Computational Genomics & NGS

Spatial Transcriptomics

AI-Powered Spatial Transcriptomics Analysis for Tissue Architecture, Cellular Interactions & Precision Medicine

Spatial Transcriptomics

RASA Life Science Informatics provides advanced Spatial Transcriptomics analysis services that enable researchers to investigate gene expression within its native tissue context. By combining transcriptomic profiling with spatial information, our workflows reveal cellular organization, tissue heterogeneity, microenvironment interactions, and disease-associated molecular landscapes that cannot be captured through conventional bulk or single-cell sequencing alone.

Our bioinformatics pipelines support leading spatial transcriptomics platforms including 10x Genomics Visium, Slide-seq, MERFISH, SeqFISH, NanoString GeoMx DSP, CosMx SMI, and other emerging spatial omics technologies. We help pharmaceutical companies, biotechnology organizations, hospitals, research institutes, and academic laboratories uncover spatially resolved biological insights for translational research and therapeutic discovery.

From spatial gene expression mapping to cell–cell communication analysis and tissue microenvironment characterization, our scalable workflows deliver publication-ready results for oncology, neuroscience, immunology, developmental biology, infectious diseases, and precision medicine research.

Service Offerings

Spatial Transcriptomics Services

Spatial Gene Expression Analysis

Characterize gene expression patterns across tissues while preserving spatial organization.

  • Spatial gene expression profiling
  • Tissue region characterization
  • Spatially variable gene identification
  • Spatial clustering analysis
  • Differential spatial expression analysis

Cell Type Mapping & Deconvolution

Identify and localize cell populations within complex tissues.

  • Cell type annotation
  • Spatial cell mapping
  • Cell deconvolution analysis
  • Integration with single-cell RNA-seq
  • Cellular composition analysis

Tissue Microenvironment Analysis

Explore cellular interactions and biological processes within tissue ecosystems.

  • Tumor microenvironment characterization
  • Immune cell infiltration analysis
  • Stromal cell profiling
  • Spatial neighborhood analysis
  • Cellular niche identification

Cell–Cell Communication Analysis

Investigate signaling interactions between neighboring cells.

  • Ligand–receptor interaction analysis
  • Spatial signaling networks
  • Cell interaction mapping
  • Pathway activity inference
  • Communication hotspot identification

Multi-Omics Spatial Integration

Combine spatial transcriptomics with other omics technologies.

  • Spatial + scRNA-seq integration
  • Spatial proteomics integration
  • Multi-modal tissue analysis
  • Systems biology interpretation
  • Biomarker discovery
Capabilities

Key Features

Spatially Resolved Gene Expression Analysis
Tissue Architecture Characterization
Cell Type Mapping & Annotation
Tumor Microenvironment Profiling
Cell–Cell Communication Analysis
Single-Cell & Spatial Omics Integration
Cloud-Ready Reproducible Pipelines
Publication-Ready Visualizations
Deliverables

Deliverables

Spatial Analysis Outputs

Spatial Gene Expression Maps
Tissue Region Identification
Spatial Clustering Results
Cell Type Distribution Maps
Differential Spatial Expression Reports

Advanced Analytics

Cell–Cell Communication Networks
Spatial Neighborhood Analysis
Tumor Microenvironment Reports
Immune Landscape Characterization
Biomarker Discovery Reports

Visualization & Reporting

Tissue Overlay Visualizations
Spatial Heatmaps
UMAP & Dimensionality Reduction Plots
Publication-Ready Figures
Comprehensive Scientific Reports
Applications

Applications

Cancer Research

Tumor microenvironment characterization, immune infiltration analysis, and precision oncology studies.

Neuroscience

Spatial mapping of neuronal populations and brain tissue organization.

Immunology

Investigation of immune cell localization and tissue-specific responses.

Developmental Biology

Spatial characterization of tissue development and cellular differentiation.

Infectious Disease Research

Host-pathogen interaction studies within tissue microenvironments.

Precision Medicine

Spatial biomarker discovery and patient stratification.

Technology

Technologies & Platforms

Spatial Transcriptomics Platforms

10x Genomics Visium
Slide-seq
MERFISH
SeqFISH
NanoString GeoMx DSP
CosMx SMI

Analysis Tools

Seurat
Scanpy
Giotto
Squidpy
STUtility
Cell2location

Cell Communication Tools

CellChat
NicheNet
CellPhoneDB
LIANA

Infrastructure

Nextflow
Snakemake
Docker
AWS
Google Cloud
HPC Clusters
Highlights

Representative Analysis Outputs

Tissue Architecture Analysis

Identification of spatially distinct biological regions and tissue compartments.

Tumor Microenvironment Profiling

Mapping of cancer, immune, and stromal cell interactions.

Spatial Biomarker Discovery

Identification of location-specific biomarkers and therapeutic targets.

Cell Communication Networks

Visualization of intercellular signaling pathways within tissues.

Multi-Omics Integration

Integration of spatial transcriptomics with single-cell and proteomics datasets.

Why RASA

Why Choose RASA?

AI-Assisted Bioinformatics

Machine learning-enabled workflows for biomarker discovery, variant prioritization, and predictive genomics.

Multi-Platform Expertise

Support for Illumina, Oxford Nanopore, PacBio HiFi, and 10x Genomics platforms.

End-to-End Analysis

From raw sequencing data to biological interpretation and publication-ready reports.

