Long-Term Survival Trend of Gynecological Cancer: A Systematic Review of Population-Based Cancer Registration Data

Xiaohui Zhou Danni Yang Yixin Zou Dandan Tang Jun Chen Zhuoying Li Qiuming Shen Qun Xu Yongbing Xiang

Xiaohui Zhou, Danni Yang, Yixin Zou, Dandan Tang, Jun Chen, Zhuoying Li, Qiuming Shen, Qun Xu, Yongbing Xiang. Long-Term Survival Trend of Gynecological Cancer: A Systematic Review of Population-Based Cancer Registration Data[J]. Biomedical and Environmental Sciences, 2024, 37(8): 897-921. doi: 10.3967/bes2024.133
Citation: Xiaohui Zhou, Danni Yang, Yixin Zou, Dandan Tang, Jun Chen, Zhuoying Li, Qiuming Shen, Qun Xu, Yongbing Xiang. Long-Term Survival Trend of Gynecological Cancer: A Systematic Review of Population-Based Cancer Registration Data[J]. Biomedical and Environmental Sciences, 2024, 37(8): 897-921. doi: 10.3967/bes2024.133

doi: 10.3967/bes2024.133

Long-Term Survival Trend of Gynecological Cancer: A Systematic Review of Population-Based Cancer Registration Data

Funds: This work was supported by the National Key Project of Research and Development Program of China [2021YFC2500404, 2021YFC2500405].
More Information
    Author Bio:

    Xiaohui Zhou, female, born in 1999, Master of Public Health, majoring in cancer epidemiology

    Corresponding author: Qun Xu, E-mail: xuqun@renji.com, Tel: 86-21-68383562; Yongbing Xiang, E-mail: ybxiang@shsci.org, Tel: 86-21-64437002.
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  • Figure  1.  Study selection process.

    Figure  2.  Age-standardized 5-year relative/net survival rates (%) of cervical cancer in selected countries and regions, 1980–2015.

    Figure  4.  Age-standardized 5-year relative/net survival rates (%) of ovarian cancer in selected countries and regions, 1980–2015.

    Figure  3.  Age-standardized 5-year relative/net survival rates (%) of uterine corpus cancer in selected countries and regions, 1980–2015.

    Table  1.   Overall observed survival rates (%) of cervical cancer in selected countries and regions during 1980–2017

    Continent Country Region Period 1-year 3-year 5-year 10-year
    Asia China Qidong, Jiangsu[6]* 1982−1986 57.4 37.4 33.0 27.0
    1987−1991 57.9 39.0 26.3 20.0
    1992−1996 42.4 35.3 29.4 27.1
    1997−2001 55.8 41.9 33.7 25.6
    2002−2006 65.3 51.5 49.1 45.2
    2007−2011 79.3 66.2 62.8 58.2
    2012−2016 90.9 77.9 73.6
    Jiulongpo, Chongqing[7] 2008−2013 69.8 42.6 35.3
    Zhejiang[8] 2005−2010 86.9 75.4 70.8
    Sihui, Guangdong[9]* 1987−1996 18.8
    1997−2006 47.1
    2007−2009 49.8
    Guizhoua[10] 2013−2015 81.6 66.4
    Anshan, Liaoningb[11] 2008−2017 91.5 81.0 76.5
    Yangpu, Shanghai[12] 2002−2012 91.2 79.1 75.5
    Shanghai[13] 1988−1991 73.3 53.6 45.4
    Tianjin[14] 1981−1985 55.0 42.0 38.0
    Korea Kangwha[15] 1983−1987 67.1
    Malaysia[16] 2000−2005 94.1 79.3 71.1
    Thailand Khon Kaen[17] 1985−1990 56.8
    Singapore[18] 1983−1987 56.0
    1988−1992 63.0
    India Bangalore[19] 1982−1989 34.4
    Mumbai[20] 1990−1994 77.0 55.9 44.0
    Dindigul Ambilikkai[21] 2003−2006 35.0
    America Costa Rica[22] 2011−2015 68.0
    Colombia Manizales[23] 2003−2007 80.7 62.1 51.4
    Canada Ontario[24] [25]* 1995−1998 71.1
    1999−2001 75.9
    2003−2007 71.0
    Canada British Columbia[26] 1980−1989 89.0 73.0
    1990−1999 91.0 73.0
    2000−2002 90.0
    Cuba[27] 1982 44.0
    1988−1998 74.0 57.0 52.0
    Europe total[28] 1995−1999 84.9 68.0 62.0
    France Martinique[29] 2002−2011 84.1 62.6 55.1 43.3
    Switzerland Vaud[30] 1984−1988 55.0
    1989−1993 62.0
    Italy Sicily, Ragusa[31] 1992 55.8
    Lithuanian[32] 2001−2009 64.1
    Sweden[33] 2011−2015 74.0
    Finland[34] 1995−1999 63.4
    Bulgaria[35]* 1993−1997 49.7
    2005−2009 54.7
    Germany[36] 2002−2006 65.0
    Australiac [37] 2003−2007 70.3
    2008−2012 72.1
    Africa Uganda Kampala[38,39] 1995−1997 79.7 52.4
    1993−1997 15.9
      Note. −, No report or unavailable in the original article. *Long−term change in survival rates was statistically significant. aOnly three counties in the Guizhou Province are included. bOnly four districts in Anshan, Liaoning Province are included. cSix Australian states/territories (New South Wales, Victoria, Queensland, South Australia, Western Australia, and the Northern Territory) were included in the original article.
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    Table  2.   Overall observed survival rates (%) of uterine corpus cancer in selected countries and regions during 1981–2017

    Continent County Region Period 1-year 3-year 5-year
    Asia China Sihui, Guangdong[9]* 1987−1996 7.4
    1997−2006 40.0
    2007−2009 78.1
    Anshan, Liaoningb[11] 2008−2017 94.1 86.9 82.2
    Shanghai[13] 1988−1991 89.3 77.6 72.6
    Tianjin[14] 1981−1985 65.0 55.0 54.0
    Jiulongpo, Chongqing[7] 2008−2013 69.4 48.4 37.6
    Singapore[18] 1983−1987 71.0
    1988−1992 72.0
    Europe[28] 1995−1999 88.3 76.1 69.4
    Denmark[91] 2005−2009 73.5
    Germany[36] 2002−2006 70.0
    Bulgaria[35]* 1993−1997 66.6
    2005−2009 69.0
    Finland[34] 1995−1999 82.5
    Switzerland Vaud[30] 1984−1988 69.0
    1989−1993 74.0
    Italy Sicily, Ragusa[31] 1992 68.5
    America Costa Rica[22] 2011−2015 74.0
    Cuba[27] 1982 56.0
    1988−1998 77.0 59.0 52.0
      Note. *The long-term change trend of survival rate was statistically significant. bOnly four districts in Anshan, Liaoning Province are included. −, No report or unavailable in the original article.
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    Table  3.   Overall observed survival rates (%) of ovarian cancer in selected countries and regions during 1981–2017

    Continent County Region Period 1−year 3−year 5−year
    Asia China Qidong, Jiangsu[42] 1982−1986 46.8
    1987−1991 30.3
    1992−1996 32.7
    1997−2000 43.1
    Tianjin[14] 1981−1985 47.0 35.0 33.0
    Shanghai[13] 1988−1991 65.0 47.2 41.6
    Sihui, Guangdong[43] 2003−2005 64.7 58.8 58.8
    Zhejiang[8] 2005−2010 76.7 61.0 52.6
    Anshan, Liaoningb[11] 2008−2017 80.7 60.7 50.2
    Jiulongpo, Chongqing[7] 2008−2013 65.8 44.7 37.5
    Singapore[18] 1983−1987 56.0
    1988−1992 64.0
    India Mumbai[20] 1990−1994 51.0 27.5 23.3
    Dindigul Ambilikkai[21] 2003−2006 30.0
    Iran[44, 105] 2000−2004
    2009-2014

    84.0

    66.0
    61.0
    55.0
    Africa Egypt Alexandria[49] 1988−1997 46.0
    Uganda Kampala[38] 1993−1997 14.1
    America Costa Rica[22] 2011−2015 52.0
    Europe[28,47] 1995−1999 69.1 46.5 37.1
    1999−2001 34.8
    2002−2004 34.3
    2005−2007 35.5
    Central Europe[47] 1999−2001 38.7
    2002−2004 37.9
    2005−2007 37.7
    Southern Europe[47] 1999−2001 35.7
    2002−2004 33.7
    2005−2007 36.7
    Eastern Europe[47] 1999−2001 28.9
    2002−2004 30.1
    2005−2007 32.2
    Northern Europe[47] 1999−2001 36.8
    2002−2004 37.6
    2005−2007 38.8
    UK and Ireland[47] 1999−2001 27.8
    2002−2004 28.5
    2005−2007 29.7
    Denmark[48,91] 2000−2002 73.0 37.0
    2003−2005 69.0 36.0
    2005−2009 37.7
    2009−2011 69.0
    Italy Sicily, Ragusa[31] 1992 18.1
    Bulgaria[35]* 1993−1997 35.4
    2005−2009 40.3
    France[52] 1989−2010 74.0 40.0
    Finland[34] 1995−1999 44.6
    Germany[36] 2002−2006 37.0
    Saarland[45] 1981−1985 29.9
    1986−1990 32.4
    1991−1995 37.2
    Switzerland Vaud[30] 1984−1988 28.0
    1989−1993 32.0
      Note. *The long-term change trend of survival rate was statistically significant. bOnly four districts in Anshan, Liaoning Province are included. −, No report or unavailable in the original article.
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    Table  4.   Overall relative/net survival rates (%) of cervical cancer in selected countries and regions during 1980−2019

