Air inlet end cone shell structure of automobile air inlet system and machining process of air inlet end cone shell structure
Technical Field
The invention belongs to the field of automobile part machining, and particularly relates to an air inlet end cone shell structure of an automobile air inlet system and a machining process thereof.
Background
In the air intake system of car, include the trachea casing of a plurality of tube bodys for gaseous transmission, but at present most trachea all are integrated into one piece, and through the bent pipe processing of bending, but to some bent pipe body that the profile structure is complicated, the processing of bending is not suitable for, leads to the trachea body to be difficult to process.
Disclosure of Invention
The purpose of the invention is as follows: in order to overcome the defects in the prior art, the invention provides the air inlet end cone shell structure of the automobile air inlet system and the processing technology thereof, which can reduce the processing difficulty of the air pipe body with a complex profile contour.
The technical scheme is as follows: in order to achieve the purpose, the technical scheme of the invention is as follows:
the utility model provides an automobile air intake system's inlet end awl shell structure contains inlet end awl body, inlet end awl body is the bent tubular structure, and contains the first port and the second port that communicate each other, just first port is the convergent form to the second port, form airflow channel between first port and the second port, inlet end awl body contains first inlet half shell and second inlet half shell, just first inlet half shell and second inlet half shell are half shell structure of half pipe body form, just first inlet half shell and second inlet half shell are the half shell structure of half pipe body form as the tangent plane concatenation setting in the direction with airflow channel.
Further, still include the lock structure, the lock structure is including setting up the first buckling parts on half shell of first air inlet and setting up the second buckling parts on half shell of second air inlet, just the mutual lock setting of first buckling parts and second buckling parts.
Further, two first buckling parts set up respectively on two concatenation arris walls of half shell of first admitting air, two second buckling parts set up respectively on two concatenation arris walls of half shell of second admitting air.
Further, first buckling parts for the first half body of admitting air be close to the wall body of amalgamation arris edge to the evagination side of first half body of admitting air goes out the uplift shaping, second buckling parts for the second half body of admitting air be close to the wall body of amalgamation arris edge to the evagination side of second half body of admitting air goes out the uplift shaping.
Furthermore, the opposite surfaces of the first buckling part and the second buckling part are both provided with openings; and the first buckling part is buckled at the outer side of the second buckling part, or the second buckling part is buckled at the outer side of the first buckling part.
Furthermore, first buckling parts, second buckling parts all extend along the length direction of concatenation tangent plane and set up, just the both ends of first buckling parts and second buckling parts are all spaced apart in first port and second port setting.
Further, the cross-sectional shapes of the first port and the second port are regular circles.
A processing technology of an air inlet end cone shell structure of an automobile air inlet system comprises the following steps:
s1: blanking, wherein the blanking sheet is in a rectangular plate shape, and the first air inlet half shell and the second air inlet half shell are processed in a connecting way;
s2: molding surface molding: the blanking sheet is punched and formed through a punching and forming die, the profile profiles of the first air inlet half shell and the second air inlet half shell are drawn, and the large-diameter ends of the first air inlet half shell and the second air inlet half shell are closely opposite and connected together;
s3: cutting a small port: respectively cutting a small-diameter end port of the drawing piece in the step S2 to form a semi-circle shape of the small-diameter end;
s4: cutting: cutting the connecting piece in the step S3 along the middle, and simultaneously forming a semicircular shape with a large-diameter end to respectively obtain a first air inlet semi-finished shell and a second air inlet semi-finished shell;
s5: punching: punching the through hole in the semi-finished product of the second air inlet half shell;
s6: side cutting and forming: and respectively performing side cutting on the splicing edges at the outward bending part and the inward bending part of the first air inlet half-shell semi-finished product in the step S4 and the second air inlet half-shell semi-finished product in the step S5 to obtain a final first air inlet half-shell and a final second air inlet half-shell.
Has the advantages that: according to the invention, the air pipe body is divided into two butt-joint type half-shell structures, so that the processing difficulty can be greatly reduced, the processing efficiency can be improved, the processing quality of the molded surface can be ensured, the two half-shell structures after being spliced form a complete pipe body structure, and the integral structure is simple.
Drawings
FIG. 1 is a schematic perspective view of a first intake half-shell and a second intake half-shell of the present invention in a joined state;
FIG. 2 is a schematic structural view of a first intake half-shell of the present invention;
FIG. 3 is a front view of the air inlet end cone body of the present invention;
FIG. 4 is a schematic view of the half section A-A of the present invention;
FIG. 5 is a schematic view of a second intake half-shell of the present invention;
FIG. 6 is a schematic view of step S2 in the process of the present invention;
FIG. 7 is a schematic view of step S3 in the process of the present invention;
FIG. 8 is a schematic view of step S4 in the process of the present invention;
FIG. 9 is a schematic view of step S5 in the process of the present invention;
FIG. 10 is a schematic view of step S6 in the process of the present invention.
