Formation of Supported Lipid Bilayers by Vesicle Fusion: Effect of Deposition Temperature
We have investigated the effect of deposition temperature on supported lipid bilayer formation via vesicle fusion. By using several complementary surface-sensitive techniques, we demonstrate that despite contradicting literature on the subject, high-quality bilayers can be formed below the main phas...
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| Published in | Langmuir Vol. 30; no. 25; pp. 7259 - 7263 |
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| Main Authors | , , |
| Format | Journal Article |
| Language | English |
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United States
American Chemical Society
01.07.2014
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| Abstract | We have investigated the effect of deposition temperature on supported lipid bilayer formation via vesicle fusion. By using several complementary surface-sensitive techniques, we demonstrate that despite contradicting literature on the subject, high-quality bilayers can be formed below the main phase-transition temperature of the lipid. We have carefully studied the formation mechanism of supported DPPC bilayers below and above the lipid melting temperature (T m) by quartz crystal microbalance and atomic force microscopy under continuous flow conditions. We also measured the structure of lipid bilayers formed below or above T m by neutron reflection and investigated the effect of subsequent cooling to below the T m. Our results clearly show that a continuous supported bilayer can be formed with high surface coverage below the lipid T m. We also demonstrate that the high dissipation responses observed during the deposition process by QCM-D correspond to vesicles absorbed on top of a continuous bilayer and not to a surface-supported vesicular layer as previously reported. |
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| AbstractList | We have investigated the effect of deposition temperature on supported lipid bilayer formation via vesicle fusion. By using several complementary surface-sensitive techniques, we demonstrate that despite contradicting literature on the subject, high-quality bilayers can be formed below the main phase-transition temperature of the lipid. We have carefully studied the formation mechanism of supported DPPC bilayers below and above the lipid melting temperature (T-m) by quartz crystal microbalance and atomic force microscopy under continuous flow conditions. We also measured the structure of lipid bilayers formed below or above T-m by neutron reflection and investigated the effect of subsequent cooling to below the T-m. Our results clearly show that a continuous supported bilayer can be formed with high surface coverage below the lipid T-m. We also demonstrate that the high dissipation responses observed during the deposition process by QCM-D correspond to vesicles absorbed on top of a continuous bilayer and not to a surface-supported vesicular layer as previously reported. We have investigated the effect of deposition temperature on supported lipid bilayer formation via vesicle fusion. By using several complementary surface-sensitive techniques, we demonstrate that despite contradicting literature on the subject, high-quality bilayers can be formed below the main phase-transition temperature of the lipid. We have carefully studied the formation mechanism of supported DPPC bilayers below and above the lipid melting temperature (Tm) by quartz crystal microbalance and atomic force microscopy under continuous flow conditions. We also measured the structure of lipid bilayers formed below or above Tm by neutron reflection and investigated the effect of subsequent cooling to below the Tm. Our results clearly show that a continuous supported bilayer can be formed with high surface coverage below the lipid Tm. We also demonstrate that the high dissipation responses observed during the deposition process by QCM-D correspond to vesicles absorbed on top of a continuous bilayer and not to a surface-supported vesicular layer as previously reported.We have investigated the effect of deposition temperature on supported lipid bilayer formation via vesicle fusion. By using several complementary surface-sensitive techniques, we demonstrate that despite contradicting literature on the subject, high-quality bilayers can be formed below the main phase-transition temperature of the lipid. We have carefully studied the formation mechanism of supported DPPC bilayers below and above the lipid melting temperature (Tm) by quartz crystal microbalance and atomic force microscopy under continuous flow conditions. We also measured the structure of lipid bilayers formed below or above Tm by neutron reflection and investigated the effect of subsequent cooling to below the Tm. Our results clearly show that a continuous supported bilayer can be formed with high surface coverage below the lipid Tm. We also demonstrate that the high dissipation responses observed during the deposition process by QCM-D correspond to vesicles absorbed on top of a continuous bilayer and not to a surface-supported vesicular layer as previously reported. We have investigated the effect of deposition temperature on supported lipid bilayer formation via vesicle fusion. By using several complementary surface-sensitive techniques, we demonstrate that despite contradicting literature on the subject, high-quality bilayers can be formed below the main phase-transition temperature of the lipid. We have carefully studied the formation mechanism of supported DPPC bilayers below and above the lipid melting temperature (Tm) by quartz crystal microbalance and atomic force microscopy under continuous flow conditions. We also measured the structure of lipid bilayers formed below or above Tm by neutron reflection and investigated the effect of subsequent cooling to below the Tm. Our results clearly show that a continuous supported bilayer can be formed with high surface coverage below the lipid Tm. We also demonstrate that the high dissipation responses observed during the deposition process by QCM-D correspond to vesicles absorbed on top of a continuous bilayer and not to a surface-supported vesicular layer as previously reported. We have investigated the effect of deposition temperature on supported lipid bilayer formation via vesicle fusion. By using several complementary surface-sensitive techniques, we demonstrate that despite contradicting literature on the subject, high-quality bilayers can be formed below the main phase-transition temperature of the lipid. We have carefully studied the formation mechanism of supported DPPC bilayers below and above the lipid melting temperature (Tₘ) by quartz crystal microbalance and atomic force microscopy under continuous flow conditions. We also measured the structure of lipid bilayers formed below or above Tₘ by neutron reflection and investigated the effect of subsequent cooling to below the Tₘ. Our results clearly show that a continuous supported bilayer can be formed with high surface coverage below the lipid Tₘ. We also demonstrate that the high dissipation responses observed during the deposition process by QCM-D correspond to vesicles absorbed on top of a continuous bilayer and not to a surface-supported vesicular layer as previously reported. |
| Author | Cárdenas, Marité Lind, Tania Kjellerup Wacklin, Hanna Pauliina |
| AuthorAffiliation | Malmoe University Nano-Science Center and Institute of Chemistry Health & Society Copenhagen University |
| AuthorAffiliation_xml | – name: Health & Society – name: Malmoe University – name: Copenhagen University – name: Nano-Science Center and Institute of Chemistry |
| Author_xml | – sequence: 1 givenname: Tania Kjellerup surname: Lind fullname: Lind, Tania Kjellerup email: tania@nano.ku.dk – sequence: 2 givenname: Marité surname: Cárdenas fullname: Cárdenas, Marité email: marite.cardenas@mah.se, cardenas@nano.ku.dk – sequence: 3 givenname: Hanna Pauliina surname: Wacklin fullname: Wacklin, Hanna Pauliina |
| BackLink | https://www.ncbi.nlm.nih.gov/pubmed/24932971$$D View this record in MEDLINE/PubMed https://urn.kb.se/resolve?urn=urn:nbn:se:mau:diva-4792$$DView record from Swedish Publication Index https://lup.lub.lu.se/record/4602814$$DView record from Swedish Publication Index oai:portal.research.lu.se:publications/46002feb-e68a-4297-acc1-c62ba0a8ec8d$$DView record from Swedish Publication Index |
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| SubjectTerms | atomic force microscopy cooling Fysik lipid bilayers Lipid Bilayers - chemistry lipids melting point Natural Sciences Naturvetenskap neutrons phase transition Physical Sciences quartz crystal microbalance Temperature |
| Title | Formation of Supported Lipid Bilayers by Vesicle Fusion: Effect of Deposition Temperature |
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