Hypersonic levitation and spinning: paving the way for enhanced single-cell analysis via contactless tissue dissociation

In the realm of single-cell analysis, effective tissue dissociation is a cornerstone yet often hampered by the drawbacks of traditional methods. Mechanical and enzymatic dissociation methods suffer from long processing times, reduced cell viability, and the loss of rare cell populations. Herein, we introduce a revolutionary tissue dissociation approach, Hypersonic Levitation and Spinning (HLS), which capitalizes on a uniquely designed triple-acoustic resonator probe. This probe enables the target tissue sample to levitate and execute a 'press-and-rotate' operation within a confined flow field, generating microscale 'liquid jets' that exert precise hydrodynamic forces in a non-contact manner. Through this mechanism, the shear forces on the tissue are enhanced, facilitating rapid and efficient dissociation while safeguarding cell integrity. We have further developed an automated tissue dissociation apparatus that integrates dissociation, fluid replacement, filtration, and output functions. Our comprehensive experiments on human renal cancer tissue dissociation, including flow cytometry, primary cell culture, immunofluorescence, and single-cell RNA sequencing, clearly demonstrate that Hypersonic Levitation and Spinning method not only greatly outperforms traditional techniques in tissue utilization (90% in 15 minutes vs. 70% in 60 minutes) and dissociation rate but also excels in maintaining high cell viability (92.3%) and preserving rare cell populations. This non-contact, gentle yet highly efficient dissociation method holds immense promise in diverse fields such as cell biology, single-cell sequencing, and precision medicine, expanding the scope of tissue dissociation technology and its applications.

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Publication Details

Journal
Communications Engineering
Published
2025-09-26
DOI
https://doi.org/10.1038/s44172-025-00497-0
Citations
1
Primary Topic
Microfluidic and Bio-sensing Technologies
Type
article
Field-Weighted Citation Impact
0.67

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article

Hypersonic levitation and spinning: paving the way for enhanced single-cell analysis via contactless tissue dissociation

Zhiwen Zheng, Xuexin Duan, Z. D. Nie, Yang Bai et al.
1 citations
Communications Engineering
Microfluidic and Bio-sensing Technologies
0.67
article

Hypersonic levitation and spinning: paving the way for enhanced single-cell analysis via contactless tissue dissociation

Zhiwen Zheng, Xuexin Duan, Z. D. Nie, Yang Bai, Zhihong Zhang, Jialu Li
article en
1 citations

Abstract

In the realm of single-cell analysis, effective tissue dissociation is a cornerstone yet often hampered by the drawbacks of traditional methods. Mechanical and enzymatic dissociation methods suffer from long processing times, reduced cell viability, and the loss of rare cell populations. Herein, we introduce a revolutionary tissue dissociation approach, Hypersonic Levitation and Spinning (HLS), which capitalizes on a uniquely designed triple-acoustic resonator probe. This probe enables the target tissue sample to levitate and execute a 'press-and-rotate' operation within a confined flow field, generating microscale 'liquid jets' that exert precise hydrodynamic forces in a non-contact manner. Through this mechanism, the shear forces on the tissue are enhanced, facilitating rapid and efficient dissociation while safeguarding cell integrity. We have further developed an automated tissue dissociation apparatus that integrates dissociation, fluid replacement, filtration, and output functions. Our comprehensive experiments on human renal cancer tissue dissociation, including flow cytometry, primary cell culture, immunofluorescence, and single-cell RNA sequencing, clearly demonstrate that Hypersonic Levitation and Spinning method not only greatly outperforms traditional techniques in tissue utilization (90% in 15 minutes vs. 70% in 60 minutes) and dissociation rate but also excels in maintaining high cell viability (92.3%) and preserving rare cell populations. This non-contact, gentle yet highly efficient dissociation method holds immense promise in diverse fields such as cell biology, single-cell sequencing, and precision medicine, expanding the scope of tissue dissociation technology and its applications.

Communications EngineeringVol. 4(1)
Tianjin University (CN), Anhui Medical University (CN), Second Hospital of Tianjin Medical University (CN), Second Affiliated Hospital of Anhui Medical University (CN), Tianjin Medical University (CN)
National Science Foundation, National Natural Science Foundation of China
Openalex Percentile: Top 26%
Microfluidic and Bio-sensing Technologies
0.67
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