mhurhangee/ep-ind-claims huggingface dataset:
An inspection method for reinforced concrete pipes for inspecting the deterioration state of a reinforced concrete pipe from inside the pipe, comprising the steps of: measuring propagation waves of a pipe to be inspected by carrying out an impact elastic wave test; analyzing the resonant frequency spectrum of the propagation waves; characterised in that the method comprises the step of determining the deterioration level based on the area ratio between an area of a high frequency component and an area of a low frequency component in the resonant frequency spectrum. measuring propagation waves of a pipe to be inspected by carrying out an impact elastic wave test; analyzing the resonant frequency spectrum of the propagation waves;
Method for producing an electrical steel sheet, wherein the method comprises the following steps: a) providing a green body on a substrate, b) structuring at least one surface of the green body, and c) thermally treating the green body characterised in that the provision of the green body comprises the following steps: applying a printing paste onto the substrate by means of screen printing or stencil printing; and drying the printing paste situated on the substrate to obtain the green body; or applying a castable slurry to the substrate, which is configured, in particular, as a tape, and drying the castable slurry situated on the tape to obtain the green body. a) providing a green body on a substrate, b) structuring at least one surface of the green body, and c) thermally treating the green body characterised in that the provision of the green body comprises the following steps: applying a printing paste onto the substrate by means of screen printing or stencil printing; and drying the printing paste situated on the substrate to obtain the green body; or the provision of the green body comprises the following steps: applying a printing paste onto the substrate by means of screen printing or stencil printing; and drying the printing paste situated on the substrate to obtain the green body; or applying a castable slurry to the substrate, which is configured, in particular, as a tape, and drying the castable slurry situated on the tape to obtain the green body.
A bearing steel having a composition comprising: 0.51 to 0.56 wt% of carbon; 0.30 to 0.55 wt% of silicon (Si); 0.60 to 0.90 wt% of manganese (Mn); 0.025 wt% or less excluding 0 wt% of phosphorus; 0.008 wt% or less excluding 0 wt% of sulfur; 0.01 to 0.20 wt% of chromium (Cr); 0.08 wt% or less excluding 0 wt% of molybdenum (Mo); 0.25 wt% or less excluding 0 wt% of nickel (Ni); 0.01 to 0.20 wt% of vanadium; 0.20 wt% or less excluding 0 wt% of copper (Cu); 0.003 wt% or less excluding 0 wt% of titanium (Ti); 0.01 to 0.05wt% of aluminum (Al); 0.0015 wt% or less excluding 0 wt% of oxygen; 0.001 wt% or less excluding 0 wt% of calcium (Ca); and iron (Fe) and unavoidable impurities as a remainder, wherein the bearing steel comprises: a substrate; and a hardened layer formed on a surface of the substrate, wherein the substrate comprises a ferrite structure and a pearlite structure, wherein the hardened layer comprises a martensite structure, wherein austenite crystal grains having an average diameter of 22.5 to 31.8 μm are formed on the substrate, and wherein austenite crystal grains having an average diameter of 5 μm or less are formed on the hardened layer. 0.51 to 0.56 wt% of carbon; 0.30 to 0.55 wt% of silicon (Si); 0.60 to 0.90 wt% of manganese (Mn); 0.025 wt% or less excluding 0 wt% of phosphorus; 0.008 wt% or less excluding 0 wt% of sulfur; 0.01 to 0.20 wt% of chromium (Cr); 0.08 wt% or less excluding 0 wt% of molybdenum (Mo); 0.25 wt% or less excluding 0 wt% of nickel (Ni); 0.01 to 0.20 wt% of vanadium; 0.20 wt% or less excluding 0 wt% of copper (Cu); 0.003 wt% or less excluding 0 wt% of titanium (Ti); 0.01 to 0.05wt% of aluminum (Al); 0.0015 wt% or less excluding 0 wt% of oxygen; 0.001 wt% or less excluding 0 wt% of calcium (Ca); and iron (Fe) and unavoidable impurities as a remainder, wherein the bearing steel comprises: a substrate; and a hardened layer formed on a surface of the substrate, wherein the substrate comprises a ferrite structure and a pearlite structure, wherein the hardened layer comprises a martensite structure, wherein austenite crystal grains having an average diameter of 22.5 to 31.8 μm are formed on the substrate, and wherein austenite crystal grains having an average diameter of 5 μm or less are formed on the hardened layer.
