Expected life years compared to the general population

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Standard

Expected life years compared to the general population. / Manevski, Damjan; Gorenjec, Nina Ruzic; Andersen, Per Kragh; Perme, Maja Pohar.

I: Biometrical Journal, Bind 65, Nr. 4, 2200070, 2023.

Publikation: Bidrag til tidsskriftTidsskriftartikelForskningfagfællebedømt

Harvard

Manevski, D, Gorenjec, NR, Andersen, PK & Perme, MP 2023, 'Expected life years compared to the general population', Biometrical Journal, bind 65, nr. 4, 2200070. https://doi.org/10.1002/bimj.202200070

APA

Manevski, D., Gorenjec, N. R., Andersen, P. K., & Perme, M. P. (2023). Expected life years compared to the general population. Biometrical Journal, 65(4), [2200070]. https://doi.org/10.1002/bimj.202200070

Vancouver

Manevski D, Gorenjec NR, Andersen PK, Perme MP. Expected life years compared to the general population. Biometrical Journal. 2023;65(4). 2200070. https://doi.org/10.1002/bimj.202200070

Author

Manevski, Damjan ; Gorenjec, Nina Ruzic ; Andersen, Per Kragh ; Perme, Maja Pohar. / Expected life years compared to the general population. I: Biometrical Journal. 2023 ; Bind 65, Nr. 4.

Bibtex

@article{5ee480f91f9e4bd4a08eb3f733df7ae0,
title = "Expected life years compared to the general population",
abstract = "For cohorts with long-term follow-up, the number of years lost due to a certain disease yields a measure with a simple and appealing interpretation. Recently, an overview of the methodology used for this goal has been published, and two measures have been proposed. In this work, we consider a third option that may be useful in settings in which the other two are inappropriate. In all three measures, the survival of the given dataset is compared to the expected survival in the general population which is calculated using external mortality tables. We thoroughly analyze the differences between the three measures, their assumptions, interpretation, and the corresponding estimators. The first measure is defined in a competing risk setting and assumes an excess hazard compared to the population, while the other two measures also allow estimation for groups that live better than the general population. In this case, the observed survival of the patients is compared to that in the population. The starting point of this comparison depends on whether the entry into the study is a hazard changing event (e.g., disease diagnosis or the age at which the inclusion criteria were met). Focusing on the newly defined life years difference measure, we study the estimation of the variance and consider the possible challenges (e.g., extrapolation) that occur in practice. We illustrate its use with a dataset of French Olympic athletes. Finally, an efficient R implementation has been developed for all three measures which make this work easily available to subsequent users.",
keywords = "life years lost, mortality tables, relative survival, survival analysis, EXPECTATION, SURVIVAL, LOST",
author = "Damjan Manevski and Gorenjec, {Nina Ruzic} and Andersen, {Per Kragh} and Perme, {Maja Pohar}",
year = "2023",
doi = "10.1002/bimj.202200070",
language = "English",
volume = "65",
journal = "Biometrical Journal",
issn = "0323-3847",
publisher = "Wiley - V C H Verlag GmbH & Co. KGaA",
number = "4",

}

RIS

TY - JOUR

T1 - Expected life years compared to the general population

AU - Manevski, Damjan

AU - Gorenjec, Nina Ruzic

AU - Andersen, Per Kragh

AU - Perme, Maja Pohar

PY - 2023

Y1 - 2023

N2 - For cohorts with long-term follow-up, the number of years lost due to a certain disease yields a measure with a simple and appealing interpretation. Recently, an overview of the methodology used for this goal has been published, and two measures have been proposed. In this work, we consider a third option that may be useful in settings in which the other two are inappropriate. In all three measures, the survival of the given dataset is compared to the expected survival in the general population which is calculated using external mortality tables. We thoroughly analyze the differences between the three measures, their assumptions, interpretation, and the corresponding estimators. The first measure is defined in a competing risk setting and assumes an excess hazard compared to the population, while the other two measures also allow estimation for groups that live better than the general population. In this case, the observed survival of the patients is compared to that in the population. The starting point of this comparison depends on whether the entry into the study is a hazard changing event (e.g., disease diagnosis or the age at which the inclusion criteria were met). Focusing on the newly defined life years difference measure, we study the estimation of the variance and consider the possible challenges (e.g., extrapolation) that occur in practice. We illustrate its use with a dataset of French Olympic athletes. Finally, an efficient R implementation has been developed for all three measures which make this work easily available to subsequent users.

AB - For cohorts with long-term follow-up, the number of years lost due to a certain disease yields a measure with a simple and appealing interpretation. Recently, an overview of the methodology used for this goal has been published, and two measures have been proposed. In this work, we consider a third option that may be useful in settings in which the other two are inappropriate. In all three measures, the survival of the given dataset is compared to the expected survival in the general population which is calculated using external mortality tables. We thoroughly analyze the differences between the three measures, their assumptions, interpretation, and the corresponding estimators. The first measure is defined in a competing risk setting and assumes an excess hazard compared to the population, while the other two measures also allow estimation for groups that live better than the general population. In this case, the observed survival of the patients is compared to that in the population. The starting point of this comparison depends on whether the entry into the study is a hazard changing event (e.g., disease diagnosis or the age at which the inclusion criteria were met). Focusing on the newly defined life years difference measure, we study the estimation of the variance and consider the possible challenges (e.g., extrapolation) that occur in practice. We illustrate its use with a dataset of French Olympic athletes. Finally, an efficient R implementation has been developed for all three measures which make this work easily available to subsequent users.

KW - life years lost

KW - mortality tables

KW - relative survival

KW - survival analysis

KW - EXPECTATION

KW - SURVIVAL

KW - LOST

U2 - 10.1002/bimj.202200070

DO - 10.1002/bimj.202200070

M3 - Journal article

C2 - 36786295

VL - 65

JO - Biometrical Journal

JF - Biometrical Journal

SN - 0323-3847

IS - 4

M1 - 2200070

ER -

ID: 341260752