Deep Learning and Computer Vision with Python

Program Description

While this outline serves as a foundational framework with use cases from multiple industries and functions, the final program is fully customized to your industry and internal workflows.

Participants work on real-world problems, not generic examples. We engage in a pre-workshop alignment to inject your specific organizational datasets, pain points, and proprietary use cases directly into the curriculum.

Learning Objectives

Program Details

Content

Day 1: Neural Foundations & Image Classification

  • Shifting from “Hand-crafted Features” to “Automated Feature Learning.” Understanding Tensors, the role of GPUs/TPUs, and the architecture of a Multi-Layer Perceptron (MLP).
  • Scenario (General): An executive team evaluates the ROI of upgrading a legacy OCR system to a Deep Learning-based document processing engine.
  • Hands-on: “The First Neuron” – Building a simple neural network in Keras/TensorFlow to classify handwritten digits or simple industrial symbols.
  • Expected Impact: Technical clarity on the “Black Box” of neural networks and the hardware requirements for training at scale.
  • Deconstructing the Convolutional Layer: Filters, Pooling, and Stride. Understanding how AI “sees” hierarchy – from edges and textures to complex objects.
  • Demo (Manufacturing): A visual inspection system that identifies hairline fractures in semiconductor wafers with 99.8% precision.
  • Hands-on: Implementing a CNN for “Product Categorization” – Training a model to distinguish between different SKU types for an automated warehouse.
  • Expected Impact: Capability to lead development teams in building high-accuracy image classifiers.
  • Why you shouldn’t train from scratch. Leveraging pre-trained models (ResNet, VGG, Inception) and fine-tuning them for specific Malaysian industry niches.
  • Scenario (Retail/E-commerce): Adapting a global clothing recognition model to identify traditional Malaysian attire (Baju Kurung, Cheongsam) for an AI fashion assistant.
  • Hands-on: “The Efficiency Sprint” – Fine-tuning a pre-trained ResNet model on a custom corporate dataset to achieve high accuracy with minimal training time.
  • Expected Impact: Drastic reduction in compute costs and “Time-to-Market” for custom vision solutions.
  • Implementing “Privacy-by-Design” in Vision. Technical methods for automated face blurring, license plate masking, and the risks of biometric data leakage.
  • Scenario (Banking/Security): Designing an e-KYC facial recognition system that stores “Face Embeddings” rather than raw images to comply with Malaysian PDPA.
  • Hands-on: Coding an automated “PII Redactor” – A script that detects and blurs human faces in surveillance footage before cloud storage.
  • Expected Impact: Structural protection against legal liabilities and 100% compliance with national privacy standards.

Day 2: Object Detection, GenAI Vision & Deployment

  • Moving from “What is in the image?” to “Where is it?” Understanding the mechanics of Bounding Boxes, Anchors, and Non-Maximum Suppression (NMS).
  • Demo (Operations/Logistics): A real-time traffic and forklift monitoring system in a Port Klang warehouse to prevent collisions and optimize traffic flow.
  • Hands-on: Deploying a YOLO (You Only Look Once) model to detect safety gear (helmets, vests) in a live camera feed.
  • Expected Impact: Ability to deploy high-speed, autonomous monitoring systems for safety and operational efficiency.
  • Introduction to GANs and Diffusion Models. Using GenAI to create “Synthetic Training Data” for rare scenarios (e.g., factory fires or rare product defects).
  • Scenario (Marketing/Sales): Using Stable Diffusion to generate personalized lifestyle backgrounds for product photos based on regional Malaysian aesthetics.
  • Hands-on: “The Data Multiplier” – Using a GAN to generate synthetic images of “Damaged Packages” to improve the robustness of a logistics inspection model.
  • Expected Impact: Solving the “Small Data” problem; the ability to train vision models even with limited real-world samples.
  • Pixel-level precision. Understanding U-Net and Mask R-CNN for medical imaging, satellite analysis, and precision agriculture.
  • Scenario (Agri-Tech): Analyzing drone imagery over Malaysian palm oil plantations to segment healthy trees from diseased ones with pixel-level accuracy.
  • Hands-on: Building a segmentation mask for an industrial part, allowing for precise measurement and automated quality grading.
  • Expected Impact: Higher granularity in visual data extraction, moving from general detection to precise measurement.
  • Deploying to the Edge vs. Cloud. Managing “Model Drift” when lighting or camera angles change. Introduction to NVIDIA DeepStream or TensorRT for optimization.
  • The Framework: Prioritizing Vision projects based on Inference Latency, Hardware Cost, and Operational ROI.
  • Hands-on: Co-creating a “Visual AI Playbook” – defining standards for camera placement, lighting, and periodic model recalibration.
  • Expected Impact: A clear, sustainable roadmap for transforming the organization into a visually-intelligent enterprise.
Data Analytics Training for IT Professionals

List of Deliverables

Prerequisites

Who Should Attend

Training Methodology

100% HRDC-Claimable

This program is fully registered and compliant with HRDC (Human Resource Development Corporation) requirements under the SBL-Khas scheme, allowing Malaysian employers to offset the training costs against their levy.

Certification of Completion

Participants who successfully complete the program will be awarded a “Professional Certificate in Deep Learning & Computer Vision Engineering.

Post-Workshop Consulting (Optional)

For organizations looking to bridge the gap between training and execution, we offer optional, paid consulting services. These engagements provide expertise and technical support for specific pilot development or full-scale operational integration of the data- and AI-driven use cases established during the program.

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