displacement of the condylar process (Fig. 1). Fractures segments were accessed through the preauricular incision. A 7 mm-long 2.0 mm self-drilling IMF screw (Lorenz Plating System, BIOMET Jacksonville, FL) was inserted to the condylar neck by using the battery charged screwdriver (Power Driver) of the same plating system. The cerclage wire was passed through the ring of the IMF screw, which then made it possible to retracted and manipulate the proximal bone segment. Internal fixation was achieved with 2.0 mm 4-hole medium titanium plate and 4 screws (2 on each side of the fracture line) at the reduced position of the fragmented bones and in the end IMF screw was extracted (Fig. 2). In long-term follow-up, there were no problems for occlusion and normal range of temporomandibular joint motion at 12-months (Fig. 3). The proximal bone fragment, that is, condylar process is prone to dislocate medially under the mechanical forces of the lateral pterygoid muscles on the condylar process of the mandible, whereas the distal bone fragment is prone to displaced toward the condylar fossa under the mechanical forces of the masseter and medial pterygoid muscles inserter to the mandibular angle and of the temporalis muscle inserted to the coronoid process. 1 It is not easy to manipulate the proximal segment effectively, that is, to bring the displaced condylar process in its anatomic position and to hold it there until the rigid internal fixation process is completed. Application of a self-drilling IMF screw, mostly overcomes this problem. Insertion of the self-drilling IMF screw is a straightforward easy procedure. Once the proximal