Front cabin assembly and vehicle

Abstract

The invention provides a front cabin assembly and a vehicle. The front cabin assembly comprises a front auxiliary frame and a front frame. Front shock absorption towers are arranged on auxiliary frame longitudinal beams on the left side and the right side in the front auxiliary frame respectively, and reinforcing beams are arranged between the front shock absorption towers on the sides and the front wall assembly respectively. The front frame comprises frame longitudinal beams arranged on the left side and the right side respectively and a front anti-collision beam connected with the frame longitudinal beams on the two sides, the rear end of the frame longitudinal beam on each side is connected to the front auxiliary frame longitudinal beam on the same side, and the front ends of the frame longitudinal beams on the two sides are connected with the front anti-collision beam. The frame longitudinal beams on all the sides, the front shock absorption towers and the reinforcing beams are connected to form a collision force transmission channel arranged in the front-back direction of the whole vehicle. Lightweight design and modeling design of a vehicle body are facilitated, the transmission effect on collision force can be improved, and the collision safety of the whole vehicle can be improved.

Description

Technical Field

[0001] The present invention relates to the technical field of vehicles, and in particular to a front engine compartment assembly. The present invention also relates to a vehicle provided with the front engine compartment assembly. Background Art

[0002] In the front cabin structure of the existing load-bearing body, the front shock absorber tower is usually arranged on the front cabin longitudinal beam, and the top of the front shock absorber tower is usually also connected to the front cabin side beam to ensure the structural strength of the front shock absorber tower and the installation effect of the front shock absorber.

[0003] However, the existing front shock tower arrangement requires the installation of beams such as the front cabin longitudinal beam and the front cabin side beam, as well as other corresponding accessories, which will not only greatly increase the weight of the vehicle body, but also be detrimental to the lightweight design of the vehicle body. At the same time, the existence of the front cabin longitudinal beam and the front cabin side beam will also limit the shape of the front part of the vehicle body, which is detrimental to the shape design of the vehicle body. Therefore, it is necessary to improve the arrangement of the front shock tower to overcome the shortcomings of the prior art. Summary of the invention

[0004] In view of this, the present invention aims to propose a front engine compartment assembly to facilitate the lightweight design and styling design of the vehicle body and help improve the collision safety of the entire vehicle.

[0005] To achieve the above object, the technical solution of the present invention is achieved as follows:

[0006] A front cabin assembly includes a front subframe and a front frame;

[0007] Front shock absorber towers are respectively arranged on the longitudinal beams of the left and right subframes of the front subframe, and reinforcing beams are respectively arranged between the front shock absorber towers and the front enclosure assembly on each side;

[0008] The front frame includes frame longitudinal beams disposed on the left and right sides, and front anti-collision beams connected to the frame longitudinal beams on both sides, and the rear end of the frame longitudinal beams on each side is connected to the front sub-frame longitudinal beam on the same side, and the front end of the frame longitudinal beams on both sides is connected to the front anti-collision beam;

[0009] The frame longitudinal beams, the front shock towers and the reinforcing beams on each side are connected to form a collision force transmission channel arranged along the front-rear direction of the entire vehicle.

[0010] Further, the reinforcing beam on each side includes a first reinforcing beam and a second reinforcing beam connected between the front shock tower and the front enclosure assembly;

[0011] The first reinforcing beam and the second reinforcing beam are close to each other along a direction pointing to the front shock tower, and the first reinforcing beam, the second reinforcing beam and the front enclosure assembly are connected to form a triangular structure.

[0012] Further, one end of the first reinforcement beam connected to the front enclosure assembly is connected to the A-pillar in the front-rear direction of the vehicle; and / or,

[0013] The second reinforcement beam is connected to the lower cross beam of the front windshield in the front enclosure assembly.

[0014] Furthermore, a connecting crossbeam is connected between the front shock-absorbing towers on both sides; and / or,

[0015] A frame crossbeam is connected between one end of the frame longitudinal beams on both sides close to the auxiliary frame longitudinal beam, and the frame longitudinal beams are respectively connected to the front shock towers on both sides.

[0016] Further, the front ends of the frame longitudinal beams on both sides are connected with energy absorption boxes, and the frame longitudinal beams on both sides are connected to the front anti-collision beam through the energy absorption boxes; and / or,

[0017] The frame longitudinal beams on both sides are of tubular structure.

[0018] Furthermore, the front subframe longitudinal beams on both sides have an upper longitudinal beam and a lower longitudinal beam arranged up and down;

[0019] The front ends of the upper longitudinal beam and the lower longitudinal beam on each side are connected to the front cross beam of the front subframe, and the rear ends of the upper longitudinal beam and the lower longitudinal beam on each side are connected to the rear cross beam located at the rear part of the front subframe;

[0020] The front shock tower on each side is connected to the upper longitudinal beam on the same side, and the rear end of the frame longitudinal beam on each side is connected to the upper longitudinal beam on the same side.

[0021] Further, a support beam is connected between the upper longitudinal beam and the lower longitudinal beam on each side, and a connection point between the support beam and the upper longitudinal beam on each side is located below the front shock tower on the same side; and / or,

[0022] The front cross beam of the front subframe is provided with supporting members respectively supported under the frame longitudinal beams on each side.

[0023] Compared with the prior art, the present invention has the following advantages:

[0024] The front cabin assembly of the present invention can simplify or even eliminate the front cabin longitudinal beam and the front cabin side beam in the front cabin of the vehicle body by integrating the front shock tower on the front subframe longitudinal beam in the front subframe, which can be helpful to simplify the vehicle body structure and reduce the weight of the vehicle body, thereby contributing to the lightweight design and styling design of the vehicle body. At the same time, by setting the front frame and the reinforcement beam, and making the frame longitudinal beam, the front shock tower and the reinforcement beam connected to form a collision force transmission channel arranged along the front and rear direction of the whole vehicle, the structural strength of the front shock tower position can also be increased, and it is beneficial to transmit and disperse the collision force to the rear of the vehicle body, which helps to improve the reliability of the installation of the front shock absorber and the collision safety of the whole vehicle.

[0025] In addition, the first reinforcing beam, the second reinforcing beam and the front enclosure assembly are connected to form a triangular structure, and the strength of the front shock tower can be increased by utilizing the supporting connection of the first reinforcing beam and the second reinforcing beam and the high strength of the triangular structure. The first reinforcing beam is connected to the A-pillar, which can not only provide a strong supporting capacity for the first reinforcing beam, but also facilitate the transmission and dispersion of the collision force at the first reinforcing beam to the rear of the vehicle body through the A-pillar, thereby improving the transmission and dispersion effect of the collision force. The second reinforcing beam is connected to the lower cross beam of the front windshield, which can also provide a strong supporting capacity for the second reinforcing beam, and also facilitate the transmission and dispersion of the collision force at the second reinforcing beam to the rear of the vehicle body through the lower cross beam of the front windshield, thereby improving the transmission and dispersion effect of the collision force.

