A Microfluidic Flip-Chip Combining Hydrodynamic Trapping and Gravitational Sedimentation for Cell Pairing and Fusion

Cancer cell–immune cell hybrids and cancer immunotherapy have attracted much attention in recent years. The design of efficient cell pairing and fusion chips for hybridoma generation has been, subsequently, a subject of great interest. Here, we report a three-layered integrated Microfluidic Flip-Chi...

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Published inCells (Basel, Switzerland) Vol. 10; no. 11; p. 2855
Main Authors Pendharkar, Gaurav, Lu, Yen-Ta, Chang, Chia-Ming, Lu, Meng-Ping, Lu, Chung-Huan, Chen, Chih-Chen, Liu, Cheng-Hsien
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Published Switzerland MDPI AG 22.10.2021
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Abstract Cancer cell–immune cell hybrids and cancer immunotherapy have attracted much attention in recent years. The design of efficient cell pairing and fusion chips for hybridoma generation has been, subsequently, a subject of great interest. Here, we report a three-layered integrated Microfluidic Flip-Chip (MFC) consisting of a thin through-hole membrane sandwiched between a mirrored array of microfluidic channels and saw-tooth shaped titanium electrodes on the glass. We discuss the design and operation of MFC and show its applicability for cell fusion. The proposed device combines passive hydrodynamic phenomenon and gravitational sedimentation, which allows the transportation and trapping of homotypic and heterotypic cells in large numbers with pairing efficiencies of 75~78% and fusion efficiencies of 73%. Additionally, we also report properties of fused cells from cell biology perspectives, including combined fluorescence-labeled intracellular materials from THP1 and A549, mixed cell morphology, and cell viability. The MFC can be tuned for pairing and fusion of cells with a similar protocol for different cell types. The MFC can be easily disconnected from the test setup for further analysis.
AbstractList Cancer cell–immune cell hybrids and cancer immunotherapy have attracted much attention in recent years. The design of efficient cell pairing and fusion chips for hybridoma generation has been, subsequently, a subject of great interest. Here, we report a three-layered integrated Microfluidic Flip-Chip (MFC) consisting of a thin through-hole membrane sandwiched between a mirrored array of microfluidic channels and saw-tooth shaped titanium electrodes on the glass. We discuss the design and operation of MFC and show its applicability for cell fusion. The proposed device combines passive hydrodynamic phenomenon and gravitational sedimentation, which allows the transportation and trapping of homotypic and heterotypic cells in large numbers with pairing efficiencies of 75~78% and fusion efficiencies of 73%. Additionally, we also report properties of fused cells from cell biology perspectives, including combined fluorescence-labeled intracellular materials from THP1 and A549, mixed cell morphology, and cell viability. The MFC can be tuned for pairing and fusion of cells with a similar protocol for different cell types. The MFC can be easily disconnected from the test setup for further analysis.
Cancer cell-immune cell hybrids and cancer immunotherapy have attracted much attention in recent years. The design of efficient cell pairing and fusion chips for hybridoma generation has been, subsequently, a subject of great interest. Here, we report a three-layered integrated Microfluidic Flip-Chip (MFC) consisting of a thin through-hole membrane sandwiched between a mirrored array of microfluidic channels and saw-tooth shaped titanium electrodes on the glass. We discuss the design and operation of MFC and show its applicability for cell fusion. The proposed device combines passive hydrodynamic phenomenon and gravitational sedimentation, which allows the transportation and trapping of homotypic and heterotypic cells in large numbers with pairing efficiencies of 75~78% and fusion efficiencies of 73%. Additionally, we also report properties of fused cells from cell biology perspectives, including combined fluorescence-labeled intracellular materials from THP1 and A549, mixed cell morphology, and cell viability. The MFC can be tuned for pairing and fusion of cells with a similar protocol for different cell types. The MFC can be easily disconnected from the test setup for further analysis.Cancer cell-immune cell hybrids and cancer immunotherapy have attracted much attention in recent years. The design of efficient cell pairing and fusion chips for hybridoma generation has been, subsequently, a subject of great interest. Here, we report a three-layered integrated Microfluidic Flip-Chip (MFC) consisting of a thin through-hole membrane sandwiched between a mirrored array of microfluidic channels and saw-tooth shaped titanium electrodes on the glass. We discuss the design and operation of MFC and show its applicability for cell fusion. The proposed device combines passive hydrodynamic phenomenon and gravitational sedimentation, which allows the transportation and trapping of homotypic and heterotypic cells in large numbers with pairing efficiencies of 75~78% and fusion efficiencies of 73%. Additionally, we also report properties of fused cells from cell biology perspectives, including combined fluorescence-labeled intracellular materials from THP1 and A549, mixed cell morphology, and cell viability. The MFC can be tuned for pairing and fusion of cells with a similar protocol for different cell types. The MFC can be easily disconnected from the test setup for further analysis.
Author Pendharkar, Gaurav
Lu, Meng-Ping
Lu, Yen-Ta
Chen, Chih-Chen
Liu, Cheng-Hsien
Lu, Chung-Huan
Chang, Chia-Ming
AuthorAffiliation 4 Institute of Nanoengineering and Microsystems, National Tsing Hua University, Hsinchu 30044, Taiwan
3 Department of Medical Research, MacKay Memorial Hospital, New Taipei City 10449, Taiwan; aming.chang@gmail.com (C.-M.C.); miriam01084@gmail.com (M.-P.L.)
1 Department of Power Mechanical Engineering, National Tsing Hua University, Hsinchu 30044, Taiwan; g.pendharkar@ieee.org (G.P.); woes6210@gmail.com (C.-H.L.); chihchen@mx.nthu.edu.tw (C.-C.C.)
2 Chest Department, MacKay Memorial Hospital, New Taipei City 10449, Taiwan; ytlhl@mmh.org.tw
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– name: 4 Institute of Nanoengineering and Microsystems, National Tsing Hua University, Hsinchu 30044, Taiwan
– name: 2 Chest Department, MacKay Memorial Hospital, New Taipei City 10449, Taiwan; ytlhl@mmh.org.tw
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BackLink https://www.ncbi.nlm.nih.gov/pubmed/34831078$$D View this record in MEDLINE/PubMed
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Issue 11
Keywords cell pairing
dielectrophoresis
hydrodynamic trapping
cell fusion
Language English
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These authors equally contributed to this work.
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Snippet Cancer cell–immune cell hybrids and cancer immunotherapy have attracted much attention in recent years. The design of efficient cell pairing and fusion chips...
Cancer cell-immune cell hybrids and cancer immunotherapy have attracted much attention in recent years. The design of efficient cell pairing and fusion chips...
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StartPage 2855
SubjectTerms A549 Cells
Cancer
Cancer immunotherapy
Cell fusion
Cell Fusion - instrumentation
Cell hybrids
cell pairing
Cell Survival
Cell viability
Cytology
Design
dielectrophoresis
Efficiency
Electric fields
Electricity
Electrodes
Gravity
Humans
hydrodynamic trapping
Hydrodynamics
Imaging, Three-Dimensional
Immunotherapy
Microfluidics - instrumentation
Sedimentation
THP-1 Cells
Titanium
Trapping
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Title A Microfluidic Flip-Chip Combining Hydrodynamic Trapping and Gravitational Sedimentation for Cell Pairing and Fusion
URI https://www.ncbi.nlm.nih.gov/pubmed/34831078
https://www.proquest.com/docview/2602029712
https://www.proquest.com/docview/2604017432
https://pubmed.ncbi.nlm.nih.gov/PMC8616069
https://doaj.org/article/a28030de020f474ebe8c3e652fa35f1a
Volume 10
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