Verwenden von multimodalen Eingaben mit KI-Funktionen (Vorschau)

folder_path = "/lakehouse/default/Files"

folder_path = "abfss://path_to_your_lakehouse"
# or
folder_path = "Files"

df, schema = aifunc.load(folder_path)
# or
df, schema = aifunc.load(folder_path, prompt="Give me candidate's name and the most recent company they worked for.")
display(df)

df, schema = aifunc.load(folder_path)
# or
df, schema = aifunc.load(folder_path, prompt="Give me candidate's name and the most recent company they worked for.")
display(df)

file_path_series = aifunc.list_file_paths(folder_path)
df = pd.DataFrame({"file_path": file_path_series}).reset_index(drop=True)
display(df)

df = aifunc.list_file_paths(folder_path)
display(df)

Legen Sie für KI-Funktionen auf Reihenebene (die in einer einzelnen Spalte ausgeführt werden) den column_type Parameter fest:

df["result"] = df["file_path"].ai.analyze_sentiment(column_type="path")

Verwenden Sie für KI-Funktionen auf Datenframeebene (die auf mehreren Spalten ausgeführt werden) den column_type_dict Parameter:

df["result"] = df.ai.generate_response(
    prompt="Describe the content.",
    column_type_dict={"file_path": "path"},
)

Legen Sie für KI-Funktionen mit einer Spalte den input_col_type Parameter fest:

results = df.ai.analyze_sentiment(input_col="file_path", input_col_type="path", output_col="sentiment")

Verwenden Sie für KI-Funktionen auf Datenframeebene (die auf mehreren Spalten ausgeführt werden) den col_types Parameter:

results = df.ai.generate_response(
    prompt="Describe the content.",
    col_types={"file_path": "path"},
    output_col="response",
)

df, schema = aifunc.load(folder_path, prompt=None, schema=None)

df, schema = aifunc.load(folder_path, prompt=None, schema=None)

# This code uses AI. Always review output for mistakes.

# Basic load – let the AI infer the table structure
df, schema = aifunc.load(folder_path)
display(df)

# This code uses AI. Always review output for mistakes.

# Guided load – provide a prompt to specify what to extract
guided_df, guided_schema = aifunc.load(
    folder_path,
    prompt="Give me candidate's name and the most recent company they worked for.",
)
display(guided_df)

# This code uses AI. Always review output for mistakes.

# Basic load – let the AI infer the table structure
df, schema = aifunc.load(folder_path)
display(df)

# This code uses AI. Always review output for mistakes.

# Guided load – provide a prompt to specify what to extract
guided_df, guided_schema = aifunc.load(
    folder_path,
    prompt="Give me candidate's name and the most recent company they worked for.",
)
display(guided_df)

file_path_series = aifunc.list_file_paths(folder_path)

file_path_df = aifunc.list_file_paths(folder_path)

Eine Pandas-Reihe von yarl.URL Objekten, die anhand ihrer Zeichenfolgendarstellungen indiziert werden. Diese yarl.URL Objekte werden automatisch als Dateipfade von AI-Funktionen behandelt, sodass Sie nicht angeben column_type="path"müssen.

Ein Spark DataFrame mit einer file_path Spalte, die die URLs der übereinstimmenden Dateien enthält.

# This code uses AI. Always review output for mistakes.

file_path_series = aifunc.list_file_paths(folder_path)
custom_df = pd.DataFrame({"file_path": file_path_series}).reset_index(drop=True)
display(custom_df)

# This code uses AI. Always review output for mistakes.

custom_df = aifunc.list_file_paths(folder_path)
display(custom_df)

schema = df["file_path"].ai.infer_schema(column_type="path")

schema = df.ai.infer_schema(input_col="file_path", input_col_type="path")

# This code uses AI. Always review output for mistakes.

# Infer a schema from file contents
schema = df["file_path"].ai.infer_schema(column_type="path")
for label in schema:
    print(label)

# Use the inferred schema with ai.extract
extracted_df = df["file_path"].ai.extract(*schema, column_type="path")
display(extracted_df)

# This code uses AI. Always review output for mistakes.

# Infer a schema from file contents
schema = df.ai.infer_schema(input_col="file_path", input_col_type="path")
for label in schema:
    print(label)

# Use the inferred schema with ai.extract
extracted_df = df.ai.extract(labels=schema, input_col="file_path", input_col_type="path")
display(extracted_df)

# This code uses AI. Always review output for mistakes.

animal_urls = [
    "<image-url-golden-retriever>",  # Replace with URL to an image of a golden retriever
    "<image-url-giant-panda>",  # Replace with URL to an image of a giant panda
    "<image-url-bald-eagle>",  # Replace with URL to an image of a bald eagle
]
animal_df = pd.DataFrame({"file_path": animal_urls})

animal_df["sentiment"] = animal_df["file_path"].ai.analyze_sentiment(column_type="path")
display(animal_df)

