The invention relates to a chassis link including a single-shell sheet metal main body, on which a plurality of bearing regions are formed for attaching bearing elements by which the main body can be connected to the bodywork and to a movable part of a wheel suspension of a motor vehicle. The main body includes two arms which merge into one another and define a main-body plane and a concave edge region of the main body. The concave edge region extends from a wheel-side bearing region towards a bodywork-side bearing region and is at an angle relative to the main-body plane. For such a chassis link having a high inherent stiffness and a low weight the invention proposes that the angled, concave edge region includes, along at least one curve length portion, at least one oblique surface which, when viewed in cross section, encloses an angle in the range of from 25 to 75 with a surface, adjacent thereto, of the angled, concave edge region. As a result, the inherent stiffness of the chassis link is increased for a maintained sheet metal thickness.

A wheel suspension for a vehicle axle, in particular a front axle, of a two-track vehicle includes a wheel carrier configured to support a vehicle wheel, and a link assembly configured to articulate the wheel carrier to a vehicle body. The link assembly includes at least one two-point link articulated on a side of the wheel carrier to the wheel carrier at a first mounting point and on a side of the vehicle body to the vehicle body at a second mounting point. The two-point link executes a pivotal movement in the event of a head-on collision to enable a collision-proximal vehicle wheel to move backwards. The two-point link includes a stop member to limit the pivotal movement in the event of the head-on collision, by impacting a body-side counterpiece, thereby forming a body-side third mounting point to block and counteract the pivotal movement of the two-point link.