Abstract: A vehicle suspension system of the MacPherson type includes a pair of wheel supports, and two shock absorbers each having a body bolted to a corresponding wheel support with a top end connected to structure of the vehicle. A leaf spring is set transverse to a longitudinal direction of the vehicle, and has a central portion connected to the vehicle structure, and two ends connected to the respective wheel supports. The leaf spring is made of a single piece having opposite ends each having a forked shape, with two prongs made of a single piece with the leaf spring, wherein each prong is connected separately to the corresponding wheel support. The suspension system does not include other connection elements between each wheel support and the vehicle structure so that suspension components can be assembled on the leaf spring prior to installation on the vehicle structure.

Abstract: A motor-vehicle wheel suspension includes a lower oscillating arm, a damper unit, an upper oscillating rod and a vertical articulated rod. The suspension includes a toe control oscillating rod having an inner end pivotally connected to a supporting structure and an outer end pivotally connected to a wheel support. An articulation of the outer end of the toe control rod to the wheel support and the upper end of the vertical rod includes an articulation axle connected to the vertical rod. An eccentric cylindrical member is rotatably mounted on the articulation axle within a cylindrical cavity in the support and has an axis eccentric relative to the articulation axle. The articulation axle is connected to an adjustment ring, whose rotation determines a variation in the position of the wheel support and a resulting variation of the wheel toe angle.

Abstract: An automotive electronic control unit configured to control an automotive electrically-actuated device which is required to move from/to one or more end-of-travel positions, wherein the electronic control unit is configured to detect reaching an end-of-travel or stall position by the automotive electrically-actuated device based on: amplitude of the electric current absorbed by the automotive electrically-actuated device, gradient of amplitude of the electric current absorbed by the automotive electrically-actuated device, and ripple frequency of amplitude of the electric current absorbed by the automotive electrically-actuated device.

Abstract: A motor vehicle has a crosspiece, which frontally delimits an upper opening of the passenger compartment and is covered, towards the passenger compartment, by a finishing wall; the upper opening is suited to be closed by a removable top; the top has a cloth supported by two side longitudinal members and is provided with a front portion which is arranged above a rear projection of the crosspiece, when the top is mounted, with a sealing element arranged between them; the top is provided with at least one flap having an upper end secured to the cloth and a lower end portion, which faces the finishing wall and is fixed with respect to the crosspiece thanks to the locking exerted by at least one releasable fastener.

Abstract: A motor-vehicle floor panel structure includes a front body sub-unit, a central floor sub-unit, and a rear body sub-unit. The central floor sub-unit has a front floor structure including a central longitudinal tunnel, a lateral longitudinal beams, connected to the front floor structure and to the front body sub-unit and two intermediate longitudinal beams which connect the central floor sub-unit to the front body sub-unit and which extend at intermediate areas between the lateral longitudinal beams and the central tunnel. The intermediate longitudinal beams are connected to the front floor structure and have portions extending in a cantilever fashion from the front edge of the front floor structure and which are connected to said front body sub-unit.

Abstract: A motor vehicle body is provided with a substantially vertical wall, which separates a lower zone of the passenger compartment from the engine compartment, and with a structure for receiving and draining water; such a structure protrudes forward into the engine compartment from an upper end of the substantially vertical wall and has an upper crosspiece shaped so as to define a manifold for receiving water; the upper crosspiece has a perforated intermediate portion and two opposite end portions provided with respective openings for draining water into drain passages; the structure further has a reinforcing crosspiece, which is arranged underneath the perforated intermediate portion for receiving some of the water and is shaped so as to define a channel which is elongated in the transversal direction so as to divert the water sideways and outwards.