Knowledge Base Sections ▾
For Beginners
For Investors
- Where does GNK token value come from
- Gonka vs Competitors: Render, Akash, io.net
- The Libermans: from biophysics to decentralized AI
- GNK Tokenomics
- Risks and Prospects of Gonka: Objective Analysis
- Gonka vs Render Network: Detailed Comparison
- Gonka vs Akash: AI Inference vs Containers
- Gonka vs io.net: Inference vs GPU Marketplace
- Gonka vs Bittensor: A Detailed Comparison of Two Approaches to AI
- Gonka vs Flux: Two Approaches to Useful Mining
- Governance in Gonka: How a Decentralized Network is Managed
- How to buy GNK token: step-by-step guide
Technical
- Gonka Network Architecture: Sprint, Transfer Agents, DiLoCo
- Developers: How to Earn GNK
- Self-hosting: Step-by-step guide
- Choosing a GPU for Gonka: Hardware Recommendations
- Qwen3-235B: the model previously served by Gonka
- Kimi K2.6: The Second Model in the Gonka Network
- MiniMax M2.7: Gonka Network Model
Analytics
Tools
- Cursor + Gonka AI - cheap LLM for coding
- Claude Code + Gonka AI - LLM for the terminal
- OpenClaw + Gonka AI - affordable AI agents
- OpenCode + Gonka AI - free AI for code
- Continue.dev + Gonka AI - AI for VS Code/JetBrains
- Cline + Gonka AI - AI agent in VS Code
- Aider + Gonka AI - pair programming with AI
- LangChain + Gonka AI - AI applications for pennies
- n8n + Gonka AI - automation with cheap AI
- Open WebUI + Gonka AI - your own ChatGPT
- LibreChat + Gonka AI — open-source ChatGPT
- Hermes Agent + Gonka AI — Autonomous Agent for Pennies
- Kilo Code + Gonka AI — AI-Agent in VS Code
- Roo Code + Gonka AI — Autonomous AI Agent in VS Code
- LlamaIndex + Gonka AI — RAG applications for pennies
- PydanticAI + Gonka — typed AI agents for pennies
- Vercel AI SDK + Gonka AI — AI applications in TypeScript for pennies
- TanStack AI + Gonka — AI applications in TypeScript for pennies
- API quick start — curl, Python, TypeScript
- JoinGonka Gateway — a full overview
- Management Keys — SaaS on Gonka
- Cheapest AI API: Provider Comparison 2026
- Cursor Pro request limit reached — breakdown and cheaper alternative
- Claude Code is cheaper — bill breakdown and switching
- Cline is burning money — why the agent spends so much
- OpenClaw is expensive — why the agent burns through tokens and how to save
- OpenRouter: Cheap Alternative — Comparison with JoinGonka Gateway
- Best AI model for coding in 2026: comparison and prices
- Cheap alternative to GitHub Copilot without limits
- A cheap Windsurf alternative without credits or limits
- The cheapest API for AI agents in 2026
- ZCode: Cheap GLM inference instead of GLM Coding Plan
Technology
Kimi K2.6: The Second Model in the Gonka Network
For a long time, the Gonka network ran on a single model — Qwen3-235B from Alibaba Cloud. In May 2026, this changed: support for multiple models was launched via the DevShards mechanism, and the first addition was Kimi K2.6 from the Chinese company Moonshot AI. Later, MiniMax M2.7 was added, and Qwen3-235B was eventually retired from the network — today Gonka hosts two models: Kimi K2.6 and MiniMax M2.7. Let's analyze what this model is, how it differs from MiniMax M2.7, how Gonka technically implemented multi-modality, and how to try it via our API Gateway.
What is Kimi K2.6 from Moonshot AI
Kimi K2.6 is a Large Language Model (LLM) from the Kimi series, developed by the Beijing-based company Moonshot AI. Moonshot AI is one of China's leading AI laboratories, founded in 2023 by a team of researchers led by Yang Zhilin. The company has attracted funding from Alibaba, Tencent, and other major investors, and has been listed among the 'Chinese AI tigers' — companies that set the pace for AI development in Asia.
The Kimi series has been known since 2024. Early versions (K1, K1.5) immediately attracted attention with their exceptionally long context window — up to 200,000 tokens in a single request, which at the time of release was a record for publicly available models. A long context means the practical ability to analyze an entire book, a medium-sized codebase, or a collection of legal documents in one request. At the time of Kimi's release, this feature was a strong competitive advantage.
