GPT-4.1 is OpenAI's multimodal conversational model for developer applications, with key improvements in code modification, complex instruction following, and long-context understanding. It is suitable for locating issues across multiple files, generating patches in specified formats, and extracting and linking information from large volumes of material. Through this platform, it can be used for multimodal analysis, structured output, and multi-turn business conversations.
Point the Base URL to api.acedata.cloud, configure your platform API key and the model ID below, and use your compatible SDK or client.
api.acedata.cloudgpt-4.1import os
from openai import OpenAI
client = OpenAI(
api_key=os.environ["ACEDATACLOUD_API_KEY"],
base_url="https://api.acedata.cloud/v1",
)
response = client.responses.create(
model="gpt-4.1",
input="Hello!",
)
print(response.output_text)Choose an available protocol for this model. OpenAI SDK uses a Base URL ending in /v1; Anthropic SDK uses the root URL. See each guide for protocol-specific parameters, tools and response formats.
Clarify capacity, input and output, and invocation methods before selecting a model.
Context and maximum output are publicly available native specifications; actual request limits and interaction methods are determined by the selected endpoint and its operational constraints.
Learn what gpt-4.1 can bring to your work.
GPT-4.1's programming strengths go beyond generating code: they also include modifying files in diff format, following tool-use requirements, and reducing changes unrelated to the task. After providing an issue description, relevant code, and acceptance criteria, you can ask it to produce targeted patches and explain the changes, making it easier to integrate into existing review workflows.
It is suitable for tasks that simultaneously include formats, steps, prohibitions, and required content, and it can also continue answering based on requirements from previous conversations. Prompts should clearly specify priorities, field meanings, and how to handle missing information, so it can complete extraction, classification, or responses according to specific rules rather than guessing business intent on its own.
Its long-context capability is well suited to analyzing related code, business rules, and documents within the same task, finding scattered details and explaining their relationships. Image understanding can be used for questions about charts, diagrams, and interface screenshots, delivering analytical conclusions combined with textual requirements rather than merely generating generic image descriptions.
Start with specific tasks to find where the model can be effective.
Provide error messages, relevant source files, interface constraints, and existing tests, and let GPT-4.1 identify possible causes, generate patches, and list regression checkpoints. For review tasks, you can require it to output issues, impacts, and recommendations by severity, ultimately delivering a reviewable change plan before tests are run in the engineering environment.
Organize contracts, supplemental agreements, or policy materials into text with titles and paragraph numbers, and ask the model to extract obligations, terms, and exceptions, then compare the relationships among different materials. Deliver a terms comparison table and items requiring confirmation; retain original-text location information so reviewers can trace and verify conclusions item by item.
Submit screenshots of reports or product interfaces along with metric definitions, business context, and specific questions, and let the model explain chart changes or organize interface issues. You can require it to output a summary, supporting observations, and follow-up checks; when text is too small or charts are dense, first provide clear close-up images before conducting a comprehensive analysis.
Choose based on task complexity, input materials, and expected results.
Compared with GPT-4o, GPT-4.1 has clear improvements in code diffs, following complex instructions, and using long context. Consider it first when you need to modify large files, connect multiple materials, or strictly control response content. When migrating existing GPT-4o applications, use the same batch of real tasks to compare patch quality and rule adherence, rather than only judging whether responses are fluent.
GPT-4.1, mini, and nano are different models, and should not be considered equally effective simply because they belong to the same series. For multi-file code changes and complex material analysis, evaluate the main model first; for lighter extraction and conversation tasks, compare mini; for low-latency tasks such as classification and autocomplete, consider nano, then weigh actual quality and invocation cost.
Based on the characteristics of gpt-4.1, first validate a small task whose results can be checked.
You can ask directly: Fix this defect according to the existing code style, changing only files related to the reproduction path. Output the reason for the changes, the code diff, and boundary test suggestions, while preserving external interfaces.
Include adjacent modules and project conventions; check the patch scope, compilation results, and whether all constraints are followed.
Use the full model ID gpt-4.1, first confirm the public request format and available parameters on the API page, then connect your application. Preserve result parsing, exception handling, and relevant evidence, and use the same set of real samples to evaluate whether it is suitable for continued use.
Before formal use, understand the output quality and capability scope.
Answers to common questions when using gpt-4.1.
It can perform image and text understanding. When using Chat Completions, combine text and image_url content blocks in the same message, and specify the charts, areas, or issues to inspect. Results are returned as text analysis; if you need to generate or edit images, choose a dedicated image model.
No. Context capacity and the per-response output limit are different metrics: GPT-4.1 has a native context window of up to 1 million tokens, with a maximum output of 32,768 tokens. Long-form deliverables can be generated by chapter, with space reserved for input materials, conversation history, and responses.
Applications that already use message arrays can use Chat Completions, submitting model and messages and reading the response from choices. Responses uses model and input, and handles output according to response events. The data structures of the two interfaces differ, so request bodies or parsing logic should not be mixed directly.
When using Chat Completions, put relevant history into messages; when using Responses, organize input and related conversation content according to the documentation. Provide the latest materials, revision goals, and key constraints each turn; for longer tasks, retain interim summaries and a final version that can be checked independently.
Chat Completions provides json_object and json_schema format settings. It is recommended to clearly specify field meanings, required fields, and rules for missing values, and perform structural and business validation on the receiving end. Valid JSON only means the format can be parsed; it does not mean amounts, classifications, or cited content are necessarily correct.
Choose a development approach or application suited to this model and follow its setup guide.
↗OpenAI Chat Completions API
SDK installation, authentication and examples↗OpenAI Responses API
SDK installation, authentication and examples
↗Using Ace Data Cloud with Cherry Studio
Chat client setup · Base URL, API key and model
↗Using Ace Data Cloud with ChatBox
Chat client setup · Base URL, API key and modelInput
$0.40per 1M tokens
Official $2.00
Output
$1.60per 1M tokens
Official $8.00
You pay$13,584for 142,800 credits · $0.0951 / credits46% OFF
You're billed in credits. Pick a top-up tier to see its per-credit rate — the larger the top-up, the cheaper each credit.
This is only a basic call example. See the full docs for more parameters and advanced usage.
View Docs