Micro-Fluid Jetting Assembly With Adjustable Impact Force

The patent replaces the traditional mechanical hinge mechanism with a piezoelectric actuator that converts electrical signals directly into mechanical movement. This eliminates the need for flexible hinges and operating elements that cause wear, as the piezoelectric material expands and contracts in response to voltage changes, directly driving the closing element without intermediate mechanical components.

The patent extracts and removes the problematic flexible hinge mechanism and operating elements from the system. By eliminating these intermediate mechanical components, the design achieves fluid micro-injection functionality while preventing wear at the closing element ends, thereby reducing replacement frequency and maintenance costs.

The patent utilizes the ability to change electrical parameters (voltage magnitude, pulse duration, frequency) applied to the piezoelectric actuator to precisely control the lifting height of the closing element. By adjusting these electrical parameters, the impact force for fluid ejection can be accurately controlled without adding complex mechanical adjustment mechanisms, thus maintaining structural simplicity while achieving high precision.

The patent replaces mechanical adjustment mechanisms with electrical control of the piezoelectric actuator. This substitution allows for precise adjustment of closing element lifting height through electrical signals, achieving accurate impact force control without increasing device complexity, as electrical parameter adjustment is inherently more precise and easier to control than mechanical adjustments.

The patent segments the flow channel assembly into detachable components, allowing the assembly to be disassembled for cleaning while maintaining fluid containment during operation. The segmented design enables easy access to internal flow channels for cleaning without compromising the sealed, closed-loop fluid containment system when assembled, thereby resolving the contradiction between fluid containment and cleaning convenience.

The patent implements a dynamic flow channel assembly that transitions from a closed, sealed state during operation (ensuring fluid containment) to an open, disassembled state for cleaning. The modular components can be easily connected and disconnected, allowing the system to adapt between maintaining fluid containment and enabling convenient cleaning, thus reducing maintenance costs while ensuring proper fluid containment during use.

The patent segments the device into standardized, modular components with uniform connection interfaces. This segmentation allows accessories to be quickly assembled and disassembled using simple connection mechanisms, improving installation efficiency and maintenance convenience while maintaining device stability through precise modular interfaces that ensure proper alignment and secure connections.

The patent implements universal connection interfaces and standardized mounting structures that can accommodate various accessories. This universality simplifies assembly and disassembly procedures, allowing different accessories to be quickly installed and removed without complex procedures, thereby improving installation efficiency and maintenance convenience while maintaining device stability through consistent, reliable connection standards.