[0026] A connecting crossbeam is arranged between the front shock absorber towers on both sides, which can provide lateral support between the front shock absorber towers on both sides to further increase the structural strength of each front shock absorber tower, and can also form a lateral force transmission channel between the front shock absorber towers on both sides to improve the transmission and dispersion effect of collision force. A frame crossbeam is arranged between the frame longitudinal beams on both sides, and the frame longitudinal beams are connected to the front shock absorber towers respectively, which can increase the overall rigidity of the front frame and the reliability of the connection with the front subframe, and can also form a lateral force transmission channel to improve the transmission and dispersion effect of collision force.

[0027] In addition, the frame longitudinal beam is connected to the front anti-collision beam through an energy absorption box, which can improve the crush energy absorption capacity of the front frame during a collision. The frame longitudinal beam adopts a tubular beam, which can be easily prepared and can also ensure the structural strength of the frame longitudinal beam. The front subframe longitudinal beam is composed of an upper longitudinal beam and a lower longitudinal beam arranged up and down, and a front shock tower is set on the upper longitudinal beams on both sides. On the one hand, the double force transmission channels formed by the upper and lower longitudinal beams can be used to increase the transmission capacity of the collision force, which helps to improve the collision safety of the whole vehicle.

[0028] A support beam is arranged between the upper and lower longitudinal beams and below the front shock absorber tower to support the upper longitudinal beam and the front shock absorber tower, thereby improving the dynamic stiffness of the front shock absorber tower. A support member for supporting the longitudinal beams of each side frame is arranged on the front cross beam of the front subframe, thereby preventing the front frame from becoming a single cantilever structure and improving the stability of the front frame setting.

[0029] Another object of the present invention is to provide a vehicle, wherein the vehicle is provided with the front engine compartment assembly as described above.

[0030] Furthermore, the vehicle is also provided with a rear subframe and a connecting longitudinal beam connected between the front subframe and the rear subframe;

[0031] The connecting longitudinal beams are two beams disposed on the left and right sides, and the front subframe, the rear subframe, and the connecting longitudinal beams on both sides jointly define a battery pack installation space.

[0032] Further, the rear subframe longitudinal beams on the left and right sides of the rear subframe both include an inner longitudinal beam and an outer longitudinal beam arranged on the side of the inner longitudinal beam facing the outside of the vehicle along the left-right direction of the vehicle, and rear shock towers are respectively arranged on the outer longitudinal beams on both sides; and / or,

[0033] In the left-right direction of the whole vehicle, the connecting longitudinal beams on each side are located on the side of the front sub-frame longitudinal beam and the rear sub-frame longitudinal beam on the same side close to the outside of the vehicle.

[0034] The vehicle described in the present invention is provided with the above-mentioned front engine compartment assembly, which can be beneficial to simplifying the body structure, reducing the body weight, and contributing to the lightweight design and styling design of the body. It can also increase the structural strength of the front shock tower position, and is beneficial to the transmission and dispersion of the collision force to the rear of the body, which helps to improve the reliability of the front shock absorber installation and help to improve the collision safety of the entire vehicle.

[0035] Secondly, by setting connecting longitudinal beams on both sides, the front and rear subframes are connected into an integrated ring structure through the connecting longitudinal beams on both sides. At the same time, the battery pack installation space is defined in the ring structure. The battery pack ring frame structure can also be formed with the help of the connection setting of the connecting longitudinal beams. When the vehicle collides, the battery pack can move with the ring frame structure, which can reduce the collision impact on the battery pack, thereby increasing the collision safety of the battery pack and helping to improve the safety quality of the entire vehicle.

[0036] Moreover, the rear subframe longitudinal beam is composed of an inner longitudinal beam and an outer longitudinal beam, and a rear shock tower is arranged on the outer longitudinal beam. On the one hand, the double force transmission channels formed by the inner and outer longitudinal beams can be used to increase the transmission capacity of the collision force, which is helpful to improve the collision safety of the whole vehicle. On the other hand, by integrating the rear shock tower on the front subframe longitudinal beam, the rear floor longitudinal beam at the rear floor position of the vehicle body can be simplified or even omitted, which can also help simplify the vehicle body structure, reduce the weight of the vehicle body, and contribute to the lightweight design and styling design of the vehicle body. The connecting longitudinal beams on each side are located on the same side of the front subframe longitudinal beam and the side of the rear subframe longitudinal beam close to the outside of the vehicle, which helps to achieve the Y-direction cross-section change of the front and rear parts of the load-bearing body, and it is easy to meet the matching design requirements between the chassis and the body frame in the load-bearing body. BRIEF DESCRIPTION OF THE DRAWINGS

[0037] The accompanying drawings constituting a part of the present invention are used to provide a further understanding of the present invention. The exemplary embodiments of the present invention and their descriptions are used to explain the present invention and do not constitute an improper limitation of the present invention. In the accompanying drawings:

[0038] Figure 1 This is a schematic diagram of a front engine compartment assembly in a vehicle according to an embodiment of the present invention;

[0039] Figure 2 This is a schematic structural diagram of a front cabin according to an embodiment of the present invention;

[0040] Figure 3 for Figure 2 A schematic diagram of the structure shown from another perspective;

[0041] Figure 4 A schematic diagram of a collision force transmission channel according to an embodiment of the present invention;

[0042] Figure 5 for Figure 2 Schematic diagram of the structure of the middle part;

[0043] Figure 6 for Figure 5 Schematic diagram of the structure of the middle part;

[0044] Figure 7 It is a schematic structural diagram of the first reinforcement beam and the second reinforcement beam according to an embodiment of the present invention;

[0045] Figure 8 It is a structural schematic diagram of the first reinforcing beam according to an embodiment of the present invention;

[0046] Fig. 9 is a schematic structural diagram of a second reinforcing beam according to an embodiment of the present invention;

[0047] Fig.10 This is a schematic diagram of the structure of the connecting beam according to an embodiment of the present invention;

[0048] Fig.11 This is a schematic structural diagram of a reinforcing crossbeam according to an embodiment of the present invention;

[0049] Fig.12 It is a structural schematic diagram of the front frame according to an embodiment of the present invention;

[0050] Fig.13 It is a structural schematic diagram of the front subframe according to an embodiment of the present invention;

[0051] Fig.14 It is a structural schematic diagram of the front shock tower according to an embodiment of the present invention;

[0052] Fig.15 A schematic diagram of a chassis structure according to an embodiment of the present invention;

[0053] Fig.16 It is a structural schematic diagram of the rear subframe according to an embodiment of the present invention;

[0054] Fig.17 A schematic diagram of the cooperation between the chassis structure and the vehicle body according to an embodiment of the present invention;

[0055] Description of reference numerals:

[0056] 100, chassis structure; 200, body frame; 300, front enclosure assembly; 400, front frame;

[0057] 1. Front subframe; 2. Rear subframe; 3. A-pillar; 4. Front windshield lower crossbeam; 5. First reinforcement beam; 6. Second reinforcement beam; 7. Connecting crossbeam; 8. Frame longitudinal beam; 9. Front anti-collision beam; 10. Frame crossbeam; 11. Support member; 12. Connecting longitudinal beam; 13. Battery pack; 14. Body

