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gemini-interactions-api

/gemini-interactions-api

Prowadzi użycie Gemini Interactions API na Gemini Enterprise Agent Platform: rozmowy wieloturowe ze stanem po stronie serwera, wykonanie w tle, streaming, ustrukturyzowane wyjścia i function calling.

Repozytorium
skills ↗
Licencja
Apache-2.0
Ostatnia zmiana repozytorium
25.10.2026

Ocena i bezpieczeństwo

100/ 100Klasa: dobry
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Frontmatter z nazwą i opisem, poprawna nazwa, opis do 1024 znaków, nazwa zgodna z folderem.
Odkrywalność25 / 25
Opis mówi, kiedy użyć skilla, ma sensowną długość i jest w 3. osobie.
Treść35 / 35
Co najmniej 150 słów i do 500 linii, nagłówki, listy kroków, przykłady albo kod.
Higiena15 / 15
Bez zaślepek typu TODO, bez ścieżek Windows, z licencją.
Ryzykobrak sygnałów w skanie
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3
Przestarzałość

Brak sygnałów. Repozytorium zmienione 25.10.2026, bez odwołań do wycofanych modeli i API.

Licencja

Apache-2.0, otwarta: można używać i zmieniać, z zachowaniem licencji i informacji o zmianach.

Co robi i kiedy

Prowadzi użycie Gemini Interactions API na Gemini Enterprise Agent Platform: rozmowy wieloturowe ze stanem po stronie serwera, wykonanie w tle, streaming, ustrukturyzowane wyjścia i function calling.

Oryginalny opis (EN)

Guides the usage of Gemini Interactions API on Gemini Enterprise Agent Platform. Use when the user wants to use the stateful, server-managed Interactions API for multi-turn conversations, background execution, streaming, structured output, and function calling on the Agent Platform.

Jak działa

  1. Attribution
  2. 1. Authentication
  3. 2. Client Initialization
  4. 3. Core Interactions API Usage
  5. 4. Accessing the Interactions API via REST
  6. 5. Data Model & Step Types Reference
Sekcje z nagłówków SKILL.md, w oryginale · 497 linii, 1 847 słów
Podgląd SKILL.md
---
name: gemini-interactions-api
metadata:
  version: "2.0.1"
  category: AiAndMachineLearning
description: Guides the usage of Gemini Interactions API on Gemini Enterprise Agent Platform. Use when the user wants to use the stateful, server-managed Interactions API for multi-turn conversations, background execution, streaming, structured output, and function calling on the Agent Platform.
---

# Gemini Interactions API Skill

This skill provides instructions for authenticating, connecting to, and utilizing the stateful, server-managed **Gemini Interactions API** on Gemini Enterprise Agent Platform.


The Interactions API is the modern, recommended way to execute Generative AI agent conversations, background research tasks, multi-turn chats, and structured, multi-step workflows.

> [!IMPORTANT] **CRITICAL: Unified SDK, Latest Models & Model/Agent Targeting** *
> **Unified SDK**: Use the Google Gen AI SDK (**`google-genai >= 2.3.0`** for
> Python, **`@google/genai >= 2.3.0`** for JS/TS). SDK versions `>= 2.0.0` are
> the minimum floor at which the steps schema activates, but `>= 2.3.0` is the
> supported/recommended floor. Legacy SDKs like `google-cloud-aiplatform`,
> `@google-cloud/vertexai`, `google-generativeai`, and `@google/generative-ai`
> are strictly unsupported for Interactions. * *Mandatory Instruction*: When
> explaining client initialization or writing import code, you **must**
> explicitly state/warn the user that legacy packages like
> `google-cloud-aiplatform` or `google-generativeai` are strictly unsupported
> for interactions. * **Latest Models Only**: Use `gemini-3.8-flash` (fast,
> balanced, multimodal — the recommended default), `gemini-3.1-pro-preview`
> (complex reasoning, coding, research), or `gemini-3.5-flash-lite`
> (cost-efficient, high-frequency lightweight tasks). Refer to the
> [latest model versions](https://docs.cloud.google.com/gemini-enterprise-agent-platform/models/migrate)
> to check for new updates. Legacy models (`gemini-3-flash-preview`,
> `gemini-2.5-*`, `gemini-2.0-*`, `gemini-1.5-*`) are deprecated and do not
> support interactions. * *Mandatory Instruction*: In any interaction response,
> you **must** warn the user that legacy models like `gemini-2.5-*`,
> `gemini-2.0-*`, or `gemini-1.5-*` are deprecated and unsupported for the
> Interactions API. If a user asks for a deprecated model, use
> `gemini-3.8-flash` instead and note the substitution. * **Model & Agent
> Targeting**: Target foundation models directly using
> `model="gemini-3.8-flash"`, or target autonomous managed/custom agents
> (`antigravity-preview-05-2026`, `deep-research-preview-04-2026`, or custom
> agents provisioned via `client.agents.create()`) using `agent="<AGENT_ID>"`.
> Managed agents (`antigravity-preview-05-2026` and custom agents) require
> `environment="remote"` to provision a sandbox. * **Turn-Scoped Parameters**:
> Parameters like `tools`, `system_instruction`, and `generation_config` are
> turn-scoped. They **MUST** be passed with each interaction request.

