1.Refractive Surgery for Myopia.
Journal of the Korean Medical Association 1998;41(1):77-86
No abstract available.
Myopia*
;
Refractive Surgical Procedures*
2.Diagnosis and Treatment of Anaphylaxis.
Pediatric Allergy and Respiratory Disease 1998;8(2):141-149
No abstract available.
Anaphylaxis*
;
Diagnosis*
3.Interactions between Upper Respiratory Infection and Development of Wheezing and Asthma in Children.
Pediatric Allergy and Respiratory Disease 2005;15(2):98-102
No abstract available.
Asthma*
;
Child*
;
Humans
;
Respiratory Sounds*
4.Can Microbial Agents Modulate Immune Response in Atopic Patients?.
Pediatric Allergy and Respiratory Disease 2000;10(1):1-6
No Abstracts Available.
Humans
5.Allergic Diseases and Immunotherapy.
Journal of the Korean Pediatric Society 1987;30(11):1189-1195
No abstract available.
Immunotherapy*
6.Discrepancy in ER and PR levels of breast carcinoma in pre and postmastectomy specimens.
Journal of the Korean Surgical Society 1993;44(4):508-511
No abstract available.
Breast Neoplasms*
;
Breast*
7.A clinical study of mycoplasma pneumonia in children during recent 5 years.
Journal of the Korean Pediatric Society 1992;35(8):1082-1088
No abstract available.
Child*
;
Humans
;
Mycoplasma pneumoniae
;
Mycoplasma*
;
Pneumonia, Mycoplasma*
8.Fundamental Study for Rolling-Over Motion of the Body by Functional Electrical Stimulation (FES).
Yeungnam University Journal of Medicine 1990;7(2):103-108
A method to roll-over the paralyzed body by means of Functional Electrical Stimulation (FES) is considered. It is demonstrated that individual joint motions necessary for the rolling-over are realized by electrical stimulation. EMG measurements are also performed to analyze the cooperative activities of the muscles during rolling-over motion in a case where an upper extremity was used. These results of two experiments using normal subjects verifies the fundamental feasibility of body control by FES.
Electric Stimulation*
;
Joints
;
Methods
;
Muscles
;
Upper Extremity
9.Expression of exogenous gene(SV40 early/LacZ) during preimplantation development after microinjection into mouse fertilized eggs.
Korean Journal of Fertility and Sterility 1993;20(3):253-266
No abstract available.
Animals
;
Mice*
;
Microinjections*
;
Zygote*
10.T cell phenotype and intracellular IFN-gamma production in peritoneal exudate cells and gut intraepithelial lymphocytes during acute Toxoplasma gondii infection in mice.
The Korean Journal of Parasitology 2002;40(3):119-129
Although there are many reports on the splenic (systemic) T cell response after Toxoplasma gondii infection, little information is available regarding the local T cell responses of peritoneal exudate cells (PEC) and gut intraepithelial lymphocytes (IEL) following peroral infection with bradyzoites. Mice were infected with 40 cysts of the 76K strain of T. gondii, and then sacrificed at days 0, 1, 4, 7 and 10 postinfection (PI). The cellular composition and T cell responses of PEC and IEL were analyzed. The total number of PEC and IEL per mouse increased after infection, but the ratio of increase was higher in IEL. Lymphocytes were the major component of both PEC and IEL. The relative percentages of PEC macrophages and neutrophils/eosinophils increased significantly at day 1 and 4 PI, whereas those of IEL did not change significantly. The percentage of PEC NK1.1 and gamma delta T cells peaked at day 4 PI (p < 0.0001), and CD4 and CD8 alpha T cells increased continuously after infection. The percentages of IEL CD8 alpha and gamma delta T cells decreased slightly at first, and then increased. CD4 and NK1.1 T cells of IEL did not change significantly after infection. IFN-gamma-producing PEC NK1.1 T cells increased significantly from day 1 PI, but the other T cell subsets produced IFN-gamma abundantly thereafter. The proportion of IEL IFN-gamma-producing CD8 alpha and gamma delta T cells increased significantly after infection, while IEL NK1.1 T cells had similar IFN-gamma production patterns. Taken together, CD4 T cells were the major phenotype and the important IFN-gamma-producing T cell subsets in PEC after oral infection with T. gondii, whereas CD8 alpha T cells had these roles in IEL. These results suggest that PEC and IEL comprise different cell differentials and T cell responses, and according to infection route these factors may contribute to the different cellular immune responses.
Acute Disease
;
Animals
;
Ascitic Fluid/cytology/*metabolism
;
Female
;
Interferon Type II/*biosynthesis
;
Intestinal Mucosa/cytology
;
Lymphocytes/*metabolism
;
Mice
;
Mice, Inbred C57BL
;
Support, Non-U.S. Gov't
;
T-Lymphocyte Subsets/*immunology
;
Toxoplasmosis/*immunology