Automatic speech recognition using Whisper and OpenVINO with Generate API

This Jupyter notebook can be launched after a local installation only.

Whisper is an automatic speech recognition (ASR) system trained on 680,000 hours of multilingual and multitask supervised data collected from the web.

Whisper is a Transformer based encoder-decoder model, also referred to as a sequence-to-sequence model. It maps a sequence of audio spectrogram features to a sequence of text tokens. First, the raw audio inputs are converted to a log-Mel spectrogram by action of the feature extractor. Then, the Transformer encoder encodes the spectrogram to form a sequence of encoder hidden states. Finally, the decoder autoregressively predicts text tokens, conditional on both the previous tokens and the encoder hidden states.

You can see the model architecture in the diagram below:

whisper_architecture.svg

In this tutorial, we consider how to run Whisper using OpenVINO. We will use the pre-trained model from the Hugging Face Transformers library. The Hugging Face Optimum Intel library converts the models to OpenVINO™ IR format. To simplify the user experience, we will use OpenVINO Generate API for Whisper automatic speech recognition scenarios.

Installation Instructions

This is a self-contained example that relies solely on its own code.

We recommend running the notebook in a virtual environment. You only need a Jupyter server to start. For details, please refer to Installation Guide.

Table of contents:

• Prerequisites

• Load PyTorch model

  • Run PyTorch model inference

• Download and convert model to OpenVINO IR via Optimum Intel CLI

• Run inference OpenVINO model with WhisperPipeline

• Compare performance PyTorch vs OpenVINO

• Quantization

  • Prepare calibration datasets

  • Quantize Whisper encoder and decoder models

  • Run quantized model inference

  • Compare performance and accuracy of the original and quantized models

• Interactive demo

Prerequisites

%pip install -q "torch>=2.3" "torchvision>=0.18.1" --extra-index-url https://download.pytorch.org/whl/cpu
%pip install -q "transformers>=4.45" "git+https://github.com/huggingface/optimum-intel.git" --extra-index-url https://download.pytorch.org/whl/cpu
%pip install -q --pre -U "openvino" "openvino-tokenizers" "openvino-genai" --extra-index-url https://storage.openvinotoolkit.org/simple/wheels/nightly
%pip install -q datasets  "gradio>=4.0" "soundfile>=0.12" "librosa" "python-ffmpeg<=1.0.16"
%pip install -q "nncf>=2.13.0" "jiwer"

import requests
from pathlib import Path

if not Path("notebook_utils.py").exists():
    r = requests.get(
        url="https://raw.githubusercontent.com/openvinotoolkit/openvino_notebooks/latest/utils/notebook_utils.py",
    )
    open("notebook_utils.py", "w").write(r.text)

if not Path("cmd_helper.py").exists():
    r = requests.get(
        url="https://raw.githubusercontent.com/openvinotoolkit/openvino_notebooks/latest/utils/cmd_helper.py",
    )
    open("cmd_helper.py", "w").write(r.text)

Load PyTorch model

The AutoModelForSpeechSeq2Seq.from_pretrained method is used for the initialization of PyTorch Whisper model using the transformers library. The model will be downloaded once during first run and this process may require some time.

You may also choose other models from Whisper collection, more on them here.

Preprocessing and post-processing are important in this model use. AutoProcessor class used for initialization WhisperProcessor is responsible for preparing audio input data for the model, converting it to Mel-spectrogram and decoding predicted output token_ids into string using tokenizer. We will use pipeline method to transcribe audios of arbitrary length.

import ipywidgets as widgets

model_ids = {
    "Multilingual models": [
        "openai/whisper-large-v3-turbo",
        "openai/whisper-large-v3",
        "openai/whisper-large-v2",
        "openai/whisper-large",
        "openai/whisper-medium",
        "openai/whisper-small",
        "openai/whisper-base",
        "openai/whisper-tiny",
    ],
    "English-only models": [
        "distil-whisper/distil-large-v2",
        "distil-whisper/distil-large-v3",
        "distil-whisper/distil-medium.en",
        "distil-whisper/distil-small.en",
        "openai/whisper-medium.en",
        "openai/whisper-small.en",
        "openai/whisper-base.en",
        "openai/whisper-tiny.en",
    ],
}

model_type = widgets.Dropdown(
    options=model_ids.keys(),
    value="Multilingual models",
    description="Model:",
    disabled=False,
)

model_type

Dropdown(description='Model:', options=('Multilingual models', 'English-only models'), value='Multilingual mod…

model_id = widgets.Dropdown(
    options=model_ids[model_type.value],
    value=model_ids[model_type.value][-1],
    description="Model:",
    disabled=False,
)

