Studientyp:
Epidemiologische Studie
(Beobachtungsstudie)
The relationship between residential proximity to extremely low frequency power transmission lines and adverse birth outcomes
epidem.
[Die Beziehung zwischen der Wohnnähe zu extrem niederfrequenten Hochspannungsfreileitungen und negativen Auswirkungen auf die Schwangerschaft]
Von:
Auger N, Joseph D, Goneau M, Daniel M
Veröffentlicht in: J Epidemiol Community Health 2011; 65 (1): 83-85
Ziel der Studie (lt. Autor)
Endpunkt/Art der Risikoabschätzung
Art der Abschätzung:
(Odds Ratio (OR))
Exposition
Abschätzung
Expositionsgruppen
|
Gruppe
|
Charakteristik
|
|
Gruppe 1
|
Abstand zwischen Wohnung und Hochspannungsfreileitung: < 50 m
|
|
Gruppe 2
|
Abstand zwischen Wohnung und Hochspannungsfreileitung: 50 - 74,9 m
|
|
Gruppe 3
|
Abstand zwischen Wohnung und Hochspannungsfreileitung: 75 - 99,9 m
|
|
Gruppe 4
|
Abstand zwischen Wohnung und Hochspannungsfreileitung: 100 - 149,9 m
|
|
Gruppe 5
|
Abstand zwischen Wohnung und Hochspannungsfreileitung: 150 - 399,9 m
|
|
Referenzgruppe 6
|
Abstand zwischen Wohnung und Hochspannungsfreileitung: ≥ 400 m
|
Population
-
Gruppe:
- Frauen
- Kinder in utero
- Neugeborene
-
Merkmale:
lebende Einzel-Geburten
-
Beobachtungszeitraum:
1990 - 2004
-
Studienort:
Kanada (Montreal und Quebec)
Studiengröße
| Typ |
Wert |
| Gesamtzahl |
707.215 |
Statistische Analysemethode:
(
Anpassung:
- Alter
- sozioökonomischer Status
- Familienstand der Mutter, Geburtsort, zuhause gesprochene Sprache, Geburtenzahl, Geburts-Zeitraum (1990-1994, 1995-1999 oder 2000-2004)
)
Ergebnisse (lt. Autor)
Themenverwandte Artikel
-
Ingle ME et al.
(2020):
Association of personal exposure to power-frequency magnetic fields with pregnancy outcomes among women seeking fertility treatment in a longitudinal cohort study
-
Migault L et al.
(2020):
Maternal cumulative exposure to extremely low frequency electromagnetic fields, prematurity and small for gestational age: a pooled analysis of two birth cohorts
-
Auger N et al.
(2019):
Maternal proximity to extremely low frequency electromagnetic fields and risk of birth defects
-
Esmailzadeh S et al.
(2019):
Exposure to Electromagnetic Fields of High Voltage Overhead Power Lines and Female Infertility
-
Ren Y et al.
(2019):
Prenatal exposure to extremely low frequency magnetic field and its impact on fetal growth
-
Migault L et al.
(2018):
Maternal cumulative exposure to extremely low frequency electromagnetic fields and pregnancy outcomes in the Elfe cohort
-
Sadeghi T et al.
(2017):
Preterm birth among women living within 600 meters of high voltage overhead Power Lines: a case-control study
-
Eskelinen T et al.
(2016):
Maternal exposure to extremely low frequency magnetic fields: Association with time to pregnancy and foetal growth
-
de Vocht F et al.
(2014):
Maternal residential proximity to sources of extremely low frequency electromagnetic fields and adverse birth outcomes in a UK cohort
-
Su XJ et al.
(2014):
Correlation between exposure to magnetic fields and embryonic development in the first trimester
-
Mahram M et al.
(2013):
The effect of extremely low frequency electromagnetic fields on pregnancy and fetal growth and development
-
Malagoli C et al.
(2012):
Maternal exposure to magnetic fields from high-voltage power lines and the risk of birth defects
-
Li DK et al.
(2011):
Maternal exposure to magnetic fields during pregnancy in relation to the risk of asthma in offspring
-
Sun W et al.
(2010):
Superimposition of an Incoherent Magnetic Field Eliminated the Inhibition of Hormone Secretion Induced by a 50-Hz Magnetic Field in Human Villous Trophoblasts in vitro
-
Sun W et al.
(2010):
Effects of 50-Hz magnetic field exposure on hormone secretion and apoptosis-related gene expression in human first trimester villous trophoblasts in vitro
-
Mjoen G et al.
(2006):
Paternal occupational exposure to radiofrequency electromagnetic fields and risk of adverse pregnancy outcome
-
Blaasaas KG et al.
(2004):
Risk of selected birth defects by maternal residence close to power lines during pregnancy
-
Blaasaas KG et al.
(2003):
Residence near power lines and the risk of birth defects
-
Infante-Rivard C et al.
(2003):
Maternal occupational exposure to extremely low frequency magnetic fields during pregnancy and childhood leukemia
-
Blaasaas KG et al.
(2002):
Risk of birth defects by parental occupational exposure to 50 Hz electromagnetic fields: a population based study
-
Li DK et al.
(2002):
A population-based prospective cohort study of personal exposure to magnetic fields during pregnancy and the risk of miscarriage
-
Lee GM et al.
(2002):
A nested case-control study of residential and personal magnetic field measures and miscarriages
-
Shaw GM
(2001):
Adverse human reproductive outcomes and electromagnetic fields: a brief summary of the epidemiologic literature
-
Grajewski B et al.
(1997):
Work with video display terminals and the risk of reduced birthweight and preterm birth
-
Irgens A et al.
(1997):
Male proportion in offspring of parents exposed to strong static and extremely low-frequency electromagnetic fields in Norway
-
Robert E et al.
(1996):
Case-control study on maternal residential proximity to high voltage power lines and congenital anomalies in France
-
Bracken MB et al.
(1995):
Exposure to electromagnetic fields during pregnancy with emphasis on electrically heated beds: association with birthweight and intrauterine growth retardation
-
Savitz DA et al.
(1994):
Residential magnetic fields, wire codes, and pregnancy outcome
-
Nielsen CV et al.
(1992):
Fetal growth, preterm birth and infant mortality in relation to work with video display terminals during pregnancy
-
Windham GC et al.
(1990):
Use of video display terminals during pregnancy and the risk of spontaneous abortion, low birthweight, or intrauterine growth retardation
