Attentive.ai builds AI models for computer vision by focusing on domain-specific data collection, iterative model training, and practical deployment optimizations. Their approach starts with gathering large, high-quality datasets tailored to industries like construction or landscaping, where their solutions are applied. For example, they collect images from job sites using drones or onsite cameras, ensuring diverse scenarios (e.g., varying lighting, equipment types, and terrain). This data is then preprocessed to remove noise, normalize formats, and augment variations—like rotating images or simulating weather conditions—to improve model robustness. Annotation tools and human reviewers label objects (e.g., excavators, materials) to create ground truth data, with strict quality checks to minimize errors.
The next step involves selecting and training models using frameworks like PyTorch or TensorFlow. Attentive.ai often starts with pre-trained architectures such as ResNet or EfficientNet for feature extraction, then fine-tunes them on their domain-specific data. For tasks like detecting construction equipment in aerial imagery, they might modify a YOLO (You Only Look Once) model by adjusting anchor box sizes to better match the scale of objects in their datasets. Training pipelines incorporate techniques like distributed training across GPUs and mixed-precision computation to speed up iterations. They also implement rigorous validation, using holdout datasets and metrics like mAP (mean Average Precision) to measure performance. If a model underperforms on specific edge cases—like recognizing partially obscured machinery—they revisit data augmentation strategies or collect additional targeted data.
Finally, Attentive.ai optimizes models for deployment in real-world environments. This includes quantizing models to reduce inference latency on edge devices (e.g., drones) and testing them under constrained computational resources. For instance, they might convert a TensorFlow model to TensorFlow Lite format for mobile deployment, while ensuring accuracy drops are minimal. They also build monitoring systems to track model performance post-deployment, flagging scenarios where predictions drift due to unseen conditions (e.g., new equipment models). Feedback loops allow them to retrain models incrementally, incorporating user-reported errors or edge cases. By combining industry-tailored data, modular training pipelines, and deployment-focused optimizations, their models achieve reliability in practical applications without relying on overly complex architectures.