Pneumatic vehicle tyre with a tread, a breaker belt assembly comprising at least two belt plies (2a, 2b) and a belt bandage, produced as a wound bandage and covering said assembly, at least in certain portions, wherein the belt plies (2a, 2b) consist of steel cords embedded in electrically conductive rubber material and the belt bandage consists of textile reinforcing elements embedded in rubber material and is also either divided in the axial direction into bandage parts (2c', 2c") or is applied with a gap running around in the circumferential direction, wherein in the tread there is incorporated at least one electrically conductive element (8, 8') passing through it and extending up to the outer surface of the tread, wherein at least one electrically conductive sidewall passage that is in connection with the breaker belt assembly and the rim is provided, characterized in that the rubber material of the entire belt bandage is electrically non-conductive, wherein an electrically conductive material (8c, 9) is led through between the bandage parts (2c', 2c") or in the circumferential gap of the belt bandage, which electrically conductive material connects the at least one electrically conductive element (8, 8') to the radially outermost belt ply in an electrically conducting manner.
A service processing method, performed by a content delivery network node and comprising: receiving (S101, S201, S301) a customized service logic issued by a content delivery network user; receiving (S102, S202, S302) a user request corresponding to the customized service logic; loading (S103, S203, S304) the customized service logic and the user request to at least one execution process of a restricted namespace, wherein restricted content of the restricted namespace comprises at least one of accessing to CDN system files, calling of key system interfaces, and system resources that can be used; and processing and responding to (S104, S204, S305) the user request according to the customized service logic in the at least one execution process, characterized in that, the service processing method further comprises: creating a new execution process in response to receiving an updated customized service logic and the customized service logic before updating being in a running state; wherein the newly created execution process is configured to execute the updated customized service logic; the execution process which the customized service logic before updating resides in is cancelled after the customized service logic before updating finishes running. receiving (S101, S201, S301) a customized service logic issued by a content delivery network user; receiving (S102, S202, S302) a user request corresponding to the customized service logic; loading (S103, S203, S304) the customized service logic and the user request to at least one execution process of a restricted namespace, wherein restricted content of the restricted namespace comprises at least one of accessing to CDN system files, calling of key system interfaces, and system resources that can be used; and processing and responding to (S104, S204, S305) the user request according to the customized service logic in the at least one execution process, characterized in that, the service processing method further comprises: creating a new execution process in response to receiving an updated customized service logic and the customized service logic before updating being in a running state; wherein the newly created execution process is configured to execute the updated customized service logic; the execution process which the customized service logic before updating resides in is cancelled after the customized service logic before updating finishes running. creating a new execution process in response to receiving an updated customized service logic and the customized service logic before updating being in a running state; wherein the newly created execution process is configured to execute the updated customized service logic; the execution process which the customized service logic before updating resides in is cancelled after the customized service logic before updating finishes running.
An earphone comprising: a vibration means which vibrates in an uniaxial direction; a housing which supports said vibration means and vibrates in response to the vibration of the vibration means; and an ear tip which is mounted on said housing, wherein said ear tip is arranged around said uniaxial direction and includes a vibration part and a holding part, wherein said vibrating part vibrates in response to the vibration of said housing in said uniaxial direction, and said holding part holds said housing in an ear canal and contacts with the inner surface of the ear canal. a vibration means which vibrates in an uniaxial direction; a housing which supports said vibration means and vibrates in response to the vibration of the vibration means; and an ear tip which is mounted on said housing, wherein said ear tip is arranged around said uniaxial direction and includes a vibration part and a holding part, wherein said vibrating part vibrates in response to the vibration of said housing in said uniaxial direction, and said holding part holds said housing in an ear canal and contacts with the inner surface of the ear canal.
A combustor comprising: a reactor; an inlet for admitting a main flow of fluid to said reactor; an exit for discharging heated fluid from said reactor; said reactor positioned between said inlet and said exit and comprising a main flow zone, through which a majority of said main flow passes along a main flow path, and a recirculation zone, through which a lesser portion of said main flow passes; wherein said recirculation zone is defined in part by a wall having an interior surface curved in one direction in a substantially continuous manner and running from a take off point proximate to said exit to a return point proximate to said inlet, said interior surface being shaped and positioned with respect to said main flow path in such a manner as to divert part of the fluid in said main flow path at said take off point to form a recirculation vortex flow in said recirculation zone during the operation of said reactor; characterized in that said interior surface is further formed by a lack of discontinuities so as to cause substantially undisturbed movement of a boundary layer along the periphery of said recirculation vortex flow; and wherein an angle (β) between the direction of movement of the inlet fluid flow (O-O) and a tangent plane (T-T) to the wall at the take off point is between 100° and 15°. a reactor; an inlet for admitting a main flow of fluid to said reactor; an exit for discharging heated fluid from said reactor; said reactor positioned between said inlet and said exit and comprising a main flow zone, through which a majority of said main flow passes along a main flow path, and a recirculation zone, through which a lesser portion of said main flow passes; wherein said recirculation zone is defined in part by a wall having an interior surface curved in one direction in a substantially continuous manner and running from a take off point proximate to said exit to a return point proximate to said inlet, said interior surface being shaped and positioned with respect to said main flow path in such a manner as to divert part of the fluid in said main flow path at said take off point to form a recirculation vortex flow in said recirculation zone during the operation of said reactor; characterized in that said interior surface is further formed by a lack of discontinuities so as to cause substantially undisturbed movement of a boundary layer along the periphery of said recirculation vortex flow; and wherein an angle (β) between the direction of movement of the inlet fluid flow (O-O) and a tangent plane (T-T) to the wall at the take off point is between 100° and 15°.
