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sinchana-s-06/README.md

Sinchana S

Computer Science Graduate focused on Distributed Systems and Applied AI Enthusiast

Built and deployed academic-scale systems including Kafka–Spark streaming pipelines handling 5K+ events/sec and neural surrogate models achieving 92.4% accuracy with 90× simulation speedup.

Strong interest in backend engineering, data systems, and real-time analytics.

CS Major · Published at INCOFT-2025 · Open to SDE / ML / Data Engineering roles

Technical Stack

Languages

Python Java C++ C JavaScript SQL

Data Engineering & Streaming

Apache Kafka Apache Spark HDFS

Stream Processing · ETL Pipelines · Real-Time Analytics

Machine Learning & AI

PyTorch TensorFlow scikit-learn

Deep Learning · Model Optimization

Backend & Databases

RESTful APIs · Flask · MySQL · MongoDB · Transaction Management · Query Optimization

Infrastructure & Tools

Docker Linux Git Streamlit

CI/CD

Featured Projects

DetectPro — Real-Time Fraud Analytics Pipeline

End-to-end streaming fraud detection system built using Kafka and Spark Structured Streaming.

  • 5,000+ events/sec throughput · sub-2s end-to-end latency · 89% detection accuracy
  • Hybrid rule-based heuristics and graph-structured anomaly detection using account relationship modeling
  • Bronze → Silver → Gold layered data architecture
  • Implemented indexed MySQL storage and optimized queries for low-latency analytics
  • Real-time anomaly monitoring dashboard (PyQt5)

Technologies: Kafka • Spark • HDFS • Python • Graph Analytics

LV Surrogate App — AI Cardiac Digital Twin

Neural surrogate model approximating CFD simulations of left-ventricle hemodynamics.

  • 92.4% prediction accuracy · 90× computational speedup (45s → 0.5s)
  • Predicts pressure, velocity, and wall shear stress fields
  • Physics-informed custom loss functions preserving pressure–velocity consistency
  • Modular inference pipeline with interactive Streamlit dashboard

Technologies: TensorFlow • Streamlit • Python • Surrogate Modeling

CFD Simulation of Left Ventricle Hemodynamics

Computational fluid dynamics modeling of cardiac flow using ANSYS Fluent.

  • Transient flow simulation with physiological boundary conditions
  • Pressure, velocity, and wall shear stress contour visualization
  • Hemodynamic behavior analysis under realistic cardiac cycles

Technologies: ANSYS Fluent • CFD • Fluid Mechanics

Research

Super Resolution of Images Using Residual Networks
3rd International Conference on Futuristic Technologies (INCOFT-2025) · Feb 2025

Deep residual CNN for single-image super resolution — reconstructing high-frequency textures from low-resolution inputs using skip connections and perceptual loss, outperforming bicubic interpolation baselines on PSNR and SSIM metrics.

Contact

LinkedIn: https://linkedin.com/in/sinchana-s06
Email: sinchana.sridhar06@gmail.com
GitHub: https://github.com/sinchana-s-06

Pinned Loading

  1. CFD-left-Ventricle-Simulation CFD-left-Ventricle-Simulation Public

    CFD simulation of blood flow in the human left ventricle using ANSYS Fluent. Includes mesh generation, velocity vectors, pressure contours, and wall shear stress visualization.

  2. detectpro-fraud-analytics-pipeline detectpro-fraud-analytics-pipeline Public

    Fraud detection pipeline built with Kafka, Spark Structured Streaming, and HDFS — simulating financial transactions and identifying anomalies efficiently.

    Python

  3. lv-surrogate-app lv-surrogate-app Public

    Neural surrogate network replacing CFD simulations for cardiac flow prediction — 92.4% accuracy, 90× computational speedup.

    Python