03-19, 16:00–16:25 (US/Eastern), Belfer Case Study Room (CGIS S020)
IFOM is a cancer biomedical research center, with the ultimate goal of translating the discoveries in treatments and prevention strategies. Democratizing the access to the computational resources is the key step for our biomedical researchers to be independent in analyzing and exploring the data; for bioinformaticians to deliver novel computational approaches with ease; for the organization to have an organic, scalable and sustainable platform. This talk walkthrough on IFOM’s adoption of Open OnDemand: the challenges, the solutions and the cultural implications of this technological integration.
At IFOM, bridging the gap between wet-lab scientists and complex computational infrastructures is a priority. Many biologists find command-line tools and HPC systems challenging to use. To address this, we introduced Open OnDemand (OOD) as a user-friendly portal, streamlining access to our computational resources and enabling a more inclusive, collaborative workflow.
Our OOD provides a graphical interface allowing even novice users to run advanced bioinformatics analyses. Central to this effort is the integration of nf-core (Nextflow) pipelines—commonly employed for scalable, reproducible research—directly into OOD. As a result, biomedical researchers can effortlessly execute and manage complex workflows without any deep computational expertise. Indeed, dynamic web forms let users run complex bioinformatics pipelines such as those privide by the nf-core community (https://nf-co.re/pipelines), RNA-seq is one example.
Departing from the standard OOD guidelines, we have implemented a distinctive conda environment management solution wrapped within Apptainer containers. This approach ensures reproducible software stacks while simplifying environment selection and customization. Combined with Jupyter notebooks served through OOD, researchers can interactively explore data, prototype analyses, and visualize results. The seamless availability of these containerized environments breaks down traditional barriers, fostering a more iterative and data-driven scientific process. This is a great example of integration between software user friendliness and compliance with best practices for scientific reproducibility.
To further support users, we have integrated widely used imaging applications such as Fiji and QuPath into OOD. Wet-lab researchers can now perform image analysis, data inspection, and computational tasks within a unified platform, minimizing the friction that often separates bench work from in silico exploration eliminating the tricky proliferation of standalone ad-hoc workstations linked to specific scientific instruments.
In summary, OOD at IFOM demonstrates how a thoughtfully designed computational gateway can democratize access to powerful data analysis resources,closing the gap between experimental biology and computational infrastructure, promoting research efficiency. We believe that Open OnDemand is a robust solution to improve reproducibility and a stronger culture of collaboration between biomedical researchers and computational scientists.
Over 20 years of experience in life sciences, combining computer
science, biology, and IT to support research. Leads IFOM’s Research
Computing & Data Science unit, managing a
diverse team standardizing and implementing computational
pipelines. Focuses on fostering collaboration, integrating innovative
computing tools, and enhancing technological capabilities. Committed
to training staff, promoting institutional visibility, and driving
research collaborations to keep IFOM at the forefront of biomedical
advancements.
Hi! I am a ~10 years experiencend bioinformatician who worked for the University of Tor Vergata (Rome, IT), EMBL-EBI (Cambridge, UK), Wayne State University (Detroit, MI, US) and IFOM (Milan, IT).
Right now I am working as Bioinformatics Engineer at IFOM at Research Computing and Data Science (RCDS) unit, where I discovered Open OnDemand.