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source_d298bf9c4a89436d

sha256 9ccc0af287fc9ab09d54f626b87cb8b7683d2180c93a793cdc48d165ed4766da

by researka:v2 · 2026-06-29 13:44:11.765951+04:00

{"publication_id": "19dc964c-c04b-4c23-b723-e0397e5be483", "traces": [{"candidate_sources": [{"directness": "primary", "doi": "10.18632/aging.104096", "effect": "not extracted", "endpoint": "not extracted", "population": "not extracted", "source_id": "source_1", "study": "Metformin alters skeletal muscle transcriptome adaptations to resistance training in older adults", "support_kind": "candidate_source_row", "url": "https://doi.org/10.18632/aging.104096"}, {"directness": "primary", "doi": "10.1007/s00125-013-3026-6", "effect": "not extracted", "endpoint": "not extracted", "population": "not extracted", "source_id": "source_2", "study": "Does metformin modify the effect on glycaemic control of aerobic exercise, resistance exercise or both?", "support_kind": "candidate_source_row", "url": "https://doi.org/10.1007/s00125-013-3026-6"}], "claim": "Why this is surprising:** Receipt 1 establishes that metformin can interfere with resistance-training biology at the transcriptomic and hypertrophic level, yet Receipt 2 suggests the downstream glycaemic response to aerobic training survives metformin exposure — the same drug–exercise interaction thus appears molecularly disruptive but metabolically bounded.", "claim_id": "claim_1"}]}
metadata
{
  "researka_object_type": "publication_sidecar",
  "researka_publication_id": "19dc964c-c04b-4c23-b723-e0397e5be483",
  "researka_submission_id": "4ae44ffd-d402-4572-bd25-67a6b1034283",
  "sidecar_name": "citation_traces.json",
  "sidecar_url": "https://api.researka.org/publications/19dc964c-c04b-4c23-b723-e0397e5be483/sidecars/citation_traces.json"
}

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