model_id

Dropdown(description='Model:', index=7, options=('openai/whisper-large-v3-turbo', 'openai/whisper-large-v3', '…

from transformers import AutoProcessor, AutoModelForSpeechSeq2Seq, pipeline
from transformers.utils import logging

processor = AutoProcessor.from_pretrained(model_id.value)

pt_model = AutoModelForSpeechSeq2Seq.from_pretrained(model_id.value)

pipe_pt = pipeline(
    "automatic-speech-recognition",
    model=pt_model,
    tokenizer=processor.tokenizer,
    feature_extractor=processor.feature_extractor,
    device="cpu",
)

Run PyTorch model inference

The pipeline expects audio data in numpy array format. We will use .wav file and convert it numpy array format for that purpose.

from notebook_utils import download_file

en_example_short = Path("data", "courtroom.wav")

# a wav sample
download_file(
    "https://huggingface.co/datasets/Xenova/transformers.js-docs/resolve/main/courtroom.wav",
    en_example_short.name,
    directory=en_example_short.parent,
)

'data/courtroom.wav' already exists.

PosixPath('/home/labuser/work/notebook/openvino_notebooks/notebooks/whisper-asr-genai/data/courtroom.wav')

import librosa

en_raw_speech, samplerate = librosa.load(str(en_example_short), sr=16000)

Let’s check how to work the transcribe task.

import copy
import IPython.display as ipd

logging.set_verbosity_error()

sample = copy.deepcopy(en_raw_speech)

display(ipd.Audio(sample, rate=samplerate))

pt_result = pipe_pt(sample)
print(f"Result: {pt_result['text']}")

/home/labuser/work/notebook/whisper_new/lib/python3.10/site-packages/transformers/models/whisper/generation_whisper.py:496: FutureWarning: The input name inputs is deprecated. Please make sure to use input_features instead.
  warnings.warn(

Result:  Colonel Jessif, did you order the code rate? You don't have to answer that question. I'll answer the question. You want answers? I think I'm entitled. You want answers? I want the truth. You can't handle the truth.

If the multilingual model was chosen, let’s see how task translate is working. We will use facebook/multilingual_librispeech multilingual dataset, so you can choose the language. The model will translate audio from the selected language into English. Conversion of audio to numpy format is handled by Hugging Face datasets implementation. A complete list of languages ​​supported by the model can be found in the paper.

import ipywidgets as widgets

languages = {"japanese": "ja_jp", "dutch": "da_dk", "french": "fr_fr", "spanish": "ca_es", "italian": "it_it", "portuguese": "pt_br", "polish": "pl_pl"}

SAMPLE_LANG = None
if model_type.value == "Multilingual models":
    SAMPLE_LANG = widgets.Dropdown(
        options=languages.keys(),
        value="italian",
        description="Dataset language:",
        disabled=False,
    )

SAMPLE_LANG

Dropdown(description='Dataset language:', index=4, options=('japanese', 'dutch', 'french', 'spanish', 'italian…

from datasets import load_dataset

mls_dataset = None
if model_type.value == "Multilingual models":
    mls_dataset = load_dataset("google/fleurs", languages[SAMPLE_LANG.value], split="test", streaming=True, trust_remote_code=True)
    mls_dataset = iter(mls_dataset)  # make it iterable
    mls_example = next(mls_dataset)  # get one example

if model_type.value == "Multilingual models":
    sample = copy.deepcopy(mls_example["audio"])

    display(ipd.Audio(sample["array"], rate=sample["sampling_rate"]))
    print(f"Reference: {mls_example['raw_transcription']}")

    pt_result = pipe_pt(sample, generate_kwargs={"task": "translate"})
    print(f"\nResult: {pt_result['text']}")

Reference: Il blog è uno strumento che si prefigge di incoraggiare la collaborazione e sviluppare l'apprendimento degli studenti ben oltre la giornata scolastica normale.

Result:  The blog is our tool that is prefilled to encourage collaboration and develop the learning of the students and to attract a normal school class.

Convert model to OpenVINO IR via Optimum Intel CLI

Listed Whisper model are available for downloading via the HuggingFace hub. We will use optimum-cli interface for exporting it into OpenVINO Intermediate Representation (IR) format.

