Magnetic resonance imaging and photothermal conversion properties of Gd‐C nanocomposites for interstitial lymphography

Dual‐functional agents for magnetic resonance imaging (MRI) guided photothermal therapy (PTT) of lymph cancer are highly desired. Signal enhancement, selectivity between lymphatic nodes/vessels and blood vessels, and photothermal conversion property are the criteria for such dual‐functional agent. I...

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Published inJournal of biomedical materials research. Part B, Applied biomaterials Vol. 108; no. 3; pp. 638 - 646
Main Authors Yao, Yaqi, Suo, Lulu, Liu, Shien, Zeng, Wenxia, Shan, Jun, Zhang, Canying, Wu, Daxiong, Shang, Wei, Zhu, Haitao
Format Journal Article
LanguageEnglish
Published Hoboken, USA John Wiley & Sons, Inc 01.04.2020
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Abstract Dual‐functional agents for magnetic resonance imaging (MRI) guided photothermal therapy (PTT) of lymph cancer are highly desired. Signal enhancement, selectivity between lymphatic nodes/vessels and blood vessels, and photothermal conversion property are the criteria for such dual‐functional agent. In the current work, we demonstrated the potential of Gd‐C nanocomposites as dual‐functional agents for the MRI and PTT of lymph node cancer. Gd‐C nanocomposites were synthesized via a hydrothermal carbonization approach with gadolinium chloride as Gd source and citric acid (CA) as C source. The particle size of the nanocomposites ranges from 40 to 100 nm which is smaller than the intercellular space of lymphatic vessels but much larger than that of the blood vessels. The nanocomposites were successfully applied to the MRI of cervical lymph nodes of rabbits. The signal enhancement of the lymph nodes reached the maximum value of 434% at 10 min after injection, without displaying any blood vessel. The Gd‐C nanocomposites also exhibited strong photothermal conversion effect. Under the illumination of an 808 nm laser, the aqueous suspension containing 1.0 wt % Gd‐C nanocomposites gave a maximum temperature rise of 28.2 °C and a light utilization efficiency of 30.4%. The results indicate that Gd‐C nanocomposites have significant potential in MRI guided PTT of lymph cancer.
AbstractList Dual‐functional agents for magnetic resonance imaging (MRI) guided photothermal therapy (PTT) of lymph cancer are highly desired. Signal enhancement, selectivity between lymphatic nodes/vessels and blood vessels, and photothermal conversion property are the criteria for such dual‐functional agent. In the current work, we demonstrated the potential of Gd‐C nanocomposites as dual‐functional agents for the MRI and PTT of lymph node cancer. Gd‐C nanocomposites were synthesized via a hydrothermal carbonization approach with gadolinium chloride as Gd source and citric acid (CA) as C source. The particle size of the nanocomposites ranges from 40 to 100 nm which is smaller than the intercellular space of lymphatic vessels but much larger than that of the blood vessels. The nanocomposites were successfully applied to the MRI of cervical lymph nodes of rabbits. The signal enhancement of the lymph nodes reached the maximum value of 434% at 10 min after injection, without displaying any blood vessel. The Gd‐C nanocomposites also exhibited strong photothermal conversion effect. Under the illumination of an 808 nm laser, the aqueous suspension containing 1.0 wt % Gd‐C nanocomposites gave a maximum temperature rise of 28.2 °C and a light utilization efficiency of 30.4%. The results indicate that Gd‐C nanocomposites have significant potential in MRI guided PTT of lymph cancer.
Abstract Dual‐functional agents for magnetic resonance imaging (MRI) guided photothermal therapy (PTT) of lymph cancer are highly desired. Signal enhancement, selectivity between lymphatic nodes/vessels and blood vessels, and photothermal conversion property are the criteria for such dual‐functional agent. In the current work, we demonstrated the potential of Gd‐C nanocomposites as dual‐functional agents for the MRI and PTT of lymph node cancer. Gd‐C nanocomposites were synthesized via a hydrothermal carbonization approach with gadolinium chloride as Gd source and citric acid (CA) as C source. The particle size of the nanocomposites ranges from 40 to 100 nm which is smaller than the intercellular space of lymphatic vessels but much larger than that of the blood vessels. The nanocomposites were successfully applied to the MRI of cervical lymph nodes of rabbits. The signal enhancement of the lymph nodes reached the maximum value of 434% at 10 min after injection, without displaying any blood vessel. The Gd‐C nanocomposites also exhibited strong photothermal conversion effect. Under the illumination of an 808 nm laser, the aqueous suspension containing 1.0 wt % Gd‐C nanocomposites gave a maximum temperature rise of 28.2 °C and a light utilization efficiency of 30.4%. The results indicate that Gd‐C nanocomposites have significant potential in MRI guided PTT of lymph cancer.
Author Zeng, Wenxia
Zhang, Canying
Wu, Daxiong
Yao, Yaqi
Liu, Shien
Shang, Wei
Suo, Lulu
Shan, Jun
Zhu, Haitao
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Keywords magnetic resonance imaging
photothermal conversion
Gd-C nanocomposites
cervical lymph nodes
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Snippet Dual‐functional agents for magnetic resonance imaging (MRI) guided photothermal therapy (PTT) of lymph cancer are highly desired. Signal enhancement,...
Dual-functional agents for magnetic resonance imaging (MRI) guided photothermal therapy (PTT) of lymph cancer are highly desired. Signal enhancement,...
Abstract Dual‐functional agents for magnetic resonance imaging (MRI) guided photothermal therapy (PTT) of lymph cancer are highly desired. Signal enhancement,...
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wiley
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SubjectTerms Biomedical materials
Blood vessels
Cancer
cervical lymph nodes
Citric acid
Functional magnetic resonance imaging
Gadolinium
Gd‐C nanocomposites
Lymph nodes
Lymphatic system
Lymphography
Magnetic properties
Magnetic resonance imaging
Materials research
Materials science
Medical imaging
Nanocomposites
Nodes
Photothermal conversion
Rabbits
Resonance
Selectivity
Title Magnetic resonance imaging and photothermal conversion properties of Gd‐C nanocomposites for interstitial lymphography
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fjbm.b.34418
https://www.ncbi.nlm.nih.gov/pubmed/31099983
https://www.proquest.com/docview/2369831330
https://search.proquest.com/docview/2232066844
Volume 108
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