Andrew Sage
Assistant Scientist with the Toronto Lung Transplant Program. Published machine-learning, sensor and digital-twin work, mostly on donor lung assessment during ex vivo lung perfusion rather than on CLAD outcomes.
As of . Primary source: ORCID record.
Summary
Andrew T. Sage is an Assistant Scientist with the Toronto Lung Transplant Program at the Toronto General Hospital Research Institute and an Assistant Professor at the University of Toronto. The UHN Research profile names the use of artificial intelligence and machine learning to integrate multiple biomarkers as one of three programme themes. He is included in this category because the profile states that theme and because opened abstracts describe machine-learning models of which Andrew Sage is an author.
Work summary
Andrew Sage applies machine learning and engineering methods to the assessment of donor lungs. Ex vivo lung perfusion (EVLP) is a technique in which a donor lung is kept working outside the body so that it can be assessed before transplant. A machine-learning model called InsighTx, trained on 725 EVLP cases, predicted outcomes after transplant, and in a blinded retrospective study it was associated with a higher likelihood of transplanting suitable lungs and a lower likelihood of transplanting unsuitable lungs [DOI 10.1038/s41467-023-40468-7]. A convolutional neural network, a type of image-analysis model, was trained on 1,300 radiographs from 650 EVLP cases and modestly improved the classification of clinical outcomes [DOI 10.1038/s41746-024-01260-z]. Andrew Sage is also the last author of a 2025 review which notes that several groups have built models for outcomes including chronic lung allograft dysfunction (CLAD) [DOI 10.1097/MCP.0000000000001168]. Separate engineering work describes a microfluidic sensor platform for continuous glucose and lactate monitoring during EVLP [DOI 10.1002/advs.77123] and a digital-twin framework, a computational model of the lung, built from a large clinical EVLP dataset [DOI 10.1038/s41587-026-03121-4].
Based on 3 or more opened abstracts. Written only from abstracts that were opened (PubMed or Europe PMC); full texts were not read. Plain-language explanations are added by the editors and are not from the papers.
Role and field
- Role
- Assistant Scientist; Assistant Professor (University of Toronto)
- Role status
- verified from official institutional profile (UHN Research)
- Role basis
- UHN Research profile, opened on 2026-10-10: Assistant Scientist with the Toronto Lung Transplant Program; Assistant Professor, Department of Surgery, University of Toronto.
- Field
- machine learning for donor lung assessment; biomarker and assay science
- Field basis
- Programme themes stated on the UHN Research profile and the abstracts of the source papers.
Only what a cited source supports is stated. Entries marked self-asserted come from the person's own ORCID record. The field is taken from the name of the unit, not inferred from the person's name.
Details
- affiliation
- Toronto Lung Transplant Program, Toronto General Hospital Research Institute, University Health Network; University of Toronto
- ai evidence
- UHN Research profile, research interest 3: use of artificial intelligence and machine learning to integrate multiple biomarkers and augment clinical decision-making. Opened abstracts of the five source papers.
Sources and links
- ORCID record (primary)
- UHN Research profile
- InsighTx machine-learning model for ex vivo lung perfusion (Nature Communications 2023), DOI 10.1038/s41467-023-40468-7
- Convolutional neural network on ex vivo lung perfusion radiographs (npj Digital Medicine 2024), DOI 10.1038/s41746-024-01260-z
- Review of machine learning and artificial intelligence in lung transplantation (Current Opinion in Pulmonary Medicine 2025), DOI 10.1097/MCP.0000000000001168
- MetaboSense microfluidic glucose and lactate monitoring (Advanced Science 2026), DOI 10.1002/advs.77123
- Digital twins of ex vivo human lungs (Nature Biotechnology 2026), DOI 10.1038/s41587-026-03121-4
Related
Links from this record
- member of: Toronto Lung Transplant Program (University Health Network)
- author: Triaging donor lungs based on a microaspiration signature that predicts adverse recipient outcome
- author: Airway pepsinogen A4 identifies lung transplant recipients with microaspiration and predicts chronic lung allograft dysfunction
Known gaps in this record
- Most of the machine-learning work concerns donor lung assessment during ex vivo lung perfusion; the abstracts read do not report CLAD outcomes.
- The sensor paper (MetaboSense) describes an assay and microfluidic platform, not a machine-learning method.
- The digital-twin paper is a computational modelling study of ex vivo lungs, not a CLAD study.
- Current funding was not recorded.
- Full texts were not read.
- Moved from the People category and not part of the ranked researchers.
Information resource only. Not medical advice. Not a substitute for the care of the patient's transplant team.