# This code uses AI. Always review output for mistakes.

animal_urls = [
    "<image-url-golden-retriever>",  # Replace with URL to an image of a golden retriever
    "<image-url-giant-panda>",  # Replace with URL to an image of a giant panda
    "<image-url-bald-eagle>",  # Replace with URL to an image of a bald eagle
]
animal_df = spark.createDataFrame([(u,) for u in animal_urls], ["file_path"])

results = animal_df.ai.analyze_sentiment(
    input_col="file_path",
    input_col_type="path",
    output_col="sentiment",
)
display(results)

# This code uses AI. Always review output for mistakes.

custom_df["highest_degree"] = custom_df["file_path"].ai.classify(
    "Master", "PhD", "Bachelor", "Other",
    column_type="path",
)
display(custom_df)

# This code uses AI. Always review output for mistakes.

results = custom_df.ai.classify(
    labels=["Master", "PhD", "Bachelor", "Other"],
    input_col="file_path",
    input_col_type="path",
    output_col="highest_degree",
)
display(results)

# This code uses AI. Always review output for mistakes.

extracted = custom_df["file_path"].ai.extract(
    aifunc.ExtractLabel(
        "name",
        description="The full name of the candidate, first letter capitalized.",
        max_items=1,
    ),
    "companies_worked_for",
    aifunc.ExtractLabel(
        "year_of_experience",
        description="The total years of professional work experience the candidate has, excluding internships.",
        type="integer",
        max_items=1,
    ),
    column_type="path",
)
display(extracted)

# This code uses AI. Always review output for mistakes.

extracted = custom_df.ai.extract(
    labels=[
        aifunc.ExtractLabel(
            "name",
            description="The full name of the candidate, first letter capitalized.",
            max_items=1,
        ),
        "companies_worked_for",
        aifunc.ExtractLabel(
            "year_of_experience",
            description="The total years of professional work experience the candidate has, excluding internships.",
            type="integer",
            max_items=1,
        ),
    ],
    input_col="file_path",
    input_col_type="path",
)
display(extracted)

# This code uses AI. Always review output for mistakes.

custom_df["corrections"] = custom_df["file_path"].ai.fix_grammar(column_type="path")
display(custom_df)

# This code uses AI. Always review output for mistakes.

results = custom_df.ai.fix_grammar(
    input_col="file_path",
    input_col_type="path",
    output_col="corrections",
)
display(results)

# This code uses AI. Always review output for mistakes.

# Series-level: generate a response from each file
animal_df["animal_name"] = animal_df["file_path"].ai.generate_response(
    prompt="What type of animal is in this image? Give me only the animal's common name.",
    column_type="path",
)
display(animal_df)

# This code uses AI. Always review output for mistakes.

# DataFrame-level: use all columns as context
animal_df["description"] = animal_df.ai.generate_response(
    prompt="Describe this animal's natural habitat and one interesting fact about it.",
    column_type_dict={"file_path": "path"},
)
display(animal_df)

# This code uses AI. Always review output for mistakes.

# Generate a response from each file
results = animal_df.ai.generate_response(
    prompt="What type of animal is in this image? Give me only the animal's common name.",
    col_types={"file_path": "path"},
    output_col="animal_name",
)
display(results)

# This code uses AI. Always review output for mistakes.

# DataFrame-level: use all columns as context
results = animal_df.ai.generate_response(
    prompt="Describe this animal's natural habitat and one interesting fact about it.",
    col_types={"file_path": "path"},
    output_col="description",
)
display(results)

# This code uses AI. Always review output for mistakes.

# Summarize file content from a single column
custom_df["summary"] = custom_df["file_path"].ai.summarize(
    instructions="Summarize this file in one sentence for a support analyst.",
    column_type="path",
)
display(custom_df)

# This code uses AI. Always review output for mistakes.

# Summarize file content from a single column
results = custom_df.ai.summarize(
    instructions="Summarize this file in one sentence for a support analyst.",
    input_col="file_path",
    input_col_type="path",
    output_col="summary",
)
display(results)

# This code uses AI. Always review output for mistakes.

custom_df["summary"] = custom_df.ai.summarize(
    column_type_dict={"file_path": "path"},
)
display(custom_df)

# This code uses AI. Always review output for mistakes.

results = custom_df.ai.summarize(
    col_types={"file_path": "path"},
    output_col="summary",
)
display(results)

# This code uses AI. Always review output for mistakes.

custom_df["chinese_version"] = custom_df["file_path"].ai.translate(
    "Chinese",
    column_type="path",
)
display(custom_df)

# This code uses AI. Always review output for mistakes.

results = custom_df.ai.translate(
    to_lang="Chinese",
    input_col="file_path",
    input_col_type="path",
    output_col="chinese_version",
)
display(results)