• The Korean Society of Law and Medicine
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• v.22 no.1
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• pp.57-90
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• 2021

Telehealth has been a hotly debated health policy issue in South Korea, mostly because the medical community - especially primary care practitioners - have strongly opposed it. As a result, telehealth has remained forbidden under law. However, the temporary permission of telehealth in Korea, as well as its exploding use in other countries, all in response to COVID-19, is re-igniting the discussion on telehealth in Korea. This article explores general legal issues that may arise if and when telehealth is fully implemented in Korea. The article's analysis shows that legislative changes are necessary to allow reimbursement of telehealth as well as remote purchase of medicine. The article also advocates introducing new evidentiary rules to curtail covert recording of telehealth sessions. On the other hand, additional legislation is probably not necessary to address the medical liability of physicians practicing telehealth or to adress much-discussed privacy issues. The existing laws in those domains are already robust enough to operate without much difficulty in the context of telehealth too.

• Journal of the Korean Society of Radiology
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• v.12 no.6
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• pp.737-743
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• 2018

Patient exposure dose exposure test, which is one of the items of accuracy control of Computed Tomography, conducts measurements every year based on the installation and operation of special medical equipment under Article 38 of the Medical Law, And keep records. The CT-Dose phantom used for dosimetry can accurately measure doses, but has the disadvantage of high price. Therefore, through this research, the existing CT - Dose phantom was similarly manufactured with a 3D printer and compared with the existing phantom to examine the usefulness. In order to produce the same phantom as the conventional CT-Dose phantom, a 3D printer of the FFF method is used by using a PLA filament, and in order to calculate the CTDIw value, Ion chambers were inserted into the central part and the central part, and measurements were made ten times each. Measurement results The CT-Dose phantom was measured at $30.44{\pm}0.31mGy$ in the periphery, $29.55{\pm}0.34mGy$ CTDIw value was measured at $30.14{\pm}0.30mGy$ in the center, and the phantom fabricated using the 3D printer was measured at the periphery $30.59{\pm}0.18mGy$, the central part was $29.01{\pm}0.04mGy$, and the CTDIw value was measured at $30.06{\pm}0.13mGy$. Analysis using the Mann - Whiteney U-test of the SPSS statistical program showed that there was a statistically significant difference in the result values in the central part, but statistically significant differences were observed between the peripheral part and CTDIw results I did not show. In conclusion, even in the CT-Dose phantom made with a 3D printer, we showed dose measurement performance like existing CT-Dose phantom and confirmed the possibility of low-cost phantom production using 3D printer through this research did it.