In-houseHealthcareAI and Machine LearningData PlatformCost ReductionProductivity Improvement2024In-houseIN#0f766eHealthcareGlobalGSK needs to extract actionable disease insights from rapidly growing genetic, genomic, clinical, and health datasets so it can predict patient risk and treatment response, prioritize experiments, and improve the speed…15% increasing in the number of therapies that are approved for marketJun 5, 20246UK Biobank · active learning · in-house algorithms02024-06-056
GSK needs to extract actionable disease insights from rapidly growing genetic, genomic, clinical, and health datasets so it can predict patient risk and treatment response, prioritize experiments, and improve the speed and success rate of drug and vaccine R&D.
↗15% increasing in the number of therapies that are approved for market
↗250,000 patients
↗at least 1 million people
↗half a million British volunteers
Reported impact
Business outcome
GSK reports that AI and machine learning are already helping predict patient responses and disease risk, narrow research toward higher-need disease areas, and reduce research and development costs by cutting the time and resources needed to make progress on new medicines and vaccines.
Cost Reduction
Productivity Improvement
Solution
GSK is using an in-house AI and machine learning stack to analyze large-scale genetic, genomic, clinical, and health datasets for drug discovery and patient stratification. The implementation combines GSK’s historical clinical archives with external datasets such as UK Biobank, including genome sequencing data and electronic health records, through a single platform that gives researchers pooled access to data resources. In-house algorithms and machine learning models are used to identify patterns in biological data, predict future patient responses to potential medicines, estimate who is at risk of developing diseases such as hepatitis B, and identify lupus patients least likely to respond to traditional treatments. GSK also runs a lab-in-the-loop reverse translation process in which engineers, geneticists, and biologists use active learning pipelines to rank hypotheses and targets, test them experimentally, and feed results back into the models for additional prioritization.
Data flow
GSK combines internal clinical archives with external sources such as UK Biobank genome data and linked electronic health records in a single platform. Machine learning models and in-house algorithms analyze these pooled datasets to predict disease risk and treatment response, while active-learning lab-in-the-loop pipelines prioritize experiments; experimental results are then fed back to guide further research and clinical trial decisions.
Solution architecture
5 components · 4 layers
Ingest
UK BiobankSupplies large-scale genetic, genomic, and linked health data that GSK uses to augment internal research datasets.
Compute
in-house algorithmsAnalyze genetic and genomic data to identify patients, such as lupus patients, who are least likely to respond to traditional treatments.
machine learning modelsPredict future patient responses, disease risk, and carrier likelihood for conditions including chronic hepatitis B.
Serving
single platformProvides researchers with access to pooled data resources across biological science and technology teams.
Orchestration
active learningDrives lab-in-the-loop pipelines that prioritize experiments and refine hypotheses using experimental feedback.
Architecture clues
Active learning is used to prioritize experiments from a large hypothesis set.
External genomic and health databanks augment GSK's internal clinical data archives.
GSK created a single platform for pooled data access.
The workflow uses a reverse translation feedback loop described as lab-in-the-loop.
Evidence from the source
"A key part of reimaging the traditionally linear drug development process at GSK involves integrating teams of biological scientists and technology experts to approach questions from new angles, as well as creating a single platform, from which researchers can access pooled data resources."
"Advanced technology allows GSK researchers to predict future responses to a potential therapy for chronic hepatitis B too."
"Another is using AI and machine learning to create a reverse translation process that creates a feedback loop, also known as lab-in-the-loop."
"In this process, tech engineers collaborate with geneticists and biologists to develop pipelines using a method called active learning."
"In-house algorithms are being used to analyse genetic and genomic data that can identify which patients with lupus ... are least likely to respond to traditional treatments."
"Machine learning models are also used to help predict who is at risk of developing hepatitis B and assess who is likely to be a carrier without their knowledge."
"UK Biobank, a database which contains massive amounts of genetic and health data from half a million British volunteers, is one of the datasets that GSK is using."
"integrating AI and machine learning techniques into scientific development is helping to reduce research and development costs by cutting down the amount of time and resources previously needed to make similar progress."
Review how this reference was scored and trace each normalized claim back to its documented source.
01
Scoring methodology
How scores are calculated
Customer Reference Value measures usefulness as a customer reference. Evidence Confidence measures the quality and traceability of available evidence, not independent verification.
Customer reference value100/100
Problem clarity20/20
Measures whether the customer's operational problem is specific enough to compare.
Implementation depth25/25
Rewards named components, data flow, integrations, and architecture detail.
Outcome specificity20/20
Measures whether the reported benefit is concrete rather than a generic claim.
Quantified impact25/25
3 metrics describe measurable impact.
Deployment scale10/10
Rewards evidence of a live or scaled deployment and meaningful integration scope.
Evidence confidence94%
Source authority25/25
The deployment is described by the adopting organization or a government source.
Claim traceability21/25
10 of 12 key fields link to a named source.
Direct evidence20/20
8 direct source quotes retained.
Date provenance10/10
The publication date comes from the source page or publisher.
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