    Continent Country Region Period 1−year 3−year 5−year 10−year
    Asia China Qidong, Jiangsu[6]* 1982−1986 59.3 41.4 39.2 38.0
    1987−1991 59.8 43.0 31.1 28.4
    1992−1996 43.6 38.5 34.2 37.9
    1997−2001 57.3 45.4 38.6 33.6
    2002−2006 66.2 53.8 53.0 52.6
    2007−2011 80.2 68.5 66.4 65.0
    2012−2016 91.6 79.8 76.8
    Zhejiang[8] 2005−2010 87.5 77.2 73.9
    Guizhoua[10] 2013−2015 84.7 74.3
    Sihui, Guangdong[9] 2007−2009 50.5
    Shanghai [13] 1988−1991 75.2 57.9 52.1
    Tianjin[14] 1981−1985 56.8 46.6 45.8
    Fujian[53] 2012−2014 68.6
    Haining and Jiashan, Zhejiang[54] 2003−2006 65.6
    2007−2010 81.7
    2011−2014 85.8
    Hong Kong[55] 1997−2006 90.6 76.6 71.3
    Taiwan[56] 2004−2008 75.1
    Japand[57] 1993−1996 73.4
    1997−1999 71.5
    Osaka[58]* 1987−1994 58.6 54.0
    1995−2002 56.8 52.7
    2003−2010 64.3 59.6
    Korea[59,60] 1993−1995 78.3
    1996−2000 80.3 77.2
    2001−2005 81.5 78.3
    2006−2010 80.7 77.1
    2011−2015 80.3
    2015−2019 80.5
    Singapore[18] 1983−1987 57.0
    1988−1992 65.0
    Thailande[61] 1997−2001 78.8 55.4
    2002−2006 80.9 55.5
    2008−2012 81.5 59.5
    Bangkok[61] 1997−2001 52.5 33.9
    2002−2006 75.5 49.0
    2008−2012 79.9 56.5
    Chiang Mai[61] 1997−2001 83.7 60.8
    2002−2006 86.9 61.9
    2008−2012 85.3 67.0
    Khon Kaen[61] 1997−2001 83.1 57.4
    2002−2006 81.0 57.2
    2008−2012 79.2 56.1
    Lampang[61] 1997−2001 81.7 46.1
    2002−2006 83.5 55.0
    2008−2012 83.8 64.5
    Songkhla[61] 1997−2001 88.8 59.0
    2002−2006 79.6 55.3
    2008−2012 80.6 55.6
    Philippines Metro Manila and Rizal province[62] 1998−2002 45.4
    India Bangalore[19] 1982−1989 38.8
    Mumbai[20] 1990−1994 78.2 58.7 47.7
    Kuwait[63] 2000−2004 84.4 57.8
    2005−2009 88.7 73.8
    2010−2013 86.3 71.8
    Turkey[64] 2009 62.0
    Europe[28,65,66] 1981−1983 60.0
    1983−1985 61.0
    1986−1988 62.0
    1989−1991 64.0
    1992−1994 63.0
    1995−1999 86.0 71.0 66.7
    Denmark[66,67] 1983−1985 62.0
    1986−1988 66.0
    1989−1991 67.0
    1992−1994 66.0
    1994−2003 89.0 71.0
    Finland[66,68] 1980−1982 57.5
    1983−1985 65.0
    1986−1988 60.0
    1989−1991 62.0
    1992−1994 69.0
    1995−1999 82.3
    Iceland[66] 1983−1985 69.0
    1986−1988 75.0
    1989−1991 67.0
    1992−1994 75.0
    Norway[66] 1983−1985 67.0
    1986−1988 65.0
    1989−1991 66.0
    1992−1994 71.0
    Sweden[33,66,69] 1983−1985 68.0
    1986−1988 67.0
    1989−1991 71.0
    1992−1994 68.0
    2000−2002 70.9
    2011−2015 76.0
    England[66,70] 1983−1985 59.0
    1986−1988 61.0
    1989−1991 65.0
    1992−1994 62.0
    2006−2008 80.4 62.2
    2007−2009 80.8
    2008−2010 80.9
    Scotland[66] 1983−1985 54.0
    1986−1988 58.0
    1989−1991 61.0
    1992−1994 60.0
    Wales[66] 1983−1985 62.0
    1986−1988 59.0
    1989−1991 59.0
    1992−1994 58.0
    France[66] 1983−1985 70.0
    1986−1988 64.0
    1989−1991 71.0
    1992−1994 67.0
    Germany[66] 1983−1985 63.0
    1986−1988 63.0
    1989−1991 61.0
    1992−1994 66.0
    Augsburg, Swabia[71] 2005−2011 71.4 67.2
    2005–2007 72.1
    2008–2010 72.2
    2011–2013 72.3
    Saarland[72] 1990−1992 61.0 56.6
    2000−2002 60.4 55.2
    Switzerland[66] 1983−1985 66.0
    1986−1988 62.0
    1989−1991 70.0
    1992−1994 61.0
    Vaud[30,73] 1980−1982 59.0
    1983−1985 59.0
    1984−1988 61.0
    1989−1993 70.0
    Netherlands[66,74]* 1983−1985 66.0
    1986−1988 69.0
    1989−1991 72.0
    1992−1994 66.0
    2009−2013 73.0
    2014−2018 74.0
    1989−2018* 71.0
    Eindhoven[75] 1980−2002 70.4 65.1
    Italy[66] 1983−1985 60.0
    1986−1988 62.0
    1989−1991 63.0
    1992−1994 67.0
    Umbria[76] 1994−1998 85.0 69.0 64.0
    Slovenia[66] 1983−1985 56.0
    1986−1988 61.0
    1989−1991 60.0
    1992−1994 59.0
    Spain[66] 1983−1985 59.0
    1986−1988 59.0
    1989−1991 70.0
    1992−1994 70.0
    The Czech Republic[77]* 2000−2004 62.1
    2005−2008 64.2
    Estonia[66,78]* 1983−1985 51.0
    1986−1988 58.0
    1989−1991 59.0
    1992−1994 49.0
    1995−1999 80.0 59.0
    2000−2004 84.0 64.0
    2005−2009 86.0 69.0
    2010−2014 84.0 67.0
    Lithuania[79]* 1990−1994 46.9
    1995−1999 51.5
    2000−2004 55.3
    Poland[66] 1983−1985 49.0
    1986−1988 52.0
    1989−1991 48.0
    1992−1994 49.0
    Slovakia[66] 1983−1985 56.0
    1986−1988 60.0
    1989−1991 57.0
    1992−1994 58.0
    America Columbia Cali[80] 1995−1999 77.0 58.0 50.0 47.0
    2000−2004 82.0 63.0 60.0
    Cuba[27] 1982 47.0
    1988−1998 76.0 59.0 56.0
    Costa Rica[22] 2011−2015 69.0
    Canada Manitoba[81] 1985−1989 68.0
    1990−1994 65.0
    1995−1999 72.0
    United States[8284] 1985−1989 66.0
    2006−2012 68.8
    2013−2019 67.2
    Oceania Australia New South Wales[85,86] 1982−1986 68.0
    1987−1991 72.0
    1993−1996 73.1
    Australiac[37] 2003−2007 75.6
    2008−2012 76.3
    Africa Uganda Kampala[38,39] 1993−1997 18.2
    1995−1997 84.1 59.9
      Note. *The survival rate trend was statistically significant in the original article. aOnly three counties in the Guizhou Province were included in the original article. cSix Australian states/territories (New South Wales, Victoria, Queensland, South Australia,Western Australia, and the Northern Territory) were included in the original article. dSix registries (Miyagi, Yamagata, Niigata, Fukui, Osaka, and Nagasaki) were included in the original article. eFive Thai provinces (Bangkok, Chiang Mai, Khon Kaen, Lampang, and Songkhla) were included in the original article. −, No report or unavailable in the original article.
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    Table  5.   Overall relative/net survival rates (%) of uterine corpus cancer in selected countries and regions during 1980−2019

