A synchronous motion cracked control surface follow-up loading test device is disclosed. This device, driven by an
electric motor, overcomes the shortcomings of existing cracked control surface test loading devices, such as high manufacturing and testing costs, complex electromechanical components, and the limitation to single-sided control
surface loading tests. It also addresses the problems of high manufacturing and maintenance costs leading to difficulties in conducting tests, high dependence on pump stations due to hydraulic actuators, and the inability to meet actual testing requirements for loading effects. The device includes a
test bench, a cracked control surface
motion simulation module, and a follow-up loading module. The
test bench includes a main body and casters. The cracked control surface
motion simulation module includes a simulated control surface and a control surface rotation... The invention comprises a hinge, a simulated control surface base, a control surface drive mechanism, and a
tilt sensor. The control surface drive mechanism includes a
linear motor module, a slide table connector, a transmission hinge, a connecting rod, and a control surface transmission hinge. The
servo loading module includes a
servo drive mechanism, a hinge transmission mechanism, a spring loading mechanism, a
servo frame, and a servo frame hinge. The
servo drive mechanism includes a motor mounting base, a servo motor and its
reducer, and a
coupling. The hinge transmission mechanism includes a transmission hinge base, bearings, a transmission shaft, a key, and a frame connector. The spring loading mechanism includes a frame mounting base, adjusting bolts, a movable base, a loading spring, a
force sensor, and a control surface base. This invention is used for servo loading tests.