A surgical driver comprising: a sleeve comprising an inner surface defining a passageway, the sleeve extending along a longitudinal axis between a proximal end and an opposite distal end, the proximal end comprising a groove in the inner surface; a biasing element positioned partially in the groove; and a shaft disposed in the passageway, the shaft comprising an outer surface, a first engagement portion, and a second engagement portion, wherein: the sleeve is translatable relative to the shaft in an axial direction, along the longitudinal axis; characterized in that the biasing element creates friction between the sleeve and the shaft, limiting relative axial motion between the sleeve and shaft, when the biasing element engages the outer surface, the first engagement portion, and the second engagement portion; when the biasing element engages the outer surface, a first amount of translational force is required to overcome the friction to move the sleeve relative to the shaft axially; when the biasing element engages the first engagement portion, a second amount of translational force, greater than the first amount of translational force, is required to overcome the friction to move the sleeve relative to the shaft axially; and when the biasing element engages the second engagement portion, a third amount of translational force, greater than the first amount of translational force, is required to overcome the friction to move the sleeve relative to the shaft axially. a sleeve comprising an inner surface defining a passageway, the sleeve extending along a longitudinal axis between a proximal end and an opposite distal end, the proximal end comprising a groove in the inner surface; a biasing element positioned partially in the groove; and a shaft disposed in the passageway, the shaft comprising an outer surface, a first engagement portion, and a second engagement portion, wherein: the sleeve is translatable relative to the shaft in an axial direction, along the longitudinal axis; characterized in that the biasing element creates friction between the sleeve and the shaft, limiting relative axial motion between the sleeve and shaft, when the biasing element engages the outer surface, the first engagement portion, and the second engagement portion; when the biasing element engages the outer surface, a first amount of translational force is required to overcome the friction to move the sleeve relative to the shaft axially; when the biasing element engages the first engagement portion, a second amount of translational force, greater than the first amount of translational force, is required to overcome the friction to move the sleeve relative to the shaft axially; and when the biasing element engages the second engagement portion, a third amount of translational force, greater than the first amount of translational force, is required to overcome the friction to move the sleeve relative to the shaft axially. the sleeve is translatable relative to the shaft in an axial direction, along the longitudinal axis; characterized in that the biasing element creates friction between the sleeve and the shaft, limiting relative axial motion between the sleeve and shaft, when the biasing element engages the outer surface, the first engagement portion, and the second engagement portion; when the biasing element engages the outer surface, a first amount of translational force is required to overcome the friction to move the sleeve relative to the shaft axially; when the biasing element engages the first engagement portion, a second amount of translational force, greater than the first amount of translational force, is required to overcome the friction to move the sleeve relative to the shaft axially; and when the biasing element engages the second engagement portion, a third amount of translational force, greater than the first amount of translational force, is required to overcome the friction to move the sleeve relative to the shaft axially.