AI & ML Engineer Portfolio

Bakhtawar Iftikhar

Projects

Discover my work at the intersection of AI development and practical engineering, delivering impactful ML and AI solutions from research to deployment.

About Me

🧠 I'm an AI/ML Engineer who builds intelligent systems from the chip up. Thanks to my background in FPGA/ASIC design, I have a unique knack for optimizing AI from the ground floor, ensuring solutions are not just smart, but incredibly efficient.

🚁 For my master's thesis, I had a blast teaching a drone to think for itself. I developed a Reinforcement Learning framework for UAVs to navigate and avoid collisions in chaotic, unpredictable environments—like those in earthquake-struck areas.

💪 Basically, I build autonomous systems that are resilient enough to handle real-world chaos.

My Work

Intern-MLE, Khiladi

Technical Support Engineer, Motive

Portfolio

Enhanced multi-label classification models using XGBoost and Random Forest, achieving a 25% improvement in prediction accuracy for bowling error detection through rigorous 10-fold cross-validation.
Implemented a containerized FastAPI-based API deployment using Python to reduce inference latency by 30% and enable real-time predictions across multiple client applications.
Streamlined the ML model deployment pipeline by establishing CI/CD workflows on Google Cloud Build, decreasing deployment time by 40% and enhancing production scalability.

Analyzed performance data using Grafana and DataDog, identifying critical trends and resolving 85% of recurring issues to enhance user experience and reduce support ticket volume by 40%.
Coordinated with cross-functional teams to alert stakeholders on emerging product health trends, leading to proactive adjustments that improved system reliability by 25% and boosted customer satisfaction

My Projects

RL-Based Collision Avoidance for UAVs

Developed and implemented a Reinforcement Learning (RL) framework that enhanced the navigation capabilities of UAVs in earthquake-stricken environments, achieving a 40% reduction in collision rates during simulated missions within a complex terrain.
Created an advanced Unity 3D simulation featuring over 50 static and dynamic obstacles, which enabled real-time testing of UAV navigational strategies; this simulation contributed to the successful training of an RL agent capable of adapting to diverse environmental challenges with a 85% success rate.

Grand Prix 2025 Prediction Model

Developed a prediction model in Python, incorporating 4+ key features derived from historical data using Pandas and NumPy, resulting in a 74% accuracy in identifying race outcomes.
Employed Scikit-Learn's regression capabilities to build and assess multiple predictive models, systematically tuning hyperparameters via GridSearchCV to achieve a high accuracy in forecasting the Grand Prix 2025 winner.
Generated 3+ data visualizations using Matplotlib and Seaborn for internal analysis, effectively communicating key patterns in the F1 dataset and the confidence levels of the winner predictions.

Cost-Effective and Precise SMDs for PCBs

Engineered a cost-efficient Pick-and-Place machine prototype utilizing machine learning principles, reducing production costs by 40% while maintaining industry-standard accuracy levels of 99.8%, enabling broader market accessibility.
Implemented advanced automation algorithms that increased assembly throughput by 35%, decreasing component placement time from an average of 12 seconds to under 8 seconds per device, significantly boosting manufacturing efficiency.
Developed a scalable design framework for SMD placement on PCBs, enhancing precision in component alignment from ±0.05mm to ±0.01mm, which contributed to a 20% reduction in defect rates during initial testing phases.