Rushil Reddy wins a second place in Pennsylvania Science Fairs.

Research in School: Build a Real Research Portfolio
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Research program at Cheenta

Cheenta has outstanding research programs for school students. Here students learn how real research is done—step by step, with close mentor guidance.
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  • Anika Chopra

    Lebesgue Number Lemma

    Research in School 
    Anika Chopra (Hyperbolic Geometry Research Group) introduces key ideas from metric space topology and builds the groundwork needed to understand and use results like the Lebesgue Number Lemma. The session is paced as a guided research-style lecture—starting from essential definitions and intuition, then moving toward how these tools are used in more advanced geometry/topology discussions.
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  • Prishaa Shrimali (New Jersy, Grade 10)

    Building a 15-Minute City with Steiner Tree Approximation

    Research in School
    The paper underscores the effectiveness of leveraging graph theory in urban planning and establishes a solid foundation for implementing sustainable, accessible city models that can adapt to the unique needs of various urban landscapes.
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  • Siddhant Shah

    A Hyperbolic Proof of the Seven Circles Theorem

    Research in School 
    In this paper, we explore a non-conventional proof of the Seven Circles Theorem using several concepts from hyperbolic geometry. We attempt to represent the picture, claimed by the statement, in the Klein model—followed by the Poincar´e’s hyperbolic disk model of hyperbolic space—in order to analyze the claim. 
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Three Levels of School Research at Cheenta

Advised by Leading Researchers in Pure and Applied Mathematics, Machine Learning, Quantum Computing and Econometrics.

Short Research Program

This program typically runs for a duration of 7 months and is offered in two cohorts: the Winter Cohort and the Summer Cohort.

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Long Research Program

This is a long-term program with a duration of 12 to 18 months, designed to support steady progress through sustained learning, regular practice, and continuous mentorship.

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Social Impact Research

Social Impact Research focuses on developing leadership skills through real-world problem solving and collaborative research.

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Past Projects

The pre-prints showcase the scope of the research projects completed by our talented students.

AI for Social-Driven Crypto Pricing

Abhinav, Angad, Jivin

This project analyzes how cryptocurrency news headlines influence Bitcoin price movements. We collected real-time headlines using the CryptoPanic API and evaluated their sentiment with models like FinBERT and CryptoBERT. Using decision models such as Random Forest, we tested how well sentiment predicts price direction. Automated daily data collection was done using Google Apps Script. By varying sentiment and decision models, we aim to identify the best combination for accurate Bitcoin trend prediction.

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Elliptic Curve Cryptography

Vethathiriyan , Souradip Das

This paper delves into the critical role of elliptic curves in advancing the field of public-key cryptography, with a particular focus on Elliptic Curve Cryptography (ECC) and its comparative efficiency against the Rivest-Shamir-Adleman (RSA) algorithm. Starting with an exploration of the group law on elliptic curves, the paper establishes the mathematical foundations that enable ECC to provide robust security mechanisms. The core of the analysis compares ECC and RSA, emphasizing the significant benefits of ECC in terms of computational overhead and key size efficiency.

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Optimization of Robotic Surgery using Geometry & Deep Learning

Raghav Mukhija,Arnav Taya

Robotic surgery is a promising method to improve surgical outcomes. The field of robotic surgery is poised for remarkable transformations driven by advances in machine learning (ML) and artificial intelligence (AI). This research aims to integrate advanced geometric techniques and deep learning to address the challenges associated with robotic-assisted surgeries. This paper outlines the methodology for optimizing surgical procedures by leveraging metric spaces for accurate anatomical measurements, group theory for optimal robotic motion planning, and data augmentation techniques for improving machine learning models used in surgical planning and intraoperative guidance.

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A Three-Dimensional Farey Graph via Adjacency of Primitive Triples

Naga Venkata Nikhil Tirunagari

We introduce a three-dimensional analogue of the Farey graph, with vertices given by primitive integer triples considered up to sign. Two vertices are connected if a fixed determinant condition with a reference vector is satisfied. We establish a degree dichotomy: vertices either have infinitely many neighbors or are isolated—and prove an additive triangle rule for 2-simplices. Notably, no two primitive Pythagorean triples are adjacent. Computational experiments enumerate neighbors, visualize local structure under bounded norms, and compute shortest paths in bounded subgraphs. This work generalizes classical Farey graph concepts to three dimensions, revealing new arithmetic and combinatorial structures.

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Homomorphic Broadcast Encryption

Gurnoor Kaur, Anurag Mudgal

This paper introduces Homomorphic Broadcast Encryption (HBE), a unified framework that combines homomorphic encryption for privacy-preserving computation with broadcast encryption for selective data access. We implement HBE in cloud and IoT settings to enable secure aggregation and controlled result sharing. Tests on a 9-node cloud with 12 users show efficient encrypted computation, fast revocation, and low latency. HBE offers a practical solution for secure collaborative processing in areas like healthcare analytics and financial risk assessment.

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A Proof of Seven Circles Theorem using Hyperbolic Geometry

Siddhant Shah

In this paper, we explore a non-conventional proof of the Seven Circles Theorem using several concepts from hyperbolic geometry. We attempt to represent the picture, claimed by the statement, in the Klein model-followed by the Poincaré's hyperbolic disk model of hyperbolic space-in order to analyze the claim. We consider an ideal hexagon to have been formed by the points of intersection of each of the six inner circles and the ideal boundary. We then assume that there exists a non-ideal hyperbolic triangle that is formed as a result of intersections between the three main diagonals of the hexagon. We then go on to contradict this claim by proving that the area of the non-ideal triangle is zero.

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Research Advisors

A group of experts who guide Cheenta’s academic and research programs.

Dr. Ashani Dasgupta

Dr. Ashani Dasgupta

Director, Cheenta Academy

  • PhD in Mathematics from University of Wisconsin, Milwaukee (USA).
  • Published Researcher at London Mathematical Society’s Journal of Topology
Srijit Mukherjee

Srijit Mukherjee

Director and faculty at Cheenta Academy

  • BStat and MStat from Indian Statistical Institute, Doctoral Scolar at Penn State University
Dr. Arka Banerjee

Dr. Arka Banerjee

Visiting Research Faculty

  • Ph.D., University of Wisconsin–Milwaukee
  • Postdoctoral Researcher, Auburn University
Raghunath J V

Raghunath J V

Mathematics and Research Faculty

  • B.Tech and M.Tech from IIT Chennai.
  • Math Olympiad Coach at Cheenta. INMO and IMO Trainer.
Shayeef Murshid

Shayeef Murshid

Mathematics and Research Faculty

  • B.Math and M.Math from ISI
  • INMO Merit List
  • Doctoral Scholar at Indian Statistical Institute
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