-1::1
Simple Hit Counter
Skip to content

Products

Solutions

×
×
Sign In

JA

EN - EnglishCN - 简体中文DE - DeutschES - EspañolKR - 한국어IT - ItalianoFR - FrançaisPT - Português do BrasilPL - PolskiHE - עִבְרִיתRU - РусскийJA - 日本語TR - TürkçeAR - العربية
Sign In Start Free Trial

RESEARCH

JoVE Journal

Peer reviewed scientific video journal

Behavior
Biochemistry
Bioengineering
Biology
Cancer Research
Chemistry
Developmental Biology
View All
JoVE Encyclopedia of Experiments

Video encyclopedia of advanced research methods

Biological Techniques
Biology
Cancer Research
Immunology
Neuroscience
Microbiology
JoVE Visualize

Visualizing science through experiment videos

EDUCATION

JoVE Core

Video textbooks for undergraduate courses

Analytical Chemistry
Anatomy and Physiology
Biology
Calculus
Cell Biology
Chemistry
Civil Engineering
Electrical Engineering
View All
JoVE Science Education

Visual demonstrations of key scientific experiments

Advanced Biology
Basic Biology
Chemistry
View All
JoVE Lab Manual

Videos of experiments for undergraduate lab courses

Biology
Chemistry

BUSINESS

JoVE Business

Video textbooks for business education

Accounting
Finance
Macroeconomics
Marketing
Microeconomics

OTHERS

JoVE Quiz

Interactive video based quizzes for formative assessments

Authors

Teaching Faculty

Librarians

K12 Schools

Biopharma

Products

RESEARCH

JoVE Journal

Peer reviewed scientific video journal

JoVE Encyclopedia of Experiments

Video encyclopedia of advanced research methods

JoVE Visualize

Visualizing science through experiment videos

EDUCATION

JoVE Core

Video textbooks for undergraduates

JoVE Science Education

Visual demonstrations of key scientific experiments

JoVE Lab Manual

Videos of experiments for undergraduate lab courses

BUSINESS

JoVE Business

Video textbooks for business education

OTHERS

JoVE Quiz

Interactive video based quizzes for formative assessments

Solutions

Authors
Teaching Faculty
Librarians
K12 Schools
Biopharma

Language

ja

EN

English

CN

简体中文

DE

Deutsch

ES

Español

KR

한국어

IT

Italiano

FR

Français

PT

Português do Brasil

PL

Polski

HE

עִבְרִית

RU

Русский

JA

日本語

TR

Türkçe

AR

العربية

    Menu

    JoVE Journal

    Behavior

    Biochemistry

    Bioengineering

    Biology

    Cancer Research

    Chemistry

    Developmental Biology

    Engineering

    Environment

    Genetics

    Immunology and Infection

    Medicine

    Neuroscience

    Menu

    JoVE Encyclopedia of Experiments

    Biological Techniques

    Biology

    Cancer Research

    Immunology

    Neuroscience

    Microbiology

    Menu

    JoVE Core

    Analytical Chemistry

    Anatomy and Physiology

    Biology

    Calculus

    Cell Biology

    Chemistry

    Civil Engineering

    Electrical Engineering

    Introduction to Psychology

    Mechanical Engineering

    Medical-Surgical Nursing

    View All

    Menu

    JoVE Science Education

    Advanced Biology

    Basic Biology

    Chemistry

    Clinical Skills

    Engineering

    Environmental Sciences

    Physics

    Psychology

    View All

    Menu

    JoVE Lab Manual

    Biology

    Chemistry

    Menu

    JoVE Business

    Accounting

    Finance

    Macroeconomics

    Marketing

    Microeconomics

Start Free Trial
Loading...
Home
JoVE Journal
Bioengineering
脱細胞化マウス肺と初代ヒト内皮細胞を用いた生体工学的肺移植
脱細胞化マウス肺と初代ヒト内皮細胞を用いた生体工学的肺移植
JoVE Journal
Bioengineering
A subscription to JoVE is required to view this content.  Sign in or start your free trial.
JoVE Journal Bioengineering
Transplantation of Bioengineered Lung Using Decellularized Mouse Lungs and Primary Human Endothelial Cells

脱細胞化マウス肺と初代ヒト内皮細胞を用いた生体工学的肺移植

Full Text
898 Views
10:13 min
March 28, 2025

DOI: 10.3791/67565-v

Takaya Suzuki*1, Tatsuaki Watanabe*1, Fumiko Tomiyama1, Takayasu Ito1, Yoshinori Okada1

1Department of Thoracic Surgery, Institute of Development, Aging and Cancer,Tohoku University

AI Banner

Please note that some of the translations on this page are AI generated. Click here for the English version.

Overview

This study presents a standardized protocol for bioengineering mouse lungs through decellularization and recellularization techniques. It aims to facilitate research in organ bioengineering by optimizing methods for scalable and reproducible results.

Key Study Components

Area of Science

  • Bioengineering
  • Organ transplantation
  • Stem cell research

Background

  • Bioengineering human-sized organs is resource-intensive.
  • Academic labs often face limitations in capacity for iterative protocol development.
  • Mouse models provide a manageable platform for testing bioengineering protocols.
  • The lung architecture is similar across mammals, allowing for scalable research.

Purpose of Study

  • To establish a standardized protocol for lung bioengineering using mouse heart-lung blocks.
  • To identify appropriate cell types for organ bioengineering.
  • To compare multiple cell types and conditions for effective integration into organ bioreactor culture.