[0058] 101, front subframe longitudinal beam; 102, front subframe front crossbeam; 103, front subframe middle crossbeam; 104, rear crossbeam; 105, front subframe anti-collision beam; 106, front subframe energy absorption box; 107, front shock tower; 108, support beam; 201, rear subframe longitudinal beam; 202, rear subframe front crossbeam; 203, rear subframe rear crossbeam; 204, front crossbeam; 205, rear subframe anti-collision beam; 206, rear subframe energy absorption box; 207, rear shock tower; 3a, A-pillar upper section; 501, connecting plate; 502, connecting beam; 6a, reinforcing ribs; 7a, reinforcing crossbeam; 13a, connecting section;

[0059] 1011, upper longitudinal beam; 1012, lower longitudinal beam; 107a, boss; 107b, reinforcing flange; 2011, inner longitudinal beam; 2012, outer longitudinal beam. DETAILED DESCRIPTION

[0060] It should be noted that, in the absence of conflict, the embodiments of the present invention and the features in the embodiments may be combined with each other.

[0061] In the description of the present invention, it should be noted that if there are terms indicating orientation or positional relationship such as "upper", "lower", "inner", "outer", etc., they are based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as limiting the present invention. In addition, if there are terms such as "first", "second", etc., they are only used for descriptive purposes and cannot be understood as indicating or implying relative importance.

[0062] In addition, in the description of the present invention, unless otherwise clearly defined, the terms "installed", "connected", "connection" and "connector" should be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection or an indirect connection through an intermediate medium, or it can be the internal communication of two components. For ordinary technicians in this field, the specific meanings of the above terms in the present invention can be understood in combination with specific circumstances.

[0063] The present invention will be described in detail below with reference to the accompanying drawings and in conjunction with embodiments.

[0064] Embodiment 1

[0065] The present embodiment relates to a front cabin assembly, which is beneficial to the lightweight design and styling design of the vehicle body, and also helps to improve the collision safety of the entire vehicle.

[0066] In terms of overall structure, combined Figures 1 to 4 As shown in , the front cabin assembly of this embodiment includes a front subframe 1 and a front frame 400 .

[0067] The front sub-frame longitudinal beams 101 on the left and right sides of the front sub-frame 1 are respectively provided with front shock towers 107, and reinforcing beams are respectively provided between the front shock towers 107 on each side and the front enclosure assembly 300. The front frame 400 includes frame longitudinal beams 8 arranged on the left and right sides, and front anti-collision beams 9 connected to the frame longitudinal beams 8 on both sides, and the rear end of the frame longitudinal beams 8 on each side is connected to the front sub-frame longitudinal beam 101 on the same side, and the front ends of the frame longitudinal beams 8 on both sides are connected to the front anti-collision beams 9.

[0068] In addition, the frame longitudinal beams 8, the front shock tower 107 and the reinforcing beams on each side are also connected to form a collision force transmission channel arranged along the front and rear direction of the entire vehicle.

[0069] At this time, as set above, by integrating the front shock tower 107 on the front subframe longitudinal beam 101 in the front subframe 1, this embodiment can simplify or even eliminate the front cabin longitudinal beam and the front cabin side beam in the front cabin of the vehicle body, thereby simplifying the vehicle body structure, reducing the vehicle body weight, and contributing to the lightweight design and styling design of the vehicle body.

[0070] At the same time, by setting the front frame 400 and the reinforcing beam, the frame longitudinal beam 8, the front shock absorber tower 107 and the reinforcing beam can be connected to form a collision force transmission channel arranged along the front and rear direction of the whole vehicle. This embodiment can also increase the structural strength of the front shock absorber tower 107, and is beneficial to the transmission and dispersion of the collision force to the rear of the vehicle body, thereby helping to improve the reliability of the front shock absorber installation and help improve the collision safety of the whole vehicle.

[0071] Based on the overall introduction above, specifically, it should be noted that, in the present embodiment, the front subframe 1 is a part of the chassis structure 100, the front panel assembly 300 and the above-mentioned reinforcing beam are a part of the vehicle body frame 200, and the chassis structure 100 is connected to the bottom of the vehicle body frame 200 to form a skeleton structure of the entire vehicle together with the vehicle body frame 200.

[0072] In the specific implementation, the vehicle body frame 200 in this embodiment, the front enclosure assembly 300 therein, and the front subframe 1 with front shock towers 107 arranged on the subframe longitudinal beams 101 on both sides, can all refer to the relevant structures in the existing vehicles, and will not be described in detail here.

[0073] Continue to combine Figures 5 to 7 As shown in , as a preferred implementation form, in this embodiment, the reinforcing beams on each side specifically include a first reinforcing beam 5 and a second reinforcing beam 6 connected between the front shock tower 107 and the front enclosure assembly 300. In addition, the first reinforcing beam 5 and the second reinforcing beam 6 are close to each other in the direction pointing to the front shock tower 107, and the first reinforcing beam 5, the second reinforcing beam 6 and the front enclosure assembly 300 are also connected to form a triangular structure.

[0074] At this point, it can be understood that by making the reinforcing beam consist of the first reinforcing beam 5 and the second reinforcing beam 6, and connecting the first reinforcing beam 5, the second reinforcing beam 6 and the front enclosure assembly 300 to form a triangular structure, not only can the supporting connection of the first reinforcing beam 5 and the second reinforcing beam 6 and the high strength of the triangular structure be utilized to better increase the effect of the structural strength of the front shock absorber tower 107, but also the first reinforcing beam 5 and the second reinforcing beam 6 can be used to better transmit the collision force to the front enclosure assembly 300, thereby improving the collision force transmission effect.

[0075] As a preferred implementation form, this embodiment can also make the end of the first reinforcing beam 5 connected to the front enclosure assembly 300 be specifically connected to the A-pillar 3 in the front-rear direction of the vehicle. At this time, the connection between the first reinforcing beam 5 and the A-pillar 3, that is, the projections of the two in the front-rear direction of the vehicle at least partially overlap, and the connection between the first reinforcing beam and the A-pillar 3 can not only provide a strong support capacity for the first reinforcing beam 5, but also facilitate the transmission and dispersion of the collision force at the first reinforcing beam 5 through the A-pillar 3 to the rear of the vehicle body, thereby improving the transmission and dispersion effect of the collision force.

[0076] In addition, based on the connection with the A-pillar 3, preferably, in the specific implementation of this embodiment, the first reinforcing beam 5 can also be arranged as a whole to be tilted backward and upward, so that the first reinforcing beam 5 and the A-pillar upper section 3a of the A-pillar 3 form a through force transmission channel. In this way, the collision force from the first reinforcing beam 5 can be transmitted along the A-pillar 3 to the bottom sill beam position, and can also be better transmitted to the top cover side beam position, so as to achieve a better collision force transmission and dispersion effect.

