AGILE (Advanced Genomics Institute & Laboratory Medicine) is a dedicated research hub committed to transforming genomic discoveries into diagnostic and therapeutic realities. Our research spans:

  • Genotype–Phenotype Mapping, population genetics, and mutation profiling
  • Disease Understanding: pathology, comorbidity, prevalence, prognostic markers
  • Optimizing Therapies: personalized dosing, efficacy, resistance profiles
  • Technique & Cost Innovation: improving laboratory workflows and diagnostics
  • Technology Validation: from kits to consumables across diverse applications
  • Mutation Profiling in Indian Thalassemia Cases – Identifying unique mutation patterns in regional populations.
  • Chromosomal Studies in High‑Risk Pregnancies – (North India cohort analysis).
  • Stem Cell Cytogenetics – Mapping chromosomal anomalies in cultured stem cell lines.
  • Array CGH in Neonatal Anomalies – Detection of genomic imbalances in newborns with congenital anomalies. (Collaborator: Dr. Raunak Jahan, BSMMU, Bangladesh)
  • Lab‑on‑Chip POC Device for Pre‑diabetic Hyperinsulinemia – Integrating metabolic & genomic markers into point‑of‑care testing. (Collaborator: Dr. Anu Joseph, Aster MIMS)
  • Direct, extraction‑free SARS‑CoV‑2 RNA detection via saliva or swab.
  • CCND1 gene copy number in oral squamous cell carcinoma prognosis (with SMS Medical College, Jaipur).
  • Application of microarray in detecting prenatal chromosome abnormalities.
  • Balanced translocations in recurrent pregnancy loss and IVF failures.
  • Prenatal FISH screening for chromosomal irregularities in high‑risk pregnancies.

Key Research Areas

We investigate how genetic variation shapes health anddisease across populations. ‍

Core goals include:

  • Correlating genotypes with clinical phenotypes
  • Profiling mutations across diverse populations
  • Enabling predictive screening and early diagnosis


Outcome:
Stronger genetic risk assessment andtailored carrier screening for inherited disorders

Our teams delve into the genetic architecture of disease—its causes, modifiers, and clinical expressions.

Focus areas:

  • Causality and progression of complex diseases
  • Prevalence studies and comorbidity insights
  • Prognostic markers and genomic biomarkers

Outcome: Deeper insights for accurate diagnosis and better patient management.

We explore how genes influence drug response, treatment resistance, and dosage efficacy

Research themes:

  • Pharmacogenomics and personalized treatment planning
  • Genetic determinants of drug resistance and ADRs
  • Stratification of patients for targeted therapies

Outcome: Informed therapy decisions and optimized patient care.

Innovation in diagnostics starts in the lab. We continuously refine and validate our methodologies.

Areas of development:

  • Improving turnaround times and test reliability
  • Simplifying workflows in molecular and cytogenetic diagnostics
  • Making diagnostics more cost-effective without compromising quality

Outcome: Scalable, affordable, and high-impact testing solutions.

We bridge the gap between emerging genomic technologies and their real-world application.

Research includes:

  • Clinical validation of NGS, cfDNA, and digital PCR platforms
  • Integration of AI tools for variant classification
  • Application studies in oncology, rare diseases, and reproductive genetics

Outcome: Faster adoption of clinically relevant, next-generation diagnostic platforms.

We evaluate the building blocks of diagnostics—kits, reagents, media, and instruments—to ensure they meet clinical demands.

Evaluation criteria:

  • Sensitivity, specificity, and stability across sample types
  • Compatibility with high-throughput and decentralized workflows
  • Quality assurance for consistent performance

Outcome: High-confidence results from validated, reliable laboratory tools.