Optimum CLI interface for converting models supports export to OpenVINO (supported starting optimum-intel 1.12 version). General command format:

optimum-cli export openvino --model <model_id_or_path> --task <task> <output_dir>

where --model argument is model id from HuggingFace Hub or local directory with model (saved using .save_pretrained method), --task is one of supported task that exported model should solve. For LLMs it will be automatic-speech-recognition-with-past. If model initialization requires to use remote code, --trust-remote-code flag additionally should be passed. Full list of supported arguments available via --help For more details and examples of usage, please check optimum documentation.

import logging
import nncf
from cmd_helper import optimum_cli

nncf.set_log_level(logging.ERROR)

model_path = Path(model_id.value.split("/")[1])
optimum_cli(model_id.value, model_path)
print(f"✅ {model_id.value} model converted and can be found in {model_path}")

Run inference OpenVINO model with WhisperPipeline

To simplify user experience we will use OpenVINO Generate API. Firstly we will create pipeline with WhisperPipeline. You can construct it straight away from the folder with the converted model. It will automatically load the model, tokenizer, detokenizer and default generation configuration.

from notebook_utils import device_widget

device = device_widget(default="CPU", exclude=["NPU"])

device

Dropdown(description='Device:', options=('CPU', 'AUTO'), value='CPU')

import openvino_genai

ov_pipe = openvino_genai.WhisperPipeline(str(model_path), device=device.value)

Let’s run the transcribe task. We just call generate for that and put array as input.

genai_result = ov_pipe.generate(en_raw_speech)

display(ipd.Audio(en_raw_speech, rate=samplerate))
print(f"Result: {genai_result}")

Result:  Colonel Jessif, did you order the code rate? You don't have to answer that question. I'll answer the question. You want answers? I think I'm entitled. You want answers? I want the truth. You can't handle the truth.

Whisper could provide a phrase-level timestamps for audio. Let’s try this scenario, we will specify return_timestamps=True for generate method.

generate method with return_timestamps set to True will return chunks, which contain attributes: text, start_ts and end_ts in seconds.

genai_result_timestamps = ov_pipe.generate(en_raw_speech, return_timestamps=True)

for segment in genai_result_timestamps.chunks:
    print(f"{segment.start_ts}sec. ---> {segment.end_ts}sec.")
    print(f"{segment.text}\n")

0.0sec. ---> 3.0sec.
 Colonel Jessif, did you order the code rate?

3.0sec. ---> 4.5sec.
 You don't have to answer that question.

4.5sec. ---> 6.5sec.
 I'll answer the question.

6.5sec. ---> 8.0sec.
 You want answers?

8.0sec. ---> 9.0sec.
 I think I'm entitled.

9.0sec. ---> 10.0sec.
 You want answers?

10.0sec. ---> 11.0sec.
 I want the truth.

11.0sec. ---> 13.0sec.
 You can't handle the truth.

Let’s see how to work the translate task. It supports for multilingual models only. For that case we will specify language and task options. We can do this in different ways. We can get default config with get_generation_config(), setup parameters and put config directly to generate(). It’s also possible to specify the needed options just as inputs in the generate() method and we will use this way. Then we just run generate method and get the output in text format.

languages_genai = {
    "japanese": "<|ja|>",
    "dutch": "<|da|>",
    "french": "<|fr|>",
    "spanish": "<|es|>",
    "italian": "<|it|>",
    "portuguese": "<|pt|>",
    "polish": "<|pl|>",
}

if model_type.value == "Multilingual models":
    sample = mls_example["audio"]

    genai_result_ml = ov_pipe.generate(sample["array"], max_new_tokens=100, task="translate", language=languages_genai[SAMPLE_LANG.value])

    display(ipd.Audio(sample["array"], rate=sample["sampling_rate"]))
    print(f"Reference: {mls_example['raw_transcription']}")
    print(f"\nResult: {genai_result_ml}")

Reference: Il blog è uno strumento che si prefigge di incoraggiare la collaborazione e sviluppare l'apprendimento degli studenti ben oltre la giornata scolastica normale.

Result:  The blog is our tool that is prefilled to encourage collaboration and develop the learning of the students and to attract a normal school class.

Compare performance PyTorch vs OpenVINO

import time
import numpy as np
from tqdm.notebook import tqdm


def measure_perf(pipe, n=10, model_type="ov"):
    timers = []
    for _ in tqdm(range(n), desc="Measuring performance"):
        sample = copy.deepcopy(en_raw_speech)
        start = time.perf_counter()
        if model_type == "pt":
            pipe(sample)
        elif model_type == "ov":
            pipe.generate(sample)
        end = time.perf_counter()
        timers.append(end - start)
    return np.median(timers)

perf_torch = measure_perf(pipe_pt, model_type="pt")
perf_ov = measure_perf(ov_pipe)

Measuring performance:   0%|          | 0/10 [00:00<?, ?it/s]