[0077] Continue to combine Figure 8 As shown, in a specific implementation, for the above-mentioned first reinforcing beam 5, this embodiment, for example, can make the first reinforcing beam 5 include a connecting plate 501 connected to the front enclosure assembly 300, and a connecting beam 502 connected to the connecting plate 501 at one end, and the other end of the connecting beam 502 is connected to the front shock tower 107.

[0078] At this time, the first reinforcing beam 5 is composed of a connecting plate 501 and a connecting beam 502 . It can be understood that this can facilitate the preparation of the first reinforcing beam 5 and also facilitate the arrangement of the first reinforcing beam 5 between the front enclosure assembly 300 and the front shock tower 107 .

[0079] In addition, in terms of specific structural settings, preferably, this embodiment is combined with Figure 7 and Figure 8 As shown, for example, the connecting plate 501 may be box-shaped, and based on this, a cavity is formed between the connecting plate 501 and the front panel assembly 300. In this way, by making the connecting plate 501 box-shaped and forming a cavity with the front panel assembly 300, the strength of the box-shaped structure can be utilized to ensure the strength of the connecting plate 501 and the reliability of its connection.

[0080] In this embodiment, in addition to making the connection plate 501 a box-shaped structure, preferably, the connection beam 502 can be, for example, a tube beam. Moreover, by making the connection beam 502 a tube beam, it can be understood that it is easy to prepare the connection beam 502 and can also ensure the structural strength of the connection beam 502.

[0081] Continue to combine Fig. 9As shown in , the second reinforcing beam 6 of the present embodiment may, for example, adopt a stamped plate structure, and in order to increase the structural strength of the second reinforcing beam 6, reinforcing ribs 6a may also be formed thereon. At the same time, the reinforcing ribs 6a may be designed to be multiple ribs arranged side by side according to the width of the second reinforcing beam 6 to ensure the structural reinforcement effect.

[0082] It should be noted that the connecting plate 501 and the connecting beam 502 constituting the first reinforcing beam 5 can be fixedly connected together by a screw connection structure after being butted, for example, the end of the connecting plate 501 close to the front enclosure assembly 300 can be fixedly connected to the front enclosure assembly 300 by welding, and the end of the connecting beam 502 close to the front shock tower 107 can also be fixedly connected to the front shock tower 107 by a screw connection structure. Both ends of the second reinforcing beam 6 can be connected to the front enclosure assembly 300 and the front shock tower 107 by a screw connection structure.

[0083] In addition, it should be noted that in addition to making the first reinforcing beam 501 and the second reinforcing beam 6 adopt the above-mentioned structural form, of course, in the specific implementation, it is also possible to make the first reinforcing beam 501 and the second reinforcing beam 6 adopt other stamped sheet metal, extruded profiles and other structures, as long as they can meet the support and reinforcement effect of the front shock tower 107 position.

[0084] In this embodiment, as a preferred implementation form, the second reinforcing beam 6 can be specifically connected to the front windshield lower cross beam 4 in the front enclosure assembly 300. In this way, the second reinforcing beam 6 is connected to the front windshield lower cross beam 4, which can also provide a strong support capacity for the second reinforcing beam 6, and is also conducive to the transmission and dispersion of the collision force at the second reinforcing beam 6 through the front windshield lower cross beam 4 to the rear of the vehicle body, thereby improving the transmission and dispersion effect of the collision force.

[0085] As a preferred implementation form, in this embodiment, in specific implementation, the first reinforcing beam 5 and the second reinforcing beam 6 can also be generally connected to the top of the front shock tower 107. At this time, by connecting the first reinforcing beam 5 and the second reinforcing beam 6 to the top of the front shock tower 107, it is easy to connect the first reinforcing beam 5 and the second reinforcing beam 6 to the front shock tower 107, and it is also convenient to arrange the two reinforcing beams.

[0086] It should be noted that, in addition to the above, the reinforcing beams on each side include the first reinforcing beam 5 and the second reinforcing beam 6, of course, it is also possible to have only one reinforcing beam on each side, or more reinforcing beams, and to have the reinforcing beams adopt, for example, extruded profiles or sheet metal welding structures. In specific implementation, the selection can be made according to actual design needs.

[0087] Still Figures 2 to 5As shown in , as a preferred implementation form, in this embodiment, a connecting crossbeam 7 is further connected between the front shock absorber towers 107 on the left and right sides. At this time, by arranging the connecting crossbeam 7 between the front shock absorber towers 107 on both sides, lateral support can be provided between the front shock absorber towers 107 on both sides, so as to further increase the structural strength of each front shock absorber tower 107, and the arrangement of the connecting crossbeam 7 can also form a lateral (i.e., left and right direction of the whole vehicle) force transmission channel between the front shock absorber towers 107 on both sides, thereby improving the collision force transmission and dispersion effect.

[0088] In a specific implementation, preferably, the connecting beam 7 can also be connected between the tops of the front shock towers 107 on both sides, so that the connecting beam 7 is connected between the tops of the front shock towers 107 on both sides, which can also facilitate the arrangement of the connecting beam 7.

[0089] In addition, if Fig.10 As shown, in a specific implementation, the connecting cross beam 7 can be, for example, a stamped sheet metal beam structure, and its two ends can also be connected to the front shock tower 107 by a screw connection structure, and continue as shown in FIG. Fig.11 As shown, as a preferred implementation form, this embodiment can further provide a reinforcing beam 7a extending in the left-right direction of the vehicle in the middle of the connecting beam 7, and the reinforcing beam 7a is buckled and connected with the connecting beam 7.

[0090] At this time, the reinforcing crossbeam 7a can also be made of a stamped sheet metal part, and by arranging the reinforcing crossbeam 7a in the middle of the connecting crossbeam 7, it is obvious that it can further improve the supporting strength and collision force transmission performance of the connecting crossbeam 7.

[0091] In this embodiment, Figures 1 to 5 , and continue to combine Fig.12 As shown, in the front frame 400, the rear end of each side frame longitudinal beam 8 is located in front of the same side front shock tower 107. In addition, as a preferred embodiment, a frame cross beam 9 is connected between the ends of the two side frame longitudinal beams 8 close to the front sub-frame longitudinal beam 101, and the frame cross beam 10 is also connected to the front shock towers 107 on both sides.

[0092] In this way, by setting the frame cross beam 10 between the frame longitudinal beams 8 on both sides and connecting the frame longitudinal beam 10 to the front shock towers 107 on each side, the overall rigidity of the front frame 400 and the reliability of the connection with the front subframe 1 can be increased, and a lateral force transmission channel can also be formed to enhance the collision force transmission and dispersion effect.

[0093] In this embodiment, the front anti-collision beam 9 connected to the front ends of the frame longitudinal beams 8 on both sides is equivalent to the front anti-collision beam assembly structure in the traditional vehicle body, and preferably, the front ends of the frame longitudinal beams 8 on both sides can also be connected to energy absorption boxes not shown in the figure, thereby making the frame longitudinal beams 8 on both sides connected to the front anti-collision beam 9 through the energy absorption boxes.

