"drive axis" is correct and can be used in written English.
It is typically used in technical or engineering contexts to describe the mechanism or direction of movement in a machine or system. Example: "The robot's drive axis allows it to move in a precise straight line, making it ideal for assembly line tasks."
Although orthogonal errors to desired trajectories are important in machining, tracking errors with respect to each feed drive axis are only considered in most of conventional control systems.
This nonlinear feedforward compensator, in combination with a linear feedback controller, is applied to a linear drive axis with recirculating ball bearings and a fine-positioning axis with crossed roller bearings.
First measurement results of the novel digital prototype show the phase variance of the detected signal of drive axis is 13 ppm in an hour while the amplitude variance is 22 ppm.
Recent studies have revealed unexpected mechanisms that drive axis elongation in the Drosophila egg, including an unconventional planar polarity signaling pathway, a distinctive type of morphogenetic movement termed "global tissue rotation," a molecular corset-like role of extracellular matrix, and oscillating basal cellular contractions.
Each castor wheel is independently mounted on a vertical non-drive axis of the body and it is automatically and freely aligned on the route as a result of the forces developed by the two 'drive wheels'.
The digester could rotate around the motor-driven axis to ensure material uniformity.
Recently, there has been a growth of interest in high precision machining in multi-axis feed drive systems, subjected to problems such as friction, cutting force and incompatibility of individual driving axis dynamics.
Magmatism on the flanks of the EPR may be commonplace, thus affecting the architecture of oceanic crust and providing the necessary conditions to drive off-axis hydrothermal activity.
The tissue specimen was mounted on a three-axis stage composed of an Aerotech ABL2000 air-bearing stage (x-axis), an ALS130 linear drive stage (y-axis), and an AVL112 vertical lift stage (z-axis).
The Dynamic model of the electrically driven dual-axis motion is obtained by coupling the dynamics of the dual-axis motion platform with the actuators (DC motors) dynamics.
In this paper, the adaptive backstepping neural control (ABNC) is applied to an electrically driven dual-axis motion platform.
