Microfluidic Organ Chip for In Vitro Model of Blood Glucose Monitoring and Regulation

This study is based on our iGEM (international genetically engineered machine) 2019 competition project in which an in vitro model was established to simulate the human monitoring and regulation of blood glucose level using the “liver-on-a-chip” and a genetically engineered bacterium capable of prod...

Full description

Bibliographic Details
Main Authors: Wu Yingqiang, Wu Guo, Fu Pengcheng, Hu Meng
Format: Article
Language:English
Published: EDP Sciences 2020-01-01
Series:E3S Web of Conferences
Online Access:https://www.e3s-conferences.org/articles/e3sconf/pdf/2020/78/e3sconf_iseese2020_04029.pdf
id doaj-232f4110fdf04f70ab6917695abc1c6f
record_format Article
spelling doaj-232f4110fdf04f70ab6917695abc1c6f2021-04-02T16:29:01ZengEDP SciencesE3S Web of Conferences2267-12422020-01-012180402910.1051/e3sconf/202021804029e3sconf_iseese2020_04029Microfluidic Organ Chip for In Vitro Model of Blood Glucose Monitoring and RegulationWu Yingqiang0Wu Guo1Fu Pengcheng2Hu Meng3Hainan University, State Key Laboratory of Marine Resource Utilization in South China SeaSuzhou North America High SchoolHainan University, State Key Laboratory of Marine Resource Utilization in South China SeaInternational Youth Talent Exchange CenterThis study is based on our iGEM (international genetically engineered machine) 2019 competition project in which an in vitro model was established to simulate the human monitoring and regulation of blood glucose level using the “liver-on-a-chip” and a genetically engineered bacterium capable of producing proinsulin efficiently. The microfluidic device is able to accommodate cellular chassis loaded with biological parts for diabetic treatment. In addition, electrochemical biosensors were designed to detect the differential glucose concentration from the both chambers of the organ chip. The model can test different chemicals and organs, when the components in the channels and cells are altered. We have thus accomplished an in vitro model of how the proinsulin generated by engineered bacteria works on liver cells. In the near future, our research paradigm will be shifted to bacterial implantation in the human intestines to replace pancreas for the automatic secretion of insulin for diabetic patients.https://www.e3s-conferences.org/articles/e3sconf/pdf/2020/78/e3sconf_iseese2020_04029.pdf
collection DOAJ
language English
format Article
sources DOAJ
author Wu Yingqiang
Wu Guo
Fu Pengcheng
Hu Meng
spellingShingle Wu Yingqiang
Wu Guo
Fu Pengcheng
Hu Meng
Microfluidic Organ Chip for In Vitro Model of Blood Glucose Monitoring and Regulation
E3S Web of Conferences
author_facet Wu Yingqiang
Wu Guo
Fu Pengcheng
Hu Meng
author_sort Wu Yingqiang
title Microfluidic Organ Chip for In Vitro Model of Blood Glucose Monitoring and Regulation
title_short Microfluidic Organ Chip for In Vitro Model of Blood Glucose Monitoring and Regulation
title_full Microfluidic Organ Chip for In Vitro Model of Blood Glucose Monitoring and Regulation
title_fullStr Microfluidic Organ Chip for In Vitro Model of Blood Glucose Monitoring and Regulation
title_full_unstemmed Microfluidic Organ Chip for In Vitro Model of Blood Glucose Monitoring and Regulation
title_sort microfluidic organ chip for in vitro model of blood glucose monitoring and regulation
publisher EDP Sciences
series E3S Web of Conferences
issn 2267-1242
publishDate 2020-01-01
description This study is based on our iGEM (international genetically engineered machine) 2019 competition project in which an in vitro model was established to simulate the human monitoring and regulation of blood glucose level using the “liver-on-a-chip” and a genetically engineered bacterium capable of producing proinsulin efficiently. The microfluidic device is able to accommodate cellular chassis loaded with biological parts for diabetic treatment. In addition, electrochemical biosensors were designed to detect the differential glucose concentration from the both chambers of the organ chip. The model can test different chemicals and organs, when the components in the channels and cells are altered. We have thus accomplished an in vitro model of how the proinsulin generated by engineered bacteria works on liver cells. In the near future, our research paradigm will be shifted to bacterial implantation in the human intestines to replace pancreas for the automatic secretion of insulin for diabetic patients.
url https://www.e3s-conferences.org/articles/e3sconf/pdf/2020/78/e3sconf_iseese2020_04029.pdf
work_keys_str_mv AT wuyingqiang microfluidicorganchipforinvitromodelofbloodglucosemonitoringandregulation
AT wuguo microfluidicorganchipforinvitromodelofbloodglucosemonitoringandregulation
AT fupengcheng microfluidicorganchipforinvitromodelofbloodglucosemonitoringandregulation
AT humeng microfluidicorganchipforinvitromodelofbloodglucosemonitoringandregulation
_version_ 1721556497840734208