[0094] At this time, the frame longitudinal beam 8 is connected to the front anti-collision beam 9 through the energy absorption box, which can improve the crush energy absorption capacity of the front frame 400 during a collision. In addition, in the specific implementation, in this embodiment, the frame longitudinal beams 8 on both sides and the frame cross beam 10 can both adopt a tubular structure. In this way, the frame longitudinal beams 8 and the frame cross beams 10 are made of tubular beams, which can facilitate their preparation and also ensure the structural strength of the frame longitudinal beams 8 and the frame cross beams 10.

[0095] It should be noted that in this embodiment, in addition to making the front subframe 1 adopt the relevant structure of the existing vehicle, as a preferred implementation form, combined with Fig.13 As shown in , in the front subframe 1 of this embodiment, the front subframe longitudinal beam 1 on each side has an upper longitudinal beam 1011 and a lower longitudinal beam 1012 arranged vertically, the upper longitudinal beam 1011 and the lower longitudinal beam 1012 both extend along the front-rear direction of the entire vehicle, and the front shock tower 107 on each side is arranged on the upper longitudinal beam 1011 on the same side.

[0096] Specifically, see Fig.13 As shown in the figure, based on the front subframe longitudinal beam 1 having an upper longitudinal beam 1011 and a lower longitudinal beam 1012 arranged up and down, as an exemplary structure, the front end of the upper longitudinal beam 1011 and the lower longitudinal beam 1012 on each side are connected to the front cross beam 102 of the front subframe, and the rear end of the upper longitudinal beam 1011 and the lower longitudinal beam 1012 on each side are connected to the rear cross beam 104 located at the rear part of the front subframe 1. At the same time, the above-mentioned side frame longitudinal beams 8 are also connected to the upper longitudinal beam 1011 on the same side.

[0097] In addition, similar to the front subframe 1 currently provided in the vehicle, in addition to the front subframe front crossbeam 102, the present embodiment also provides a front subframe middle crossbeam 103 between the front subframe longitudinal beams 101 on both sides. The front subframe middle crossbeam 103 is located between the middle parts of the front subframe longitudinal beams 101 on both sides, and is specifically connected between the lower longitudinal beams 1012 on both sides.

[0098] In addition to the front sub-frame middle cross beam 103, the present embodiment also has a front sub-frame anti-collision beam 105 at the front end of the front sub-frame 1, and the front sub-frame anti-collision beam 105 is also specifically connected to the front side of the front sub-frame front cross beam 102 through front sub-frame energy absorption boxes 106 disposed on the left and right sides.

[0099] It should be noted that, as a preferred implementation form, in this embodiment, the above-mentioned rear cross beam 104 can be, for example, a part of the front sub-frame 1, and specifically a front sub-frame rear cross beam located at the rear end of the front sub-frame 1. However, in addition to being a front sub-frame rear cross beam, of course, the rear cross beam 104 of this embodiment can also be a beam structure that is arranged at the rear of the front sub-frame 1 and is arranged independently of the front sub-frame 1, and in this case, the rear cross beam 104 can, for example, be connected between the two side connecting longitudinal beams 12 described below to meet its arrangement requirements.

[0100] It should be noted that, in specific implementation, when the rear cross beam 104 is independently provided from the front sub-frame 1, the connection between the rear cross beam 104 and the front sub-frame 1 is generally connected to the rear ends of the front sub-frame longitudinal beams 101 on both sides. Moreover, when the rear cross beam 104 is independently provided from the front sub-frame 1, the front sub-frame rear cross beam in the front sub-frame 1 can be selectively provided as required.

[0101] As a preferred implementation form, based on the fact that the front ends of the upper and lower longitudinal beams on each side are connected to the front cross beam 102 of the front sub-frame, this embodiment also makes the front ends of the upper longitudinal beams 1011 and the lower longitudinal beams 1012 on each side intersect together, and the front sections of the upper longitudinal beams 1011 and the lower longitudinal beams 1012 on each side, and the front sub-frame energy absorption box 106 located on the front side of the front cross beam 102 of the front sub-frame together form a herringbone structure.

[0102] At this time, by making the front ends of the upper and lower longitudinal beams on each side intersect and connect to the front cross beam 102 of the front subframe, and making the front sections of the upper and lower longitudinal beams on each side and the front subframe energy absorption box 106 form a herringbone structure, it is beneficial to transmit the collision force to the upper and lower longitudinal beams, and can further increase the transmission capacity of the front subframe longitudinal beam 101 to the collision force.

[0103] In this embodiment, as a preferred implementation form, the middle parts of the upper longitudinal beams 1011 on both sides are arched upward along the vertical direction of the whole vehicle, and the front shock absorber towers 107 on each side are also specifically arranged at the top of the arched position of the upper longitudinal beam 1011 on the same side. In addition, front shock absorber mounting structures are also respectively arranged on the front shock absorber towers 107 on each side for installing the front shock absorbers. It can be understood that by making the middle part of the upper longitudinal beam 1011 arch upward and setting the front shock absorber towers 107 at the arched position, it not only helps to improve the crushing energy absorption effect of the upper longitudinal beam 1011 when the vehicle collides, especially when it is a head-on collision, but also helps to meet the height requirements of the front shock absorber towers 107 in the whole vehicle.

[0104] On the basis of integrating the front shock tower 107 on the upper longitudinal beam 1011, in the specific embodiment, as a preferred implementation form, Fig.13 As shown, in this embodiment, the portion where the upper longitudinal beam 1011 and the front shock tower 107 are connected can also be a straight structure arranged along the front-rear direction of the entire vehicle.

[0105] In this way, the portion where the upper longitudinal beam 1011 and the front shock tower 107 are connected is set as a straight structure, which can facilitate the integrated setting of the front shock tower 107 and also help improve the collision force transmission capability of the upper longitudinal beam 101. Moreover, as a preferred implementation form, based on the straight structure in the upper longitudinal beam 1011, this embodiment can also be viewed from the front and rear direction of the vehicle so that the side frame longitudinal beam 8 and the straight structure in the upper longitudinal beam 1011 on the same side are on the same straight line, so that the collision force from the frame longitudinal beam 8 can be better transmitted to the position of the upper longitudinal beam 1011.

[0106] Continue as Fig.14 As shown in , in a specific implementation, the front shock absorber mounting structure located on the front shock absorber tower 107 may be, for example, a front shock absorber mounting hole disposed at the top of the front shock absorber tower 107, and a through hole for accommodating the top of the front shock absorber. At the same time, in order to increase the rigidity of the front shock absorber mounting position, preferably, in this embodiment, a convex boss 107a may be formed at the top of the front shock absorber tower 107, and the mounting hole for the front shock absorber and the through hole for accommodating the top of the front shock absorber are both located on the boss 107a.

[0107] In addition to providing the above-mentioned boss 107a, as a preferred implementation form, this embodiment can also be as follows Fig.13 and Fig.14 As shown in the figure, reinforcing flanges 107b are provided on both the front and rear sides of the front shock absorber tower 107, and the bottoms of the reinforcing flanges 107b on the front and rear sides are connected to the upper longitudinal beam 1011, and the tops of the reinforcing flanges 107b on the front and rear sides are connected to the top of the front shock absorber tower 107.

