MiniMax M3 vs. DeepSeek V4 Pro: compare pricing, 1M-token context, API compatibility, caching, coding performance, and production routing for AI workloads.
MiniMax M3 and DeepSeek V4 Pro are both designed for large-scale coding, reasoning, tool use, and AI-agent workloads. They are similar in ambition, but their pricing models and API behavior are different.
The most important difference is cost structure:
The right choice depends on your input size, output length, cache behavior, traffic schedule, concurrency requirements, tool-calling workflow, and total cost per completed task.

Choose MiniMax M3 when you need:
Choose DeepSeek V4 Pro when you need:
Neither model is universally better. The practical winner is the model that completes your real tasks with the lowest cost per successful result.
MiniMax separates its API pricing into standard and priority service tiers. The current standard pricing page lists the following effective MiniMax M3 rates:
| MiniMax M3 request type | Input price | Output price | Prompt-cache read |
|---|---|---|---|
| Input up to 512K tokens | $0.30 / 1M tokens | $1.20 / 1M tokens | $0.06 / 1M tokens |
| Input above 512K tokens | $0.60 / 1M tokens | $2.40 / 1M tokens | $0.12 / 1M tokens |
The MiniMax pricing page displays the original $0.60/$2.40 and $1.20/$4.80 rates with a current permanent 50% reduction for the listed standard tier.
MiniMax also states that priority service is priced at 1.5 times the standard price. Priority service is intended for requests that need priority admission and faster processing.
The billing unit is the number of tokens consumed. MiniMax notes that the token-to-character ratio varies by usage scenario.
Read the official MiniMax pay-as-you-go pricing documentation for the active account terms.
For a request containing 100,000 input tokens and generating 20,000 output tokens within the 512K threshold:
For a request containing 600,000 input tokens and generating 20,000 output tokens:
The second request costs more because it crosses the 512K input threshold. The higher rate applies to the long-context pricing tier.
DeepSeek’s official pricing page lists the model identifier deepseek-v4-pro and version DeepSeek-V4-Pro-0813.
DeepSeek charges per 1 million tokens and separates rates into peak and off-peak periods:
| DeepSeek V4 Pro usage | Off-peak price | Peak price |
|---|---|---|
| Input tokens, cache hit | $0.022 / 1M tokens | $0.044 / 1M tokens |
| Input tokens, cache miss | $0.66 / 1M tokens | $1.32 / 1M tokens |
| Output tokens | $1.98 / 1M tokens | $3.96 / 1M tokens |
DeepSeek defines peak hours as:
All other listed hours are off-peak.
DeepSeek states that the charge is calculated as:
Number of tokens × applicable price
Fees are deducted from the account balance according to the provider’s billing rules.
See the official DeepSeek V4 Pro pricing documentation.
For 100,000 cache-miss input tokens and 20,000 output tokens during off-peak hours:
For the same request during peak hours:
DeepSeek’s cache-hit rate is dramatically lower than its cache-miss rate. Workloads with stable repeated prefixes can therefore have very different costs from workloads that send mostly new context.
For requests under 512K input tokens, MiniMax M3’s current standard rate is:
DeepSeek V4 Pro’s off-peak cache-miss rate is:
Under these conditions, MiniMax M3 has a lower listed input and output rate.
However, DeepSeek V4 Pro can become substantially cheaper for repeated cached prompts:
The comparison changes again during DeepSeek peak hours. A team that sends large batches during peak periods may pay twice as much as it would during off-peak periods.
Assume every task uses:
MiniMax M3, within the 512K tier:
DeepSeek V4 Pro, off-peak:
DeepSeek V4 Pro, peak:
These figures cover model token usage only. They exclude retries, tool calls, storage, network transfer, and gateway fees.

Both models target very large-context workloads.
| Capability | MiniMax M3 | DeepSeek V4 Pro |
|---|---|---|
| Context window | Up to 1,000,000 tokens | 1,000,000 tokens |
| Maximum output | Confirm in the active MiniMax endpoint | Up to 384K tokens |
| Coding and agent tasks | Officially supported | Officially supported |
| Tool calls | Supported | Supported |
| Thinking mode | Supported through the MiniMax API format | Thinking mode supported |
| JSON output | Check the selected MiniMax endpoint | Supported |
| Anthropic API format | Supported by MiniMax M3 | Supported by DeepSeek V4 Pro |
| OpenAI API format | Supported through the standard MiniMax interface | Supported |
A large context window is useful for:
Large context also increases the risk of unnecessary cost. Repeated logs, irrelevant files, and stale tool results can consume tokens without improving the answer.
MiniMax’s official Anthropic-compatible API documentation lists MiniMax M3 with a 1,000,000-token context window.
For the Anthropic-compatible interface, MiniMax M3 supports:

For multi-turn tool conversations, MiniMax states that the complete assistant response, including thinking, text, and tool-use blocks, should be appended to the conversation history.
Read the MiniMax Anthropic API documentation for the supported request fields.
DeepSeek’s official pricing page lists DeepSeek V4 Pro with:

This gives developers flexibility when migrating an existing OpenAI-compatible or Anthropic-compatible application.
Use the exact model identifier accepted by the API account rather than assuming that the marketing name and API name are identical.
For coding agents, token price is only one part of the decision. The model must also complete tasks reliably.
Evaluate both MiniMax M3 and DeepSeek V4 Pro on:
A useful coding-agent task may include:
The most important production metric is:
Cost per accepted patch = total model and platform cost ÷ accepted patches
A model with cheaper tokens may become more expensive if it requires repeated repairs.
Caching can materially change the MiniMax M3 vs. DeepSeek V4 Pro cost comparison.
MiniMax lists the following M3 prompt-cache read prices:
These prices apply to cached input reads under the listed standard tier.
DeepSeek V4 Pro cache-hit input pricing is:
DeepSeek’s cache-hit rate is much lower than its cache-miss rate. Applications with stable system instructions, tool schemas, or repository prefixes may benefit significantly from cache reuse.
For cached input alone, DeepSeek V4 Pro’s listed cache-hit rate is lower than MiniMax M3’s cache-read rate.
However, total cost still depends on:
A model that appears cheaper for cached input may still cost more if it produces longer outputs or needs more repair cycles.
DeepSeek V4 Pro has explicit peak and off-peak rates. This creates a scheduling opportunity for batch workloads.
Suitable off-peak jobs include:
Interactive workloads cannot always wait for off-peak hours. For real-time applications, include peak pricing in the budget.
MiniMax’s published standard M3 table does not use the same peak/off-peak schedule. Instead, it separates standard and priority admission tiers.
This means the two pricing systems optimize for different operational choices:
DeepSeek’s official pricing page lists a concurrency limit of 500 for DeepSeek V4 Pro.
The same table lists a context length of 1M and a maximum output of 384K.
MiniMax’s exact rate limits depend on the account, endpoint, and service tier. The Anthropic-compatible interface supports a defined set of models and parameters, but production concurrency should be confirmed in the active MiniMax account documentation.
Throughput depends on:
A high concurrency limit does not guarantee low latency. Track time to first token, total completion time, queue delay, and error rate.
MiniMax M3 and DeepSeek V4 Pro can both be used in Anthropic-compatible workflows, but implementation details still differ.
MiniMax provides:
ANTHROPIC_BASE_URL=https://api.minimax.io/anthropic
The Anthropic-compatible MiniMax interface supports M3 and exposes model-specific fields such as thinking, tools, tool choice, streaming, and multimodal content.
DeepSeek provides:
ANTHROPIC_BASE_URL=https://api.minimax.io/anthropic
DeepSeek’s documentation lists Anthropic API compatibility as a supported feature for DeepSeek V4 Pro.
Even when two providers use the same SDK style, they may differ in:
Keep the application’s internal request format separate from the final provider payload.
A realistic cost model includes more than input and output rates.
Use:
Total task cost = input + output + cached input + retries + tool calls + storage + transfer + review
For an AI coding agent, also track:
Assume each task uses:
MiniMax M3 within the 512K tier:
DeepSeek V4 Pro off-peak:
DeepSeek V4 Pro peak:
If MiniMax M3 requires twice as many retries to produce an accepted patch, its practical cost advantage may disappear. This is why token prices should always be paired with success rate and repair cost.
MiniMax M3 is a strong candidate when:
DeepSeek V4 Pro is a strong candidate when:
For agentic systems, compare:
MiniMax M3’s official documentation highlights coding, agentic reasoning, tool use, and long-context tasks. DeepSeek V4 Pro’s official model table lists thinking mode, tool calls, JSON output, and Responses API support.
Neither feature list proves that one model will perform better on your specific agent. The final choice depends on your tools, prompts, repository, evaluation set, and operating region.
Applications that need several providers can place a model gateway between business logic and vendor APIs.
A gateway such as OctopusX AI may be evaluated for:
The internal request can preserve common fields such as:
The gateway should still expose model-specific differences, including MiniMax’s 512K pricing threshold and DeepSeek’s peak/off-peak schedule. Review the OctopusX AI documentation and pricing page for currently supported integrations.