    Continent County Regions Period 1−year 3−year 5−year 10−year
    Asia China Fujian[53] 2012−2014 68.3
    Haining, Jiashan, Zhejiang[54] 2003−2006 75.4
    2007−2010 85.2
    2011−2014 87.2
    Shanghai[13] 1988−1991 90.2 80.2 77.0
    Tianjin[14] 1981−1985 66.3 60.5 58.6
    Sihui,Guangdong [9] 2007−2009 79.6
    Japan b [57,87]* 1993−1996 79.5
    1997−1999 76.8
    1993−2000 90.4 77.7
    2001−2006 91.8 80.2
    Osaka[88,89] 1982−1989 70.7
    1990−1997 68.5
    1989−2000 71.2
    Korea[59,90] 1999−2017 88.1
    1993−1995 82.9
    1996−2000 82.0
    2001−2005 84.7
    2006−2010 86.5
    2011−2015 87.7
    2015−2019 89.0
    Singapore[18] 1983−1987 68.0
    1988−1992 64.0
    Turkey[64] 2009 85.0
    America United States[8284] 1985−1989 83.0
    2006−2012 83.4
    2013−2019 81.0
    Costa Rica[22] 2011−2015 78.0
    Cuba[27] 1982 69.0
    1988−1998 81.0 66.0 62.0
    Oceania Australia New South Wales[86] 1993−1996 79.2
    Europe[28] 1995−1999 90.3 81.7 78.6
    Czech[77] 2000−2004 76.6
    2005−2008 78.9
    Denmark[67,91] 1994−2003 94.0 80.0
    2005−2009 83.0
    Estonia[92] 1996−2002 75.0
    2003−2009 73.0
    2010−2016 79.0
    Finland[68,93] 1985−1994 92.0 82.0 82.0
    1980−1982 75.9
    1985−1987 75.1
    1990−1992 80.3
    Germany[36] 2002−2006 79.0
    Augsburg, Swabia[71] 2005−2011 85.4 82.5
    2005−2007 82.7
    2008−2010 87.3
    2011–2013 88.0
    Saarland[72] 1990−1992 81.8 80.8
    2000−2002 82.8 81.9
    Italy Umbria[76] 1994−1998 92.0 81.0 79.0
    Netherlands[83,94] 1985−1989 75.2
    1989−1993 77.0
    1994−1998 78.0
    1999−2003 79.0
    2004−2008 80.0
    Eindhoven[75] 1980−2002 81.2 79.1
    Sweden[65,69] 1981−1983 75.0
    1984−1986 75.0
    1987−1989 73.0
    2000−2002 85.3
    Switzerland Vaud[30] 1984−1988 78.0
    1989−1993 84.0
      Note. *The survival rate trend was statistically significant in the original article. −, No report or unavailable in the original article.
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    Table  6.   Overall relative/net survival rates(%) of ovarian cancer in selected countries and regions during 1980–2019

    Continent County Regions Period 1−year 3−year 5−year
    Asia China Fujian[53] 2012−2014 51.5
    Haining, Jiashan, Zhejiang[54] 2003−2006 51.1
    2007−2010 47.2
    2011−2014 53.1
    Zhejiang[8] 2005−2010 77.3 62.6 55.2
    Qidong, Jiangsu[42,95] 1982−1986 48.7
    1987−1991 31.7
    1992−1996 34.3
    1997−2000 44.6
    2002-2006 68.0 47.3 45.2
    2007-2011 75.7 50.9 41.9
    2012-2016 78.8 57.9 49.5
    Shanghai[13] 1988−1991 65.7 48.9 44.3
    Tianjin[14] 1981−1985 47.8 37.0 36.3
    Japand [57] 1993−1996 49.4
    1997−1999 52.0
    Osaka[88,96] 1985−1994 40.9
    1982−1989 27.7
    1990−1997 33.2
    Korea[59] 1993−1995 60.1
    1996−2000 59.4
    2001−2005 61.7
    2006−2010 61.3
    2011−2015 64.8
    2015−2019 64.5
    Kuwait[63] 2000−2004 73.4 38.9
    2005−2009 79.0 42.6
    2010−2013 78.3 40.3
    Turkey[64] 2009 50.0
    Philippines Metro Manila and Rizal[62] 1998−2002 49.5
    India Mumbai[20] 1990−1994 51.9 29.0 25.4
    Singapore[18] 1983−1987 51.0
    1988−1992 62.0
    Africa Uganda Kampala[38] 1993−1997 16.2
    America United States[82,84,97] 1981−1987 69.6 36.9
    2006−2012 46.4
    2013−2019 50.8
    Canada[98] 2010−2014 71.7 50.1
    Canada Manitoba[99] 1992–1995 64.9 37.2
    1996–1999 71.0 44.4
    2000–2003 72.1 49.1
    2004–2007 66.6 43.3
    2008–2011 69.6 46.7
    1992−2011 68.8 44.4
    Costa Rica[22] 2011−2015 54.0
    Oceania Australia[98] 2010−2014 78.2 56.4
    New South Wales[86] 1993−1996 37.3
    New Zealand[98] 2010−2014 71.4 45.5
    Europe[28,65,100] 1981−1983 33.0
    1984−1986 35.0
    1987−1989 33.0
    1990−1994 36.7
    1995−1999 70.7 49.9 41.8
    Austria[83] 1985−1989 44.0
    Czech[77]* [100] 1995–1999 45.0
    2000−2004 37.0
    2005−2008 38.4
    Denmark[67,91,98] 1994−2003 77.0 37.0
    2005−2009 41.5
    2010−2014 77.6 53.6
    Finland[34,68,93,100] 1980−1982 44.8
    1985−1994 68.0 37.0 35.0
    1985−1987 42.9
    1990−1992 45.7
    1995−1999 40.4
    2003–2005 49.0
    France [101]* 1982−2005 81.0 55.0 44.0
    1982−1989 82.0 49.0 41.0
    1990−1997 74.0 50.0 39.0
    1998−2005 87.0 64.0 49.0
    France[52] 1989−2010 76.0 42.0
    Germany[36] 2002−2006 40.0
    Saarland[45, 72, 102] 1981−1985 32.0
    1986−1990 34.4
    1991−1995 39.4
    1999-2003 45.2
    2000−2002 45.7
    Augsburg, Swabia [71] 2005−2011 48.0 40.2
    2005–2007 41.7
    2008–2010 52.4
    2011–2013 66.3
    Ireland[98] 2010−2014 69.2 44.8
    Italy[100] 1995–1999 41.0
    Umbria[76] 1994−1998 73.0 48.0 42.0
    Modena[100]* 1990–1997 41.0
    1998–2005 36.0
    Norway[98] [100]* 1991−1995 39.9
    1996–2000 44.1
    2010−2014 77.7 57.2
    Slovenia[100]* 1993–1997 37.0
    1998–2002 46.0
    Spain[83] 1985−1989 41.0
    Sweden[46,69,83] 1985−1989 45.0
    2000−2002 47.5
    2009−2013 37.0
    Switzerland[83] 1985−1989 40.0
    Vaud[30] 1984−1988 32.0
    1989−1993 37.0
    Geneva[100]* 1990–1994 39.0
    1994–1998 48.0
    UK[98] 2010−2014 70.4 47.3
    UK−Northern Ireland[100]* 1993−1996 41.6
    2001–2004 43.6
    UK−Scotland[100]* 1992–1996 32.8
    1997–2001 40.6
    The Netherlands[103] 1989−1991 36.0
    2007−2009 41.0
    Eindhoven[75,104] 1980−2002 40.3
    1981−1985 48.0 42.0
    Amsterdam[100]* 1993–1996 37.0
    2001–2005 40.0
      Note. *The survival rate trend was statistically significant in the original article. dSix registries (Miyagi, Yamagata, Niigata, Fukui, Osaka, and Nagasaki) were included in the original article. −, No report or unavailable in the original article.
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Long-Term Survival Trend of Gynecological Cancer: A Systematic Review of Population-Based Cancer Registration Data

doi: 10.3967/bes2024.133
    基金项目:  This work was supported by the National Key Project of Research and Development Program of China [2021YFC2500404, 2021YFC2500405].
    作者简介:

    Xiaohui Zhou, female, born in 1999, Master of Public Health, majoring in cancer epidemiology

    通讯作者: Qun Xu, E-mail: xuqun@renji.com, Tel: 86-21-68383562; Yongbing Xiang, E-mail: ybxiang@shsci.org, Tel: 86-21-64437002.

