop from being performed due to ending of the disembarkation operation performed by the driver until after the vehicle starts traveling, by setting a travel history condition flag as one of the predetermined conditions when the vehicle travels at or above a predetermined vehicle speed, the predetermined conditions being determined to be met on condition that the travel history condition flag is set, and resetting the travel history condition flag upon detecting the disembarkation operation has been performed by the driver. setting a travel history condition flag as one of the predetermined conditions when the vehicle travels at or above a predetermined vehicle speed, the predetermined conditions being determined to be met on condition that the travel history condition flag is set, and resetting the travel history condition flag upon detecting the disembarkation operation has been performed by the driver.
A method of performing a masking process comprising the operations of: depositing a coating of photosensitive material on a substrate to be patterned; maintaining the coating of photosensitive material at a temperature below the freezing point of a phase change material; depositing droplets of the phase change material on the photosensitive material in a predetermined pattern; exposing the photosensitive material to ultraviolet light; and removing the phase change material; and removing the photosensitive material protected by the phase change material from exposure to the ultraviolet light, characterized in that depositing the photosensitive material includes depositing a spin-on polymer; depositing the spin-on polymer includes- depositing SU8, and depositing droplets of phase change material includes depositing a wax, and wherein removing the phase change material includes utilizing tetrahydrafuran. depositing a coating of photosensitive material on a substrate to be patterned; maintaining the coating of photosensitive material at a temperature below the freezing point of a phase change material; depositing droplets of the phase change material on the photosensitive material in a predetermined pattern; exposing the photosensitive material to ultraviolet light; and removing the phase change material; and removing the photosensitive material protected by the phase change material from exposure to the ultraviolet light, characterized in that depositing the photosensitive material includes depositing a spin-on polymer; depositing the spin-on polymer includes- depositing SU8, and depositing droplets of phase change material includes depositing a wax, and wherein removing the phase change material includes utilizing tetrahydrafuran.
Device for filling or for emptying a container with a liquid that is in particular intended for consumption, comprising a rod arranged on a holder as well as comprising a balloon-type body that is enveloping the rod and is liquid-tight relative to the liquid as well as gas-tight, wherein the rod with the balloon-type body is insertable into an opening of the container and, after complete insertion, the holder is secured on or in the opening of the container, and wherein, after insertion, the balloon-type body is fillable and inflatable with an expansion medium such that the balloon-type body contacts the inner wall surface of the container, wherein the distance between the lower end of the rod and the upper holder is automatically changeable depending on the distance between the lower base and the top opening of the container 1, wherein the lower end of the balloon-type body is attached to the lower end of the rod, characterized in that the distance change between the lower end of the rod and the holder is effected by inflation of the balloon-type body as well as - in reverse - by discharging the expansion medium.
A communication method between a terminal device and a network device in a network, comprising: receiving, by the terminal device, a first message from a shared channel of a plurality of network slices, wherein the first message comprises a plurality of network identifiers IDs, and the plurality of network IDs are in a one-to-one correspondence with the plurality of network slices; selecting, by the terminal device, a target network slice from the plurality of network slices; and obtaining access configuration information of the target network slice from network configuration information, wherein the first message further comprises access configuration information corresponding to each of the plurality of network IDs, and the terminal device updates the access configuration information comprised in the network configuration information based on the first message, and accessing, by the terminal device, the target network slice based on the access configuration information of the target network slice, wherein the network configuration information comprises a network ID of each of the plurality of network slices and the access configuration information of the target network slice. receiving, by the terminal device, a first message from a shared channel of a plurality of network slices, wherein the first message comprises a plurality of network identifiers IDs, and the plurality of network IDs are in a one-to-one correspondence with the plurality of network slices; selecting, by the terminal device, a target network slice from the plurality of network slices; and obtaining access configuration information of the target network slice from network configuration information, wherein the first message further comprises access configuration information corresponding to each of the plurality of network IDs, and the terminal device updates the access configuration information comprised in the network configuration information based on the first message, and accessing, by the terminal device, the target network slice based on the access configuration information of the target network slice, wherein the network configuration information comprises a network ID of each of the plurality of network slices and the access configuration information of the target network slice.