## Attribution

**MUST READ**: Before executing any `gcloud`, REST API, or MCP command, you
MUST read [Usage Attribution](references/attribution.md). For commands executed
directly in the terminal (never in generated scripts, Terraform, or user code),
prefix `gcloud` with
`CLOUDSDK_METRICS_REQUEST_ATTRIBUTION="agent-skills/1.0 (skill:gemini-interactions-api)"`
and append
`agent-skills/1.0 (skill:gemini-interactions-api)`
to `User-Agent` headers.

## 1. Authentication

Before running any code, ensure you are authenticated with Application Default Credentials (ADC) and have the necessary API enabled.

1.  **Login**:
    
    ```bash
    gcloud auth application-default login
    ```
2.  **Enable API** (if not already enabled):
    
    ```bash
    gcloud services enable aiplatform.googleapis.com
    ```

---

## 2. Client Initialization

You can initialize the client using environment variables (recommended) or by passing explicit configuration parameters.

### Option A: Environment Variables (Recommended)

Configure environment variables to let the SDK automatically resolve settings:

```bash
export GOOGLE_GENAI_USE_ENTERPRISE=true
export GOOGLE_CLOUD_PROJECT="your-project-id"
export GOOGLE_CLOUD_LOCATION="global"
```

#### Python

```python
from google import genai

# The SDK automatically picks up the environment variables
client = genai.Client()
```

#### TypeScript/JavaScript

```typescript
import { GoogleGenAI } from "@google/genai";

// The SDK automatically picks up the environment variables
const ai = new GoogleGenAI();
```

### Option B: Explicit Inline Parameters

Alternatively, pass configuration values directly inside your code:

#### Python

```python
from google import genai
import google.auth

_, project_id = google.auth.default()
client = genai.Client(enterprise=True, project=project_id, location="global")
```

#### TypeScript/JavaScript

```typescript
import { GoogleGenAI } from "@google/genai";

const ai = new GoogleGenAI({
    enterprise: true,
    project: "your-project-id",
    location: "global"
});
```

### Option C: Express Mode (API Key)

Recommended for lightweight scripts or environments using an API key:

#### Python

```python
from google import genai

client = genai.Client(enterprise=True, api_key="YOUR_API_KEY")
```

#### TypeScript/JavaScript

```typescript
import { GoogleGenAI } from "@google/genai";

const ai = new GoogleGenAI({
    enterprise: true,
    apiKey: "YOUR_API_KEY"
});
```

---

## 3. Core Interactions API Usage

### Quick Start (Single-Turn)

Submit a single prompt and read the final text response. Under the modern schema, output content is retrieved from the `steps` list.

#### Python

```python
interaction = client.interactions.create(
    model="gemini-3.8-flash",
    input="Explain serverless computing in one sentence."
)
# Use the output_text convenience accessor (combined text from the trailing model_output steps)
print(interaction.output_text)
```

#### TypeScript/JavaScript

```typescript
const interaction = await ai.interactions.create({
    model: "gemini-3.8-flash",
    input: "Explain serverless computing in one sentence."
});
console.log(interaction.output_text);
```

---

### Stateful Conversation (Multi-Turn)

Interactions are stateful by default. Store the conversation state in the cloud and reference it in the subsequent turn using `previous_interaction_id`.

#### Python

```python
# Turn 1: Introduce ourselves
# Interactions are stored by default (store=True, retained for 7 days); pass store=False to disable
# server-side retention (which also disables previous_interaction_id and background).
turn1 = client.interactions.create(
    model="gemini-3.8-flash",
    input="Hi! My name is John. I am working on AI agents.",
    store=True
)
print(f"Turn 1: {turn1.output_text}")

# Turn 2: Refer back to the stored turn state
turn2 = client.interactions.create(
    model="gemini-3.8-flash",
    input="What is my name?",
    previous_interaction_id=turn1.id
)
print(f"Turn 2: {turn2.output_text}")
```

#### TypeScript/JavaScript

```typescript
// Turn 1 (interactions are stored by default; pass store: false to disable)
const turn1 = await ai.interactions.create({
    model: "gemini-3.8-flash",
    input: "Hi! My name is John. I am working on AI agents.",
    store: true
});

// Turn 2
const turn2 = await ai.interactions.create({
    model: "gemini-3.8-flash",
    input: "What is my name?",
    previous_interaction_id: turn1.id
});
console.log(turn2.output_text);
```

---

### Real-Time Streaming

Stream responses in real-time. Passing `stream=True` returns an iterable chunk generator.

