Synthetic Dataset Generation
KerusCloud® can be used to generate highly realistic synthetic datasets for use in a wide variety of analytics applications in the life sciences sector and beyond.
The KerusCloud® platform has proved to be a core part of our decision-making as it allows us to prospectively tailor study designs as new information becomes available.
Generate Synthetic Clinical Data for Smarter, Safer Research
KerusCloud® offers advanced synthetic data generation for clinical research, helping teams simulate realistic patient-level datasets without compromising privacy. Whether you’re designing trials, building external control arms, or training AI models, KerusCloud® enables you to generate high-quality data that mirrors real-world conditions. This empowers faster, safer decision-making—especially when access to real data is limited, sensitive, or incomplete.

Synthetic data is data which has been generated using purpose-built computer simulations, mathematical/statistical models or algorithms. Synthetic data is generated to meet specific needs or certain conditions that may not be found in the original, real data. It has many applications across multiple industries including:
- Market research and business intelligence
- Testing and validating software products and systems
- Building and testing algorithms
- Predictive modelling, machine learning and AI
Synthetic data is useful in clinical research, where it can be used:
- In clinical trial design optimization to maximize chance of success.
- To create external control arms for clinical trials to save time and resources.
- In anonymization to enable the sharing of regulated or sensitive data.
- To create large, auto labelled data for predictive modelling, machine learning and AI to address issues of imbalanced data.
Within KerusCloud® is a synthetic data generator. It can handle diverse and complex data collected from disparate data sources and produce synthetic datasets from them. KerusCloud’s exceptional modelling capability allows it to incorporate realistic characteristics into the synthetic datasets it produces such as missing data, truncation and censoring. It can model the inter-correlation between subject-level data such as subgroups and strata, risk factors/covariates and multiple outcomes and data types. This delivers a highly realistic synthetic version of the original data.