Version K2 appeared in 2025 and brought a fundamental architectural leap — the transition to MoE (Mixture of Experts). This same architecture underpins Qwen3-235B and DeepSeek-R1 — it has become the de facto standard for the largest models of 2025–2026. MoE allows for hundreds of billions of parameters 'in total', but only activates a subset (usually 5–10%) for each request, which radically reduces the computational cost of inference while maintaining comparable quality.
K2.6 is the latest iteration of the K2 series at the time of writing. Public statements from Moonshot AI indicate that this version has improved the model's capabilities in reasoning, code generation, and native tool calling. In the Gonka network, the model is identified as moonshotai/Kimi-K2.6 — this is the name you need to pass in the model field of your API request.
Comparison of Kimi K2.6 and MiniMax M2.7
Both models represent flagship developments from major Chinese AI labs and are both available through a unified OpenAI-compatible interface: the JoinGonka Gateway. However, they have different strengths and legacies, which makes choosing between them not a question of "which is better," but rather "which fits the task.">
| Feature | Kimi K2.6 | MiniMax M2.7 |
|---|---|---|
| Manufacturer | Moonshot AI (Beijing) | MiniMax (Shanghai) |
| Company Founded | 2023 | 2021 |
| Architecture | MoE | MoE + linear attention |
| Context Window | 200,000 tokens | 200,000 tokens |
| Strengths | Reasoning, long context, code generation | Long context, efficient (linear) attention |
| Price via JoinGonka | $0.003 per 1M tokens | $0.003 per 1M tokens |
| API Identifier | moonshotai/Kimi-K2.6 | MiniMaxAI/MiniMax-M2.7 |
| Status in Gonka network | Launched via DevShards (May 2026) | Launched via v0.2.13 upgrade (May 2026) |
In reasoning benchmarks (MATH-500, GSM8K, AIME), the Kimi K2 series has historically shown results in the top tier of open-weights models, competing with DeepSeek-R1 and o1-style models. In code generation tasks (HumanEval, MBPP), both models perform at similar levels. The strength of MiniMax M2.7 lies in its efficient (linear) attention for very long sequences, while Kimi is known for strong reasoning and long context in the Kimi series.
An important caveat regarding 2026 benchmarks: the gap between top models in public tests has narrowed to just a few percent, and this difference often falls within the margin of error of the benchmarks themselves. For practical work, it is not "who scores 2% higher on MMLU" that matters, but the nature of the tasks: what context you provide to the model, how complex the logical chains are, whether a long dialogue history is needed, and what languages are involved. Therefore, the table above does not rank the models—it helps to quickly understand which task profile each one is optimized for.
For a practical choice: if the task requires a long context (analyzing large documents, reading voluminous codebases, long dialogues with history retention) or complex reasoning tasks—it is worth starting with Kimi K2.6. If the priority is processing very long input sequences and streaming data, it is worth testing MiniMax M2.7 with its efficient attention. A good strategy in production is to have both models in your code: a quick change via the model parameter allows you to switch between them depending on the task without changing the application architecture.
DevShards: How Gonka Launched the Second Model
Until the spring of 2026, the entire Gonka network served exactly one model — Qwen3-235B. From an architectural perspective, this was a logical decision: distributed inference via DiLoCo requires all network participants to keep the same model in VRAM; otherwise, it is impossible to guarantee that any node can process any request. The full Qwen3-235B in FP8 format occupies about 640 GB of VRAM, which is a significant commitment for every MLNode.
To move toward a multi-model network, a mechanism was needed that would allow keeping several models simultaneously without requiring every host to run all of them. This mechanism became DevShards — separate network shards, each specializing in one model. Nodes within a single shard work on the same model, and the network router directs requests to the shard with the required model.
The idea did not come from thin air — it was formalized in Gonka Improvement Proposal #800 "Multi-Model PoC", which was put to a community vote in the spring of 2026. The proposal received support from network participants and validators and was implemented in April–May 2026. Kimi K2.6 became the first model launched on a separate DevShard, effectively serving as a test implementation of the new approach. If the experience proves successful, nothing stops us from launching a third, fourth, and so on — each on its own shard, with its own set of hosts, its own economics, and its own roadmap.
