Vertical forced synchronous electric drive device of semi-flexible throat block in continuous transonic wind tunnel nozzle section
A technology of forced synchronization and electric drive, which is applied in the direction of measuring devices, aerodynamic tests, and testing of machine/structural components, etc. It can solve the problems of not being able to provide high rigidity of lateral connections, large spatial movement range, and large overall swing quality. , so as to avoid collision accidents of side wall panels, reduce control difficulty, and drive large loads
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Embodiment 1
[0034] Embodiment 1: as figure 1 As shown, a vertical forced synchronous electric drive device for the semi-flexible throat block of the nozzle section of a continuous transonic wind tunnel is characterized in that it includes two units C, and each unit has two vertically arranged mounting seats (10), two groups of parallel driving devices arranged symmetrically before and after are fixed on each mounting seat (10); in each group of driving devices, there are two sets of guide rails (8) vertically parallel and symmetrically arranged on the left and right sides, and the guide rails ( 8) Fixed on the mounting base (10); each set of guide rails (8) includes two sets of guide rails (8) arranged vertically and in parallel, and two sliders (6) with a certain installation distance are arranged on each set of guide rails ; The slide table (5) is vertically and parallelly installed on the slide block (6); the motor (9) is connected through the reducer (11) and the lead screw (7) throug...
Embodiment 2
[0035]Embodiment 2: The main structure of this example is the same as that of Embodiment 1. In order to ensure the synchronization accuracy of the drives within the group, each group has a slide table (5) for forced synchronization. The slide table forces the motors (9) of each group to move together, reducing the motion error and lateral force among the motors (9) of the same group.
Embodiment 3
[0036] Embodiment 3: The main structure of this example is the same as Embodiment 1. In order to optimize each group of driving forces, four groups of motors (9) are used to drive to form a planar mechanism, and redundant drives are used. Three groups are position control, and one group is force control. The design of the planar mechanism reduces the difficulty of kinematic control and improves the reliability of control; driven by three sets of position-controlled motors (9), the throat block can accurately form the required profile, adding a set of force control The motor (9) of the motor (9) greatly reduces the driving force required by the remaining three groups of position control motors without changing the throat block. Each group is synchronously driven by two motors, and the driving force required by each group of motors is equally divided between the two motors of each group, which reduces the driving force.
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