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    반도체 제조 이온주입 공정의 이온 임플란타 장치에서 엑스레이 발생 특성 = Characterization of X-ray Emitted in the Ion Implantation Process of Semiconductor Operations

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    https://www.riss.kr/link?id=A108910957

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    다국어 초록 (Multilingual Abstract) kakao i 다국어 번역

    Objectives: The aims of this study are to investigate how X-rays are emitted to surrounding parts during the ion implantation process, to analyze these emissions in relation to the properties of the ion implanter equipment, and to estimate the resulting exposure dose. Eight ion implanters equipped with high-voltage electrical systems were selected for this study.
    Methods: We monitored X-ray emissions at three locations outside of the ion implanters: the accelerator equipped with a high-voltage energy generator, the impurity ion source, and the beam line. We used a Personal Portable Dose Rate and Survey Meter to monitor real-time X-ray levels. The SX-2R probe, an X-ray Features probe designed for use with the Radiagem™ meter, was also utilized to monitor lower ranges of X-ray emissions. The counts per second (CPS) measured by the meter were estimated and then converted to a radiation dose (μSv/hr) based on a validated calibration graph between CPS and μGy/hr.
    Results: X-rays from seven ion implanters were consistently detected in high-voltage accelerator gaps, regardless of their proximity. X-rays specifically emanated from three ion implanters situated in the ion box gap and were also found in the beam lines of two ion implanters. The intensity of these X-rays did not show a clear pattern relative to the devices' age and electric properties, and notably, it decreased as the distance from the device increased.
    Conclusions: In conclusion, every gap, in which three components of the ion implanter devices were divided, was found to be insufficiently shielded against X-ray emissions, even though the exposure levels were not estimated to be higher than the threshold.
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    Objectives: The aims of this study are to investigate how X-rays are emitted to surrounding parts during the ion implantation process, to analyze these emissions in relation to the properties of the ion implanter equipment, and to estimate the resulti...

    Objectives: The aims of this study are to investigate how X-rays are emitted to surrounding parts during the ion implantation process, to analyze these emissions in relation to the properties of the ion implanter equipment, and to estimate the resulting exposure dose. Eight ion implanters equipped with high-voltage electrical systems were selected for this study.
    Methods: We monitored X-ray emissions at three locations outside of the ion implanters: the accelerator equipped with a high-voltage energy generator, the impurity ion source, and the beam line. We used a Personal Portable Dose Rate and Survey Meter to monitor real-time X-ray levels. The SX-2R probe, an X-ray Features probe designed for use with the Radiagem™ meter, was also utilized to monitor lower ranges of X-ray emissions. The counts per second (CPS) measured by the meter were estimated and then converted to a radiation dose (μSv/hr) based on a validated calibration graph between CPS and μGy/hr.
    Results: X-rays from seven ion implanters were consistently detected in high-voltage accelerator gaps, regardless of their proximity. X-rays specifically emanated from three ion implanters situated in the ion box gap and were also found in the beam lines of two ion implanters. The intensity of these X-rays did not show a clear pattern relative to the devices' age and electric properties, and notably, it decreased as the distance from the device increased.
    Conclusions: In conclusion, every gap, in which three components of the ion implanter devices were divided, was found to be insufficiently shielded against X-ray emissions, even though the exposure levels were not estimated to be higher than the threshold.

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    참고문헌 (Reference)

    1 정은교 ; 김갑배 ; 송세욱, "전리방사선 노출과 관리" 한국산업보건학회 25 (25): 27-35, 2015

    2 박동욱 ; 변혜정 ; 최상준 ; 정지연 ; 윤충식 ; 김치년 ; 하권철 ; 박두용, "반도체 웨이퍼 가공 공정 및 잠재적 유해인자에 대한 고찰" 대한직업환경의학회 23 (23): 333-342, 2011

    3 ICPR, "The 2007 Recommendations of the International Commission on Radiological Protection. ICRP publication 103" 37 : 2-4, 2007

    4 Canberra, "SX-2R X-Ray Probe Manual: Radiagem TM. 2000(dose rate and survey meter)" Canberra industries, Inc 2000

    5 Maletskos CJ, "Radiation protection considerations of ion implantation systems" 30 : 1592-1596, 1983

    6 Cox JRD, "LSI semiconductor manufacturing" John Wiley and Sons 1984

    7 Crowder B, "Ion implantation in semiconductors and other materials" Springer Science & Business Media 2013

    8 Ungers LJ, "Industrial hygiene and control technology assessment of ion implantation operations" 47 : 607-614, 1986

    9 NCRP, "Implications of recent epidemiologic Studies for the linear-nonthreshold model and radiation protection" National Council on Radiation Protection and Measurements 2018

    10 Protection, Radiological, "ICRP publication 103" 37 : 2-, 2007

    1 정은교 ; 김갑배 ; 송세욱, "전리방사선 노출과 관리" 한국산업보건학회 25 (25): 27-35, 2015

    2 박동욱 ; 변혜정 ; 최상준 ; 정지연 ; 윤충식 ; 김치년 ; 하권철 ; 박두용, "반도체 웨이퍼 가공 공정 및 잠재적 유해인자에 대한 고찰" 대한직업환경의학회 23 (23): 333-342, 2011

    3 ICPR, "The 2007 Recommendations of the International Commission on Radiological Protection. ICRP publication 103" 37 : 2-4, 2007

    4 Canberra, "SX-2R X-Ray Probe Manual: Radiagem TM. 2000(dose rate and survey meter)" Canberra industries, Inc 2000

    5 Maletskos CJ, "Radiation protection considerations of ion implantation systems" 30 : 1592-1596, 1983

    6 Cox JRD, "LSI semiconductor manufacturing" John Wiley and Sons 1984

    7 Crowder B, "Ion implantation in semiconductors and other materials" Springer Science & Business Media 2013

    8 Ungers LJ, "Industrial hygiene and control technology assessment of ion implantation operations" 47 : 607-614, 1986

    9 NCRP, "Implications of recent epidemiologic Studies for the linear-nonthreshold model and radiation protection" National Council on Radiation Protection and Measurements 2018

    10 Protection, Radiological, "ICRP publication 103" 37 : 2-, 2007

    11 ACGIH., "Hazard assessment and control technology in semiconductor manufacturing" Lewis Publishers, Inc 1987

    12 Herrick RF, "Exposure assessment for retrospective followup studies of semiconductor-and storage devicemanufacturing workers" 983-995, 2005

    13 EROSHS, "Enforcement Rules on Occupational Safety and Health Standards, Part 3. Health Standards. Chapter7. Prevention of Health Disorders of Radiation" 2023

    14 NSA, "Enforced Decree of the Nuclear Safety Act [Enforcement Date: Aug.1, 2023], [the attaced Table 1] Radiation Dose Limits [Amendment Date: Apr.12, 2016]"

    15 KORASOL, "Calibration Report For Verification Certificate of RadiagemTM 2000" KORASOL Co 2017

    16 Britannica, "Bremsstrahlung"

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