Measuring performance:   0%|          | 0/10 [00:00<?, ?it/s]

print(f"Mean torch {model_id.value} generation time: {perf_torch:.3f}s")
print(f"Mean openvino {model_id.value} generation time: {perf_ov:.3f}s")
print(f"Performance {model_id.value} openvino speedup: {perf_torch / perf_ov:.3f}")

Mean torch openai/whisper-tiny generation time: 0.564s
Mean openvino openai/whisper-tiny generation time: 0.311s
Performance openai/whisper-tiny openvino speedup: 1.815

Quantization

NNCF enables post-training quantization by adding the quantization layers into the model graph and then using a subset of the training dataset to initialize the parameters of these additional quantization layers. The framework is designed so that modifications to your original training code are minor.

The optimization process contains the following steps:

1. Create a calibration dataset for quantization.

2. Run nncf.quantize to obtain quantized encoder and decoder models.

3. Serialize the INT8 model using openvino.save_model function.

Note: Quantization is time and memory consuming operation. Running quantization code below may take some time.

Please select below whether you would like to run Whisper quantization.

from notebook_utils import quantization_widget

to_quantize = quantization_widget()

to_quantize

Checkbox(value=True, description='Quantization')

# Fetch `skip_kernel_extension` module
import requests

r = requests.get(
    url="https://raw.githubusercontent.com/openvinotoolkit/openvino_notebooks/latest/utils/skip_kernel_extension.py",
)
open("skip_kernel_extension.py", "w").write(r.text)

%load_ext skip_kernel_extension

Let’s load converted OpenVINO model format using Optimum-Intel to easily quantize it.

Optimum Intel can be used to load optimized models from the Hugging Face Hub or local folder to create pipelines to run an inference with OpenVINO Runtime using Hugging Face APIs. The Optimum Inference models are API compatible with Hugging Face Transformers models. This means we just need to replace the AutoModelForXxx class with the corresponding OVModelForXxx class.

Below is an example of the whisper-tiny model

-from transformers import AutoModelForSpeechSeq2Seq
+from optimum.intel.openvino import OVModelForSpeechSeq2Seq
from transformers import AutoTokenizer, pipeline

model_id = "openai/whisper-tiny"
-model = AutoModelForSpeechSeq2Seq.from_pretrained(model_id)
+model = OVModelForSpeechSeq2Seq.from_pretrained(model_id, export=True)

Like the original PyTorch model, the OpenVINO model is also compatible with HuggingFace pipeline interface for automatic-speech-recognition.

from optimum.intel.openvino import OVModelForSpeechSeq2Seq

ov_model = OVModelForSpeechSeq2Seq.from_pretrained(str(model_path), device=device.value)
ov_processor = AutoProcessor.from_pretrained(str(model_path))

Prepare calibration datasets

First step is to prepare calibration datasets for quantization. Since we quantize whisper encoder and decoder separately, we need to prepare a calibration dataset for each of the models. We import an InferRequestWrapper class that will intercept model inputs and collect them to a list. Then we run model inference on some small amount of audio samples. Generally, increasing the calibration dataset size improves quantization quality.

%%skip not $to_quantize.value

from itertools import islice
from optimum.intel.openvino.quantization import InferRequestWrapper


def collect_calibration_dataset(ov_model: OVModelForSpeechSeq2Seq, calibration_dataset_size: int):
    # Overwrite model request properties, saving the original ones for restoring later
    encoder_calibration_data = []
    decoder_calibration_data = []
    ov_model.encoder.request = InferRequestWrapper(ov_model.encoder.request, encoder_calibration_data, apply_caching=True)
    ov_model.decoder_with_past.request = InferRequestWrapper(ov_model.decoder_with_past.request,
                                                             decoder_calibration_data,
                                                             apply_caching=True)

    pipe = pipeline(
      "automatic-speech-recognition",
      model=ov_model,
      chunk_length_s=30,
      tokenizer=ov_processor.tokenizer,
      feature_extractor=ov_processor.feature_extractor)
    try:
        calibration_dataset = dataset = load_dataset("openslr/librispeech_asr", "clean", split="validation", streaming=True, trust_remote_code=True)
        for sample in tqdm(islice(calibration_dataset, calibration_dataset_size), desc="Collecting calibration data",
                           total=calibration_dataset_size):
            pipe(sample["audio"], return_timestamps=True)
    finally:
        ov_model.encoder.request = ov_model.encoder.request.request
        ov_model.decoder_with_past.request = ov_model.decoder_with_past.request.request

    return encoder_calibration_data, decoder_calibration_data

Quantize Whisper encoder and decoder models

Below we run the quantize function which calls nncf.quantize on Whisper encoder and decoder-with-past models. We don’t quantize first-step-decoder because its share in whole inference time is negligible.