Detailed Description
The present invention will be further described with reference to the accompanying drawings.
As shown in fig. 1 to 5, an air inlet cone shell structure of an automobile air inlet system comprises an air inlet cone body, wherein the air inlet cone body is of a bent tubular structure and comprises a first port 6 and a second port 7 which are communicated with each other, the first port 6 and the second port 7 are tapered, an air flow channel is formed between the first port 6 and the second port 7, the first port 6 is a large-diameter end, the second port 7 is a small-diameter end, and the cross sections of the first port 6 and the second port 2 are both regular circles and are used for being connected with other air pipe bodies.
The air inlet end cone body comprises a first air inlet half shell 1 and a second air inlet half shell 2, the first air inlet half shell 1 and the second air inlet half shell 2 are half shell structures of a half pipe body, and the first air inlet half shell 1 and the second air inlet half shell 2 are spliced and arranged as a tangent plane in the direction of an airflow channel. Through dividing into the half shell structure of two dock with the trachea body, the reduction processing degree of difficulty that can very big degree promotes machining efficiency, and can also guarantee the processingquality of profile, and two half shell formations after the concatenation are complete body structure, overall structure is simple.
Still include lock structure 5, the lock structure is including setting up first buckling parts 5a on half shell 1 of first air inlet and setting up second buckling parts 5b on half shell 2 of second air inlet, just first buckling parts 5a sets up with the mutual lock of second buckling parts 5 b. Half shell interconnect amalgamation of half shell and the second of will admitting air through first buckling parts and second buckling parts guarantees the stability of its amalgamation, again through two half shell outsides winding sealing strip after the amalgamation can make the inlet end awl body form the closed body.
Two first buckling parts 5a set up respectively on two concatenation edges and walls of half shell 1 of first admitting air, two second buckling parts 5b set up respectively on two concatenation edges and walls of half shell 2 of second admitting air. First buckling parts 5a for first half shell 1 of admitting air is close to the wall body of amalgamation arris edge to the evagination side of first half shell 1 of admitting air goes out the uplift shaping, second buckling parts 5b for second half shell 2 of admitting air is close to the wall body of amalgamation arris edge to the evagination side of second half shell 2 goes out the uplift shaping. When processing, the first buckling part 5a and the second buckling part 5b can be directly formed by punching through a punching die so as to be processed quickly.
The opposite surfaces of the first buckling part 5a and the second buckling part 5b are both provided with openings; and the first buckling part 5a is buckled at the outer side of the second buckling part 5b, or the second buckling part 5b is buckled at the outer side of the first buckling part 5 a. First buckling parts 5a, second buckling parts 5b all extend the setting along the length direction of concatenation tangent plane, just the both ends of first buckling parts 5a and second buckling parts 5b are all separated by a distance in first port 6 and the setting of second port 7. The first port 6 and the second port 7 are used for connecting with other pipe bodies.
A processing technology of an air inlet end cone shell structure of an automobile air inlet system comprises the following steps:
s1: blanking, wherein the blanking sheet is in a rectangular plate shape, and the first air inlet half shell 1 and the second air inlet half shell 2 are processed in a connecting manner;
s2: molding surface molding: the blanking sheet is punched and formed through a punching and forming die, the profile profiles of the first air inlet half shell 1 and the second air inlet half shell 2 are drawn, and the large-diameter ends of the first air inlet half shell and the second air inlet half shell are closely opposite and connected together;
s3: cutting a small port: respectively cutting a small-diameter end port of the drawing piece in the step S2 to form a semi-circle shape of the small-diameter end;
s4: cutting: cutting the connecting piece in the step S3 along the middle, and simultaneously forming a semicircular shape with a large-diameter end to respectively obtain a first air inlet semi-finished shell and a second air inlet semi-finished shell;
s5: punching: punching the through hole in the semi-finished product of the second air inlet half shell;
s6: side cutting and forming: and respectively performing side cutting on the splicing edges of the outward bending part and the inward bending part of the first air inlet half-shell semi-finished product in the step S4 and the second air inlet half-shell semi-finished product in the step S5 to obtain the final first air inlet half-shell 1 and the final second air inlet half-shell 2.
The above description is only of the preferred embodiments of the present invention, and it should be noted that: it will be apparent to those skilled in the art that various modifications and adaptations can be made without departing from the principles of the invention and these are intended to be within the scope of the invention.