Full-Scale Ultrasonic Clothes Washer/Dryer Evaluation Results

NASA's Life Support and Habitation Systems Focus Area prioritizes the development of advanced technologies to support extended human missions in deep space. One critical challenge is the absence of an efficient, integrated washer-dryer system capable of functioning in lunar, Martian, and microgravity environments. Conventional thermal drying methods require significant energy to evaporate water, whereas the direct-contact ultrasonic drying approach explored in this study provides a more energy-efficient alternative. By utilizing piezoelectric transducers, this method generates high-frequency vibrations at the micron scale, mechanically displacing water from fabric and reducing dependence on evaporation. This enhances both energy efficiency and drying speed across various textiles. Additionally, ultrasonic cleaning was investigated as a potential washing technique, eliminating the gyroscopic instability, vibration, and lint production commonly associated with traditional washing methods. The resulting system is compact, highly energy-efficient, and well suited for space missions. This paper presents the performance evaluation of a full-scale ultrasonic garment washer and dryer, examining its sequential washing and drying capabilities and its potential for disinfection. The findings contribute to the development of the first space-compatible laundry system, enabling sustainable human habitation aboard the ISS and future lunar and Martian missions.

Publication Details

Published
2025-07-13
DOI
https://doi.org/10.32865/2346/102592
Primary Topic
Spaceflight effects on biology
Type
article
Field-Weighted Citation Impact
0.00

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Full-Scale Ultrasonic Clothes Washer/Dryer Evaluation Results

Spaceflight effects on biology
article

Full-Scale Ultrasonic Clothes Washer/Dryer Evaluation Results

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Abstract

NASA's Life Support and Habitation Systems Focus Area prioritizes the development of advanced technologies to support extended human missions in deep space. One critical challenge is the absence of an efficient, integrated washer-dryer system capable of functioning in lunar, Martian, and microgravity environments. Conventional thermal drying methods require significant energy to evaporate water, whereas the direct-contact ultrasonic drying approach explored in this study provides a more energy-efficient alternative. By utilizing piezoelectric transducers, this method generates high-frequency vibrations at the micron scale, mechanically displacing water from fabric and reducing dependence on evaporation. This enhances both energy efficiency and drying speed across various textiles. Additionally, ultrasonic cleaning was investigated as a potential washing technique, eliminating the gyroscopic instability, vibration, and lint production commonly associated with traditional washing methods. The resulting system is compact, highly energy-efficient, and well suited for space missions. This paper presents the performance evaluation of a full-scale ultrasonic garment washer and dryer, examining its sequential washing and drying capabilities and its potential for disinfection. The findings contribute to the development of the first space-compatible laundry system, enabling sustainable human habitation aboard the ISS and future lunar and Martian missions.

National Aeronautics and Space Administration, Nuclear Safety and Security Commission
Responsible consumption and production
Openalex Percentile: Top 38%
Spaceflight effects on biology
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