UNIQUE: ultrasound non-destructive in-situ quantitative evaluation of stem cell spheroid deformability during differentiation into specific lineages

Reliable assessment of 3D stem cell spheroid function and fate is crucial in regenerative medicine and cell therapy, where gene and protein analyses and mechanical probing are employed. However, current methods are often invasive and struggle with heterogeneity, frequently damaging spheroid integrity, which drives a need for non-destructive, label-free techniques to assess individual spheroids directly in their culture environment. Here, we present a label-free platform, UNIQUE (Ultrasound Non-destructive In-situ Quantitative Evaluation), for single-spheroid, in-situ quantification of stem cell spheroid deformability as a mechanical phenotype during differentiation into specific lineages. We established UNIQUE using focused ultrasound to non-invasively assess stem cell spheroid deformability under optimized conditions (3 MPa, 30% duty cycle, surface alignment). We measured changes in spheroid deformability in real time as they differentiated into specific lineages. We also achieved label-free classification of adipogenic spheroids using acoustic property-based spheroid trapping. Our UNIQUE solution provides a transformative framework for dynamic metabolic profiling and better-quality control in the manufacturing of stem cell spheroids.

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Publication Details

Journal
Microsystems & Nanoengineering
Published
2026-05-11
DOI
https://doi.org/10.1038/s41378-026-01305-1
Primary Topic
Ultrasound Imaging and Elastography
Type
article
Field-Weighted Citation Impact
0.00

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article

UNIQUE: ultrasound non-destructive in-situ quantitative evaluation of stem cell spheroid deformability during differentiation into specific lineages

Jinhee Yoo, Suk‐Ho Moon, Hyung Ham Kim, Luke P. Lee et al.
Microsystems & Nanoengineering
Ultrasound Imaging and Elastography
article

UNIQUE: ultrasound non-destructive in-situ quantitative evaluation of stem cell spheroid deformability during differentiation into specific lineages

Jinhee Yoo, Suk‐Ho Moon, Hyung Ham Kim, Luke P. Lee, Yeon Hee Ryu, Honghyeon Ha, Yuri Kang, Younggeun Kim
article en

Abstract

Reliable assessment of 3D stem cell spheroid function and fate is crucial in regenerative medicine and cell therapy, where gene and protein analyses and mechanical probing are employed. However, current methods are often invasive and struggle with heterogeneity, frequently damaging spheroid integrity, which drives a need for non-destructive, label-free techniques to assess individual spheroids directly in their culture environment. Here, we present a label-free platform, UNIQUE (Ultrasound Non-destructive In-situ Quantitative Evaluation), for single-spheroid, in-situ quantification of stem cell spheroid deformability as a mechanical phenotype during differentiation into specific lineages. We established UNIQUE using focused ultrasound to non-invasively assess stem cell spheroid deformability under optimized conditions (3 MPa, 30% duty cycle, surface alignment). We measured changes in spheroid deformability in real time as they differentiated into specific lineages. We also achieved label-free classification of adipogenic spheroids using acoustic property-based spheroid trapping. Our UNIQUE solution provides a transformative framework for dynamic metabolic profiling and better-quality control in the manufacturing of stem cell spheroids.

Microsystems & NanoengineeringVol. 12(1)
Pohang University of Science and Technology (KR), Brigham and Women's Hospital (US), Harvard University (US), St. Paul's Hospital (KR), The Catholic University of Korea Seoul St. Mary's Hospital (KR), Catholic University of Korea (KR)
National Research Foundation, Ministry of Trade, Industry and Energy, Korea Health Industry Development Institute, National Research Foundation of Korea, Ministry of Science and ICT, South Korea, Korea Evaluation Institute of Industrial Technology
Zero hunger
Openalex Percentile: Top 8%
Ultrasound Imaging and Elastography
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