[Prevention and nursing of postoperative lung diseases].
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Biomedical subjects
Publications and source records attributed to T Kiuchi.
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To examine the effects of smoking on lymphocyte subpopulations, we measured the following cell subpopulations: CD4+ T-cell subpopulations (i.e., CD4+CD29+, CD4+ CD45RO+, and CD4+CD45RA+ cells); CD8+ T-cell subpopulations (i.e., CD8+CD11a+ and CD8+CD11b+ cells); and natural killer cell subpopulations (i.e., CD16+CD57-, CD16+CD57+, and CD16-CD57+ cells). We measured these subpopulations, together with total CD4+ T, total CD8+ T, total CD3+ T, B (CD19+), and total lymphocytes, in 10 male heavy smokers, 38 male light-to-moderate smokers, and 33 male nonsmokers. The mean ages were 30 y, 31 y, and 32 y, respectively, and ages did not vary significantly among the smokers. CD4+CD29+ and CD4+CD45RO+ (memory T) cells in heavy smokers were significantly more numerous than those in light-to-moderate smokers and nonsmokers. Also, these memory T-cell subpopulations were significantly more numerous in light-to-moderate smokers than in nonsmokers. The number of CD4+CD45RA+ (naive T) cells was significantly larger in heavy smokers than nonsmokers; numbers of CD4+CD45RO+ T and CD4+CD29+ T cells (memory T cells) were significantly correlated with daily cigarette consumption. Numbers of CD3+ T, CD4+ T, CD19+ B, and total lymphocytes in heavy smokers were significantly larger than in nonsmokers. There were significantly more CD3+ T, CD4+ T, and total lymphocytes in light-to-moderate smokers than in nonsmokers. The numbers of CD4+ T lymphocytes in heavy smokers were significantly larger than in light-to-moderate smokers. Perhaps CD4+ T cell subpopulations, especially memory T cells, are most susceptible to the effects of smoking on lymphocyte subpopulations.
A WWW-based, on-line, data-entry system for the collection of statistical data on the management of Japanese national university hospitals has been developed. Trial operation of the system showed that it can reduce the labour and budgetary costs of data collection and also demonstrated that an on-line, data-entry system is feasible in Japan. In April 1997, we began production use of the system, and we are to develop another WWW-based data-entry system that can deal with all other statistics on hospital management.
Through the technical evolution and excellent results in living related liver transplantation in children, living related/unrelated liver transplantation in adults has come into reality. Disadvantages of small-for-size liver grafts are now significantly mitigated by the repertoire of left lobe, right lobe, and whole left liver grafts. Evolution of living donor liver transplantation in adults, however, has disclosed significant controversies about anatomical aspects and physiology of the liver. This article summarizes our experiences in the past 5 years and discusses still unresolved problems and perspective in the future.