5 Repos
Architectures optimized for identifying small-scale objects using enhanced feature extraction and center-prior strategies.
Distinct from Object Detection: Distinct from Object Detection: focuses specifically on architectural strategies for small-scale object detection.
Explore 5 awesome GitHub repositories matching artificial intelligence & ml · Small Object Detectors. Refine with filters or upvote what's useful.
PaddleDetection is an object detection framework designed for the end-to-end development, training, and deployment of computer vision models. It provides a comprehensive library of modular neural network architectures and pipelines that support object detection, instance segmentation, and multi-object tracking tasks. The project distinguishes itself through a configuration-driven approach that decouples model components like backbones and heads, allowing for the flexible assembly of custom vision workflows. It incorporates advanced techniques such as anchor-free detection logic, joint detecti
Utilizes specialized architectures to improve detection accuracy for small-scale objects.
MMSegmentation is an open-source semantic segmentation toolbox built on PyTorch that provides a modular, configurable framework for building, training, evaluating, and deploying segmentation models. At its core, it offers a config-driven pipeline that assembles training, evaluation, and inference workflows by parsing hierarchical configuration files, with a modular component registry that enables plug-and-play composition of neural network modules, optimizers, datasets, and metrics. The framework supports the full model lifecycle through a unified runner interface that controls training, testi
Labels image regions using arbitrary text descriptions instead of a fixed set of predefined categories.
GroundingDINO is a deep learning vision model and open-vocabulary object detector designed to map natural language prompts to spatial coordinates. It functions as a text-to-bounding-box framework that enables zero-shot image localization, allowing the system to identify and locate arbitrary objects without requiring predefined classes or specific training for those categories. The project distinguishes itself by matching visual features to natural language descriptions to achieve open-set visual recognition. It supports text-guided image localization and the isolation of specific objects base
Functions as an open-vocabulary object detector that locates arbitrary items via natural language matching.
PaddleX is a PaddlePaddle-based framework for building, deploying, and fine-tuning AI model pipelines, with pre-built support for computer vision, OCR, document analysis, and time series tasks. It offers a toolkit of ready-to-use pipelines for image classification, object detection, segmentation, and pose estimation, alongside an end-to-end OCR document analysis pipeline that extracts text, tables, formulas, and layout information. The platform also includes a dedicated time series forecasting pipeline for analyzing historical data to detect anomalies, classify patterns, and predict future val
Identifies and classifies small-sized objects in complex scenes for surveillance or autonomous driving.
VLM-R1 ist ein Reasoning-Vision-Language-Modell und ein Framework für verkörperte KI (Embodied AI), das darauf ausgelegt ist, visuelle Eingaben und Sprachanweisungen in physische Navigations-Wegpunkte und Roboteraktionen umzusetzen. Es fungiert als multimodaler Policy-Optimierer und Open-Vocabulary-Detektor, der Objekte basierend auf beliebigen natürlichsprachlichen Beschreibungen lokalisieren kann. Das System zeichnet sich durch den Einsatz von Chain-of-Thought-Reasoning und Reinforcement Learning zur Lösung komplexer visueller und räumlicher Aufgaben aus. Es nutzt ein Video-Semantik-Gedächtnissystem, das einen visuellen Cache verwendet, um eine Historie des Live-Videos für latenzarme Interaktion und kontinuierliches zeitliches Schlussfolgern aufrechtzuerhalten. Das Framework deckt ein breites Spektrum an Funktionen ab, darunter monokulare Wegpunkt-Kartierung für die Roboternavigation, Region-Token-Lokalisierung für die Objektidentifikation und Policy-basiertes Supervised Fine-Tuning für die Stabilität multimodaler Schlussfolgerungen. Es unterstützt zudem Open-Vocabulary-Detektion, Referring-Expression-Comprehension und die Extraktion feingranularer Objektmerkmale durch visuelle Prompt-Retrieval. Das Projekt ist in Python implementiert und unterstützt die Inferenz auf Ascend-Hardware.
Locates objects in images based on arbitrary natural language descriptions without predefined category labels.