It is not uncommon for lateral cephalometric radiographs to be outsourced for orthodontic treatment, as not all orthodontic clinics in Malaysia have their own cephalometric radiograph machine. Since the quality of outsourced radiographs is not within the governance of the clinician, there is a need to monitor the quality of cephalometric radiographs received. Aim: To audit the quality of lateral cephalometric radiographs received at the Orthodontic Specialist Unit, Klinik Pergigian Cahaya Suria, Kuala Lumpur, Malaysia. Methodology: Lateral cephalometric records of patients with registration numbers up to 200 in 2015 were selected and assessed using a light box. The quality of good radiographs were based on 15 parameters: correct head position; presence of the scale; important structures centered on the film; patient’s name; date taken; patient’s identifier; label not obscuring radiograph; soft tissue visible; teeth in occlusion; good contrast; ‘A’ point identifiable; ‘B’ point identifiable; nasion identifiable; sella identifiable; incisors visible and their angulation measureable. Standard was set at 100%, as radiographs received should contain all parameters. Results: Five records were excluded (2 had no radiographs, 2 had digital radiographs, and 1 record could not be traced). 64.5% radiographs had all 15 parameters, 30.3%, 3.9% and 1.3% with 14, 13 and 12 parameters, respectively. Patient’s name, identifier, date taken, soft tissue visible, ‘B’ point identifiable, nasion identifiable were present in all radiographs (100%). Incisor visible and their angulation measurable were present in 99%; good contrast and ‘A’ point identifiable in 98%; presence of scale, important structures centred on films and sella identifiable in 97%, label not obscuring radiographs in 96%; correct head position in 86%; and teeth in occlusion in 88% of radiographs. Conclusion: There is a need to liaise with the radiology unit to improve the quality of radiographs taken.
Fixed functional appliances are non-compliance dependent devices, which can assist the correction of Class II malocclusion. The mechanics of the fixed functional appliances may vary depending on the type of device used. We report the observed biomechanical effects of using the ForsusTM Fatigue Resistant Device (FRD) fixed functional appliance. The patient was a 14-year-old female presented with a Class II division I malocclusion on a Class II skeletal base. The malocclusion was complicated by a 10mm overjet and increased traumatic overbite. She was treated with the ForsusTM FRD appliance worn for 5 months after the alignment with fixed appliances (0.022” X0.028” MBT prescriptions) and finished on a non-extraction base. Dento-alveolar changes were the main contribution to the correction of the malocclusion and simultaneously improved the patient’s profile in the end of treatment. In conclusion, ForsusTM FRD appliance can be suggested to effectively correct Class II malocclusion.