Jiangsu University (20240281568). OVERALL HYDRAULIC PERFORMANCE PREDICTION METHOD FOR SINK-TYPE DISHWASHER simplified abstract

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OVERALL HYDRAULIC PERFORMANCE PREDICTION METHOD FOR SINK-TYPE DISHWASHER

Organization Name

Jiangsu University

Inventor(s)

Xikun Wang of Zhenjiang City (CN)

Yalin Li of Zhenjiang City (CN)

Haichao Sun of Zhenjiang City (CN)

Yuhan Gao of Zhenjiang City (CN)

Mingxuan Li of Zhenjiang City (CN)

Yujian Fang of Wenling City (CN)

OVERALL HYDRAULIC PERFORMANCE PREDICTION METHOD FOR SINK-TYPE DISHWASHER - A simplified explanation of the abstract

This abstract first appeared for US patent application 20240281568 titled 'OVERALL HYDRAULIC PERFORMANCE PREDICTION METHOD FOR SINK-TYPE DISHWASHER

The abstract describes a method for predicting the overall hydraulic performance of a sink-type dishwasher using numerical computations and mapping relationships between components.

  • Unsteady numerical computation is used on a dishwasher pump under static conditions to obtain a characteristic pump curve.
  • Rotation velocity adaptation coefficient (a) and axial velocity coefficient (b) are determined based on the pump curve.
  • A mapping relationship is established between composite superposition virtual impeller and composite impeller.
  • Passive rotation velocity of the volute and the nozzle flow rate are calculated using the GMO model and virtual impeller.
  • A jet mass source is established to compute non-submerged rotating jet flow with a multi-nozzle setup using the VOF method.

Potential Applications: - This technology can be applied in the design and optimization of sink-type dishwashers to improve their hydraulic performance. - It can also be used in the development of other fluid dynamics systems where accurate prediction of flow behavior is crucial.

Problems Solved: - Provides an accurate prediction of a dishwasher's overall hydraulic performance. - Resolves issues related to free surface divergence and estimating the volute's passive rotation speed.

Benefits: - Streamlines the dishwasher's multi-physics processes. - Conserves computing resources. - Enhances the accuracy of predicting hydraulic performance.

Commercial Applications: - This technology can be utilized by dishwasher manufacturers to enhance the efficiency and performance of their products, leading to improved customer satisfaction and potentially increased market share.

Questions about the technology: 1. How does this method compare to traditional approaches in predicting hydraulic performance?

  This method offers a more accurate and streamlined process compared to traditional methods, improving efficiency and reliability in predicting performance.

2. What are the potential cost savings for dishwasher manufacturers implementing this technology?

  By optimizing the hydraulic performance of dishwashers, manufacturers can reduce energy consumption and water usage, leading to cost savings for both the manufacturer and the end consumer.


Original Abstract Submitted

method for predicting the overall hydraulic performance of a sink-type dishwasher. process begins with unsteady numerical computation on a dishwasher pump under static conditions to obtain a characteristic pump curve. using this curve, rotation velocity adaptation coefficient (a) and axial velocity coefficient (b) are determined. mapping relationship is established between composite superposition virtual impeller and composite impeller. passive rotation velocity of the volute and the nozzle flow rate are calculated using gmo model and virtual impeller. a jet mass source is established, using the nozzle flow rate and the volute's passive rotation velocity as boundary conditions. this leads to a non-submerged rotating jet flow computation with a multi-nozzle setup using the vof method. this approach streamlines the dishwasher's intricate multi-physics, conserves computing resources, and effectively resolves issues related to free surface divergence and estimating the volute's passive rotation speed, leading to an accurate prediction of the dishwasher's overall hydraulic performance.