Private Epigenetic Pacemaker Detector Using Homomorphic Encryption

The epigenetic pacemaker (EPM) model uses DNA methylation data to predict human epigenetic age. The methylation values are collected from different individuals and are considered to be of medical importance. Sharing these data publicly among labs and other third parties for model calculation purposes may violate the privacy of personal medical records. The use of standard encryption approaches can prevent the exposure of these personal records to third parties when at rest, but running computations on the data requires decrypting it first, and thus exposing the entire data to the computing party. This work proposes computing EPM while limiting data exposure by employing cryptographic secure computing techniques including homomorphic encryption. Our protocol has rigorous privacy guarantees against passive computationally bounded adversaries in the two-server model. Our results show good correlation with low accuracy error between the model with and without encryption. These results can serve as a pilot for data security measures integrated in vast medical applications where personal privacy is imperative. 1

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Publication Details

Journal
Journal of Computational Biology
Published
2026-09-09
DOI
https://doi.org/10.1177/15578666261478652
Primary Topic
Cryptography and Data Security
Type
article
Field-Weighted Citation Impact
0.00
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article

Private Epigenetic Pacemaker Detector Using Homomorphic Encryption

Adi Akavia, Meir Goldenberg, Sagi Snir
Journal of Computational Biology
Cryptography and Data Security
article

Private Epigenetic Pacemaker Detector Using Homomorphic Encryption

Adi Akavia, Meir Goldenberg, Sagi Snir
article en

Abstract

The epigenetic pacemaker (EPM) model uses DNA methylation data to predict human epigenetic age. The methylation values are collected from different individuals and are considered to be of medical importance. Sharing these data publicly among labs and other third parties for model calculation purposes may violate the privacy of personal medical records. The use of standard encryption approaches can prevent the exposure of these personal records to third parties when at rest, but running computations on the data requires decrypting it first, and thus exposing the entire data to the computing party. This work proposes computing EPM while limiting data exposure by employing cryptographic secure computing techniques including homomorphic encryption. Our protocol has rigorous privacy guarantees against passive computationally bounded adversaries in the two-server model. Our results show good correlation with low accuracy error between the model with and without encryption. These results can serve as a pilot for data security measures integrated in vast medical applications where personal privacy is imperative. 1

Journal of Computational Biology
University of Haifa (IL)
Peace, Justice and strong institutions
Openalex Percentile: Top 8%
Cryptography and Data Security
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