Abstract: Disclosed herein is a machine for cutting nozzles of reactor vessels. The machine for cutting nozzles of reactor vessels comprises a cutting unit positioned at an upper surface edge of a reactor vessel having a nozzle and having a saw blade part having different contact areas to cut the nozzle, a drive unit providing the saw blade part with rotary power, and a foreign substance suction unit provided at one end of the cutting unit in contiguity with the saw blade part to suck foreign substances generated when the nozzle is cut by the saw blade part, wherein the foreign substance suction unit sucks the foreign substances by approaching an outer peripheral surface of the nozzle when the saw blade part moves in a cutting direction of the nozzle.

Abstract: Disclosed herein is a machine for cutting nozzles of reactor vessels. The machine for cutting nozzles of reactor vessels comprises a cutting unit positioned at an upper surface edge of a reactor vessel having a nozzle and having a saw blade part having different contact areas to cut the nozzle, a drive unit providing the saw blade part with rotary power, and a foreign substance suction unit provided at one end of the cutting unit in contiguity with the saw blade part to suck foreign substances generated when the nozzle is cut by the saw blade part, wherein the foreign substance suction unit sucks the foreign substances by approaching an outer peripheral surface of the nozzle when the saw blade part moves in a cutting direction of the nozzle.

Abstract: Disclosed herein is a machine for cutting nozzles of reactor vessels. The machine for cutting nozzles of reactor vessels comprises a cutting unit positioned at an upper surface edge of a reactor vessel having a nozzle and having a saw blade part having different contact areas to cut the nozzle, a drive unit providing the saw blade part with rotary power, and a foreign substance suction unit provided at one end of the cutting unit in contiguity with the saw blade part to suck foreign substances generated when the nozzle is cut by the saw blade part, wherein the foreign substance suction unit sucks the foreign substances by approaching an outer peripheral surface of the nozzle when the saw blade part moves in a cutting direction of the nozzle.

Abstract: A front vehicle body reinforcing structure includes: a shock absorber housing; a fender apron upper member connected to an upper end of an outer surface of the shock absorber housing in the width direction of the vehicle body; a front side member disposed inwardly in the width direction of the vehicle body at a lower portion of the fender apron upper member, and connected to a lower end of an inner surface of the shock absorber housing in the width direction of the vehicle body; and a fender apron member connecting the front side member and the fender apron upper member. The front side member and the fender apron member may form a three-dimensional box structure, and the fender apron member may be inserted into the front side member.

Abstract: Disclosed herein is a machine for cutting nozzles of reactor vessels. The machine for cutting nozzles of reactor vessels comprises a cutting unit positioned at an upper surface edge of a reactor vessel having a nozzle and having a saw blade part having different contact areas to cut the nozzle, a drive unit providing the saw blade part with rotary power, and a foreign substance suction unit provided at one end of the cutting unit in contiguity with the saw blade part to suck foreign substances generated when the nozzle is cut by the saw blade part, wherein the foreign substance suction unit sucks the foreign substances by approaching an outer peripheral surface of the nozzle when the saw blade part moves in a cutting direction of the nozzle.

Abstract: A front vehicle body reinforcing structure includes: a shock absorber housing; a fender apron upper member connected to an upper end of an outer surface of the shock absorber housing in the width direction of the vehicle body; a front side member disposed inwardly in the width direction of the vehicle body at a lower portion of the fender apron upper member, and connected to a lower end of an inner surface of the shock absorber housing in the width direction of the vehicle body; and a fender apron member connecting the front side member and the fender apron upper member. The front side member and the fender apron member may form a three-dimensional box structure, and the fender apron member may be inserted into the front side member.

Abstract: A front vehicle body reinforcing structure may include a dash panel, a front side member extending along a length direction of a vehicle for coupling to a lower part of the dash panel, a fender apron member extending along the length direction of the vehicle and coupled to an upper part of the dash panel, a front shock absorber housing having a lower part coupled to the front side member and an upper part coupled to the fender apron member, a cowl cross member extending along a width direction of the vehicle for coupling to the upper part of the dash panel and having both ends overlapping and coupled to the front shock absorber housing along the width direction, and a front shock absorber housing side member adhered to an inner surface of the front shock absorber housing, and having an upper part coupled to the cowl cross member.