English Abstract

Xiaohui Zhou, Danni Yang, Yixin Zou, Dandan Tang, Jun Chen, Zhuoying Li, Qiuming Shen, Qun Xu, Yongbing Xiang. Long-Term Survival Trend of Gynecological Cancer: A Systematic Review of Population-Based Cancer Registration Data[J]. Biomedical and Environmental Sciences, 2024, 37(8): 897-921. doi: 10.3967/bes2024.133
Citation: Xiaohui Zhou, Danni Yang, Yixin Zou, Dandan Tang, Jun Chen, Zhuoying Li, Qiuming Shen, Qun Xu, Yongbing Xiang. Long-Term Survival Trend of Gynecological Cancer: A Systematic Review of Population-Based Cancer Registration Data[J]. Biomedical and Environmental Sciences, 2024, 37(8): 897-921. doi: 10.3967/bes2024.133
    • Gynecological cancer is the most prevalent malignancy among women worldwide. It disrupts the functioning of the female reproductive system and seriously affects their quality of life[1]. Cervical, uterine, and ovarian cancers are the three primary types of gynecological cancers. According to the Global Cancer Statistics 2022, cervical cancer ranks fourth in terms of incidence (6.8%) and mortality (8.1%) in women, and is the most frequently diagnosed cancer and the leading cause of cancer death in low and medium Human Development Index (HDI) regions and in India[2]. Uterine corpus cancer (endometrial cancer) is the sixth most common cancer in women, accounting for 420,242 cases worldwide. The incidence rate of endometrial cancer in the high/very high HDI group was 3.4-fold higher than that in the low/medium HDI[2]. Ovarian cancer is the eighth most diagnosed cancer among women in 2022 and has the highest lethality, accounting for nearly half of all gynecological malignancy deaths[2,3].

      In addition to incidence and mortality, survival is an important indicator for cancer burden. Population-based cancer survival statistics provide indicators for the effectiveness of screening, early diagnosis, and treatment, as well as reflect the overall effectiveness of health services[4]. Accurate survival rates not only have broad population-based implications, but also provide patients with a better understanding of the nature and course of the disease, as well as guide clinicians in counseling and management[5]. However, the availability of cancer survival data may be limited in countries or regions with systematic reports of cancer incidence or mortality because of the time gaps that often exist in survival.

      Little attention has been paid to the characteristics and long-term trends of gynecological cancer survival in different countries and regions. This systematic review extracted the survival rates of population-based cancer registrations for common gynecological cancers from published articles. The primary aim was to provide a comprehensive analysis of global trends and temporal variations in the survival outcomes of patients with gynecological cancer across different populations or regions between the 1980s and the 2020s.

    • This review was conducted in accordance with the Preferred Reporting Items for Systematic Review and Meta-Analysis (PRISMA) statement (Supplementary Table S1, available in www.besjournal.com). A comprehensive search of the PubMed, Web of Science, EMBASE, SinoMed, and Surveillance, Epidemiology, and End Results (SEER) databases was conducted for retrieving related studies published between January 1980 and November 2022. The keywords were as follows: “cervical cancer,” “uterine corpus cancer,” “ovarian cancer,” “survival rate,” “cancer registry”, and “population-based survival analysis” (Appendix S1, available in www.besjournal.com). The cancer site and histological type were coded according to the International Classification of Diseases or the International Classification of Diseases for Oncology (Supplementary Table S2, available in www.besjournal.com).

      A total of 5,055 articles were identified using the search strategy and examined independently by two authors (Xiaohui Zhou and Danni Yang). Studies were included as follows: (a) a population-based survival analysis or from cancer registries, (b) survival rate as outcome, and (c) not assessing overlapping periods and incomplete or unavailable articles. After reviewing the titles and abstracts of the publications, 501 full-text articles were identified. After full-text evaluation, 132 articles were included in the final analysis (Figure 1).

      Figure 1.  Study selection process.

    • Estimates of observed survival rates (OSR), relative survival rates (RSR), and net survival rates were extracted from published studies. OSR estimates the chance of remaining alive for some years after diagnosis and uses death from all causes as the endpoint. RSR is the ratio of the overall survival of cancer patients to the expected survival of a comparable group of cancer-free individuals[5]. Expected survival, which uses life tables from the general population covered by the cancer registry, can be calculated using the Ederer I, Ederer II, Hakulinen, and Pohar-Perme. The net survival rate is an estimate of the net effect of cancer diagnosis after eliminating the influence of competing causes of death as a cancer prognosis indicator[5]. Both RSR and net survival refer to the cumulative survival probabilities in a given period after excluding other causes of death. Therefore, these two indicators were combined in the present study. The observed relative or net survival rates were primarily utilized and compared across various countries or regions, as well as across different age and sex groups. Age-standardized survival rate was used to compare survival rates between different populations or time periods by adjusting for differences in age distribution. We extracted age-standardized RSRs from each article to further eliminate the impact of age structure on international comparisons. The RSR estimates were age-standardized using weights from different standard populations, including the World, SEER, European, and country-specific Standard Populations. In addition, we collected the results of the statistical tests of all survival trends at different time periods and subgroup-specific 5-year survival rates. EndNote X20 was employed for literature management, while Microsoft Excel 2016 was used for data analysis and graph creation.

    • Table 1 shows the overall 1-, 3-, 5-, and 10-year OSRs of cervical cancer in 20 countries[6-39]. The 5-year OSR was the highest in Anshan, Liaoning, China (2008–2017)[11] at 76.5%, whereas it was the lowest in Uganda, Kampala (1993–1997)[38] at 15.9%. Among the collected countries and regions[9,11,13,14,18,22,27,30,31,33-36,40,41], the 5-year OSRs for endometrial cancer were highest in Finland (1995–1999)[34] and lowest in Sihui, Guangdong, China (1987–1996)[9], at 82.5% and 7.4%, respectively (Table 2). For ovarian cancer[7,8,11,13,14,18,20-22,30,31,33-36,40,42-52], the highest 5-year OSR was observed in Singapore (1988–1992)[18] at 64.0%; in Kampala, Uganda (1988–1997)[51] and Ragusa, Sicily, Italy (1992)[31], the 5-year OSRs were poor, only at 14.1% and 18.1%, respectively (Table 3).

      Table 1.  Overall observed survival rates (%) of cervical cancer in selected countries and regions during 1980–2017

      Continent Country Region Period 1-year 3-year 5-year 10-year
      Asia China Qidong, Jiangsu[6]* 1982−1986 57.4 37.4 33.0 27.0
      1987−1991 57.9 39.0 26.3 20.0
      1992−1996 42.4 35.3 29.4 27.1
      1997−2001 55.8 41.9 33.7 25.6
      2002−2006 65.3 51.5 49.1 45.2
      2007−2011 79.3 66.2 62.8 58.2
      2012−2016 90.9 77.9 73.6
      Jiulongpo, Chongqing[7] 2008−2013 69.8 42.6 35.3
      Zhejiang[8] 2005−2010 86.9 75.4 70.8
      Sihui, Guangdong[9]* 1987−1996 18.8
      1997−2006 47.1
      2007−2009 49.8
      Guizhoua[10] 2013−2015 81.6 66.4
      Anshan, Liaoningb[11] 2008−2017 91.5 81.0 76.5
      Yangpu, Shanghai[12] 2002−2012 91.2 79.1 75.5
      Shanghai[13] 1988−1991 73.3 53.6 45.4
      Tianjin[14] 1981−1985 55.0 42.0 38.0
      Korea Kangwha[15] 1983−1987 67.1
      Malaysia[16] 2000−2005 94.1 79.3 71.1
      Thailand Khon Kaen[17] 1985−1990 56.8
      Singapore[18] 1983−1987 56.0
      1988−1992 63.0
      India Bangalore[19] 1982−1989 34.4
      Mumbai[20] 1990−1994 77.0 55.9 44.0
      Dindigul Ambilikkai[21] 2003−2006 35.0
      America Costa Rica[22] 2011−2015 68.0
      Colombia Manizales[23] 2003−2007 80.7 62.1 51.4
      Canada Ontario[24] [25]* 1995−1998 71.1
      1999−2001 75.9
      2003−2007 71.0
      Canada British Columbia[26] 1980−1989 89.0 73.0
      1990−1999 91.0 73.0
      2000−2002 90.0
      Cuba[27] 1982 44.0
      1988−1998 74.0 57.0 52.0
      Europe total[28] 1995−1999 84.9 68.0 62.0
      France Martinique[29] 2002−2011 84.1 62.6 55.1 43.3
      Switzerland Vaud[30] 1984−1988 55.0
      1989−1993 62.0
      Italy Sicily, Ragusa[31] 1992 55.8
      Lithuanian[32] 2001−2009 64.1
      Sweden[33] 2011−2015 74.0
      Finland[34] 1995−1999 63.4
      Bulgaria[35]* 1993−1997 49.7
      2005−2009 54.7
      Germany[36] 2002−2006 65.0
      Australiac [37] 2003−2007 70.3
      2008−2012 72.1
      Africa Uganda Kampala[38,39] 1995−1997 79.7 52.4
      1993−1997 15.9
        Note. −, No report or unavailable in the original article. *Long−term change in survival rates was statistically significant. aOnly three counties in the Guizhou Province are included. bOnly four districts in Anshan, Liaoning Province are included. cSix Australian states/territories (New South Wales, Victoria, Queensland, South Australia, Western Australia, and the Northern Territory) were included in the original article.

