Literature DB >> 32623451

ApoE e4e4 Genotype and Mortality With COVID-19 in UK Biobank.

Chia-Ling Kuo1,2, Luke C Pilling2,3, Janice L Atkins3, Jane A H Masoli3,4, João Delgado3, George A Kuchel2, David Melzer2,3.   

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Year:  2020        PMID: 32623451      PMCID: PMC7337688          DOI: 10.1093/gerona/glaa169

Source DB:  PubMed          Journal:  J Gerontol A Biol Sci Med Sci        ISSN: 1079-5006            Impact factor:   6.053


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We previously reported that the ApoE e4e4 genotype was associated with COVID-19 test positivity (odds ratio [OR] = 2.31, 95% CI: 1.65–3.24, p = 1.19 × 10−6) (1) in the UK Biobank (UKB) cohort, during the epidemic peak in England, from March 16 to April 26, 2020 (2). With more COVID-19 test results (March 16 to May 31, 2020) and mortality data (to March 31, 2020, with incomplete data for April 2020) linked to UKB, we reevaluated the ApoE e4 allele association with COVID-19 test positivity, and with all-cause mortality following test-confirmed COVID-19. We restricted analyses to European-ancestry participants (3) (n = 451 367, 90% of sample) attending baseline assessment centers in England (n = 398 073) and excluded participants who died before the pandemic (set at February 1, 2020, n = 22 384). Single-nucleotide polymorphism data for rs429358 and rs7412 were used to determine ApoE genotypes. Our outcomes of interest were: (a) COVID-19 test positive versus the rest of the sample meeting inclusion criteria (ie, including untested samples and tested negative), and (b) tested positive and died versus the rest of the sample as above, but with additional exclusion of test positive participants who survived. Some of the excluded samples could have died but cannot be identified due to incomplete mortality data for April 2020. Logistic regression models compared ApoE e4e4 participants (or e3e4s) to e3e3s with adjustment for sex; age on April 26 or age at death; baseline UKB assessment center in England (accounting for geographical differences in viral exposures); genotyping array type; and the top five genetic principal components (accounting for possible population admixture). The mean attained age was 68.2 years (SD = 8.0) with 174 667 females (55%). Of 219 747 e3e3 participants, 663 participants tested positive (302 per 100 000), of whom, 79 later died. Similarly, of 8767 e4e4 participants, 59 tested positive (673 per 100 000), of whom 13 later died (Table 1). In logistic models, ApoE e4e4 genotype was associated with increased risks of test positivity (OR = 2.24, 95% CI: 1.72–2.93, p = 3.24 × 10−9) and of mortality with test-confirmed COVID-19 (OR = 4.29, 95% CI: 2.38–7.72, p = 1.22 × 10−6), compared to e3e3s. For e3e4s versus e3e3s, these two associations were nominally statistically significant (at p < .05), but with much smaller effect sizes. The e4e4 associations were similar after excluding 50 566 participants related to the third degree or closer for test positivity (e4e4 OR = 2.30, 95% CI: 1.73–3.07, p = 1.39 × 10−8) and for mortality with test-confirmed COVID-19 (e4e4 OR = 4.53, 95% CI: 2.39–8.61, p = 3.87 × 10−6). Additionally, the e4e4 association with either COVID-19 outcome was little changed after removing participants with diseases associated with ApoE e4 alleles (4) and COVID-19 severity (5), including dementia, hypertension, coronary artery disease (myocardial infarction or angina), or type 2 diabetes (Table 1), based on diagnoses recorded from baseline self-reports and hospital discharge records during follow-up to March 2017. ApoE e3e4s were modestly associated with test positivity overall, and the association tended to be less marked in disease-free samples (Table 1). In additional analyses, we tested associations with ApoE e2 alleles, which have been linked to beneficial health outcomes (4). No associations were found between e2e3 and either of our COVID-19 outcomes (p > .05, vs e3e3). Analyses for e2e2s associations were underpowered (n = 2427, 4 positives, and 1 positive death).
Table 1.

