3.Changes of Curricula of Medical Course between 1984 and 1993.
Bo Yul CHOI ; Sam Sup CHOI ; Joong Yol NA ; Myung Hyun CHUNG
Korean Journal of Medical Education 1994;5(2):23-30
We looked for and discussed the changes of curricula of medical course of 31 medical schools during the period of 1984 and 1993. The data used in this study were Educational State Report of Korean Med ical Schools published from Dean Association of Korean Medical Schools in 1984 and 1992-1993. The significant findings were as follows. 1. There were great variability in number of subjects and in time for lecture and exercise in each subject among 31 medical schools. 2. There were a great deal of changes during the period of 1984 and 1993. There were increased tendency in number of subjects and especially block lectures. Schools which had 1-4 subjects vanished in curriculum were most frequent among 22 schools during 9 years. Name of most frequent subjects in block lecture were clinico-patholo gical conference, reproductive medicine, hematology, oncology and cardiology in 1993. 3. Subjects which were transferred to pre-medical program were classified to two groups. One group was traditional basic medical subjects such anatomy, physiology and biochemistry, the other group was newly introduced subjects such as molecular biology and cell biology as basic medical subjects. 4. The data were suggested that long time was needed to stabilized in newly introduced subjects of clinical medicine such as neurology and plastic surgery. Time for lecture and exercise of these subjects shows increasing tendency in schools established before 1978, but decreasing tendency in schools established after 1978.
Biochemistry
;
Cardiology
;
Clinical Medicine
;
Curriculum*
;
Hematology
;
Humans
;
Lectures
;
Molecular Biology
;
Neurology
;
Physiology
;
Reproductive Medicine
;
Schools, Medical
;
Surgery, Plastic
4.Molecular Imaging for Theranostics in Gastroenterology: One Stone to Kill Two Birds.
Kwang Hyun KO ; Chang Il KOWN ; Jong Min PARK ; Hoo Geun LEE ; Na Young HAN ; Ki Baik HAHM
Clinical Endoscopy 2014;47(5):383-388
Molecular imaging in gastroenterology has become more feasible with recent advances in imaging technology, molecular genetics, and next-generation biochemistry, in addition to advances in endoscopic imaging techniques including magnified high-resolution endoscopy, narrow band imaging or autofluorescence imaging, flexible spectral imaging color enhancement, and confocal laser endomicroscopy. These developments have the potential to serve as "red flag" techniques enabling the earlier and accurate detection of mucosal abnormalities (such as precancerous lesions) beyond biomarkers, virtual histology of detected lesions, and molecular targeted therapy-the strategy of "one stone to kill two or three birds"; however, more effort should be done to be "blue ocean" benefit. This review deals with the introduction of Raman spectroscopy endoscopy, imaging mass spectroscopy, and nanomolecule development for theranostics. Imaging of molecular pathological changes in cells/tissues/organs might open the "royal road" to either convincing diagnosis of diseases that otherwise would only be detected in the advanced stages or novel therapeutic methods targeted to personalized medicine.
Biochemistry
;
Birds*
;
Diagnosis
;
Endoscopy
;
Gastroenterology*
;
Mass Spectrometry
;
Molecular Biology
;
Molecular Imaging*
;
Narrow Band Imaging
;
Optical Imaging
;
Spectrum Analysis, Raman
;
Biomarkers
;
Precision Medicine
5.Suksin Lee, the First Ph.D. and Full-Time Professor of Biochemistry in Korea.
Yonsei Medical Journal 2017;58(3):475-478
No abstract available.
Biochemistry*
;
Korea*
6.Practices of integrating the undergraduate and graduate teaching of Biochemistry and Molecular Biology.
