Human genomics and microarrays: implications for the plastic surgeon.
Abstract
The Human Genome Project was launched in 1989 in an effort to sequence the entire span of human DNA. Although coding sequences are important in identifying mutations, the static order of DNA does not explain how a cell or organism may respond to normal and abnormal biological processes. By examining the mRNA content of a cell, researchers can determine which genes are being activated in response to a stimulus. Traditional methods in molecular biology generally work on a "one gene: one experiment" basis, which means that the throughput is very limited and the "whole picture" of gene function is hard to obtain. To study each of the 60,000 to 80,000 genes in the human genome under each biological circumstance is not practical. Recently, microarrays (also known as gene or DNA chips) have emerged; these allow for the simultaneous determination of expression for thousands of genes and analysis of genome-wide mRNA expression. The purpose of this article is twofold: first, to provide the clinical plastic surgeon with a working knowledge and understanding of the fields of genomics, microarrays, and bioinformatics and second, to present a case to illustrate how these technologies can be applied in the study of wound healing.
추출된 의학 개체 (NER)
| 유형 | 영어 표현 | 한국어 / 풀이 | UMLS CUI | 출처 | 등장 |
|---|---|---|---|---|---|
| 해부 | DNA
|
scispacy | 1 | ||
| 해부 | cell
|
scispacy | 1 | ||
| 합병증 | wound
|
scispacy | 1 | ||
| 기타 | Human
|
scispacy | 1 | ||
| 기타 | human DNA
|
scispacy | 1 |
MeSH Terms
Female; Genome, Human; Human Genome Project; Humans; Oligonucleotide Array Sequence Analysis; Surgery, Plastic; Wound Healing