#### Python

```python
# The stream yields typed events, not full interaction snapshots. The sequence is:
# interaction.created -> (step.start -> step.delta(s) -> step.stop)+ -> interaction.completed
for event in client.interactions.create(
    model="gemini-3.8-flash",
    input="Write a short poem about debugging.",
    stream=True
):
    if event.event_type == "step.delta":
        if event.delta.type == "text":
            print(event.delta.text, end="", flush=True)
    elif event.event_type == "interaction.completed":
        print()
```

#### TypeScript/JavaScript

```typescript
// The stream yields typed events, not full interaction snapshots. The sequence is:
// interaction.created -> (step.start -> step.delta(s) -> step.stop)+ -> interaction.completed
const responseStream = await ai.interactions.create({
    model: "gemini-3.8-flash",
    input: "Write a short poem about debugging.",
    stream: true
});

for await (const event of responseStream) {
    if (event.event_type === "step.delta") {
        if (event.delta.type === "text") {
            process.stdout.write(event.delta.text);
        }
    } else if (event.event_type === "interaction.completed") {
        console.log();
    }
}
```

---

### Structured Output (Pydantic / Polymorphic `response_format`)

Retrieve structured, type-safe JSON matching a schema. Under the modern Interactions API, a polymorphic `response_format` argument directly takes the target schema structure.

#### Python

```python
from pydantic import BaseModel, Field

class Book(BaseModel):
    title: str = Field(description="The title of the book")
    author: str = Field(description="The book's author")
    year_published: int

interaction = client.interactions.create(
    model="gemini-3.8-flash",
    input="Recommend one famous sci-fi book.",
    response_format=Book
)

# The text will be a valid JSON matching the Book schema
print(interaction.output_text)
```

#### TypeScript/JavaScript

```typescript
import { Type } from "@google/genai";

const BookSchema = {
    type: Type.OBJECT,
    properties: {
        title: { type: Type.STRING, description: "The title of the book" },
        author: { type: Type.STRING, description: "The book's author" },
        yearPublished: { type: Type.INTEGER }
    },
    required: ["title", "author", "yearPublished"]
};

const interaction = await ai.interactions.create({
    model: "gemini-3.8-flash",
    input: "Recommend one famous sci-fi book.",
    response_format: BookSchema
});

console.log(interaction.output_text);
```

---

### Function Calling (Agent Tool Use)

Define local tools (functions) and submit execution results to the stateful interaction history.

#### Python

```python
import json

def get_stock_price(ticker: str) -> float:
    """Gets the stock price for a given ticker symbol."""
    if ticker.upper() == "GOOG":
        return 175.50
    return 100.0

# Turn 1: Pass tools to the model
interaction = client.interactions.create(
    model="gemini-3.8-flash",
    input="What is the stock price of GOOG?",
    tools=[get_stock_price]
)

# In the flat steps schema, a tool request is a top-level step of type
# "function_call" with flat `name` and `arguments` fields (no nested tool_calls).
for step in interaction.steps:
    if step.type == "function_call" and step.name == "get_stock_price":
        ticker_arg = step.arguments.get("ticker")
        price = get_stock_price(ticker_arg)

        # Turn 2: Submit the result back as a function_result step. Reference the
        # originating call via call_id=step.id, and pass tools again (turn-scoped).
        final_turn = client.interactions.create(
            model="gemini-3.8-flash",
            input=[
                {
                    "type": "function_result",
                    "name": step.name,
                    "call_id": step.id,
                    "result": [{"type": "text", "text": json.dumps(price)}],
                }
            ],
            tools=[get_stock_price],
            previous_interaction_id=interaction.id
        )
        print(final_turn.output_text)
```