      Table 2.  Overall observed survival rates (%) of uterine corpus cancer in selected countries and regions during 1981–2017

      Continent County Region Period 1-year 3-year 5-year
      Asia China Sihui, Guangdong[9]* 1987−1996 7.4
      1997−2006 40.0
      2007−2009 78.1
      Anshan, Liaoningb[11] 2008−2017 94.1 86.9 82.2
      Shanghai[13] 1988−1991 89.3 77.6 72.6
      Tianjin[14] 1981−1985 65.0 55.0 54.0
      Jiulongpo, Chongqing[7] 2008−2013 69.4 48.4 37.6
      Singapore[18] 1983−1987 71.0
      1988−1992 72.0
      Europe[28] 1995−1999 88.3 76.1 69.4
      Denmark[91] 2005−2009 73.5
      Germany[36] 2002−2006 70.0
      Bulgaria[35]* 1993−1997 66.6
      2005−2009 69.0
      Finland[34] 1995−1999 82.5
      Switzerland Vaud[30] 1984−1988 69.0
      1989−1993 74.0
      Italy Sicily, Ragusa[31] 1992 68.5
      America Costa Rica[22] 2011−2015 74.0
      Cuba[27] 1982 56.0
      1988−1998 77.0 59.0 52.0
        Note. *The long-term change trend of survival rate was statistically significant. bOnly four districts in Anshan, Liaoning Province are included. −, No report or unavailable in the original article.

      Table 3.  Overall observed survival rates (%) of ovarian cancer in selected countries and regions during 1981–2017

      Continent County Region Period 1−year 3−year 5−year
      Asia China Qidong, Jiangsu[42] 1982−1986 46.8
      1987−1991 30.3
      1992−1996 32.7
      1997−2000 43.1
      Tianjin[14] 1981−1985 47.0 35.0 33.0
      Shanghai[13] 1988−1991 65.0 47.2 41.6
      Sihui, Guangdong[43] 2003−2005 64.7 58.8 58.8
      Zhejiang[8] 2005−2010 76.7 61.0 52.6
      Anshan, Liaoningb[11] 2008−2017 80.7 60.7 50.2
      Jiulongpo, Chongqing[7] 2008−2013 65.8 44.7 37.5
      Singapore[18] 1983−1987 56.0
      1988−1992 64.0
      India Mumbai[20] 1990−1994 51.0 27.5 23.3
      Dindigul Ambilikkai[21] 2003−2006 30.0
      Iran[44, 105] 2000−2004
      2009-2014

      84.0

      66.0
      61.0
      55.0
      Africa Egypt Alexandria[49] 1988−1997 46.0
      Uganda Kampala[38] 1993−1997 14.1
      America Costa Rica[22] 2011−2015 52.0
      Europe[28,47] 1995−1999 69.1 46.5 37.1
      1999−2001 34.8
      2002−2004 34.3
      2005−2007 35.5
      Central Europe[47] 1999−2001 38.7
      2002−2004 37.9
      2005−2007 37.7
      Southern Europe[47] 1999−2001 35.7
      2002−2004 33.7
      2005−2007 36.7
      Eastern Europe[47] 1999−2001 28.9
      2002−2004 30.1
      2005−2007 32.2
      Northern Europe[47] 1999−2001 36.8
      2002−2004 37.6
      2005−2007 38.8
      UK and Ireland[47] 1999−2001 27.8
      2002−2004 28.5
      2005−2007 29.7
      Denmark[48,91] 2000−2002 73.0 37.0
      2003−2005 69.0 36.0
      2005−2009 37.7
      2009−2011 69.0
      Italy Sicily, Ragusa[31] 1992 18.1
      Bulgaria[35]* 1993−1997 35.4
      2005−2009 40.3
      France[52] 1989−2010 74.0 40.0
      Finland[34] 1995−1999 44.6
      Germany[36] 2002−2006 37.0
      Saarland[45] 1981−1985 29.9
      1986−1990 32.4
      1991−1995 37.2
      Switzerland Vaud[30] 1984−1988 28.0
      1989−1993 32.0
        Note. *The long-term change trend of survival rate was statistically significant. bOnly four districts in Anshan, Liaoning Province are included. −, No report or unavailable in the original article.

      Tables 46 show the overall relative or net survival rates of the common gynecological cancers worldwide. For cervical cancer[6,8-10,13,14,18-20,22,27,28,30,33,37-39,53-86], the 5-year survival rates were higher in Haining and Jiashan, Zhejiang, China (2011–2014)[54] and in Finland (1995–1999)[66], with 85.8% and 82.3%, respectively; differences remained very wide, with levels as low as 18.2% in Kampala, Uganda (1993–1997)[38]. The highest 10-year survival rate (78.3%) was observed in Korea (1996–2000, 2001–2005)[60]; the lowest rate (28.4%) was observed in Qidong, Jiangsu, China (1987–1991)[6]. For endometrial cancer[9, 13, 14, 18, 22, 27, 28, 30, 36, 53, 54, 57, 59, 64, 65, 67-69, 71, 72, 75-77, 82-84, 86-94], 5-year survival rates were very high in Korea (2015–2019; 89.0%)[59]. Conversely, Tianjin (1981–1985)[14] had the lowest 5-year survival rate (39.3%) (Table 5). For ovarian cancer[8,13,14,18,20,22,30,34,36,38,42, 46,52-54,57,59,62-64,67-69,71,72,75-77,82-84,86,88,91,93,95-105], Korea (2011–2015) ranked first, with a 5-year relative and net survival rate of 64.8%[59]. In Kampala, Uganda (1993–1997)[38], the 5-year rate was low (16.2 %). The range of survival in Asia was wider than that in Europe. In Asia, the 5-year survival rate ranges from 64.5%[59] to 25.4%[20]; in Europe, 5-year survival ranges from 49.0%[100] –32.0%[30].

      Table 4.  Overall relative/net survival rates (%) of cervical cancer in selected countries and regions during 1980−2019