Jinming SHI ; Chunbo TENG ; Guangchao SUI ; Zheyong XUE ; Yang ZHANG ; Xingshun SONG ; Xiaoyan LI
Chinese Journal of Biotechnology 2023;39(2):780-789
Biochemistry and Molecular Biology are the cornerstone courses of talent training in the field of life science. Taking these course as an example, this study explored reconstructing the knowledge framework, developing teaching cases, sharing teaching resources, innovating teaching means and establishing ideological education patterns. Supported by the scientific research achievements with discipline characteristics and online teaching platform, this research explored and practiced an integrated curriculum reform mode. This mode is guided by scientific research and education, based on the course development, and driven by communication and cooperation. A shared space of "exchange, practice, openness and informatization" was developed to achieve free and independent integration of undergraduate and graduate teaching motivated by learning knowledge, resulting in an effective student training.
Humans
;
Curriculum
;
Students
;
Learning
;
Molecular Biology/education*
;
Biochemistry/education*
7.Bioinformatics and Genomic Medicine.
Korean Journal of Preventive Medicine 2002;35(2):83-91
Bioinformatics is a rapidly emerging field of biomedical research. A flood of large-scale genomic and postgenomic data means that many of the challenges in biomedical research are now challenges in computational sciences. Clinical informatics has long developed methodologies to improve biomedical research and clinical care by integrating experimental and clinical information systems. The informatics revolutions both in bioinformatics and clinical informatics will eventually change the current practice of medicine, including diagnostics, therapeutics, and prognostics.Postgenome informatics, powered by high throughput technologies and genomic-scale databases, is likely to transform our biomedical understanding forever much the same way that biochemistry did a generation ago. The paper describes how these technologies will impact biomedical research and clinical care, emphasizing recent advances in biochip-based functional genomics and proteomics. Basic data preprocessing with normalization, primary pattern analysis, and machine learning algorithms will be presented. Use of integrated biochip informatics technologies, text mining of factual and literature databases, and integrated management of biomolecular databases will be discussed. Each step will be given with real examples in the context of clinical relevance. Issues of linking molecular genotype and clinical phenotype information will be discussed.
Machine Learning
;
Biochemistry
;
Computational Biology*
;
Data Mining
;
Genomics
;
Genotype
;
Informatics
;
Information Systems
;
Medical Informatics
;
Phenotype
;
Proteomics
8.Some techniques of molecular biology, biochemistry and microbiology in the diagnosis of tuberculosis
Journal of Medical and Pharmaceutical Information 2000;(4):6-9
This paper introduced some techniques of molecular biology in the diagnosis of tuberculosis including polymerase chain reaction (PCR), RFLP, KT, NASBA, M. tuberculosis AMTDT, KTLCX, LCR Abbott, TMA, QB... and biochemistry and microbiology such as analysis of specific lipid components and cell septal of M. tuberculosis by chromatography and determination of fatty acid in the cell septal of M. tuberculosis
Tuberculosis
;
Biochemistry
;
microbiology
;
diagnosis
9.Some biochemical indicators in healthy Vietnamese people measured by automatic analyser
Journal of Vietnamese Medicine 1999;232(1):129-133
The authors have examined the biochemistry activity of the hospital during the past 4-5 years. The numbers of the tests have been raising from 52,000 to 140,000/year. The different kinds of tests have been raising from 55 to 90. The quality of the tests is poor; now 90% of them give high precise results.
Biochemistry
;
Diagnostic Tests, Routine
10.Amino Acid and Mineral Contents in the leaf of Pseuderanthemum palatiferum
Journal of Medicinal Materials - Hanoi 2003;1():11-16
Investigation of Pseuderanthemum palatiferum (Nees) Radik showed that fresh leaves were rich with mineral elements, especially calcium (875.5 mg%) kalium (587.5 mg%) and iron (38.75 mg%). Amino acids also occurred in large amounts, such as isoleucine (148.34 mg%), alanine (106.44 mg%), valine (99.73 mg%), leucine (84.15 mg%). The leaves extract was non-toxic to fish
Plants
;
Botany
;
Biochemistry