Methods Used

  • Decellularization of mouse lungs to remove cellular components.
  • Recellularization with various cell types to assess integration.
  • Orthotopic lung transplantation to evaluate functionality.
  • Optimization of protocols for scalability and reproducibility.

Main Results

  • Successful creation of bioengineered mouse lungs.
  • Identification of optimal cell types for lung recellularization.
  • Demonstration of effective integration of cells into the lung structure.
  • Establishment of a scalable protocol for future research.

Conclusions

  • The study provides a framework for lung bioengineering in a mouse model.
  • Findings can accelerate research in organ transplantation and disease modeling.
  • Future studies can build on this protocol to explore larger animal models.

Frequently Asked Questions

What is the significance of using mouse models in bioengineering?
Mouse models are small, manageable, and their lung architecture is similar to that of larger mammals, making them ideal for initial testing.
How does decellularization work?
Decellularization removes cellular components from the lung tissue, leaving behind the extracellular matrix, which can then be repopulated with new cells.
What are the potential applications of this research?
This research can lead to advancements in organ transplantation, disease modeling, and personalized medicine using patient-derived cells.
What challenges exist in organ bioengineering?
Challenges include identifying suitable cell types, ensuring proper integration into the organ structure, and scaling protocols for larger models.
How can this protocol be scaled for larger animals?
By optimizing results in mouse models, researchers can apply the findings to larger animals by adjusting the protocols according to size.

この論文では、脱細胞化および再細胞化法を使用してバイオエンジニアリングされたマウス肺を作成する方法を説明します。また、その後の同所性肺移植についても詳しく説明しています。

人間サイズの臓器をバイオエンジニアリングするには大量のリソースが必要であり、多くの場合、学術研究室の能力を超えます。反復プロトコル開発のコストを削減することで、この分野の研究の進歩が加速します。この研究の目的は、マウス心肺ブロックを使用した肺生物工学の標準化されたプロトコルを提供することです。どの細胞が臓器バイオエンジニアリングに適しているのか、そしてそれらの細胞を臓器バイオリアクター培養にどのように組み込むべきかはまだ不明です。スケーラブルで再現性のあるプロトコルを確立するには、複数の種類の細胞と条件を比較する必要があります。

マウスは小さくて扱いやすい実験動物です。ただし、それらは小さいですが、肺の基本的な構造は哺乳類間で似ています。この小さなプラットフォームでプロトコルを最適化することで、動物のサイズに応じて最適化された結果を乗算するだけで、レーザー動物モデルをスケールアップできます。このマウスサイズの肺バイオエンジニアリングプラットフォームにより、研究者は幹細胞を効率的にテストできます。これらの遺伝子組み換え細胞は、肺全体の工学に使用するには貴重または高価になる可能性があります。さらに、患者由来の細胞を使用して、in vitroで疾患モデルを作成することもできます。

View the full transcript and gain access to thousands of scientific videos

View the full transcript and gain access to thousands of scientific videos

Sign In Start Free Trial

Explore More Videos

今月のJoVEの217号は

Related Videos

肺のエンジニアリングのための手順

12:50

肺のエンジニアリングのための手順

Related Videos

47.4K Views

非ヒト霊長類の肺脱細胞化と特殊大型臓器バイオリアクターを用いた再細胞化

16:45

非ヒト霊長類の肺脱細胞化と特殊大型臓器バイオリアクターを用いた再細胞化

Related Videos

10.3K Views

異心臓移植のマウスモデルを用いた肺動脈弁の移植

10:56

異心臓移植のマウスモデルを用いた肺動脈弁の移植

Related Videos

19.4K Views

肺特異的血管形成を研究するためにマウスの肺にフィブリンゲルの移植

07:52

肺特異的血管形成を研究するためにマウスの肺にフィブリンゲルの移植

Related Videos

10.6K Views

マウスモデルにおける組織工学血管の生成とグラフト

13:04

マウスモデルにおける組織工学血管の生成とグラフト

Related Videos

12.7K Views

脱細胞肺足場を使用してESC由来のマウス気道上皮細胞の生成

12:31

脱細胞肺足場を使用してESC由来のマウス気道上皮細胞の生成

Related Videos

9.2K Views

脱細胞化肺スライスから調製された人工肺組織

08:01

脱細胞化肺スライスから調製された人工肺組織

Related Videos

4.2K Views

初代マウス肺内皮細胞の単離

06:41

初代マウス肺内皮細胞の単離

Related Videos

7.2K Views

領域特異的脱細胞化肺組織の解剖と単離

05:25

領域特異的脱細胞化肺組織の解剖と単離

Related Videos

6.2K Views

移植されたマウス肺の生体内2光子顕微鏡検査

04:16

移植されたマウス肺の生体内2光子顕微鏡検査

Related Videos

1.9K Views

JoVE logo
Contact Us Recommend to Library
Research
  • JoVE Journal
  • JoVE Encyclopedia of Experiments
  • JoVE Visualize
Business
  • JoVE Business
Education
  • JoVE Core
  • JoVE Science Education
  • JoVE Lab Manual
  • JoVE Quizzes
Solutions
  • Authors
  • Teaching Faculty
  • Librarians
  • K12 Schools
  • Biopharma
About JoVE
  • Overview
  • Leadership
Others
  • JoVE Newsletters
  • JoVE Help Center
  • Blogs
  • JoVE Newsroom
  • Site Maps
Contact Us Recommend to Library
JoVE logo

Copyright © 2026 MyJoVE Corporation. All rights reserved

Privacy Terms of Use Policies
WeChat QR code