      Continent Country Region Period 1−year 3−year 5−year 10−year
      Asia China Qidong, Jiangsu[6]* 1982−1986 59.3 41.4 39.2 38.0
      1987−1991 59.8 43.0 31.1 28.4
      1992−1996 43.6 38.5 34.2 37.9
      1997−2001 57.3 45.4 38.6 33.6
      2002−2006 66.2 53.8 53.0 52.6
      2007−2011 80.2 68.5 66.4 65.0
      2012−2016 91.6 79.8 76.8
      Zhejiang[8] 2005−2010 87.5 77.2 73.9
      Guizhoua[10] 2013−2015 84.7 74.3
      Sihui, Guangdong[9] 2007−2009 50.5
      Shanghai [13] 1988−1991 75.2 57.9 52.1
      Tianjin[14] 1981−1985 56.8 46.6 45.8
      Fujian[53] 2012−2014 68.6
      Haining and Jiashan, Zhejiang[54] 2003−2006 65.6
      2007−2010 81.7
      2011−2014 85.8
      Hong Kong[55] 1997−2006 90.6 76.6 71.3
      Taiwan[56] 2004−2008 75.1
      Japand[57] 1993−1996 73.4
      1997−1999 71.5
      Osaka[58]* 1987−1994 58.6 54.0
      1995−2002 56.8 52.7
      2003−2010 64.3 59.6
      Korea[59,60] 1993−1995 78.3
      1996−2000 80.3 77.2
      2001−2005 81.5 78.3
      2006−2010 80.7 77.1
      2011−2015 80.3
      2015−2019 80.5
      Singapore[18] 1983−1987 57.0
      1988−1992 65.0
      Thailande[61] 1997−2001 78.8 55.4
      2002−2006 80.9 55.5
      2008−2012 81.5 59.5
      Bangkok[61] 1997−2001 52.5 33.9
      2002−2006 75.5 49.0
      2008−2012 79.9 56.5
      Chiang Mai[61] 1997−2001 83.7 60.8
      2002−2006 86.9 61.9
      2008−2012 85.3 67.0
      Khon Kaen[61] 1997−2001 83.1 57.4
      2002−2006 81.0 57.2
      2008−2012 79.2 56.1
      Lampang[61] 1997−2001 81.7 46.1
      2002−2006 83.5 55.0
      2008−2012 83.8 64.5
      Songkhla[61] 1997−2001 88.8 59.0
      2002−2006 79.6 55.3
      2008−2012 80.6 55.6
      Philippines Metro Manila and Rizal province[62] 1998−2002 45.4
      India Bangalore[19] 1982−1989 38.8
      Mumbai[20] 1990−1994 78.2 58.7 47.7
      Kuwait[63] 2000−2004 84.4 57.8
      2005−2009 88.7 73.8
      2010−2013 86.3 71.8
      Turkey[64] 2009 62.0
      Europe[28,65,66] 1981−1983 60.0
      1983−1985 61.0
      1986−1988 62.0
      1989−1991 64.0
      1992−1994 63.0
      1995−1999 86.0 71.0 66.7
      Denmark[66,67] 1983−1985 62.0
      1986−1988 66.0
      1989−1991 67.0
      1992−1994 66.0
      1994−2003 89.0 71.0
      Finland[66,68] 1980−1982 57.5
      1983−1985 65.0
      1986−1988 60.0
      1989−1991 62.0
      1992−1994 69.0
      1995−1999 82.3
      Iceland[66] 1983−1985 69.0
      1986−1988 75.0
      1989−1991 67.0
      1992−1994 75.0
      Norway[66] 1983−1985 67.0
      1986−1988 65.0
      1989−1991 66.0
      1992−1994 71.0
      Sweden[33,66,69] 1983−1985 68.0
      1986−1988 67.0
      1989−1991 71.0
      1992−1994 68.0
      2000−2002 70.9
      2011−2015 76.0
      England[66,70] 1983−1985 59.0
      1986−1988 61.0
      1989−1991 65.0
      1992−1994 62.0
      2006−2008 80.4 62.2
      2007−2009 80.8
      2008−2010 80.9
      Scotland[66] 1983−1985 54.0
      1986−1988 58.0
      1989−1991 61.0
      1992−1994 60.0
      Wales[66] 1983−1985 62.0
      1986−1988 59.0
      1989−1991 59.0
      1992−1994 58.0
      France[66] 1983−1985 70.0
      1986−1988 64.0
      1989−1991 71.0
      1992−1994 67.0
      Germany[66] 1983−1985 63.0
      1986−1988 63.0
      1989−1991 61.0
      1992−1994 66.0
      Augsburg, Swabia[71] 2005−2011 71.4 67.2
      2005–2007 72.1
      2008–2010 72.2
      2011–2013 72.3
      Saarland[72] 1990−1992 61.0 56.6
      2000−2002 60.4 55.2
      Switzerland[66] 1983−1985 66.0
      1986−1988 62.0
      1989−1991 70.0
      1992−1994 61.0
      Vaud[30,73] 1980−1982 59.0
      1983−1985 59.0
      1984−1988 61.0
      1989−1993 70.0
      Netherlands[66,74]* 1983−1985 66.0
      1986−1988 69.0
      1989−1991 72.0
      1992−1994 66.0
      2009−2013 73.0
      2014−2018 74.0
      1989−2018* 71.0
      Eindhoven[75] 1980−2002 70.4 65.1
      Italy[66] 1983−1985 60.0
      1986−1988 62.0
      1989−1991 63.0
      1992−1994 67.0
      Umbria[76] 1994−1998 85.0 69.0 64.0
      Slovenia[66] 1983−1985 56.0
      1986−1988 61.0
      1989−1991 60.0
      1992−1994 59.0
      Spain[66] 1983−1985 59.0
      1986−1988 59.0
      1989−1991 70.0
      1992−1994 70.0
      The Czech Republic[77]* 2000−2004 62.1
      2005−2008 64.2
      Estonia[66,78]* 1983−1985 51.0
      1986−1988 58.0
      1989−1991 59.0
      1992−1994 49.0
      1995−1999 80.0 59.0
      2000−2004 84.0 64.0
      2005−2009 86.0 69.0
      2010−2014 84.0 67.0
      Lithuania[79]* 1990−1994 46.9
      1995−1999 51.5
      2000−2004 55.3
      Poland[66] 1983−1985 49.0
      1986−1988 52.0
      1989−1991 48.0
      1992−1994 49.0
      Slovakia[66] 1983−1985 56.0
      1986−1988 60.0
      1989−1991 57.0
      1992−1994 58.0
      America Columbia Cali[80] 1995−1999 77.0 58.0 50.0 47.0
      2000−2004 82.0 63.0 60.0
      Cuba[27] 1982 47.0
      1988−1998 76.0 59.0 56.0
      Costa Rica[22] 2011−2015 69.0
      Canada Manitoba[81] 1985−1989 68.0
      1990−1994 65.0
      1995−1999 72.0
      United States[8284] 1985−1989 66.0
      2006−2012 68.8
      2013−2019 67.2
      Oceania Australia New South Wales[85,86] 1982−1986 68.0
      1987−1991 72.0
      1993−1996 73.1
      Australiac[37] 2003−2007 75.6
      2008−2012 76.3
      Africa Uganda Kampala[38,39] 1993−1997 18.2
      1995−1997 84.1 59.9
        Note. *The survival rate trend was statistically significant in the original article. aOnly three counties in the Guizhou Province were included in the original article. cSix Australian states/territories (New South Wales, Victoria, Queensland, South Australia,Western Australia, and the Northern Territory) were included in the original article. dSix registries (Miyagi, Yamagata, Niigata, Fukui, Osaka, and Nagasaki) were included in the original article. eFive Thai provinces (Bangkok, Chiang Mai, Khon Kaen, Lampang, and Songkhla) were included in the original article. −, No report or unavailable in the original article.

      Table 5.  Overall relative/net survival rates (%) of uterine corpus cancer in selected countries and regions during 1980−2019

      Continent County Regions Period 1−year 3−year 5−year 10−year
      Asia China Fujian[53] 2012−2014 68.3
      Haining, Jiashan, Zhejiang[54] 2003−2006 75.4
      2007−2010 85.2
      2011−2014 87.2
      Shanghai[13] 1988−1991 90.2 80.2 77.0
      Tianjin[14] 1981−1985 66.3 60.5 58.6
      Sihui,Guangdong [9] 2007−2009 79.6
      Japan b [57,87]* 1993−1996 79.5
      1997−1999 76.8
      1993−2000 90.4 77.7
      2001−2006 91.8 80.2
      Osaka[88,89] 1982−1989 70.7
      1990−1997 68.5
      1989−2000 71.2
      Korea[59,90] 1999−2017 88.1
      1993−1995 82.9
      1996−2000 82.0
      2001−2005 84.7
      2006−2010 86.5
      2011−2015 87.7
      2015−2019 89.0
      Singapore[18] 1983−1987 68.0
      1988−1992 64.0
      Turkey[64] 2009 85.0
      America United States[8284] 1985−1989 83.0
      2006−2012 83.4
      2013−2019 81.0
      Costa Rica[22] 2011−2015 78.0
      Cuba[27] 1982 69.0
      1988−1998 81.0 66.0 62.0
      Oceania Australia New South Wales[86] 1993−1996 79.2
      Europe[28] 1995−1999 90.3 81.7 78.6
      Czech[77] 2000−2004 76.6
      2005−2008 78.9
      Denmark[67,91] 1994−2003 94.0 80.0
      2005−2009 83.0
      Estonia[92] 1996−2002 75.0
      2003−2009 73.0
      2010−2016 79.0
      Finland[68,93] 1985−1994 92.0 82.0 82.0
      1980−1982 75.9
      1985−1987 75.1
      1990−1992 80.3
      Germany[36] 2002−2006 79.0
      Augsburg, Swabia[71] 2005−2011 85.4 82.5
      2005−2007 82.7
      2008−2010 87.3
      2011–2013 88.0
      Saarland[72] 1990−1992 81.8 80.8
      2000−2002 82.8 81.9
      Italy Umbria[76] 1994−1998 92.0 81.0 79.0
      Netherlands[83,94] 1985−1989 75.2
      1989−1993 77.0
      1994−1998 78.0
      1999−2003 79.0
      2004−2008 80.0
      Eindhoven[75] 1980−2002 81.2 79.1
      Sweden[65,69] 1981−1983 75.0
      1984−1986 75.0
      1987−1989 73.0
      2000−2002 85.3
      Switzerland Vaud[30] 1984−1988 78.0
      1989−1993 84.0
        Note. *The survival rate trend was statistically significant in the original article. −, No report or unavailable in the original article.

      Table 6.  Overall relative/net survival rates(%) of ovarian cancer in selected countries and regions during 1980–2019