[0108] Through the reinforced flanges 107b set on the front and rear sides of the front shock absorber tower 107, it can be understood that it can increase the overall structural strength of the front shock absorber tower 107, improve the reliability of the front shock absorber installation, and also increase the stability of the connection between the front shock absorber tower 107 and the upper longitudinal beam 1011.

[0109] In this embodiment, continue to refer to Fig.13 As shown, as a preferred implementation form, a support beam 108 can also be set between each side lower longitudinal beam 1012 and the upper longitudinal beam 1011, and the bottom end of each side support beam 108 is connected to the lower longitudinal beam 1012, and the connection point between each side support beam 108 and the upper longitudinal beam 1011 is specifically located below the front shock tower 107 on the same side.

[0110] At this time, by arranging the support beam 108 below the front shock tower 107 between the upper and lower longitudinal beams on each side, the upper longitudinal beam 1011 and the front shock tower 107 can be supported to improve the dynamic stiffness of the front shock tower 107. In specific implementation, the top of the support beam 108 and the upper longitudinal beam 1011 can generally be connected through a screw connection structure, and at the same time, the connection portion of the support beam 108 and the lower longitudinal beam 1012 can be set corresponding to the cross beam 103 in the front subframe to increase the support capacity of the support beam 108.

[0111] In this embodiment, based on the above-mentioned arrangement of the front sub-frame 1 and the front frame 400, as a preferred implementation form, a support member 11 is also arranged on the front sub-frame front cross beam 102, which is respectively supported under each side frame longitudinal beam 8. The support members 11 on each side can be a conventional box-shaped sheet metal structure, or an extruded profile, etc., and by arranging the support members 11 for supporting each side frame longitudinal beam 8 on the front sub-frame front cross beam 102, it can prevent the front frame 400 from becoming a single cantilever structure, and can improve the stability of the arrangement of the front frame 400.

[0112] The front cabin assembly of this embodiment can simplify or even eliminate the front cabin longitudinal beam and the front cabin side beam in the front cabin of the vehicle body by integrating the front shock tower 107 on the front subframe longitudinal beam 101 in the front subframe 1, thereby simplifying the vehicle body structure, reducing the vehicle body weight, and contributing to the lightweight design and styling design of the vehicle body.

[0113] Of course, by setting up the front frame 400 and the reinforcing beam, the frame longitudinal beam 8, the front shock tower 107 and the reinforcing beam can be connected to form a collision force transmission channel arranged along the front and rear direction of the vehicle. This embodiment can also increase the structural strength of the front shock tower 107, and is beneficial for the transmission and dispersion of the collision force to the rear of the vehicle body, thereby helping to improve the reliability of the front shock absorber installation, and helping to improve the collision safety of the entire vehicle, and has good practicality.

[0114] Embodiment 2

[0115] This embodiment relates to a vehicle, in which the front cabin assembly in the first embodiment is provided.

[0116] In addition, it should be noted that the vehicle provided with the front engine compartment assembly of the present embodiment may still be a conventional fuel vehicle, however, Fig.15 As shown in the figure, as a preferred implementation form, the vehicle of this embodiment can be, for example, a new energy vehicle, and in particular a pure electric vehicle, and a rear subframe 2 and a connecting longitudinal beam 12 connected between the front subframe 1 and the rear subframe 2 are also provided in the vehicle.

[0117] The connecting longitudinal beams 12 are two beams arranged on the left and right sides, and the front subframe 1, the rear subframe 2, and the connecting longitudinal beams 12 on both sides also define the battery pack installation space. At the same time, the rear subframe 2 and the front subframe 1, and the connecting longitudinal beams 3 connecting the two together together constitute the chassis structure 100 in this embodiment.

[0118] At this time, by setting the connecting longitudinal beams 12 on both sides, the front and rear subframes are connected into an integrated annular structure through the connecting longitudinal beams 12 on both sides, and at the same time, the battery pack installation space is defined in the annular structure. The connecting setting of the connecting longitudinal beams 12 can also be used to form a battery pack annular frame structure. When the vehicle collides, the battery pack 13 can move with the annular frame structure, which can reduce the collision impact on the battery pack 13, thereby increasing the collision safety of the battery pack 13 and helping to improve the safety quality of the entire vehicle.

[0119] Specifically, in this embodiment, as a preferred implementation form, the embodiment can also be such that the rear sub-frame longitudinal beams 201 on the left and right sides of the rear sub-frame 2 are respectively provided with rear shock absorber towers 207. At the same time, based on the rear shock absorber towers 207 also being provided on the rear sub-frame longitudinal beams 201 on each side, as an exemplary structure, Fig.16 As shown in the figure, for the rear subframe 2, the rear subframe longitudinal beams 201 on both sides include inner longitudinal beams 2011, and outer longitudinal beams 2012 are respectively arranged on the side of the inner longitudinal beams 2011 facing the outside of the vehicle along the left-right direction of the whole vehicle, and the rear shock towers 207 on each side are arranged on the outer longitudinal beams 2012 on the same side.

[0120] In addition, similar to the rear subframe 2 currently provided in the vehicle, the rear subframe 2 of the present embodiment also has a rear subframe cross beam connected between the rear subframe longitudinal beams 201 on both sides, and the rear subframe cross beam includes a rear subframe front cross beam 202 provided near the front end of the rear subframe longitudinal beam 201, and a rear subframe rear cross beam 203 provided near the rear end of the rear subframe longitudinal beam 201.

[0121] At the same time, as a preferred implementation form, in this embodiment, the outer longitudinal beams 2012 on both sides extend along the front-rear direction of the whole vehicle, and the outer longitudinal beams 2012 on each side are connected between the front and rear ends of the same-side rear sub-frame longitudinal beam 201. In this way, the outer longitudinal beams 2012 are connected between the front and rear ends of the rear sub-frame longitudinal beam 201, so that the outer longitudinal beams 2012 can better participate in the collision force transmission, and can further improve the collision force transmission effect of the rear sub-frame 2.

[0122] As one of the differences from the existing rear subframe structure, in this embodiment, as a preferred implementation form, a front cross beam 204 is also arranged between the front ends of the rear subframe longitudinal beams 201 on both sides, and based on the arrangement of the front cross beam 204, the front cross beam 204, the rear subframe cross beam, and the rear subframe longitudinal beams 201 and the outer longitudinal beams 2012 on each side are connected to form a plurality of ring structures.

[0123] At this point, it can be understood that, by setting the above-mentioned front cross beam 204, the structural strength and rigidity of the front part of the rear sub-frame 2 can be increased, and at the same time, the front cross beam 204, the rear sub-frame cross beam, and the inner longitudinal beams 2011 and the outer longitudinal beams 2012 on each side are connected to form a plurality of ring structures, which can utilize the high strength of the ring structure to ensure the overall structural strength and rigidity of the rear sub-frame 2, which is beneficial to the improvement of the torsional rigidity of the rear part of the whole vehicle.

