1.Cellular Signal Transduction.
Journal of the Korean Medical Association 2001;44(7):716-726
No abstract available.
Signal Transduction*
2.Control of Signal Transduction Pathway.
Journal of the Korean Medical Association 1998;41(8):824-828
No abstract available.
Signal Transduction*
3.Signal Transduction.
Yeungnam University Journal of Medicine 1989;6(1):9-19
No abstract available.
Signal Transduction*
4.Bone/Vascular Calcification: Signal Transduction Pathway and Calcification Related Genes.
Journal of Korean Society of Endocrinology 2005;20(6):597-607
No Abstract available.
Signal Transduction*
5.Mechanism of Growth Hormone Signal Transduction.
Peter E LOBIE ; Tao ZHU ; Su Youn NAM
Journal of Korean Society of Endocrinology 2000;15(3):413-451
No Abstract Available.
Growth Hormone*
;
Signal Transduction*
6.Wnt Signal Transduction and Its Involvement in Human Diseases.
Journal of Korean Society of Endocrinology 2005;20(4):306-318
No Abstract available.
Humans*
;
Signal Transduction*
7.Changes of the signal transduction system by transneuronal regulation in the olfactory bulb.
Jin Jeong KIM ; Jae Bong KIM ; Bong Seon KIM ; Sun Yong BAEK
Korean Journal of Anatomy 1993;26(1):41-49
No abstract available.
Olfactory Bulb*
;
Signal Transduction*
9.Higher Order Knowledge Processing: Pathway Database and Ontologies.
Genomics & Informatics 2005;3(2):47-51
Molecular mechanisms of biological processes are typically represented as "pathways" that have a graph-analogical network structure. However, due to the diversity of topics that pathways cover, their constituent biological entities are highly diverse and the semantics is embedded implicitly. The kinds of interactions that connect biological entities are likewise diverse. Consequently, how to model or process pathway data is not a trivial issue. In this review article, we give an overview of the challenges in pathway database development by taking the INOH project as an example.
Biological Processes
;
Semantics
;
Signal Transduction
10.The epicardium in cardiac repair and regeneration.
Acta Physiologica Sinica 2016;68(4):525-533
Epicardium is one of the important components of the heart and plays a critical role in cardiogenesis. Moreover, further studies have shown that epicardium contributes to post-injury heart regeneration. After heart injury, epicardium secretes various signaling factors, regulating the cardiomyocyte proliferation and neovascularization. In addition, epicardium differentiates into many kinds of cells which take part in the heart repair in response to heart damage. In this review, we summarize recent progress on epicardial function, related signaling pathways and the potential clinical application, and provide a reference for future studies in epicardium and heart regeneration.
Heart
;
Pericardium
;
Regeneration
;
Signal Transduction
Result Analysis
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