| Requirement | Better starting point | Reason |
|---|---|---|
| Lowest listed standard cost below 512K input | MiniMax M3 | $0.30 input and $1.20 output per million tokens |
| Lowest cached-input price | DeepSeek V4 Pro | $0.022 per million cache-hit tokens off-peak |
| 1M-token context | Both | Both official pages list 1M context support |
| Maximum output length | DeepSeek V4 Pro | Official page lists up to 384K output tokens |
| Native image and video input through Anthropic format | MiniMax M3 | MiniMax documents image and video content blocks for M3 |
| Explicit peak/off-peak scheduling | DeepSeek V4 Pro | Official pricing defines both schedules |
| Anthropic SDK integration | Both | Both provide Anthropic-compatible endpoints |
| OpenAI-compatible integration | DeepSeek V4 Pro and selected MiniMax interfaces | Verify the exact endpoint and request schema |
| Large-scale concurrency | DeepSeek V4 Pro | Official pricing table lists a concurrency limit of 500 |
| Cost-sensitive coding agents | Start with MiniMax M3 | Lower listed standard rates below the 512K threshold |
| Batch processing during off-peak hours | DeepSeek V4 Pro | Off-peak pricing can reduce input and output cost |
| Multi-provider routing | A documented gateway | Useful when switching models by task, cost, or availability |
Neither model is universally better. MiniMax M3 is the stronger choice for lower standard pricing on requests up to 512K input tokens, native image and video input through its Anthropic-compatible API, and automatic caching. DeepSeek V4 Pro is stronger when you need up to 384K output tokens, explicit peak and off-peak pricing, a documented concurrency limit of 500, and both OpenAI-compatible and Anthropic-compatible APIs.
For most cost-sensitive coding tasks below 512K input tokens, MiniMax M3 is the better starting point. For long-output generation, large-scale batch processing, or cache-heavy workloads, DeepSeek V4 Pro may be more suitable.
MiniMax M3 and DeepSeek V4 Pro both offer a 1M-token context window, tool calling, thinking capabilities, JSON output support, and Anthropic-compatible API access.
Their main differences are pricing and API behavior:
MiniMax M3: $0.30 per million input tokens and $1.20 per million output tokens for requests up to 512K input tokens.
DeepSeek V4 Pro: $0.66 per million cache-miss input tokens and $1.98 per million output tokens during off-peak hours.
DeepSeek V4 Pro cache-hit input costs $0.022 per million tokens during off-peak hours.
MiniMax M3 supports native text, image, and video content blocks through its Anthropic-compatible endpoint.
DeepSeek V4 Pro supports up to 384K output tokens and lists a concurrency limit of 500.
MiniMax is generally more attractive for standard sub-512K requests, while DeepSeek becomes more competitive for cache-heavy, off-peak, high-concurrency, or very long-output workloads.
MiniMax M3 may be better for applications that need a 1M-token context window, native multimodal input, lower standard token rates, automatic caching, and an Anthropic-compatible API.
Claude may be better for teams already using Anthropic’s native Messages API, tools, SDKs, and production workflows.
The choice also depends on the Claude model:
Haiku 4.5: $1 input / $5 output per million tokens
Sonnet 5: $2 input / $10 output per million tokens
Opus 5: $5 input / $25 output per million tokens
MiniMax M3 is usually the more cost-focused option for large coding and agent workloads, while Claude can be the better operational choice when Anthropic-native integration and model-specific behavior are more important.
MiniMax M3 is designed for coding, agentic reasoning, tool use, long-context tasks, and native multimodal workflows. The official MiniMax documentation lists a 1M-token context window and support for text, image, video, tool-use, tool-result, thinking, streaming, and system-prompt content through its Anthropic-compatible API.
Its current standard pricing is:
$0.30 per million input tokens for requests up to 512K input tokens
$1.20 per million output tokens for requests up to 512K input tokens
$0.60 per million input tokens above the 512K threshold
$2.40 per million output tokens above the 512K threshold
$0.06 or $0.12 per million cached input tokens, depending on context tier
MiniMax M3 is a strong fit for large repositories, coding agents, multimodal analysis, and applications that need to control token costs. Its real performance should be judged by task success rate, tool-call accuracy, retry frequency, latency, and cost per completed task, not by token price alone.