Pre-engineered frame portion and method of use therefor
View Patent ↗A vehicle chassis includes a structural frame having a frame portion that partially defines an open space and that has a predetermined configuration such that the open space maintains a predetermined amount of spatial integrity in the event of a horizontal impact to the vehicle chassis. The frame also includes a frame component operatively connected to the frame portion that further defines the structural frame. The open space provides a protected packaging space wherein certain critical chassis components are placed. The frame portion configuration provides a pre-engineered protected area that may be used in a variety of structural frame configurations. Accordingly, a method for using pre-engineered frame portions is provided.
1. A method of assembling a plurality of vehicle chassis, the method comprising:
assembling a first vehicle chassis structural frame having
a first frame portion defining a first open space, partially defining the first vehicle chassis structural frame, and having a predetermined configuration such that the first open space maintains a predetermined amount of spatial integrity in the event of a load exerted on the first frame portion or a vehicle component operatively connected thereto, and
a first selection of at least one frame component further defining the first vehicle chassis structural frame and operatively connected to the first frame portion such that the first vehicle chassis structural frame has a first length; and
assembling a second vehicle chassis structural frame having
a second frame portion substantially identical to the first frame portion, defining a second open space, partially defining the second vehicle chassis structural frame, and having a predetermined configuration such that the second open space maintains a predetermined amount of spatial integrity in the event of a load exerted on the second frame portion or a vehicle component operatively connected thereto, and—
a second selection of at least one frame component further defining the second vehicle chassis structural frame and operatively connected to the second frame portion such that the second vehicle chassis structural frame has a second length;
wherein the second length is different from the first length.
2. The method of claim 1 , wherein the first frame portion and the second frame portion are prefabricated modules.
3. The method of claim 2 , further comprising maintaining an inventory having a plurality of substantially identical prefabricated modules that each define an open space, and wherein the first frame portion and the second frame portion are prefabricated modules taken from the inventory.
4. The method of claim 3 , wherein each of the plurality of prefabricated frame modules in the inventory includes a plurality of segments defining the open space therebetween, and at least one augmentation segment operatively connected to at least one of the plurality of segments defining the open space; and
wherein at least one of the first selection of frame components is mounted to the at least one augmentation segment of the first frame portion, and wherein at least one of the second selection of frame components is mounted to the at least one augmentation segment of the second frame portion.
5. The method of claim 1 , further comprising:
assembling a first vehicle chassis having the first vehicle chassis structural frame, a first set of at least three wheels rotatably mounted with respect to the first vehicle chassis structural frame, a first plurality of body-retention couplings mounted with respect to the first vehicle chassis structural frame and at which a vehicle body is connectable to the first vehicle chassis structural frame, a first steering system, a first braking system, a first energy conversion system, and a first energy storage system; wherein the first steering system, first braking system, and first energy conversion system are mounted with respect to the first vehicle chassis structural frame and operatively connected to at least one of the at least three wheels in the first set; wherein the first energy storage system is operatively connected to the first energy conversion system and mounted with respect to the first vehicle chassis structural frame; and wherein at least a portion of at least one of the first energy conversion system, first energy storage system, first steering system, and first braking system is located within the open space of the first frame portion; and
assembling a second vehicle chassis having the second vehicle chassis structural frame, a second set of at least three wheels rotatably mounted with respect to the second vehicle chassis structural frame, a second plurality of body-retention couplings mounted with respect to the second vehicle chassis structural frame and at which a vehicle body is connectable to the second vehicle chassis structural frame, a second steering system, a second braking system, a second energy conversion system, and a second energy storage system; wherein the second steering system, second braking system, and second energy conversion system are mounted with respect to the second vehicle chassis structural frame and operatively connected to at least one of the at least three wheels in the second set; wherein the second energy storage system is operatively connected to the second energy conversion system and mounted with respect to the second vehicle chassis structural frame; and wherein at least a portion of at least one of the second energy conversion system, second energy storage system, second steering system, and second braking system is located within the open space of the second frame portion.
6. The method of claim 5 , wherein the first steering system, first braking system, first energy conversion system, second steering system, second braking system, and second energy conversion system are responsive to nonmechanical control signals.
7. The method of claim 5 , wherein the first energy conversion system and the second energy conversion system include a fuel cell.
8. The method of claim 7 , wherein the first energy storage system and the second energy storage system are configured to store hydrogen.
9. A method of assembling vehicle chassis, the method comprising:
providing a first vehicle chassis structural frame, the first vehicle chassis structural frame including a first frame portion and a first selection of at least one frame component operatively connected to the first frame portion such that the first vehicle chassis structural frame has a first length, the first frame portion defining a first open space and configured such that the first open space maintains a predetermined amount of spatial integrity in the event of an impact load on the first frame portion; and
providing a second vehicle chassis structural frame, the second vehicle chassis structural frame including a second frame portion being substantially identical to the first frame portion and defining a second open space, and a second selection of at least one frame component operatively connected to the second frame portion such that the second vehicle chassis structural frame has a second length, the second length being different from the first length.
10. The method of claim 9 , further comprising:
assembling a first vehicle chassis having the first vehicle chassis structural frame, a first set of at least three wheels rotatably mounted with respect to the first vehicle chassis structural frame, a first plurality of body-retention couplings mounted with respect to the first vehicle chassis structural frame and at which a vehicle body is connectable to the first vehicle chassis structural frame, a first steering system, a first braking system, a first energy conversion system, and a first energy storage system; wherein the first steering system, first braking system, and first energy conversion system are mounted with respect to the first vehicle chassis structural frame and operatively connected to at least one of the at least three wheels in the first set; wherein the first energy storage system is operatively connected to the first energy conversion system and mounted with respect to the first vehicle chassis structural frame; and wherein at least a portion of at least one of the first energy conversion system, first energy storage system, first steering system, and first braking system is located within the open space of the first frame portion; and
assembling a second vehicle chassis having the second vehicle chassis structural frame, a second set of at least three wheels rotatably mounted with respect to the second vehicle chassis structural frame, a second plurality of body-retention couplings mounted with respect to the second vehicle chassis structural frame and at which a vehicle body is connectable to the second vehicle chassis structural frame, a second steering system, a second braking system, a second energy conversion system, and a second energy storage system; wherein the second steering system, second braking system, and second energy conversion system are mounted with respect to the second vehicle chassis structural frame and operatively connected to at least one of the at least three wheels in the second set; wherein the second energy storage system is operatively connected to the second energy conversion system and mounted with respect to the second vehicle chassis structural frame; and wherein at least a portion of at least one of the second energy conversion system, second energy storage system, second steering system, and second braking system is located within the open space of the second frame portion.
11. The method of claim 10 , wherein the first energy conversion system and the second energy conversion system include a fuel cell, and the first energy storage system and the second energy storage system are configured to store hydrogen.
12. The method of claim 10 , wherein the first steering system, first braking system, first energy conversion system, second steering system, second braking system, and second energy conversion system are responsive to nonmechanical control signals.