Method for fastening a stud to a substrate having a surface layer, comprising the following steps: a) providing a stud which has a stud diameter at an end side, b) providing an annular covering element having an inside diameter and an outside diameter, c) creating a recess in the substrate by removing, in particular machining, the surface layer in a defined surface region having a surface diameter, wherein the surface diameter is greater than the stud diameter and less than the outside diameter, d) liquefying the end side and/or the substrate in the recess, e) allowing the end side or the substrate to solidify in the recess, f) contacting the end side with the substrate in the recess during solidification, and g) covering the recess around the stud by means of the covering element. a) providing a stud which has a stud diameter at an end side, b) providing an annular covering element having an inside diameter and an outside diameter, c) creating a recess in the substrate by removing, in particular machining, the surface layer in a defined surface region having a surface diameter, wherein the surface diameter is greater than the stud diameter and less than the outside diameter, d) liquefying the end side and/or the substrate in the recess, e) allowing the end side or the substrate to solidify in the recess, f) contacting the end side with the substrate in the recess during solidification, and g) covering the recess around the stud by means of the covering element.
A method comprising, for each swath of an image to be printed: determining a sweep speed of an upcoming sweep of a printer head of a printer across a print medium for printing the swath of the image on the print medium; determining a distance by which to advance the print medium at least partially based on the determined sweep speed of the upcoming sweep; and advancing the print medium by the determined distance to enable printing of another swath, wherein the advancing of the print medium is performed between a previous sweep and the upcoming sweep. determining a sweep speed of an upcoming sweep of a printer head of a printer across a print medium for printing the swath of the image on the print medium; determining a distance by which to advance the print medium at least partially based on the determined sweep speed of the upcoming sweep; and advancing the print medium by the determined distance to enable printing of another swath, wherein the advancing of the print medium is performed between a previous sweep and the upcoming sweep.
A high pressure laminate production installation for producing high pressure laminate with (a) a laminate layer production device for producing a laminate layer and (b) a double-belt press which (i) is arranged to press the laminate layer to form high pressure laminate and comprises (ii) at least one press belt, (iii) a pressing device for pressing the press belt onto the laminate layer and (iv) a compressed air source that is arranged to form an air cushion between the pressing device and the press belt, (c) wherein the compressed air source has a compressed air heating system for heating the compressed air and (d) wherein the compressed air heating system features at least one electric heating element for electrically heating the compressed air, characterised by (e) a thermal oil heating system which is arranged to heat the pressing device and comprises a thermal oil feed for feeding hot thermal oil to the pressing device and a thermal oil outlet for discharging cold thermal oil from the pressing device, (f) wherein the compressed air source is designed to release compressed air with at least 3 MPa and the heater has a thermal oil operating pressure of at most 1.0 MPa. (a) a laminate layer production device for producing a laminate layer and (b) a double-belt press which (i) is arranged to press the laminate layer to form high pressure laminate and comprises (ii) at least one press belt, (iii) a pressing device for pressing the press belt onto the laminate layer and (iv) a compressed air source that is arranged to form an air cushion between the pressing device and the press belt, (i) is arranged to press the laminate layer to form high pressure laminate and comprises (ii) at least one press belt, (iii) a pressing device for pressing the press belt onto the laminate layer and (iv) a compressed air source that is arranged to form an air cushion between the pressing device and the press belt, (c) wherein the compressed air source has a compressed air heating system for heating the compressed air and (d) wherein the compressed air heating system features at least one electric heating element for electrically heating the compressed air, characterised by (e) a thermal oil heating system which is arranged to heat the pressing device and comprises a thermal oil feed for feeding hot thermal oil to the pressing device and a thermal oil outlet for discharging cold thermal oil from the pressing device, is arranged to heat the pressing device and comprises a thermal oil feed for feeding hot thermal oil to the pressing device and a thermal oil outlet for discharging cold thermal oil from the pressing device, (f) wherein the compressed air source is designed to release compressed air with at least 3 MPa and the heater has a thermal oil operating pressure of at most 1.0 MPa.