What this means for users and developers:
- One API — multiple models. Through the JoinGonka Gateway, there is no need to change the endpoint or keys: it is enough to specify a different
modelin the request body. The OpenAI-compatible format is fully preserved. - Same price. Currently, Kimi K2.6 in the network is billed at the same rate as MiniMax M2.7 — $0.003 per 1M tokens via Gateway. In the future, prices may vary by model, but uniform pricing at launch is a deliberate decision to simplify user migration.
- Stability depends on shard load. At an early stage, the new model's shard has fewer hosts, so if requests are concentrated, the model may temporarily return
429 too many concurrent requests. This is a normal phase for a new model — as interest grows, hosts will connect to its shard, and limits will increase. - Tool calling — under refinement. At the time of writing, Kimi K2.6 in the Gonka network has minor issues with automatic tool selection (
tool_choice: "auto"). The Gonka team is working on bringing the behavior in line with the OpenAI standard; for production-critical scenarios involving tool calling, please test the model's behavior with your requests in advance.
How to Try Kimi K2.6 via Gonka
The most direct way is via the JoinGonka API Gateway. The Gateway provides an OpenAI-compatible API, which means that the same code that works with GPT, Claude, or other models will begin working with Kimi after changing the value of the model field in the request body.
A minimal example using curl:
curl https://gate.joingonka.ai/v1/chat/completions \
-H "Authorization: Bearer YOUR_API_KEY" \
-H "Content-Type: application/json" \
-d '{
"model": "moonshotai/Kimi-K2.6",
"messages": [
{"role": "user", "content": "Explain the difference between MoE and dense models"}
]
}'The same request using Python via the openai library:
from openai import OpenAI
client = OpenAI(
api_key="YOUR_API_KEY",
base_url="https://gate.joingonka.ai/v1",
)
response = client.chat.completions.create(
model="moonshotai/Kimi-K2.6",
messages=[{"role": "user", "content": "Hello, Kimi"}],
)
print(response.choices[0].message.content)Streaming (Server-Sent Events) is useful for interactive interfaces and chats where you want to show the response as it is generated:
stream = client.chat.completions.create(
model="moonshotai/Kimi-K2.6",
messages=[{"role": "user", "content": "Write an essay about MoE"}],
stream=True,
)
for chunk in stream:
delta = chunk.choices[0].delta.content
if delta:
print(delta, end="", flush=True)The cost for Kimi K2.6 is the same $0.003 per 1 million tokens, a flat rate for the network. This is ~1,700x cheaper than GPT-5.5 and ~1,000x cheaper than Claude Sonnet 4.6. Upon registering for the JoinGonka Gateway, you receive 10 million free tokens to test any models on the network—enough for several hours of intensive work or tens of thousands of regular requests.
Developer tool compatibility: everything that works with the OpenAI API works with Kimi via the Gateway. At the model level, you only need to change the model parameter:
- Cursor: in the Custom Model settings, specify
moonshotai/Kimi-K2.6 - Claude Code: use the
ANTHROPIC_MODELenvironment variable or the--modelflag - OpenClaw, Cline, Continue.dev: change the model name in the CustomChatModel config
- LangChain, n8n: use the
modelparameter in the client initialization - Open WebUI, LibreChat: the model appears in the dropdown list after adding Gonka as a custom provider
The list of available models is always up-to-date at the GET /v1/models endpoint of your Gateway instance—it is convenient to pull it dynamically into your application's UI so users can see the full list and choose the model themselves.
The demo chat on the /try page currently uses one of the active models of the network—a multi-model selector in the widget is on the roadmap. To try Kimi right now, use the Gateway API: the free 10M tokens are enough for several hours of experimentation. If you receive a 429 too many concurrent requests response, this is a normal phase for a fresh model in the early stages of Gonka network growth. Simply repeat the request after a few seconds or wait for a window with less traffic.
What's next for the Gonka network: the success of DevShards for Kimi paves the way for other models. Community discussions mention DeepSeek-V3/R1, Llama 4, and specialized coding models. Each new model means a new shard, new hosts, new opportunities for users, and a new revenue source for GPU providers. A multi-model architecture is also strategically important: a network tied to a single model is fundamentally fragile (if a new version comes out, it leads to a migration crisis), whereas a network capable of running several models simultaneously evolves smoothly and continuously.
The same Kimi K2.6 via OpenRouter is $0.684/$3.42 per 1M, versus $0.003 at JoinGonka (hundreds of times more expensive).
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