CelliVerse
An integrated R framework for data-driven single-cell clustering, marker discovery, marker assessment and cell type annotation.
BIOINFORMATICS · SYSTEMS BIOLOGY · AI FOR BIOMEDICINE
I am Adrian Salavaty, a bioinformatician and systems biologist developing computational methods and open-source tools for single-cell, spatial and multi-omics cancer research.
Explore research software View publications
Senior Bioinformatician & Senior Cancer Scientist · Peter MacCallum Cancer Centre · Melbourne

PROFILE
I work at the intersection of bioinformatics, systems biology, cancer genomics and computational method development. My research focuses on extracting robust biological structure from complex omics data, particularly single-cell, spatial and multi-omics datasets.
At Peter MacCallum Cancer Centre, I work across translational cancer research and bioinformatics. I also develop open-source computational frameworks, including CelliVerse, ClustoCell, ExIR and influential, with an emphasis on methods that are interpretable, reusable and practical for researchers.
Computational approaches designed around biological questions, not software conventions.
Cell-state discovery, clustering, marker identification, annotation, spatial organisation and translational analysis.
Integrated analysis of transcriptomic, proteomic and genomic data to resolve tumour biology and clinically relevant signals.
Graph-based modelling, network reconstruction, feature prioritisation and interpretable biological systems analysis.
Practical AI and agent workflows that make advanced analysis tools easier to use without obscuring the underlying evidence.
Open-source computational tools, algorithms and interactive resources.
An integrated R framework for data-driven single-cell clustering, marker discovery, marker assessment and cell type annotation.
A reference-independent framework for resolving cell types and states from single-cell transcriptomes using cell-intrinsic expression organisation.
Identification and Classification of the Most Influential Nodes.
Identification and Classification of the Most Influential Nodes.
AutoClone Shiny App; automatic analysis of genetic labelling data and clonality assessment.
Centrality-based Network Visualization.
Evaluation of the impact of knockout or over-expression of a node (e.g. gene, protein, etc.) within a network.
ExIR; a versatile one-stop model for the extraction, classification, and prioritization of candidate genes from experimental data.
ExIR Shiny App; a user-friendly web app for running the ExIR model on high-throughput data.
Visualization of ExIR results.
Influential Shiny App; a landing and information page for introducing the influential software package.
Integrated Value of Influence; An Integrative Method for the Identification of the Most Influential Nodes within Networks.
IVI Shiny App; a user-friendly web app for calculating the influence of network nodes using the IVI algorithm.
Recent work across computational biology, single-cell analysis and systems biology.
Selected research and computational biology roles.
Named investigator on Multi-omics investigation of mCRPC rapid autopsy samples.
Monash University recognition based on publication record and prospects.
COMBINE symposium.
Named investigator on Finding the right targets: most influential nodes in complex networks.
Selected excerpts from research supervisors and collaborators.
“Adrian has a particularly strong skill set in the development of interactive applications using RShiny and similar tools, often exceeding my expectations around what is possible.”
“He has single-handedly transformed my group’s approach to computational systems biology, written new algorithms and invented completely new systems approaches.”
“His outstanding analytical capabilities combined with innovative thinking places him in the top 1% of students.”
Excerpts shortened for the homepage. Full references can be provided when relevant.
For scientific collaboration, methods, software or speaking enquiries.