#### TypeScript/JavaScript

```typescript
// Define local tool and flat function tool declaration
function getStockPrice({ ticker }: { ticker: string }): number {
    if (ticker.toUpperCase() === "GOOG") {
        return 175.50;
    }
    return 100.00;
}

const stockTool = {
    type: "function",
    name: "getStockPrice",
    description: "Gets the stock price for a given ticker symbol.",
    parameters: {
        type: "object",
        properties: {
            ticker: { type: "string", description: "The stock ticker symbol" }
        },
        required: ["ticker"]
    }
};

// Turn 1: Pass tools to the model
const interaction = await ai.interactions.create({
    model: "gemini-3.8-flash",
    input: "What is the stock price of GOOG?",
    tools: [stockTool]
});

// In the flat steps schema, a tool request is a top-level step of type
// "function_call" with flat `name` and `arguments` fields (no nested toolCalls).
const fcStep = interaction.steps.find(s => s.type === "function_call");
if (fcStep && fcStep.name === "getStockPrice") {
    const tickerArg = fcStep.arguments.ticker as string;
    const price = getStockPrice({ ticker: tickerArg });

    // Turn 2: Submit the result back as a function_result step. Reference the
    // originating call via call_id=fcStep.id, and pass tools again (turn-scoped).
    const finalTurn = await ai.interactions.create({
        model: "gemini-3.8-flash",
        input: [{
            type: "function_result",
            name: fcStep.name,
            call_id: fcStep.id,
            result: [{ type: "text", text: JSON.stringify(price) }]
        }],
        tools: [stockTool],
        previous_interaction_id: interaction.id
    });
    console.log(finalTurn.output_text);
}
```

---

### Agents & Long-Running Tasks

Beyond foundation models, the Interactions API provides access to specialized, autonomous agents via the `agent` parameter:

*   **`antigravity-preview-05-2026`**: Antigravity Agent — general-purpose managed agent with code execution, file management, and web browsing in a secure sandboxed Linux environment (pass `environment="remote"` to provision a sandbox).
*   **`deep-research-preview-04-2026`**: Deep Research Agent — executes multi-step web research tasks, synthesizing information from multiple sources into comprehensive reports.
*   **Custom agents**: Configured and managed via `client.agents.create()`, `list()`, `get()`, and `delete()` (pass `environment="remote"` when invoking).

Agents typically run asynchronously in the background using `background=True`. Poll the interaction status to retrieve the completed result:

#### Python

```python
import time

interaction = client.interactions.create(
    input="Analyze competitive positioning for solar energy providers.",
    agent="deep-research-preview-04-2026",
    background=True
)
print(f"Research started: {interaction.id}")

while True:
    interaction = client.interactions.get(interaction.id)
    if interaction.status == "completed":
        print(interaction.output_text)
        break
    elif interaction.status in ("failed", "cancelled"):
        print(f"Research ended with status: {interaction.status}")
        break
    time.sleep(10)
```

#### TypeScript/JavaScript

```typescript
const initialInteraction = await ai.interactions.create({
    agent: "deep-research-preview-04-2026",
    input: "Analyze competitive positioning for solar energy providers.",
    background: true
});

while (true) {
    const interaction = await ai.interactions.get(initialInteraction.id);
    if (interaction.status === "completed") {
        console.log(interaction.output_text);
        break;
    } else if (["failed", "cancelled"].includes(interaction.status)) {
        console.log(`Research ended with status: ${interaction.status}`);
        break;
    }
    await new Promise(resolve => setTimeout(resolve, 10000));
}
```

---

## 4. Accessing the Interactions API via REST

For shell-based scripts, debugging, or non-Python/JS environments, communicate with the stateful Interactions API over HTTP/REST (`curl`) at `POST https://aiplatform.googleapis.com/v1beta1/projects/{PROJECT_ID}/locations/{LOCATION}/interactions` (or `POST https://aiplatform.googleapis.com/v1beta1/locations/global/interactions` with `x-goog-api-key` for Express Mode). Pass `"model"` or `"agent"`, `"input"` steps with `"type": "user_input"`, and optional `"previous_interaction_id"`, `"background": true`, or `"stream": true` (which streams Server-Sent Events via `Content-Type: text/event-stream` and `Transfer-Encoding: chunked` that `curl` prints continuously in real time).

For complete `curl` examples (single-turn, multi-turn stateful, SSE streaming, and background managed agents) and response schemas, read [references/rest_api.md](references/rest_api.md).

---

## 5. Data Model & Step Types Reference

An `Interaction` response contains a flat `steps` timeline (`user_input`, `model_output`, `thought`, `function_call`, `function_result`, and built-in tool steps) along with convenience accessors (`output_text`, `output_image`, `output_audio`) and SSE streaming events (`interaction.created`, `step.start`, `step.delta`, `step.stop`, `interaction.completed`).

For the complete step types, content types, streaming event table, and 7-day retention rules, read [references/data_model.md](references/data_model.md).

Pliki w paczce (4)
  • SKILL.md 17 KB
  • references/attribution.md 2 KB
  • references/data_model.md 4 KB
  • references/rest_api.md 5 KB

Wersje

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Ta strona · google/skills100Apache-2.0
hamzabellouch/agent-skills100MIT
hamzabellouch/agent-skills95MIT

Migawka bazy z 13.11.2026 · wersja paczki 726283b67255 (skrót SHA-256 całej paczki)

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