      Continent County Regions Period 1−year 3−year 5−year
      Asia China Fujian[53] 2012−2014 51.5
      Haining, Jiashan, Zhejiang[54] 2003−2006 51.1
      2007−2010 47.2
      2011−2014 53.1
      Zhejiang[8] 2005−2010 77.3 62.6 55.2
      Qidong, Jiangsu[42,95] 1982−1986 48.7
      1987−1991 31.7
      1992−1996 34.3
      1997−2000 44.6
      2002-2006 68.0 47.3 45.2
      2007-2011 75.7 50.9 41.9
      2012-2016 78.8 57.9 49.5
      Shanghai[13] 1988−1991 65.7 48.9 44.3
      Tianjin[14] 1981−1985 47.8 37.0 36.3
      Japand [57] 1993−1996 49.4
      1997−1999 52.0
      Osaka[88,96] 1985−1994 40.9
      1982−1989 27.7
      1990−1997 33.2
      Korea[59] 1993−1995 60.1
      1996−2000 59.4
      2001−2005 61.7
      2006−2010 61.3
      2011−2015 64.8
      2015−2019 64.5
      Kuwait[63] 2000−2004 73.4 38.9
      2005−2009 79.0 42.6
      2010−2013 78.3 40.3
      Turkey[64] 2009 50.0
      Philippines Metro Manila and Rizal[62] 1998−2002 49.5
      India Mumbai[20] 1990−1994 51.9 29.0 25.4
      Singapore[18] 1983−1987 51.0
      1988−1992 62.0
      Africa Uganda Kampala[38] 1993−1997 16.2
      America United States[82,84,97] 1981−1987 69.6 36.9
      2006−2012 46.4
      2013−2019 50.8
      Canada[98] 2010−2014 71.7 50.1
      Canada Manitoba[99] 1992–1995 64.9 37.2
      1996–1999 71.0 44.4
      2000–2003 72.1 49.1
      2004–2007 66.6 43.3
      2008–2011 69.6 46.7
      1992−2011 68.8 44.4
      Costa Rica[22] 2011−2015 54.0
      Oceania Australia[98] 2010−2014 78.2 56.4
      New South Wales[86] 1993−1996 37.3
      New Zealand[98] 2010−2014 71.4 45.5
      Europe[28,65,100] 1981−1983 33.0
      1984−1986 35.0
      1987−1989 33.0
      1990−1994 36.7
      1995−1999 70.7 49.9 41.8
      Austria[83] 1985−1989 44.0
      Czech[77]* [100] 1995–1999 45.0
      2000−2004 37.0
      2005−2008 38.4
      Denmark[67,91,98] 1994−2003 77.0 37.0
      2005−2009 41.5
      2010−2014 77.6 53.6
      Finland[34,68,93,100] 1980−1982 44.8
      1985−1994 68.0 37.0 35.0
      1985−1987 42.9
      1990−1992 45.7
      1995−1999 40.4
      2003–2005 49.0
      France [101]* 1982−2005 81.0 55.0 44.0
      1982−1989 82.0 49.0 41.0
      1990−1997 74.0 50.0 39.0
      1998−2005 87.0 64.0 49.0
      France[52] 1989−2010 76.0 42.0
      Germany[36] 2002−2006 40.0
      Saarland[45, 72, 102] 1981−1985 32.0
      1986−1990 34.4
      1991−1995 39.4
      1999-2003 45.2
      2000−2002 45.7
      Augsburg, Swabia [71] 2005−2011 48.0 40.2
      2005–2007 41.7
      2008–2010 52.4
      2011–2013 66.3
      Ireland[98] 2010−2014 69.2 44.8
      Italy[100] 1995–1999 41.0
      Umbria[76] 1994−1998 73.0 48.0 42.0
      Modena[100]* 1990–1997 41.0
      1998–2005 36.0
      Norway[98] [100]* 1991−1995 39.9
      1996–2000 44.1
      2010−2014 77.7 57.2
      Slovenia[100]* 1993–1997 37.0
      1998–2002 46.0
      Spain[83] 1985−1989 41.0
      Sweden[46,69,83] 1985−1989 45.0
      2000−2002 47.5
      2009−2013 37.0
      Switzerland[83] 1985−1989 40.0
      Vaud[30] 1984−1988 32.0
      1989−1993 37.0
      Geneva[100]* 1990–1994 39.0
      1994–1998 48.0
      UK[98] 2010−2014 70.4 47.3
      UK−Northern Ireland[100]* 1993−1996 41.6
      2001–2004 43.6
      UK−Scotland[100]* 1992–1996 32.8
      1997–2001 40.6
      The Netherlands[103] 1989−1991 36.0
      2007−2009 41.0
      Eindhoven[75,104] 1980−2002 40.3
      1981−1985 48.0 42.0
      Amsterdam[100]* 1993–1996 37.0
      2001–2005 40.0
        Note. *The survival rate trend was statistically significant in the original article. dSix registries (Miyagi, Yamagata, Niigata, Fukui, Osaka, and Nagasaki) were included in the original article. −, No report or unavailable in the original article.

      Figures 24 demonstrate the age-standardized 5-year relative or net survival rates for cervical, endometrial, and ovarian cancer from to 1980–2015. The age-standardized 5-year relative or net survival rates for cervical cancer varied widely around the world[21,106-111]. The highest was 93.6% in Nigeria and Ibadan (2000–2004), while the lowest was 19.4% in Guadeloupe (2010–2014). Survival was in the range of 50%–70% in most countries and regions (Figure 2). For endometrial cancer, the rates ranged from 60% to 80% in most countries[65,92,112-119], with the highest 5-year rate in the United States (1985–1989) at 83.2%, and the poorest in Poland (1981–1983) at 52.8% (Figure 3). The prognosis of ovarian cancer is typically worse than that of cervical and endometrial cancers, with a rate of less than 50%, regardless of the economic status of the country[47,65,76,108,109,112,120-124] (Figure 4).

      Figure 2.  Age-standardized 5-year relative/net survival rates (%) of cervical cancer in selected countries and regions, 1980–2015.

      Figure 4.  Age-standardized 5-year relative/net survival rates (%) of ovarian cancer in selected countries and regions, 1980–2015.

      Figure 3.  Age-standardized 5-year relative/net survival rates (%) of uterine corpus cancer in selected countries and regions, 1980–2015.

    • The 5-year OSR trends of cervical cancer have increased by 20%–40% in Qidong, Jiangsu, China[6] and in Sihui, Guangdong Province, China [9,43], and by 5%–10% in Singapore[18], Vaud, Switzerland [30,125], Bulgaria[35] and Cuba[27] (Table 1). For women diagnosed with endometrial cancer between 2007-2009, the 5-year OSR was 78.1% in Sihui, Guangdong, China, a significant increase from 7.4% for women diagnosed 20 years ago[9] (Table 2). The 5-year OSR improvements of more than 5.0% in ovarian cancer were found in Singapore (from 56.0% in 1983–1987 to 64.0% in 1988–1992)[18] and Saarland, Germany (from 29.9% in 1981–1985 to 37.2% in 1991–1995)[45] (Table 3).

      The 5-year relative or net survival rate trends of cervical cancer from the 1980s to the 2010s increased by 20%–40% in Qidong, Jiangsu, China[6], in Haining, Zhejiang, China[54], in Bangkok, Thailand[61], and in Finland[66,68]. Survival increased by 5%–20% in Osaka, Japan[58], Singapore[18], Chiang Mai, Thailand[61], Lampang, Thailand[61], Kuwait[63], Cuba[27], Cali, Columbia[80], and nine European countries (Denmark[66,67], Iceland[66], Sweden[33,66,69], Scotland[66], Netherlands[66,74], Italy[66], Spain[66], Estonia[66,78] and Lithuania[79]) (Table 4). For endometrial cancer, the 5-year survival trends were rather flat in the United States[83,84] and Sweden[28, 41,65], but increased in Haining, Jiashan, Zhejiang, China [54], Korea[59,126], and the Netherlands[83,94] (Table 5). From the 1980s to the 2010s, the 5-year survival trends of ovarian cancer increased by 5%–10% in Osaka, Japan[88,96], Singapore[18], the United States[82,84,97], Saarland, Germany[45, 72,102], Slovenia[100], Geneva[100], and Switzerland[83] (Table 6).

      For the time changes, the age-standardized 5-year relative or net survival rates for cervical cancer increased over time in many countries and regions, including those in a few countries such as Australia, Nigeria, Ibadan, Costa Rica, and the United States (Figure 2). The 5-year survival rates of endometrial cancer continued to increase until 2015 in Asian and European countries, with an increase of more than 10% in China, Estonia, Poland, England, and Wales (Figure 3). In most countries and regions, the 5-year survival rate for ovarian cancer has increased or fluctuated from 1980 to 2015. These rates increased by more than 10% in Japan, Ecuador, Algeria, Cuba, Latvia, Estonia, Ireland, England, and Costa Rica (Figure 4). In addition, in Argentina, Colombia, South Africa (Eastern Cape), Thailand, France, and Italy, this rate fell by more than 10%.

    • Supplementary Tables S3–S5 (available in www.besjournal.com) compare the age-specific relative or net survival rates for gynecological cancer. Generally, survival rates gradually decrease with increasing age, wherein patients aged ≥ 75 years have the worst prognoses. However, there are exceptions in some regions. For cervical cancer, the lowest rate was in the 65–74-year age group in Qidong, Jiangsu, China (2001–2007)[127]. The worst prognosis for ovarian cancer was in the 65–74-year age group in Mumbai and Europe (1981–1983). As compared with other countries and regions, Taizhou, Zhejiang, China (2014–2018)[128] had a better prognosis for cervical cancer in each age group. Besides, the survival rates of endometrial cancer demonstrated a consistent improvement over time, particularly among patients aged ≥ 75 years in Europe[28, 41,65,114].

    • Supplementary Tables S6S8 (available in www.besjournal.com) illustrates the 5-year relative or net survival rates for gynecological cancers by country and stage, respectively. Cases registered as localized or stage I-II exhibited better 5-year survival rates than those in other stages. The 5-year survival rates of patients in the early stages are usually between 80% and 90%; as the disease progresses to advanced stages, the rates drop significantly to below 20%. Furthermore, the rates of cervical cancer for each clinical stage showed significant improvements in Osaka, Japan (from to 1987–1994 to 2003–2010)[58] and Lithuania (from to 1990–1994 to 2000–2004)[79]. The 5-year survival rates remained flat in Korea (from to 1996–2015 to 2015–2019)[59,60].