[0124] In addition, by setting the front cross beam 204 as above, the battery pack installation space of the present embodiment is specifically formed between the front cross beam 204, the rear cross beam 104 and the connecting longitudinal beams 12 on both sides, so that the annular frame structure used to define the battery pack installation space becomes a rigid enveloping structure adapted to the shape of the battery pack 13, and can better improve the collision safety of the battery pack 13.

[0125] In this embodiment, still refer to Fig.16 As shown, as another difference from the existing rear sub-frame structure, a rear sub-frame anti-collision beam 205 is provided at the rear end of the rear sub-frame 2, and the rear ends of the rear sub-frame longitudinal beams 201 on both sides are also connected with rear sub-frame energy absorbing boxes 206. The above-mentioned rear sub-frame anti-collision beam 205 is connected to the rear sub-frame energy absorbing boxes 206 on both sides to realize the setting at the rear end of the rear sub-frame 2.

[0126] The above-mentioned rear subframe anti-collision beam 205 and each rear subframe energy absorption box 206 can all adopt the conventional anti-collision beam and energy absorption box structure used in the existing vehicle body. In addition, by arranging the rear subframe anti-collision beam 205 at the rear end of the rear subframe 2, it can be understood that, on the one hand, it can improve the rear collision force transmission performance of the rear subframe 2, so that the collision force is better transmitted forward along the rear subframe longitudinal beam 201 and the outer longitudinal beam 2012, avoiding single-position force, collision force is difficult to disperse, and causes excessive deformation. On the other hand, the above-mentioned rear subframe anti-collision beam 205 can also be used as a pedestrian anti-rolling beam at the rear of the vehicle, which can improve the safety during the reversing process.

[0127] By connecting the rear subframe anti-collision beam 205 to the rear subframe longitudinal beam 201 through the rear subframe energy absorption box 206, the present embodiment can perform crushing energy absorption through the rear subframe energy absorption box 206, which helps to further improve the safety of the vehicle during rear-end collision.

[0128] In this embodiment, Fig.16 As shown in , as a preferred implementation form, the middle parts of the outer longitudinal beams 2012 on both sides are arched upward along the vertical direction of the whole vehicle, and the tops of the arched parts of the outer longitudinal beams 2012 on both sides can be set as straight sections arranged along the front-rear direction of the whole vehicle. In this way, the middle parts of the outer longitudinal beams 2012 on both sides are arched upward, which helps to increase the crushing energy absorption performance of the outer longitudinal beams 2012 during collision. The top of the arched part of the outer longitudinal beam 2012 is a straight section, and at this time, the rear shock tower 207 on each side is connected to the top of the straight section on the same side, and the rear shock spring mounting seat can also be connected to the bottom of the straight section on each side, so as to facilitate the arrangement of the rear shock spring.

[0129] In this embodiment, Fig.15 As shown, in the left-right direction of the vehicle, based on the connection of the front and rear sub-frames by the connecting longitudinal beams 12 on both sides, as a preferred implementation form, the connecting longitudinal beams 12 on each side are also located on the side of the front sub-frame longitudinal beam 101 and the rear sub-frame longitudinal beam 201 on the same side close to the outside of the vehicle.

[0130] At this time, the longitudinal beams 12 on each side are connected as Fig.15 As shown in the figure, the front sub-frame longitudinal beam 101 and the rear sub-frame longitudinal beam 201 are located on the same side close to the outside of the vehicle. This embodiment helps to achieve Y-direction cross-sectional changes such as the front and rear parts of the load-bearing body, and can meet the matching design requirements between the chassis structure 100 and the body frame 200 in the load-bearing body.

[0131] In the specific implementation, based on the rear cross beam 104 being provided at the rear of the front sub-frame 1, the front ends of the connecting longitudinal beams 12 on both sides are respectively connected to the ends of the extended sections on the left and right sides of the rear cross beam 104, and at the same time, the rear ends of the connecting longitudinal beams 12 on both sides are specifically connected to the front ends of the longitudinal beams 201 of the rear sub-frame on both sides.

[0132] Moreover, this embodiment is based on the outward extension sections on both sides of the rear cross beam 104, and by combining Fig.16 As shown, by connecting the side connecting beams 12 to the rear sub-frame longitudinal beam 201 through the inclined connecting sections 13a, the connecting beams 12 are located on the side of the front sub-frame longitudinal beam 101 and the rear sub-frame longitudinal beam 201 close to the outside of the vehicle, so as to meet the Y-direction (the left and right direction of the whole vehicle) cross-sectional variation of the front and rear parts of the load-bearing body. Of course, the above-mentioned Y-direction cross-sectional variation also means that the side connecting beams 12, the front sub-frame longitudinal beam 101 and the rear sub-frame longitudinal beam 201 are not in a straight line, but are bent at the connection position between the two, thereby reducing the Y-direction cross-sectional dimension of the vehicle body at the front sub-frame 1 and the rear sub-frame 2.

[0133] The above-mentioned change in the Y-direction cross-section of the front part of the vehicle body is obviously fundamentally different from the Y-direction cross-section of the frame beam in the non-load-bearing body that is basically consistent front and rear. In addition, the present embodiment meets the matching design requirements between the chassis and the body frame in the load-bearing body through the size change of the above-mentioned Y-direction cross-section of the front part of the vehicle body.

[0134] In this embodiment, in the specific implementation, the connecting longitudinal beams 12 on both sides can be, for example, an integrally formed beam structure, and specifically an integral closed structure. In this case, the connecting longitudinal beams 12 can also be connected to the rear cross beams 104 in the front and rear sub-frames and the rear sub-frame longitudinal beams 201 by welding. In this way, it can be understood that by using a closed cross section, it can take advantage of the high strength of the cavity structure to ensure the structural strength of the connecting longitudinal beams 12 themselves.

[0135] Of course, in addition to being an integrated structure, the connecting longitudinal beam 12 of this embodiment may also adopt other structures, and for example, it may adopt a steel profile welding structure, an aluminum alloy profile extrusion structure, etc.

[0136] The vehicle of this embodiment can simplify the body structure, reduce the body weight, and contribute to the lightweight design and styling design of the body by setting the front cabin assembly in the first embodiment. At the same time, it can also increase the strength of the front shock tower 107 position, and also help to improve the collision safety of the whole vehicle.

[0137] In addition, by setting the connecting longitudinal beams 12 on both sides, connecting the front and rear subframes, and defining the battery pack installation space together by the rear cross beam 104, the front cross beam 204 and the connecting longitudinal beams 12 on both sides, this embodiment can also form a battery pack annular frame structure by means of the connection setting of the connecting longitudinal beams 12. In the event of a collision, the battery pack 13 can move with the annular frame structure, which can reduce the collision impact on the battery pack 13, increase the collision safety of the battery pack 13, and thus improve the safety quality of the entire vehicle.