A method in a vehicle for transferring playback of media content between a mobile device and the vehicle, the method being performed by the vehicle, and the method comprising: detecting the playback of the media content on the mobile device with a microphone of the vehicle; retrieving the media content played back on the mobile device from an identified content source; playing back the retrieved media content at the vehicle in synchronization with the playback of the media content on the mobile device, wherein synchronization is achieved by a frame count of the media content or by a timestamp that indicates a frame number; sending to the mobile device a first message instructing the mobile device to pause its playback of the media content; sending to the mobile device a second message instructing the mobile device to resume its playback of the media content, if it is detected that the vehicle arrives at a predefined destination by means of Global Positioning system, GPS, Cloud services, or Connected Vehicle Cloud, CVC; and ending the playback of the media content by the vehicle. detecting the playback of the media content on the mobile device with a microphone of the vehicle; retrieving the media content played back on the mobile device from an identified content source; playing back the retrieved media content at the vehicle in synchronization with the playback of the media content on the mobile device, wherein synchronization is achieved by a frame count of the media content or by a timestamp that indicates a frame number; sending to the mobile device a first message instructing the mobile device to pause its playback of the media content; sending to the mobile device a second message instructing the mobile device to resume its playback of the media content, if it is detected that the vehicle arrives at a predefined destination by means of Global Positioning system, GPS, Cloud services, or Connected Vehicle Cloud, CVC; and ending the playback of the media content by the vehicle.
An addressable fire system comprising a control section and at least one visual alarm device (14a-d), wherein the control section is operable to send power to the at least one visual alarm device (14a-d), is operable to control illumination of the at least one visual alarm device (14a-d) and is operable to program lighting parameters of the at least one visual alarm device, characterised in that the at least one visual alarm device (14a-d) is connected across a two-wire loop to the control section and is operable to communicate data to the control section by switching in a current source directly across the loop to generate a current pulse for a period of 200μs.
A vehicle with an aerial work platform comprising: a vehicle body that is able to travel; a lifting and lowering apparatus that is provided in the vehicle body; and a work platform that is provided on the lifting and lowering apparatus and allows an operator to board thereon, wherein the lifting and lowering apparatus has a plurality of mast members (110, 120, 130,140, 150) that are provided at the vehicle body so as to extend in an up-down direction and are allowed to extend and contract by being assembled in a telescopic form so as to be able to relatively move in the up-down direction, and extending and contracting means for causing the plurality of mast members (110, 120, 130,140, 150) to extend and contract in the up-down direction, the plurality of mast members (110, 120, 130,140, 150) include a top mast member that is disposed on an outermost side on which the work platform is provided and a top-side intermediate mast member that is assembled in a telescopic form inside the top mast member so as to be able to relatively move in the up-down direction, characterized in that: the top mast member is provided with load detection means for detecting a load applied to the top mast member and obtaining a mounted load on the work platform, a plurality of sliders (155, 156) that allow the top mast member and the top-side intermediate mast member to relatively move are disposed between the top mast member and the top-side intermediate mast member at positions that are different from each other in the up-down direction, and the plurality of sliders (155, 156) are secured to the top mast member. a vehicle body that is able to travel; a lifting and lowering apparatus that is provided in the vehicle body; and a work platform that is provided on the lifting and lowering apparatus and allows an operator to board thereon, wherein the lifting and lowering apparatus has a plurality of mast members (110, 120, 130,140, 150) that are provided at the vehicle body so as to extend in an up-down direction and are allowed to extend and contract by being assembled in a telescopic form so as to be able to relatively move in the up-down direction, and extending and contracting means for causing the plurality of mast members (110, 120, 130,140, 150) to extend and contract in the up-down direction, the plurality of mast members (110, 120, 130,140, 150) include a top mast member that is disposed on an outermost side on which the work platform is provided and a top-side intermediate mast member that is assembled in a telescopic form inside the top mast member so as to be able to relatively move in the up-down direction, characterized in that: the top mast member is provided with load detection means for detecting a load applied to the top mast member and obtaining a mounted load on the work platform, a plurality of sliders (155, 156) that allow the top mast member and the top-side intermediate mast member to relatively move are disposed between the top mast member and the top-side intermediate mast member at positions that are different from each other in the up-down direction, and the plurality of sliders (155, 156) are secured to the top mast member.