A method for preparing a cathode active material comprising Li 2 MnO 3 having a layered structure, wherein the cathode active material is a lithium-excess lithium metal composite compound represented by Formula Li a Ni b Co c Mn d M' y O 2 - x F x (here, M': one or more selected from the group consisting of W, V, Mo, and Cr, 1.1 ≤ a < 1.3, 0 < b ≤ 0.5, 0 < c < 0.7, 0.1 < d < 0.7, 0 < x < 0.15, and 0 < y < 0.1), the method comprising the steps of: a) synthesizing a transition metal compound precursor represented by Formula Ni- a CO b Mn c 2 (0.1 ≤ a < 0.5, 0 < b < 0.7, 0.2 ≤ c < 0.9, and a + b + c = 1) by preparing an aqueous solution including one of nickel sulfate, nickel nitrate, and nickel carbonate, one of cobalt sulfate, cobalt nitrate, and cobalt carbonate, and one of manganese sulfate, manganese nitrate, and manganese carbonate at a predetermined molar concentration, and then precipitating the precursor in the form of a hydroxide at a pH in the range of 10 to 12 using a base; and b) mixing one or more elements with a multiple oxidation state selected from the group consisting of W, Mo, V, and Cr having an oxidation number from 1 to 6, LiF or NH 4 F as a fluoro compound, Li 2 CO 3 or LiOH as a lithium supply source, and the transition metal compound precursor, and then heat-treating the mixture at 600°C to 800°C, wherein the cathode active material is doped with the element with a multiple oxidation state in an amount of 0.1 mol or less and wherein the cathode active material is doped with the fluoro compound in an amount from 1% by mol to 10% by mol per equivalent of Li. a) synthesizing a transition metal compound precursor represented by Formula Ni- a CO b Mn c 2 (0.1 ≤ a < 0.5, 0 < b < 0.7, 0.2 ≤ c < 0.9, and a + b + c = 1) by preparing an aqueous solution including one of nickel sulfate, nickel nitrate, and nickel carbonate, one of cobalt sulfate, cobalt nitrate, and cobalt carbonate, and one of manganese sulfate, manganese nitrate, and manganese carbonate at a predetermined molar concentration, and then precipitating the precursor in the form of a hydroxide at a pH in the range of 10 to 12 using a base; and b) mixing one or more elements with a multiple oxidation state selected from the group consisting of W, Mo, V, and Cr having an oxidation number from 1 to 6, LiF or NH 4 F as a fluoro compound, Li 2 CO 3 or LiOH as a lithium supply source, and the transition metal compound precursor, and then heat-treating the mixture at 600°C to 800°C,
Torque sensor comprising: a disk comprising a magnetostrictive material that is magnetically biased or magnetizable; and a magnetic field sensor assembly; where a torque acting about an axis of rotation of said disk can be applied to said disk and said magnetostrictive material is configured to generate a magnetic field outside said disk that changes dependent on the acting torque; where said magnetic field sensor assembly is configured to output a signal based on said magnetic field generated by said magnetostrictive material; and where said torque sensor is configured to determine a value of said acting torque based on said signal that is output; characterized in that the magnetic field sensor assembly is arranged to be co-rotatable synchronously with said disk. a disk comprising a magnetostrictive material that is magnetically biased or magnetizable; and a magnetic field sensor assembly; where a torque acting about an axis of rotation of said disk can be applied to said disk and said magnetostrictive material is configured to generate a magnetic field outside said disk that changes dependent on the acting torque; where said magnetic field sensor assembly is configured to output a signal based on said magnetic field generated by said magnetostrictive material; and where said torque sensor is configured to determine a value of said acting torque based on said signal that is output; characterized in that the magnetic field sensor assembly is arranged to be co-rotatable synchronously with said disk.