Abstract: A structure for connecting a strut bar is provided to reinforce lateral rigidity of an engine room of a vehicle. The structure includes a first strut bar that has a first end coupled to a dash panel of a vehicle and a second end coupled to a strut housing and a second strut bar that has a first end coupled to the dash panel and a second end coupled to the first strut bar, and is disposed to have a predetermined angle with respect to the first strut bar. Further, a connecting bar has a first end coupled to the first strut bar and a second end coupled to the second strut bar, and connects the first strut bar and the second strut bar to increase lateral rigidity of a vehicle body, diversify load paths during a collision, and tune a degree to which the dash panel is pushed.

Abstract: A front vehicle body reinforcing structure may include a dash panel, a front side member extending along a length direction of a vehicle for coupling to a lower part of the dash panel, a fender apron member extending along the length direction of the vehicle and coupled to an upper part of the dash panel, a front shock absorber housing having a lower part coupled to the front side member and an upper part coupled to the fender apron member, a cowl cross member extending along a width direction of the vehicle for coupling to the upper part of the dash panel and having both ends overlapping and coupled to the front shock absorber housing along the width direction, and a front shock absorber housing side member adhered to an inner surface of the front shock absorber housing, and having an upper part coupled to the cowl cross member.

Abstract: A structure for connecting a strut bar is provided to reinforce lateral rigidity of an engine room of a vehicle. The structure includes a first strut bar that has a first end coupled to a dash panel of a vehicle and a second end coupled to a strut housing and a second strut bar that has a first end coupled to the dash panel and a second end coupled to the first strut bar, and is disposed to have a predetermined angle with respect to the first strut bar. Further, a connecting bar has a first end coupled to the first strut bar and a second end coupled to the second strut bar, and connects the first strut bar and the second strut bar to increase lateral rigidity of a vehicle body, diversify load paths during a collision, and tune a degree to which the dash panel is pushed.

Abstract: A front side member for a vehicle includes a front part mounted to a front lower right side and a front lower left side of the vehicle along a length of the vehicle. A rear part is mounted to a rear lower right side and a rear lower left side of the vehicle. A middle part integrally and continuously connected between the front part and rear part. The middle part includes a curved portion formed in the middle of the middle part.

Abstract: A bumper assembly for vehicle may include a first side member disposed in each of both sides of a vehicle body in a longitudinal direction thereof, a second side member coupled to an external surface of the first side member, a fender member having one side coupled to an external side of the second side member, a member flange connected to front ends of the first and second side members respectively, a mounting flange coupled with the member flange, a first crash box having a rear end connected to the mounting flange, a second crash box having a rear end connected to the mounting flange, and a bumper beam having both distal sides, each of which may be coupled to front ends of the first and second crash boxes.

Abstract: A bumper assembly for vehicle may include a first side member disposed in each of both sides of a vehicle body in a longitudinal direction thereof, a second side member coupled to an external surface of the first side member, a fender member having one side coupled to an external side of the second side member, a member flange connected to front ends of the first and second side members respectively, a mounting flange coupled with the member flange, a first crash box having a rear end connected to the mounting flange, a second crash box having a rear end connected to the mounting flange, and a bumper beam having both distal sides, each of which may be coupled to front ends of the first and second crash boxes.

Abstract: A bumper assembly for vehicle may include a first side member disposed in each of both sides of a vehicle body in a longitudinal direction thereof, a second side member coupled to an external surface of the first side member, a fender member having one side coupled to an external side of the second side member, a member flange connected to front ends of the first and second side members respectively, a mounting flange coupled with the member flange, a first crash box having a rear end connected to the mounting flange, a second crash box having a rear end connected to the mounting flange, and a bumper beam having both distal sides, each of which may be coupled to front ends of the first and second crash boxes.