    • Supplementary Tables S9S11 (available in www.besjournal.com) show the pathology-specific 5-year relative/net survival rates of gynecological cancers. The prognosis of patients with squamous cell carcinoma (SCC) was similar to that of patients with adenocarcinoma (ADC) and adenosquamous carcinoma (ASC) in most countries and regions (Supplementary Table S8). SCC shows slightly better survival than non-SCC histology[55,60,64,73,74,78]. For endometrial cancer, the 5-year rates were higher in patients with endometrial carcinoma and mucinous adenocarcinoma than in those with other histological subtypes (Supplementary Table S9). For ovarian cancer, the 5-year rates of germ cell and sex cord-stromal tumors were higher than those of epithelial ovarian cancers (Supplementary Table S10). Among the different histological types of epithelial ovarian cancer, endometrioid, mucinous, and clear cell ovarian cancers have a higher 5-year relative/net survival than serous, not otherwise specified (NOS), and other epithelial cancers.

    • In this study, we systematically collected and summarized the global survival features and long-term trends among common gynecological cancers. We also compared the survival rates by region, diagnostic period, stage, histological type, and age group. The overall survival rate in developed countries was generally higher than that in developing countries. The 5-year survival rates for cervical and endometrial cancers have increased in several Asian and European countries and regions. The magnitude of this increase was greater in developing than in developed countries. However, the trend for ovarian cancer fluctuated in most countries but increased in a few countries.

      Survival rates of cervical and endometrial cancers were lower in low-HDI countries. For instance, the survival rate in Africa was poorer than that in other continents; Eastern Europe was poorer than that in other parts of Europe. A global study showed that cancer outcomes were significantly correlated with economic indicators[129]. Countries with high HDI usually have more sophisticated health systems, wider medical security, and higher levels of medical services. There was more than a 10-fold difference in median physician densities between the lowest and highest HDI quintiles[130]. Compared with the number of patients with cancer in Latin American countries, there are fewer oncologists, radiotherapists, cancer surgeons, and palliative care professionals in the Caribbean region[131,132]. Areas with low HDI often experience limited access to medical resources, inadequate healthcare facilities, and unequal distribution of medical services, thus resulting in lower rates of early cancer screening and diagnosis as well as inaccurate detection of cancer. Denny discussed the challenges in cancer survival data from Africa and pointed out that limitations in detection and diagnostic technologies significantly affect the accuracy of the data collected from these areas[133].

      The 5-year survival rates for cervical cancer have improved in Asia and Europe, but remain stagnant in other countries across North America and Oceania. This discrepancy can be attributed to the implementation of more comprehensive screening programs in these regions, aimed at the early detection of precancerous cells and localized tumors that can be effectively treated using a range of simple techniques, thereby reducing the overall incidence of cancer. However, screening may have limited efficacy in detecting aggressive tumor types[108]. Human papillomavirus (HPV) infections are also associated with cervical cancer. Cervical cytology (i.e., liquid-based cytology) and HPV DNA testing are important for its prevention and early diagnosis[134,135]. The early detection and treatment of precancerous cervical lesions can significantly improve survival rates.

      In the past 40 years, the survival rate of patients with endometrial cancer has increased, probably due to improvements in treatment methods and precision. With the continuous increase in medical research, the treatment methods for endometrial cancer have improved, thereby leading to an increase in patient survival rates. With the development of genetic testing and molecular targeted therapy, doctors can more accurately formulate treatment plans according to an individual’s condition, thus improving treatment effectiveness and survival rate[136]. Molecularly targeted therapies, such as hormonal drugs[137], immune checkpoint inhibitors[138], drugs targeting ERBB2/HER2[139], poly-ADP-ribose polymerase (PARP) inhibitors[140] and others molecularly targeted therapies[141,142], have become a promising therapeutic modality to improve the prognosis of endometrial cancer.

      Ovarian cancer is associated with a low survival rate, partly because of difficulties in early diagnosis and the development of metastases. In addition, low survival is related to the evasion of immune system function[143]. Surgery and chemotherapy are the mainstay treatments for ovarian cancer; however, patients often relapse within a few years after initial treatment because of chemotherapy resistance[144]. Immunotherapy has evolved rapidly over the last two decades, revolutionizing the treatment of a wide range of cancers. New treatment technologies, such as therapeutic targets, neoadjuvant immunotherapy, and nanomedicine, have the potential to prolong patient survival[145].

      Our findings suggest that the survival rates for gynecological cancers have increased in China over the past four decades; however, there are still large differences in 5-year survival rates between cities over the same period. For example, in the late 1980s, the 5-year relative/net survival rates for cervical cancer were 52.1% in Shanghai and 31.1% in Qidong. Some of the main reasons for this disparity are as follows. There are significant differences in medical resources between cities, including the distribution of hospital facilities, medical technology levels, and medical talent. Some large cities usually have more advanced medical equipment, more aggressive early screening activities, and higher levels of healthcare teams, thus allowing for better and more advanced treatment services for gynecological cancers[146]. Song et al. suggested that HPV vaccination rates in the Chinese female population of an appropriate age group were affected by the varying economic, health, and educational levels of each region[147].

      Survival rates for cervical, endometrial, and ovarian cancers vary significantly across different stages. The cervical cancer results were similar to those of a previous retrospective cohort study[148]. Advanced cancer often entails a heavy tumor burden accompanied by distant metastasis or organ invasion, thus increasing treatment complexity and risk for recurrence[149-152]. Advanced cancers require more invasive treatments, such as radiation therapy, chemotherapy, or surgery. Consequently, these interventions can result in adverse effects and complications[153].

      There are differences in survival rates among the various histological types of gynecological cancers. Different histological types of cancer have different biological characteristics, including growth patterns, cell morphology, and degree of differentiation, which may affect the tumor growth rate, degree of invasion, and sensitivity to treatment[154,155]. Cancers of different histological types tend to occur in different patient populations, depending on age, sex, genetic background, and living environment, which may affect a patient's response to treatment and survival[156,157]. Therefore, it is necessary to implement individualized treatments for gynecological tumors of different histological types to improve the therapeutic effect and survival rate.

      Age characteristics of the survival of patients with gynecological cancers are also summarized in our review. Survival rates decline with age in most countries and regions, with the lowest survival rates observed in individuals aged ≥ 75 years. Poor prognosis in the elderly may be attributed to several factors, including physiological changes[158], psychological factors[159], health status, treatment tolerance and compliance[160,161], and nutritional status. Older individuals often develop multiple chronic diseases. Conditions such as cardiovascular disease, diabetes, and renal dysfunction can affect the efficacy of cancer treatments and overall tolerability[159]. Even after adjusting for frailty, comorbidities, and socioeconomic status, elderly patients remain under-treated[162]. A population-based study shows that patients aged ≥ 70 years were significantly less likely to be seen by a gynecologic oncologist in their course of treatment[163]. Finally, some older adults may experience malnutrition or physical depletion due to dietary changes or reduced absorption capacity[164,165], thus hurting their treatment tolerance and recovery efficacy.

      Several factors must be considered when comparing the survival rates across countries and over time. First, we collected only OSRs and relative/net survival rates. However, other indicators, such as disease-specific survival rates, were not assessed. Second, the survival rates were considered either too high or low in some countries. The reliability of survival estimates is compromised due to the significant loss of follow-up within 5 years after diagnosis, limited registration based solely on death certificates or autopsy reports, and cases with unknown vital status or incomplete registration dates in some countries and regions, such as Africa (Algeria, Nigeria, South Africa), America (Colombia, Costa Rica, Guadeloupe), and Asia (Cyprus, Malaysia, Qatar, Thailand). Third, some studies excluded patients aged ≤ 18 years in this review.

      In conclusion, we summarized the 1-, 3-, 5-, and 10-year survival rates for common gynecological cancers over the past four decades globally, which showed significant differences among countries and regions. To improve the survival rate of gynecological cancers, especially ovarian cancer, there is a need to strengthen international cooperation, share the latest research results and treatment experiences, and promote treatment improvement globally. Developing countries should invest more resources in the development and promotion of screening campaigns for early stage cancers, and raise awareness of early symptoms among medical personnel and the public, so that more patients can be diagnosed and treated at an early stage.

    • Yongbing Xiang designed the research and obtained funding; Xiaohui Zhou, Danni Yang, Qun Xu, and Yongbing Xiang conducted the study; Xiaohui Zhou and Danni Yang collected publications and abstract data; Xiaohui Zhou, Qun Xu, and Yongbing Xiang prepared and wrote the first draft; Xiaohui Zhou, Danni Yang, Yixin Zou, Dandan Tang, Jun Chen, Zhuoying Li, Qiuming Shen, Qun Xu, and Yongbing Xiang reviewed and approved the final version of the manuscript; Yongbing Xiang had primary responsibility for the final content.

    • All authors declare no conflicts of interest.

    • Not applicable.

    • Not applicable.

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