A digital motion picture camera, comprising an electronic image sensor for generating image signals; and a control unit, wherein the control unit is configured, in response to a scene record command, to generate a sequence data stream, which represents a sequence of consecutive frames (44A - 44C), from the image signals of the image sensor and to transmit the sequence data stream to a sequence memory device in order to store the sequence data stream, characterized in that the control unit is configured, in response to an identification image record command, to generate an identification image data set, which represents at least one scene identification image comprising necessary information for identifying a scene, from the image signals of the image sensor and to buffer the identification image data set in a buffer memory, with the control unit further being configured to insert the buffered identification image data set into a subsequently generated sequence data stream such that, in the representation of the sequence data stream, the sequence of consecutive frames (44A - 44C) is preceded by the scene identification image and the sequence data stream, including the inserted identification image data set, forms a closed data stream. wherein the control unit is configured, in response to a scene record command, to generate a sequence data stream, which represents a sequence of consecutive frames (44A - 44C), from the image signals of the image sensor and to transmit the sequence data stream to a sequence memory device in order to store the sequence data stream, characterized in that the control unit is configured, in response to an identification image record command, to generate an identification image data set, which represents at least one scene identification image comprising necessary information for identifying a scene, from the image signals of the image sensor and to buffer the identification image data set in a buffer memory, with the control unit further being configured to insert the buffered identification image data set into a subsequently generated sequence data stream such that, in the representation of the sequence data stream, the sequence of consecutive frames (44A - 44C) is preceded by the scene identification image and the sequence data stream, including the inserted identification image data set, forms a closed data stream.
Water injection apparatus of an internal combustion engine, comprising: - a water tank for storing water, - at least one water injector, - a conveying element for conveying water from the water tank into the water injector, and - a shut-off element which is arranged in a region between the conveying element and the water injector, and which is configured to keep the system pressure between the shut-off element and the water injector at a level, in order to avoid evaporating of the water which is situated in the region, characterized in that the shut-off element is configured as an electric shut-off valve, the shut-off element being configured to be moved into an open position, in particular by way of energization, in the case of an active water injection, the shut-off element being configured to be moved into the open position, in particular by way of energization, in the case of a change in the operating direction of the conveying element. - a water tank for storing water, - at least one water injector, - a conveying element for conveying water from the water tank into the water injector, and - a shut-off element which is arranged in a region between the conveying element and the water injector, and which is configured to keep the system pressure between the shut-off element and the water injector at a level, in order to avoid evaporating of the water which is situated in the region, characterized in that the shut-off element is configured as an electric shut-off valve, the shut-off element being configured to be moved into an open position, in particular by way of energization, in the case of an active water injection, the shut-off element being configured to be moved into the open position, in particular by way of energization, in the case of a change in the operating direction of the conveying element.
A method for feeding sheets of paper, comprising the following steps: - providing a stack of papers on a storage surface of a paper feeding device; - providing a flow of air for separating an uppermost sheet of paper from the rest of the stack of papers; - determining the vertical position of the uppermost sheet of paper; - adjusting the flow of air in dependence on the determined vertical position of the uppermost sheet of paper; and - repeating the steps of determining the vertical position of the uppermost sheet of paper and adjusting the flow of air in dependence on the determined vertical position of the uppermost sheet of paper, wherein, during continuous operation, the flow of air is controlled in cycles with one part of the cycle, preferably the first part of the cycle, with a higher flow of air (Phigh), and one part of the cycle, preferably the second part of the cycle, with a lower flow of air (Plow). - providing a stack of papers on a storage surface of a paper feeding device; - providing a flow of air for separating an uppermost sheet of paper from the rest of the stack of papers; - determining the vertical position of the uppermost sheet of paper; - adjusting the flow of air in dependence on the determined vertical position of the uppermost sheet of paper; and - repeating the steps of determining the vertical position of the uppermost sheet of paper and adjusting the flow of air in dependence on the determined vertical position of the uppermost sheet of paper,
Passive safety support arranged so as to be secured onto the ground and support a post comprising a base arranged so as to be anchored onto the ground, an upper flange positioned above and remotely from said base, and connecting rods connecting the base and the upper flange to one another, each of the connecting rods being assembled both at the lower end thereof on said base by a removable or non-removable embedding coupling, and at the upper end thereof on said upper flange by a ball joint coupling, characterised in that the support comprises gripping means secured onto said upper flange only, and capable of engaging with the lower end of the post to secure same onto said upper flange.