Touch Display Control for Precise Machine Tool Part Adjustment

The patent creates a virtual copy of the machine part on the display screen that mirrors the actual physical part's position and state. The operator interacts with this virtual representation through touch gestures, which are then translated into corresponding adjustments of the actual machine part. This copying approach eliminates the need for operators to develop extensive muscle memory with physical controls, as the digital interface provides immediate visual feedback that directly reflects adjustment outcomes.

The system implements immediate visual feedback by continuously displaying the virtual representation of the machine part on the screen as it is being adjusted. When the operator performs a swipe gesture, the display updates to show the new position of the virtual part, providing real-time confirmation of the adjustment. This feedback loop eliminates the delay and lack of visibility inherent in traditional control mechanisms, allowing operators to achieve precise adjustments without extensive experience.

The patent creates a scaled virtual representation of the machine part on the display screen, enlarging small or distant components to a size and position that is comfortable for the operator to view and manipulate. This virtual copy preserves all positional and dimensional information while removing the physical constraints of distance and size, allowing operators to maintain excellent visual contact with the machine part regardless of its actual location or dimensions in the physical workspace.

The display screen acts as an intermediary between the operator and the actual machine part. Instead of requiring direct visual contact with the physical component, the operator interacts with its digital representation on the screen. This intermediary provides a magnified, clearly visible view of the machine part while the actual physical part remains in its operational position, eliminating the need for the operator to be physically close to small or distant components.

The patent extracts the essential adjustment function from the complex array of physical controls and consolidates it into a single touch-sensitive display interface. Instead of requiring operators to navigate multiple buttons, levers, and switches, the system provides adjustment controls directly on the screen through intuitive swipe gestures. This extraction simplifies the control interface while maintaining comprehensive adjustment capabilities, as the touch display can respond to various gesture types for different adjustment modes.

The patent replaces the mechanical control system (buttons, levers, switches) with a digital touch-sensitive interface. The physical mechanical controls are substituted with software-based gesture recognition on the display screen. This substitution eliminates the complexity of the mechanical control panel while preserving full adjustment versatility, as the touch interface can be programmed to respond to multiple gesture types for different adjustment functions.

The system dynamically adjusts the translation parameters between gesture input and motor output based on the current machine part position and desired adjustment range. The control software calculates the appropriate mapping between the physical distance of a swipe gesture on the screen and the corresponding angular or linear displacement of the motor-driven part. This parameter adjustment ensures that simple, large-amplitude gestures on the touch display translate accurately into precise, small-amplitude adjustments of the actual machine part.

The system provides continuous visual feedback by updating the virtual representation on the display to reflect the current position of the actual machine part after each gesture. This feedback allows operators to see the cumulative effect of their gestures and make fine adjustments by performing additional small swipes. The immediate visual confirmation ensures that the translation from gesture to adjustment is accurate, as operators can observe the virtual part moving in correspondence with their input gestures.