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. 2019 Sep 5;9(2):020405. doi: 10.7189/jogh.09.020405

Table 3.

The impact of maternal nutrition factors on type 2 diabetes mellitus (T2DM) prevalence in offspring

Reference (year). country, study type Subjects (n, age range) Data collection method maternal nutrition factor Outcomes
Li, Y et al [23] (2010). China, Retrospective Cohort
7874 (1005 exposed to famine), 45-69 y
Adults born between 1954-1964 in rural communities exposed to the Chinese famine. Follow-up data available from China's 2002 National Nutrition and Health Survey
Exposure to the Chinese famine during pregnancy
T2DM prevalence in exposed vs non-exposed (2.01% vs 1.37%). Risk of T2DM not significantly higher in exposed cohort (aOR = 1.43, 95% CI = 0.53-3.87).
Stanner et al [24] (1997). Russia, Cross-Sectional Study
549 (169 exposed to famine), 52 y
Offspring identified through the register for the Society of Children of the Siege and invited to attend to attend endocrinology clinic for measurement
Exposure to the Leningrad siege during pregnancy (<300 carbohydrate calories/d)
No significant difference in the prevalence of known T2DM with intrauterine exposure (mean 2.3% vs 3.6%) newly diagnosed T2DM (1.8% vs 2.7%), impaired glucose tolerance (9.6% vs 8.6%) compared to unexposed. No significant differences between prevalence rates in those exposed during gestation or infancy.
Hult M, et al. [25] (2010). Nigeria, Retrospective Cohort
1339, 39-41 y
Cohort of Igbo adults exposed to Biafran famine in gestation and early infancy. Convenience sample of offspring taken from six major market places.
Exposure to the Biafran famine during pregnancy and early infancy
Fetal-infant exposure to famine was associated with a significant increase in diabetes (OR = 3.11, 95% CI = 1.14-8.51), though when adjusted for BMI this was no longer significant (OR = 2.56, 95% CI = 0.92-7.17).
Lumey, LH et al [26] (2015).
Ukraine, Retrospective Cohort
1 464 174 (599 759 exposed), 63-71 y
Individuals born between 1930 and 1938 from the 2001 Ukraine national census as the reference population. Ukraine national diabetes register 2000-08 for T2DM diagnosed at aged >40 y.
Exposure to the Ukraine famine during pregnancy
Higher risk of T2DM in subjects born in regions with severe famine (aOR = 1.23, 95% CI = 1.07-1.40), and extreme famine (aOR = 1.51, 95% CI = 1.35-1.69) (combined for all regions and birth years) compared to individuals not exposed to famine (OR = 1.00, 95% CI = 0.91-1.09).
Thurner S, et al [27] (2013).
Austria, Cross-Sectional Study
325 000, 62-91 y
Database of the Main Association of Austrian Social Security Institutions – linked birth year with health care outpatient as well as inpatient care in Austria years of famine 1918-1919, 1938, 1946-1947.
Exposure to famine during pregnancy
Risk of developing T2DM was ∼ 13% higher in males and 16% in females than the national average for those born in the 1919-1921 famine compared to those born outside of famine. Excess risk of diabetes was 9% males/ 8% females for offspring born in 1938 famine, and 5% males, 3% female for those of 1946–1947.
Ekamper P, et al [22] (2015).
Netherlands, Retrospective Cohort
41 096 men (22 952 exposed), 63 y
Male conscripts included in the DFBC. Linked to military records of health and mortality.
Exposure to famine during pregnancy (<900 kcal/d)
Of 5011 deaths T2DM accounted for 115 (2.3%) deaths. There was no increased risk of T2DM related mortality following maternal exposure to famine prior to or during pregnancy (HR = 1.61, 95% CI = 0.91-2.86, P > 0.05).
Fall CH, et al [28] (1998). India, Cross-Sectional Study
506 (76 with T2DM), 45-63 y
Detailed obstetric records from Mysore hospital for pregnancies between 1934-1953. Cohort traced and recruited for hospital check up.
Mother's BMI during pregnancy
76 offspring (15%) diagnosed with T2DM.
Offspring incidence of T2DM increased with increasing maternal weight (10% with mothers under 43kg, 24% T2DM prevalence with mothers with maternal weight >49kg)
Significant trend for diagnosis with T2DMs in offspring whose mothers had a higher body weight during pregnancy (P = 0.004). T2DM was also related to ponderal index.
Dabelea D, et al [29] (2008). USA
158, 10-22 y
Offspring with T2DM recruited from the Diabetes in Youth Study. Maternal obesity recorded by mothers self-reported recall.
Maternal obesity during pregnancy (BMI ≥25 kg/m2)
79 subjects diagnosed with T2DM. Subjects with T2DM were more likely to have been exposed to maternal obesity during pregnancy (57% vs 27.4%, P < 0.0001), exposure to maternal obesity was independently associated with T2DM (aOR = 2.8, 95% CI = 1.5-5.2, P < 0.0001).
Eriksson JG, et al [18] (2014). Finland, Retrospective Cohort N = 13 345, 70-80 y Offspring of the HBC – maternal BMI measured prior to delivery and linked to offspring’s national health records. Maternal overweight in pregnancy Offspring’s risk of T2DM was significantly associated with increasing maternal BMI above 24 kg/m2 (BMI ≤24kg/m2 HR = 1.0 vs BMI ≥28 kg/m2 HR = 1.20, P < 0.05) with a HRfor trend per kg/m2 = 1.040 (95% CI = 1.013-1.068, P for trend = 0.004).

aOR – adjusted odds ratio, HR – hazard ratio, BMI – body mass index, Cal – calorie, CVD – cardiovascular disease, HBC – Hamamatsu Birth Cohort, HR – heart rate, y – year