Cloud-Ready Infrastructure

Deployable on AWS, Google Cloud, HPC clusters, and secure on-premise environments.

Reproducible Workflows

Built using Nextflow, Snakemake, Docker, and Singularity for enterprise-grade bioinformatics operations.

Service FAQ

Frequently Asked Questions

Spatial Transcriptomics is an advanced genomics technology that measures gene expression while preserving the spatial location of cells within intact tissues. Unlike conventional RNA-Seq, which loses spatial information during sample processing, spatial transcriptomics enables researchers to understand where genes are expressed within tissue architecture. This approach provides valuable insights into cell–cell interactions, tissue organization, disease microenvironments, and molecular mechanisms underlying health and disease.

Spatial Transcriptomics bridges the gap between molecular biology and tissue histology by linking gene expression patterns to physical tissue locations. This technology helps researchers investigate tumor microenvironments, immune cell infiltration, tissue heterogeneity, developmental processes, and disease progression. It has become a powerful tool for cancer research, neuroscience, immunology, regenerative medicine, and precision medicine applications.

RASA Life Science Informatics offers comprehensive Spatial Transcriptomics analysis services including:
Spatial Gene Expression Analysis
Tissue Region Identification
Spatial Clustering
Differential Spatial Expression Analysis
Cell-Type Mapping
Cell–Cell Interaction Analysis
Spatial Pathway Analysis
Single-Cell Integration
Biomarker Discovery
Disease Microenvironment Characterization
Multi-Omics Integration
Our workflows support pharmaceutical research, biotechnology innovation, translational medicine, and academic discovery programs.

Our bioinformatics pipelines support data generated from leading spatial omics technologies including:
10x Genomics Visium
NanoString GeoMx DSP
NanoString CosMx SMI
MERFISH
Slide-seq
Slide-seqV2
Stereo-seq
Seq-Scope
DBiT-seq
We continuously update our workflows to support emerging spatial biology technologies.

Yes. We routinely integrate Spatial Transcriptomics with Single-Cell RNA Sequencing (scRNA-seq) datasets to accurately map cell types and cellular states back to their tissue locations. This integrated approach provides deeper biological insights into tissue organization, cellular communication, and disease-associated microenvironments.

A standard spatial transcriptomics workflow may include:
Data Quality Control
Tissue Image Processing
Spatial Clustering
Cell-Type Deconvolution
Differential Spatial Expression Analysis
Spatial Domain Identification
Cell–Cell Interaction Analysis
Pathway Enrichment Analysis
Single-Cell Integration
Biomarker Discovery
Biological Interpretation
Scientific Reporting
Workflows are customized according to project goals and platform specifications.

Spatial clustering identifies regions within a tissue that share similar gene expression profiles. This analysis helps researchers uncover biologically distinct tissue compartments, tumor niches, immune cell infiltration zones, and disease-associated spatial patterns.

Cell-type deconvolution uses computational algorithms and reference single-cell datasets to estimate the cellular composition of each spatial location. This allows researchers to determine which cell populations contribute to observed spatial gene expression patterns within tissues.

Spatial differential expression analysis identifies genes that are enriched or depleted in specific tissue regions. This approach helps reveal region-specific biological processes, disease-associated molecular signatures, and potential therapeutic targets.

Yes. Spatial Transcriptomics has become a transformative technology in oncology research. It enables detailed characterization of:
Tumor Microenvironments
Immune Cell Infiltration
Tumor Heterogeneity
Cancer Biomarkers
Drug Resistance Mechanisms
Tumor–Stroma Interactions
These insights support precision oncology and therapeutic development.

Spatial Transcriptomics helps identify disease-associated cellular interactions, tissue-specific biomarkers, and patient-specific molecular signatures. These insights support precision medicine by improving disease classification, biomarker discovery, patient stratification, and therapeutic target identification.

We commonly support:
FASTQ Files
Feature Matrices
Count Matrices
Tissue Images
Histology Images
Spatial Coordinate Files
Single-Cell Reference Datasets
Metadata Files
Our team can also accommodate custom formats generated by specific platforms.

Our workflows utilize leading spatial biology and bioinformatics tools including:
Spatial Analysis
Seurat
Scanpy
Giotto
Squidpy
STUtility
Cell-Type Mapping
Cell2location
Tangram
SPOTlight
RCTD
Cell Communication
CellChat
NicheNet
CellPhoneDB
Workflow Infrastructure
Nextflow
Snakemake
Docker
AWS
Google Cloud

Typical deliverables include:
Spatial Gene Expression Maps
Tissue Annotation Reports
Spatial Clustering Visualizations
Cell-Type Distribution Maps
Differential Spatial Expression Results
Cell–Cell Communication Networks
Pathway Enrichment Reports
Biomarker Discovery Reports
Publication-Ready Figures
Comprehensive Scientific Reports
Deliverables can be customized according to project requirements.

RASA combines expertise in genomics, single-cell biology, spatial biology, bioinformatics, and AI-driven analytics to deliver robust and reproducible Spatial Transcriptomics solutions. Our scalable workflows, advanced analytical capabilities, publication-ready reporting, and experience across oncology, neuroscience, immunology, and precision medicine help researchers maximize the value of spatial omics data.
📧 info@rasalifesciences.com
🌐 www.rasalifesciences.com

Ready to partner with a trusted bioinformatics company in India?

Get in touch with our team in Pune, India to discuss sample sizes, platform details, and custom bioinformatics pipeline configurations for your research program.

Start a Project