llava

Merge a vision encoder with a language model for image-based conversation.

1|Updated Mar 22, 2026
One-click install
npx skills add https://github.com/nelohenriq/hermes-agent-plus --skill llava-nelohenriq
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: llava
Source: https://github.com/nelohenriq/hermes-agent-plus/tree/main/skills/mlops/models/llava
Command: npx skills add https://github.com/nelohenriq/hermes-agent-plus --skill llava-nelohenriq

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

Vision-language models require heavy setup to enable image-based conversation. This skill provides an out-of-the-box multimodal capability by combining a vision encoder with a large language model for interactive image understanding.

Core Features & Use Cases

  • Multi-turn image chats with VQA and visual reasoning.
  • Image-based instruction following and document understanding.
  • Easy experimentation with different vision encoders and LLMs.

Quick Start

Describe the content of an image and engage in a multi-turn conversation to clarify details.

Frequently Asked Questions about llava

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How does vision-language chat work for image understanding?

Vision-language chat works by merging a vision encoder with a large language model to enable image-based conversation. This allows the system to process visual content and generate text responses for multi-turn image reasoning and visual question answering tasks.

Do I need CLIP-ViT and Vicuna weights to run multimodal inference?

Yes, you need compatible weights to run multimodal inference. The skill requires a CLIP-ViT vision encoder and a Vicuna or LLaMA language model, along with dependencies like transformers and torch, to successfully execute image-based conversation.

Can I use this for multi-turn visual question answering on documents?

Yes, you can use this for multi-turn visual question answering on documents. The merged vision encoder and language model support image-based instruction following and document understanding, allowing interactive clarification of details within the image.

What is the best way to experiment with different vision encoders and LLMs?

The best way to experiment with different vision encoders and LLMs is using this skill's out-of-the-box multimodal capability. It provides an easy setup to combine various encoders with language models for interactive image understanding without heavy manual configuration.

What are the limitations of running image-based instruction following without heavy setup?

Running image-based instruction following requires compatible weights and specific dependencies including transformers and torch. Without these prerequisite components properly configured, the vision encoder and language model integration cannot execute inference for visual reasoning tasks.