[0138] In addition, it should be noted that in this embodiment, since the front and rear ends of the chassis are still the front and rear subframes, the subframe structure has a smaller Y-direction cross-section than the frame in the non-load-bearing body, and the longitudinal beam at the position of the subframe continues to use a curved longitudinal beam structure, making the chassis structure 100 in this embodiment a structural innovation in the form of a subframe, and significantly different from the conventional non-load-bearing frame beam structure. Specifically, the front and rear subframes in this embodiment are still separate units, and they are just based on the front and rear subframes in the load-bearing body, and further add the front and rear connecting longitudinal beams 12, which are not the integrated beam structure in the non-load-bearing body.

[0139] Of course, in the embodiment in which the connecting longitudinal beam 12 is connected to the front and rear subframes, it is precisely because of the use of the integrated structure of the front and rear subframes connected by the connecting longitudinal beam 12 that this embodiment can not only utilize the characteristics of the load-bearing body structure to reduce the body weight to increase the vehicle endurance, but also form a battery pack annular protection frame to better improve the collision safety of the battery pack 13. Therefore, it not only improves the shortcomings of the load-bearing body structure, but also has the advantages of the non-load-bearing body structure, and can well improve the overall quality of the vehicle.

[0140] In addition, during the final assembly of the vehicle of this embodiment, the subframe at the bottom is still assembled to the upper body in the same manner as the existing load-bearing body assembly method, and the upper body frame is the load-bearing body in the vehicle, and the chassis accessories are also assembled to the body relying on the front and rear subframes. When the vehicle collides, the upper body frame and the front and rear subframes in the chassis and the connecting longitudinal beam 12 participate in the absorption and transmission of the collision force, instead of the frame beam alone transmitting force and absorbing energy as in the non-load-bearing body.

[0141] At the same time, further, based on the front and rear sub-frames respectively integrating the front shock tower 107 and the rear shock tower 207, this embodiment can also make the overall chassis structure into a skateboard chassis. Fig.17 As shown in , this embodiment eliminates the influence of the distribution of shock towers in the load-bearing body on the body structure, thereby eliminating the front cabin longitudinal beam and front cabin side beam at the front cabin position, and eliminating the rear floor longitudinal beam at the rear floor position, thereby retaining only the middle passenger compartment in the body 14, making the body design simpler, achieving the effect of lightweight body and facilitating body shape design.

[0142] When only the middle part of the cockpit is retained, it should be noted that the front and rear sides of the cockpit can be connected to the front and rear subframes through profiles or beam-like parts, and the front cabin and trunk areas at the front and rear of the vehicle can be matched only according to the overall vehicle styling design.

[0143] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A front cabin assembly, characterized in that: It comprises a front subframe (1) and a front frame (400); Front shock towers (107) are respectively provided on the front subframe longitudinal beams (101) on the left and right sides of the front subframe (1), and reinforcing beams are respectively provided between the front shock towers (107) and the front enclosure assembly (300) on each side; The front frame (400) comprises frame longitudinal beams (8) arranged on the left and right sides, and front anti-collision beams (9) connected to the frame longitudinal beams (8) on the two sides, and the rear end of the frame longitudinal beams (8) on each side is connected to the front sub-frame longitudinal beam (101) on the same side, and the front end of the frame longitudinal beams (8) on the two sides is connected to the front anti-collision beam (9); The frame longitudinal beams (8) on each side, the front shock tower (107) and the reinforcing beam are connected to form a collision force transmission channel arranged along the front-rear direction of the entire vehicle.

2. The front nacelle assembly according to claim 1, characterized in that: The reinforcing beams on each side include a first reinforcing beam (5) and a second reinforcing beam (6) connected between the front shock tower (107) and the front enclosure assembly (300); The first reinforcing beam (5) and the second reinforcing beam (6) are close to each other in a direction pointing toward the front shock tower (107), and the first reinforcing beam (5), the second reinforcing beam (6) and the front enclosure assembly (300) are connected to form a triangular structure.

3. The front nacelle assembly according to claim 2, characterized in that: One end of the first reinforcing beam (5) connected to the front enclosure assembly (300) is arranged in connection with the A-pillar (3) in the front-rear direction of the vehicle; and / or, The second reinforcing beam (6) is connected to the front windshield lower cross beam (4) in the front enclosure assembly (300).

4. The front nacelle assembly according to claim 1, characterized in that: A connecting crossbeam (7) is connected between the front shock absorbing towers (107) on both sides; and / or, A frame crossbeam (9) is connected between one end of the frame longitudinal beams (8) on both sides close to the front auxiliary frame longitudinal beam (101), and the frame longitudinal beam (8) is respectively connected to the front shock towers (107) on both sides.

5. The front nacelle assembly according to claim 1, characterized in that: The front ends of the frame longitudinal beams (8) on both sides are connected to energy absorption boxes, and the frame longitudinal beams (8) on both sides are connected to the front anti-collision beam (9) through the energy absorption boxes; and / or, The frame longitudinal beams (8) on both sides are tubular structures.

6. The front nacelle assembly according to any one of claims 1 to 5, characterized in that: The front auxiliary frame longitudinal beams (101) on both sides each have an upper longitudinal beam (1011) and a lower longitudinal beam (1012) arranged up and down; The front ends of the upper longitudinal beam (1011) and the lower longitudinal beam (1012) on each side are connected to the front cross beam (102) of the front subframe, and the rear ends of the upper longitudinal beam (1011) and the lower longitudinal beam (1012) on each side are connected to the rear cross beam (104) located at the rear of the front subframe (1); The front shock tower (107) on each side is connected to the upper longitudinal beam (1011) on the same side, and the rear end of the frame longitudinal beam (8) on each side is connected to the upper longitudinal beam (1011) on the same side.

7. The front nacelle assembly according to claim 6, characterized in that: A support beam (108) is connected between the upper longitudinal beam (1011) and the lower longitudinal beam (1012) on each side, and a connection point between the support beam (108) and the upper longitudinal beam (1011) on each side is located below the front shock tower (107) on the same side; and / or, The front sub-frame front cross beam (102) is provided with support members (11) respectively supported below the frame longitudinal beams (8) on each side.

8. A vehicle, characterized in that: The vehicle is provided with the front cabin assembly according to any one of claims 1 to 7.

9. The vehicle according to claim 8, characterized in that: The vehicle is also provided with a rear subframe (2) and a connecting longitudinal beam (13) connected between the front subframe (1) and the rear subframe (2); The connecting longitudinal beams (13) are two beams arranged on the left and right sides, and the front subframe (1), the rear subframe (2), and the connecting longitudinal beams (13) on both sides jointly define a battery pack installation space.

10. The vehicle according to claim 9, characterized in that: The longitudinal beams of the rear subframe (2) on the left and right sides of the rear subframe (2) both include an inner longitudinal beam (2011) and an outer longitudinal beam (2012) arranged on the side of the inner longitudinal beam (2011) facing the outside of the vehicle along the left-right direction of the whole vehicle, and rear shock towers are respectively arranged on the outer longitudinal beams (2012) on both sides; and / or, In the left-right direction of the vehicle, the connecting longitudinal beam (13) on each side is located on the side of the front sub-frame longitudinal beam (101) and the rear sub-frame longitudinal beam (201) on the same side close to the outside of the vehicle.

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