An epoxy resin, comprising an epoxy compound having a mesogenic structure, the epoxy compound comprising a first epoxy compound having one biphenyl structure in a molecule and a second epoxy compound that is different from the first epoxy compound, at a mass ratio of the first epoxy compound to the second epoxy compound (first epoxy compound: second epoxy compound) of from 10:100 to 50: 100, wherein the second epoxy compound comprises an epoxy compound having one mesogenic structure and an epoxy compound having two or more mesogenic structures, and wherein the second epoxy compound comprises an epoxy compound represented by the following Formula: wherein, in Formula, X represents a linking group comprising at least one divalent group selected from the following Group: each Y independently represents an aliphatic hydrocarbon group having 1 to 8 carbon atoms, an aliphatic alkoxy group having 1 to 8 carbon atoms, a fluorine atom, a chlorine atom, a bromine atom, an iodine atom, a cyano group, a nitro group or an acetyl group; and each n independently represents an integer from 0 to 4. the epoxy compound comprising a first epoxy compound having one biphenyl structure in a molecule and a second epoxy compound that is different from the first epoxy compound, at a mass ratio of the first epoxy compound to the second epoxy compound (first epoxy compound: second epoxy compound) of from 10:100 to 50: 100, wherein the second epoxy compound comprises an epoxy compound having one mesogenic structure and an epoxy compound having two or more mesogenic structures, and wherein the second epoxy compound comprises an epoxy compound represented by the following Formula: wherein, in Formula, X represents a linking group comprising at least one divalent group selected from the following Group: each Y independently represents an aliphatic hydrocarbon group having 1 to 8 carbon atoms, an aliphatic alkoxy group having 1 to 8 carbon atoms, a fluorine atom, a chlorine atom, a bromine atom, an iodine atom, a cyano group, a nitro group or an acetyl group; and each n independently represents an integer from 0 to 4.
Backpack comprising: - a compartment exhibiting a compartment opening, - a flap that can be moved between - a closed position in which it closes the compartment opening and - first and second open positions in which it leaves the compartment opening open after swinging over from the closed position towards the back and front of the compartment, respectively, - a ballistic protection shield that can be moved, passing through the compartment opening and over the head of a backpack wearer, from a storage position in which it is accommodated in the inside of the compartment to a deployed position in which it protects the torso of the backpack wearer, - shield straps (74,76) linking the shield to the compartment capable of suspending the shield in the deployed position, the backpack defining a passage between the edge of the compartment opening and the flap in the closed position and comprising a pull-type handle fixed to the shield and projecting to the outside of the compartment by way of this passage when the shield is in the storage position and when the flap is in the closed position, the backpack being characterised in that the flap is made at least in part of a ballistic protection material, and in that, in the second open position, the flap extends at least partially beneath the compartment in such a manner as to protect the lower part of the wearer's back. - a compartment exhibiting a compartment opening, - a flap that can be moved between - a closed position in which it closes the compartment opening and - first and second open positions in which it leaves the compartment opening open after swinging over from the closed position towards the back and front of the compartment, respectively, - a closed position in which it closes the compartment opening and - first and second open positions in which it leaves the compartment opening open after swinging over from the closed position towards the back and front of the compartment, respectively, - a ballistic protection shield that can be moved, passing through the compartment opening and over the head of a backpack wearer, from a storage position in which it is accommodated in the inside of the compartment to a deployed position in which it protects the torso of the backpack wearer, - shield straps (74,76) linking the shield to the compartment capable of suspending the shield in the deployed position,
A monolithic precursor test coupon for testing material properties of metal-injection-molded components, the monolithic precursor test coupon comprising: a first grip portion; a second grip portion; an intermediate portion, interconnecting the first grip portion and the second grip portion; and runners, directly interconnecting the first grip portion and the second grip portion and not directly connected to the intermediate portion; and wherein: the first grip portion, the second grip portion, the intermediate portion, and the runners are composed of a substance, comprising metal powder; and the substance is in a green state. a first grip portion; a second grip portion; an intermediate portion, interconnecting the first grip portion and the second grip portion; and runners, directly interconnecting the first grip portion and the second grip portion and not directly connected to the intermediate portion; and wherein: the first grip portion, the second grip portion, the intermediate portion, and the runners are composed of a substance, comprising metal powder; and the substance is in a green state. the first grip portion, the second grip portion, the intermediate portion, and the runners are composed of a substance, comprising metal powder; and the substance is in a green state.