Abstract: An interlocking body and floor pan assembly for a below-floor energy stored vehicle includes a vehicle structural assembly having a front compartment section connected to a rear compartment section using first and second rocker members. The front compartment section includes a compartment front cross-beam and the rear compartment section includes a compartment rear cross-beam oriented parallel to the compartment front cross-beam. The vehicle structural assembly defines a bucket configuration having faces of the compartment front cross-beam and the compartment rear cross-beam angularly oriented from an upper outboard edge downwardly pitching to a lower inboard edge. A prefabricated sub-floor assembly seats on flange structure and is positioned with a clearance to the bucket configuration of the vehicle structural assembly. An outer perimeter of the sub-floor assembly is larger than an inner perimeter of the vehicle structural assembly where the sub-floor assembly contacts the vehicle structural assembly.

Abstract: An interlocking body and floor pan assembly for a below-floor energy stored vehicle includes a vehicle structural assembly having a front compartment section connected to a rear compartment section using first and second rocker members. The front compartment section includes a compartment front cross-beam and the rear compartment section includes a compartment rear cross-beam oriented parallel to the compartment front cross-beam. The vehicle structural assembly defines a bucket configuration having faces of the compartment front cross-beam and the compartment rear cross-beam angularly oriented from an upper outboard edge downwardly pitching to a lower inboard edge. A prefabricated sub-floor assembly seats on flange structure and is positioned with a clearance to the bucket configuration of the vehicle structural assembly. An outer perimeter of the sub-floor assembly is larger than an inner perimeter of the vehicle structural assembly where the sub-floor assembly contacts the vehicle structural assembly.

Abstract: A torque box includes a box body extending along a longitudinal axis and a reaction wall coupled to the box body. The reaction wall is obliquely angled relative to the longitudinal axis to receive an offset load. The torque box further includes a plurality of ribs coupled to the reaction wall. Each of the plurality of ribs is oriented perpendicularly to the reaction wall to resist the offset frontal load received by the reaction wall. The torque box also includes a bridge rail coupled to the box body. The bridge rail is configured to allow load transfer between the frame rail and the rocker panel. At least a portion of the bridge rail is obliquely angled relative to the longitudinal axis.

Abstract: A torque box includes a box body extending along a longitudinal axis and a reaction wall coupled to the box body. The reaction wall is obliquely angled relative to the longitudinal axis to receive an offset load. The torque box further includes a plurality of ribs coupled to the reaction wall. Each of the plurality of ribs is oriented perpendicularly to the reaction wall to resist the offset frontal load received by the reaction wall. The torque box also includes a bridge rail coupled to the box body. The bridge rail is configured to allow load transfer between the frame rail and the rocker panel. At least a portion of the bridge rail is obliquely angled relative to the longitudinal axis.