Duration: 8 hours
Alpinum’s AI/ML Systems Engineering Training helps engineers move beyond basic model development and understand how AI/ML systems are built, optimised and integrated into practical engineering workflows. The course is designed for software engineers, systems engineers, AI/ML engineers and technical teams working with real-time data, inference pipelines and hardware acceleration.
This training combines Python-based machine learning workflows with performance-focused implementation using C++, Rust and GPU acceleration concepts.
Who Should Attend?
This course is suitable for:
- Engineers developing AI/ML-enabled systems
- Software teams moving into machine learning engineering
- Systems engineers integrating AI inference into production workflows
- Technical teams working with computer vision, telemetry or real-time analytics
What the Course Covers
Participants learn how AI/ML workflows are built, accelerated and integrated into real engineering systems.
Key topics include:
- NumPy and Pandas
- Scikit-Learn workflows
- PyTorch or TensorFlow
- OpenCV for computer vision
- CUDA and TensorRT concepts
- C++/Rust acceleration
- AI infrastructure and inference coordination
Practical Labs
The course includes labs on Python data science and deep learning, as well as high-performance AI acceleration. Participants work with data preparation, model training, computer vision processing, GPU-accelerated inference and infrastructure concepts.
Lab 1: Python Data Science and Deep Learning
Learning Objectives: Master data manipulation, preprocessing, and model development using industry-standard Python ecosystems.
Tasks:
- Utilize NumPy and Pandas to clean and engineer feature sets from raw datasets.
- Implement machine learning workflows using Scikit-Learn (e.g., classification, regression).
- Develop and train neural network models using PyTorch or TensorFlow frameworks.
Extension Tasks:
- Optimize model performance using hyperparameter tuning and cross-validation techniques.
- Containerize the training environment to ensure reproducibility.
Lab 2: High-Performance AI Acceleration (C++/Rust)
Learning Objectives: Optimize AI inference using hardware acceleration, computer vision libraries, and distributed infrastructure.
Tasks:
- Deploy computer vision algorithms using OpenCV for real-time image preprocessing.
- Implement GPU-accelerated inference pipelines using CUDA and TensorRT for optimized throughput.
- Develop robust AI infrastructure in Rust for telemetry monitoring and distributed inference coordination.
Extension Tasks:
- Benchmark inference latency between standard CPU execution and TensorRT-optimized GPU execution.
- Implement a distributed inference service to handle concurrent requests across multiple nodes.
Project:
The course can include a Real-Time Object Detection Pipeline project, combining video preprocessing, inference execution and real-time telemetry.
Learning Objectives: Integrate hardware-accelerated inference, data processing, and vision libraries into a coherent pipeline.
Description: Develop an end-to-end “Real-time Object Detection Pipeline” capable of processing high-resolution video streams for classification and localization.
Tasks:
- Preprocessing: Use OpenCV and NumPy to prepare video frames for model ingestion.
- Inference: Execute a detection model via TensorRT/CUDA for real-time performance.
- Analytics: Process detection outputs using Rust-based infrastructure for real-time telemetry and logging.
Coverage Matrix
| Topic | Lab 1 | Lab 2 | Project |
| Data Science (NumPy/Pandas) | ✓ | ✓ | |
| Deep Learning (PyTorch/TF) | ✓ | ✓ | |
| CV & GPU Accel (OpenCV/CUDA) | ✓ | ✓ | |
| AI Infra & Inference (Rust) | ✓ | ✓ |
Assessment
- Hands-on Exercises: Interactive labs provided for each technology stack.
- Quizzes: Knowledge checks integrated throughout the module to validate understanding of AI systems engineering concepts.
Learning Outcomes
By the end of the course, participants will understand AI/ML system components, data preparation, model training workflows, inference acceleration and practical deployment considerations.
AI/ML Systems Engineering Training FAQs
AI/ML Systems Engineering Training teaches engineers how to build, optimise and integrate AI/ML systems into practical engineering workflows. It covers Python data science, deep learning, OpenCV, CUDA, TensorRT, C++/Rust acceleration and inference pipelines.
This course is suitable for software engineers, systems engineers, AI/ML engineers and technical teams working with data science, computer vision, real-time inference or hardware-accelerated AI systems.
Yes. The course includes machine learning and deep learning workflows using tools such as Scikit-Learn, PyTorch or TensorFlow.
Yes. The course introduces high-performance AI acceleration concepts including OpenCV, CUDA, TensorRT and C++/Rust-based infrastructure for real-time inference systems.
