While walking on regular and uneven terrains, older people present modifications in gait compared to younger adults. Small biomechanical changes during this task modify the body's balance with postural adjustments needed to keep the stability, which depends on the availability of visual information. Thus, this study aimed to investigate the effect of lower limb exproprioceptive visual information through a facial mask on walking stability control while stepping on an uneven surface (i.e., a hole) in older people. In this study, 15 healthy older people participated, aged between 65 and 80 years old. Passive retroreflective markers were placed on the participants' skin, and two force plates were positioned in the walkway (one in the area where the trailing limb stepped before the hole and another underneath the hole. The participants walked along a wooden walkway under two conditions: without and with the hole. The support surface conditions were performed with and without the availability of exproprioceptive visual information from the lower limbs, which were manipulated with the wearing of basketball glasses and a facial mask to prevent the vision of part of the lower visual field. The software Nexus (Vicon) was used to calculate the angles of the head and the trunk and the coordinates of the center of mass (COM) in the anterior-posterior (AP) direction. The margin of stability in the AP direction and the average gait speed were calculated. The ground reaction force was used to calculate the braking and propulsive impulses in the AP and vertical directions. Furthermore, the electromyography (EMG) of the medial gastrocnemius, soleus and tibialis anterior muscles of the dominant limb was recorded. For the statistical analysis, we carried out analyses of variance, with a significance level set at p≤0.05. The results identified that the visual exproprioception manipulation did not influence the margin of stability of older people while stepping into a hole and did not affect the other analyzed parameters (average gait speed, impulse and EMG activity). Older adults used a headflexed strategy to compensate for the lower visual obstruction and, thus, obtain visual information about the hole two steps ahead to plan the necessary locomotion adjustments in a feedforward manner. Therefore, we concluded that older adults could perform safe motor strategies to minimize the visual obstruction of mask usage and to walk safely on an uneven surface.