Transplantation of artificial human lymphatic vascular tissues fabricated using a cell-accumulation technique and their engraftment in mouse tissue with vascular remodelling

被引:6
作者
Asano, Yoshiya [1 ]
Shimoda, Hiroshi [1 ,2 ]
Matsusaki, Michiya [3 ]
Akashi, Mitsuru [4 ]
机构
[1] Hirosaki Univ, Grad Sch Med, Dept Neuroanat Cell Biol & Histol, 5 Zaifu Cho, Hirosaki, Aomori 0368562, Japan
[2] Hirosaki Univ, Grad Sch Med, Dept Anat Sci, Hirosaki, Aomori, Japan
[3] Osaka Univ, Grad Sch Engn, Dept Appl Chem, Osaka, Japan
[4] Osaka Univ, Grad Sch Frontier Biosci, Bldg Block Sci, Osaka, Japan
关键词
cell-accumulation technique; engraftment; human lymphatic vessels; tissue engineering; transplantation; ultrastructure; vascular remodelling; BLOOD; NETWORKS; THY-1; CONSTRUCTION; SEPARATION; REQUIRES; MARKER; SHEET;
D O I
10.1002/term.2570
中图分类号
Q813 [细胞工程];
学科分类号
摘要
Transplantation of engineered tissues with microvascular structure is advancing towards therapeutic application to improve the flow of blood and/or lymphatic fluids. In lymphatic disorders, transplantation of tissue-engineered lymphatic grafts can be an ideal treatment for draining excessive lymphatic fluid. In this study, we examined the transplantation of 3-dimensional artificial human lymphatic network tissue (AHLT) fabricated by the cell accumulation technique into the subcutaneous tissue and fascia of mice. At 2weeks after transplantation, the AHLT showed engraftment of artificial lymphatic vessels immunopositive for human CD31 and human podoplanin. Notably, we also observed the generation of blood vessel-like structure comprising endothelial cells immunopositive for human CD34 and mural-like cells immunopositive for human CD90 and SMA, which were considered as myofibroblasts. In the fabrication of AHLT in vitro, the sporadic emergence of human CD34-positive/Prox-1-negative sites was observed, followed by the formation of blood vessel-like structure in the graft within 7days after transplantation. The fine structure of engrafted AHLT observed by transmission electron microscopy showed that the engrafted artificial lymphatic vessels possess the specific structure of native lymphatic capillaries such as loose interendothelial connections and anchoring filaments. In contrast, blood vessel-like structure showed tight interendothelial connections, thick basement membranes, and layers of mural-like cells, which resemble small blood vessels. These results suggested the remodelling of artificial lymphatic network to form blood vessel-like structure associated with mural-like cells along with AHLT fabrication and engraftment.
引用
收藏
页码:E1501 / E1510
页数:10
相关论文
共 33 条
[1]   Regulation of blood and lymphatic vascular separation by signaling proteins SLP-76 and Syk [J].
Abtahian, F ;
Guerriero, A ;
Sebzda, E ;
Lu, MM ;
Zhou, R ;
Mocsai, A ;
Myers, EE ;
Huang, B ;
Jackson, DG ;
Ferrari, VA ;
Tybulewicz, V ;
Lowell, CA ;
Lepore, JJ ;
Koretzky, GA ;
Kahn, ML .
SCIENCE, 2003, 299 (5604) :247-251
[2]  
Asano Y., 2015, J TISSUE EN IN PRESS
[3]   Ultrastructure of blood and lymphatic vascular networks in three-dimensional cultured tissues fabricated by extracellular matrix nanofilm-based cell accumulation technique [J].
Asano, Yoshiya ;
Nishiguchi, Akihiro ;
Matsusaki, Michiya ;
Okano, Daisuke ;
Saito, Erina ;
Akashi, Mitsuru ;
Shimoda, Hiroshi .
MICROSCOPY, 2014, 63 (03) :219-226
[4]   Lymphatic Development [J].
Butler, Matthew G. ;
Isogai, Sumio ;
Weinstein, Brant M. .
BIRTH DEFECTS RESEARCH PART C-EMBRYO TODAY-REVIEWS, 2009, 87 (03) :222-231
[5]   Blood flow reprograms lymphatic vessels to blood vessels [J].
Chen, Chiu-Yu ;
Bertozzi, Cara ;
Zou, Zhiying ;
Yuan, Lijun ;
Lee, John S. ;
Lu, MinMin ;
Stachelek, Stan J. ;
Srinivasan, Sathish ;
Guo, Lili ;
Vincente, Andres ;
Mericko, Patricia ;
Levy, Robert J. ;
Makinen, Taija ;
Oliver, Guillermo ;
Kahn, Mark L. .
JOURNAL OF CLINICAL INVESTIGATION, 2012, 122 (06) :2006-2017
[6]   Engineered blood vessel networks connect to host vasculature via wrapping-and-tapping anastomosis [J].
Cheng, Gang ;
Liao, Shan ;
Wong, Hon Kit ;
Lacorre, Delphine A. ;
di Tomaso, Emmanuelle ;
Au, Patrick ;
Fukumura, Dai ;
Jain, Rakesh K. ;
Munn, Lance L. .
BLOOD, 2011, 118 (17) :4740-4749
[7]   Vascular tissue engineering: the next generation [J].
Cleary, Muriel A. ;
Geiger, Erik ;
Grady, Conor ;
Best, Cameron ;
Naito, Yuji ;
Breuer, Christopher .
TRENDS IN MOLECULAR MEDICINE, 2012, 18 (07) :394-404
[8]   Differentiation of vascular myofibroblasts induced by transforming growth factor-β1 requires the involvement of protein kinase Cα [J].
Gao, PJ ;
Li, Y ;
Sun, AJ ;
Liu, JJ ;
Ji, KD ;
Zhang, YZ ;
Sun, WL ;
Marche, P ;
Zhu, DL .
JOURNAL OF MOLECULAR AND CELLULAR CARDIOLOGY, 2003, 35 (09) :1105-1112
[9]   Evaluation of the use of an induced puripotent stem cell sheet for the construction of tissue-engineered vascular grafts [J].
Hibino, Narutoshi ;
Duncan, Daniel R. ;
Nalbandian, Ani ;
Yi, Tai ;
Qyang, Yibing ;
Shinoka, Toshiharu ;
Breuer, Christopher K. .
JOURNAL OF THORACIC AND CARDIOVASCULAR SURGERY, 2012, 143 (03) :696-703
[10]   Phospholipase Cγ2 is necessary for separation of blood and lymphatic vasculature in mice [J].
Ichise, Hirotake ;
Ichise, Taeko ;
Ohtani, Osamu ;
Yoshida, Nobuaki .
DEVELOPMENT, 2009, 136 (02) :191-195