Ware Washer Pressure Profile Control for Nozzle Flow Stability

The patent implements a feedback mechanism where pressure sensors continuously monitor the hydrostatic pressure in the line system, compare it with a predetermined pressure profile, and trigger corrective actions when deviations are detected. This closed-loop feedback system ensures cleaning performance consistency by automatically compensating for deviations in water circulation capacity caused by malfunctions such as leaks, blockages, or foam formation.

The patent replaces manual monitoring and intervention with automated electronic detection and control systems. Pressure sensors, control units, and communication modules substitute for manual inspection and adjustment, enabling real-time detection and compensation of deviations without human intervention. This automation improves reliability while the modular design keeps complexity manageable.

The patent implements preliminary detection by continuously monitoring pressure profiles during normal operation. The system proactively identifies deviations before they lead to complete system failures or inadequate cleaning performance. By detecting malfunctions early through automated pressure analysis, the system enables timely corrective actions, improving productivity and reducing response time compared to manual inspection methods.

The system performs self-diagnosis and self-monitoring through automated pressure detection and analysis. The control unit independently evaluates the pressure profile, compares it with predetermined profiles, and initiates corrective actions without requiring manual inspection. This self-service capability dramatically improves malfunction detection speed and reduces response time while maintaining low operational complexity.

The patent introduces pressure sensors as intermediary devices that indirectly detect malfunctions by measuring hydrostatic pressure in the line system. Instead of directly monitoring complex parameters like water circulation capacity or nozzle blockage, the system uses pressure as an intermediary indicator that reflects the operational state. This approach enables effective malfunction detection and cleaning quality assurance without requiring direct measurement of difficult-to-access parameters.

The patent monitors changes in pressure parameters to detect malfunctions and maintain cleaning quality. By continuously measuring and comparing pressure profile parameters against predetermined profiles, the system identifies deviations caused by leaks, blockages, or foam formation. This parameter-based monitoring approach enables real-time detection of malfunctions that would otherwise go unnoticed, ensuring consistent cleaning quality while maintaining relatively simple system architecture.