Our Impact

Explore the success stories, client collaborations, and scientific contributions that highlight our profound impact across the industry.

Customer Testimonials

"I am delighted to share that CSIR-CDRI and Sravathi AI have been collaborating on a target of common interest in the area of cancer. Sravathi’s expertise in applying artificial intelligence to drug discovery complements CDRI’s strengths in biology and chemistry. Our goal is to jointly accelerate the identification of novel, effective, and safe cancer therapeutics."

Dr. Radha Rangarajan
Director, CSIR-CDRI

"I had one of the best customer service experiences with Sravathi AI Technologies Ltd. From the moment I reached out, the representative was friendly, attentive, and truly committed to resolving our Domain related issue. Not only did they listen carefully to my concerns, but they also followed up promptly with updates and went above and beyond to make sure I was satisfied. It’s rare to find a team that genuinely cares about its customers, but this one exceeded all my expectations. I left the interaction feeling valued, respected, and confident in continuing to do business with them. Truly a gold standard in customer care!"

Dr Nilima Rahul Sheth
Indoco Remedies Ltd

“Our collaboration with Sravathi AI has been highly productive and professional. Their team brings strong scientific expertise and an impressive capacity for execution, consistently advancing novel compounds across multiple oncology targets. Through structured biweekly meetings, we have observed steady progress, including the successful synthesis and delivery of approximately ten compounds for testing. We value their rigor, responsiveness, and commitment to high-quality science, and view Sravathi AI as a trusted partner in our translational research efforts.”

Prof. Arul Chinnaiyan
University of Michigan
IICT
Nulynx
Indoco Remedies Ltd
CDRi
University of Michigan
Mayo

Case Studies & Publications

Cover photo for Identifying Unknown Impurity Formation

Identifying Unknown Impurity Formation

case study

Ensuring drug purity and safety requires anticipating impurities before they appear in the lab. This case study showcases how our Chemistry AI platform applies predictive modeling to identify unknown impurities and their formation pathways early in development, enabling proactive process adjustments that save time, reduce risk, and ensure higher-quality outcomes.

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Cover photo for Identifying Rxn conditions for Atazanavir

Identifying Rxn conditions for Atazanavir

case study

This case study demonstrates how our platform was used to optimize the Suzuki coupling reaction for a key intermediate of the drug Atazanavir. The goal was to identify the optimal reaction conditions to achieve the highest possible yield.

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Cover photo for Quantum Calculations for Feasibility of Routes of Synthesis

Quantum Calculations for Feasibility of Routes of Synthesis

case study

In modern drug development, choosing the right synthetic route is crucial. Using our Chemistry AI platform powered by quantum calculations, we can predict reaction feasibility upfront, compare pathways, and identify the most promising route. This approach streamlines decision-making, reduces trial-and-error, and accelerates experimental validation.

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Cover photo for Optimization Through Number of Steps and Available Raw Materials

Optimization Through Number of Steps and Available Raw Materials

case study

This case study highlights how our platform was used to optimize the synthesis of the drug Nilotinib. It demonstrates the power of AI in transforming a complex, multi-step process into a streamlined, commercially viable route with fewer steps and more readily available starting materials. The our Chemistry AI platform, unlike traditional methods, rapidly identifies and optimizes multiple synthetic routes simultaneously.

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Cover photo for AI-Driven Discovery of a First-in-Class Candidate for Pancreatic Cancer

AI-Driven Discovery of a First-in-Class Candidate for Pancreatic Cancer

case study

Background: Pancreatic cancer is highly aggressive and treatment-resistant, with limited options and poor survival rates. Traditional drug discovery has made limited progress, underscoring the need for innovative approaches.

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An abstract swirl of blue and red colors

Quantum-Chemical Screening of Active Components for Next-Generation FMCG Applications

case study

At Sravathi AI, By integrating Density Functional Theory (DFT) and Molecular Dynamics (MD) simulations, we uncover molecular-level insights that guide the rational design of cosmetic ingredients and formulations. This approach moves beyond conventional trial-and-error experimentation, enabling predictive, science-backed strategies that improve product performance, stability, and safety.

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Cover photo for AI-Driven Repurposing of a Phase 3 Failed Compound for Pancreatic Cancer

AI-Driven Repurposing of a Phase 3 Failed Compound for Pancreatic Cancer

case study

A small-molecule compound that had previously failed in Phase 3 trials for a non-oncology indication presented an opportunity for repurposing due to its favorable safety profile and drug-like properties. Given the urgent need for new treatments in pancreatic cancer, we applied our AI- and physics-based platform to identify new potential oncology applications for the molecule.

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Cover photo for Molecular Glue-Design-Evaluator (MOLDE): An Advanced Method for In-Silico Molecular Glue Design

Molecular Glue-Design-Evaluator (MOLDE): An Advanced Method for In-Silico Molecular Glue Design

publication

This research introduces the Molecular Glue-Design-Evaluator (MOLDE), an innovative computational method designed for the rational design of molecular glues. By using a combination of techniques, including new chemical entity generation, optimization, and molecular dynamics simulations, MOLDE aims to accelerate the discovery process and pave the way for targeting previously inaccessible proteins.

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Cover photo for PROTAC-Design-Evaluator (PRODE): An Advanced Method for InSilico PROTAC Design

PROTAC-Design-Evaluator (PRODE): An Advanced Method for InSilico PROTAC Design

publication

Our research introduces the PROTAC-Design-Evaluator (PRODE), an advanced computational method for the in-silico design of these complex molecules. This innovative approach allows us to rapidly and effectively design PROTACs for new systems, such as the FGFR1-MDM2 complex, offering a promising path toward new therapeutic strategies.

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