Risk of COVID-19 Test Positivity and Mortality, Comparing Participants With ApoE e3e4 or e4e4 to e3e3 Genotypes, in UK Biobank

COVID-19 Positive vs Rest of Study SampleCOVID-19 Positive and Died vs Rest of Study Sample
n Negative or UntestedPositivePositive and DeadPositivity Rate per 105Positivity and Death Rate per 105OR (95% CI)* p ValueOR (95% CI)* p Value
All
 e3e3219 747219 0846637930236
 e3e488 88288 56132142361471.20 (1.05, 1.37).0091.35 (0.92, 1.96).121
 e4e48767870859136731482.24 (1.72, 2.93)3.24E-94.29 (2.38, 7.72)1.22E-6
Excluding dementia
 e3e3219 392218 7446487629535
 e3e488 55888 26329534333391.13 (0.98, 1.29).0931.14 (0.76, 1.70).536
 e4e48676861858136691512.27 (1.74, 2.98)2.42E-94.53 (2.51, 8.16)5.21E-7
Excluding hypertension
 e3e3147 332146 9583743125421
 e3e459 65559 48317217288291.13 (0.94, 1.35).1861.39 (0.77, 2.51).278
 e4e459185881375625852.45 (1.75, 3.44)2.10E-74.25 (1.65, 10.95).003
Excluding coronary artery disease
 e3e3201 003200 4355686228331
 e3e480 85080 59026033322411.14 (0.98, 1.32).0901.36 (0.89, 2.08).153
 e4e47973792350106271262.23 (1.67, 2.98)6.21E-84.23 (2.16, 8.26)2.43E-5
Excluding type 2 diabetes
 e3e3208 374207 7955796127829
 e3e484 62084 34227830329361.18 (1.02, 1.36).0241.24 (0.80, 1.92).338
 e4e48 391833655126551442.36 (1.79, 3.12)1.23E-95.05 (2.72, 9.39)3.08E-7

Notes: CI = confidence interval; OR = odds ratio.

*Adjusted for sex, age at death or age on April 26, 2020 (the last date of death), assessment center in England, genotyping array type, and the top five genetic principal components.

†Comparison group excluded participants testing positive and surviving.

Risk of COVID-19 Test Positivity and Mortality, Comparing Participants With ApoE e3e4 or e4e4 to e3e3 Genotypes, in UK Biobank Notes: CI = confidence interval; OR = odds ratio. *Adjusted for sex, age at death or age on April 26, 2020 (the last date of death), assessment center in England, genotyping array type, and the top five genetic principal components. †Comparison group excluded participants testing positive and surviving. The results presented imply a recessive effect of the ApoE e4 allele. Only modest associations were present between the much more common e3e4 genotype and COVID-19 outcomes, similar to results for rs429358 (which separates 0, 1, and 2 copies of e4 alleles, OR = 1.3, p = .0026) reported for severe COVID-19 with respiratory failure in a recent additive effect genome-wide analysis (6). ApoE e4e4 associations with test positivity and mortality were little affected by excluding dementia and other ApoE e4-associated diagnoses reported before March 2017: future work should include recent preexisting diagnoses. More data are needed on ApoE and COVID-19 associations in other ancestry groups, as numbers of UKB participants of such groups are unfortunately too small for this analysis. In conclusion, ApoE e4e4 genotype is associated with COVID-19 test positivity at genome-wide significance (ie, p < 5 × 10−8) in UKB, using data covering a longer period than previously reported. Similarly, the e4e4 genotype was associated with a 4-fold increase in mortality after testing positive for COVID-19, in UKB. Independent replications are needed to confirm our findings and mechanistic work is needed to understand how ApoE e4e4 results in the marked increase in vulnerability, especially for COVID-19 mortality. These findings also demonstrate that risks for COVID-19 mortality are not simply related to advanced chronological age or the comorbidities commonly seen in aging.

Funding

C.L.K., L.C.P., G.A.K., and D.M. are supported in part by an R21 grant (R21AG060018) funded by National Institute on Aging, National Institutes of Health, USA. UK Medical Research Council award MR/S009892/1 (PI Melzer) supports J.L.A. J.A.H.M. is supported by National Institute for Health Research, UK Doctoral Research Fellowship DRF-2014-07-177. The views expressed in this publication are those of the author(s) and not necessarily those of the NHS, the National Institute for Health Research or the Department of Health.
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