Adjustable induction nozzle geometry: DysonRecent Research Landscape
Turbulent airflow and acoustic noise reduce consumer comfort and energy efficiency. Precise nozzle architecture mitigates these losses by optimizing fluid discharge patterns.
What technical problems is Dyson addressing in Adjustable induction nozzle geometry?
Inadequate thermal exchange efficiency
(5)evidences
Inadequate air volume or velocity across heat exchangers limits thermal transfer efficiency. Improving airflow dynamics prevents compressor strain and reduces energy consumption in cooling cycles.
Inadequate airflow induction efficiency
(4)evidences
Non-uniform air delivery and pressure losses in bladeless or duct-based systems. Optimizing flow patterns reduces energy consumption and noise while improving user comfort.
Inflexible airflow intake volume
(3)evidences
Non-uniform air distribution and turbulence at the intake cause aerodynamic stall and acoustic noise. Mitigating these flow disturbances ensures stable pressure ratios and higher efficiency across varying operational speeds.
Inflexible airflow directionality
(2)evidences
Fixed nozzle geometries cannot adapt to changing spatial ventilation requirements or varying thermal loads. Dynamic adjustment prevents stagnant air zones and optimizes energy consumption across different operating environments.