%%skip not $to_quantize.value

import gc
import shutil
import nncf
import openvino as ov
from datasets import load_dataset
from tqdm.notebook import tqdm



CALIBRATION_DATASET_SIZE = 30
quantized_model_path = Path(f"{model_path}-quantized")


def quantize(ov_model: OVModelForSpeechSeq2Seq, calibration_dataset_size: int):
    if not quantized_model_path.exists():
        encoder_calibration_data, decoder_calibration_data = collect_calibration_dataset(
            ov_model, calibration_dataset_size
        )
        print("Quantizing encoder")
        quantized_encoder = nncf.quantize(
            ov_model.encoder.model,
            nncf.Dataset(encoder_calibration_data),
            subset_size=len(encoder_calibration_data),
            model_type=nncf.ModelType.TRANSFORMER,
            # Smooth Quant algorithm reduces activation quantization error; optimal alpha value was obtained through grid search
            advanced_parameters=nncf.AdvancedQuantizationParameters(smooth_quant_alpha=0.80)
        )
        ov.save_model(quantized_encoder, quantized_model_path / "openvino_encoder_model.xml")
        del quantized_encoder
        del encoder_calibration_data
        gc.collect()

        print("Quantizing decoder with past")
        quantized_decoder_with_past = nncf.quantize(
            ov_model.decoder_with_past.model,
            nncf.Dataset(decoder_calibration_data),
            subset_size=len(decoder_calibration_data),
            model_type=nncf.ModelType.TRANSFORMER,
            # Smooth Quant algorithm reduces activation quantization error; optimal alpha value was obtained through grid search
            advanced_parameters=nncf.AdvancedQuantizationParameters(smooth_quant_alpha=0.96)
        )
        ov.save_model(quantized_decoder_with_past, quantized_model_path / "openvino_decoder_with_past_model.xml")
        del quantized_decoder_with_past
        del decoder_calibration_data
        gc.collect()

        # Copy the config file and the first-step-decoder manually
        shutil.copy(model_path / "config.json", quantized_model_path / "config.json")
        shutil.copy(model_path / "generation_config.json", quantized_model_path / "generation_config.json")
        shutil.copy(model_path / "openvino_decoder_model.xml", quantized_model_path / "openvino_decoder_model.xml")
        shutil.copy(model_path / "openvino_decoder_model.bin", quantized_model_path / "openvino_decoder_model.bin")
        shutil.copy(model_path / "openvino_tokenizer.xml", quantized_model_path / "openvino_tokenizer.xml")
        shutil.copy(model_path / "openvino_tokenizer.bin", quantized_model_path / "openvino_tokenizer.bin")
        shutil.copy(model_path / "openvino_detokenizer.xml", quantized_model_path / "openvino_detokenizer.xml")
        shutil.copy(model_path / "openvino_detokenizer.bin", quantized_model_path / "openvino_detokenizer.bin")
        shutil.copy(model_path / "tokenizer_config.json", quantized_model_path / "tokenizer_config.json")
        shutil.copy(model_path / "tokenizer.json", quantized_model_path / "tokenizer.json")
        shutil.copy(model_path / "vocab.json", quantized_model_path / "vocab.json")
        shutil.copy(model_path / "preprocessor_config.json", quantized_model_path / "preprocessor_config.json")
        shutil.copy(model_path / "special_tokens_map.json", quantized_model_path / "special_tokens_map.json")
        shutil.copy(model_path / "normalizer.json", quantized_model_path / "normalizer.json")
        shutil.copy(model_path / "merges.txt", quantized_model_path / "merges.txt")
        shutil.copy(model_path / "added_tokens.json", quantized_model_path / "added_tokens.json")

    quantized_ov_pipe = openvino_genai.WhisperPipeline(str(quantized_model_path), device=device.value)
    return quantized_ov_pipe


ov_quantized_pipe = quantize(ov_model, CALIBRATION_DATASET_SIZE)

Run quantized model inference

Let’s compare the transcription results for original and quantized models.

%%skip not $to_quantize.value

genai_result = ov_pipe.generate(en_raw_speech)
quantized_genai_result = ov_quantized_pipe.generate(en_raw_speech)

display(ipd.Audio(en_raw_speech, rate=samplerate))

print(f"Original : {genai_result}")
print(f"Quantized: {quantized_genai_result}")

Original :  Colonel Jessif, did you order the code rate? You don't have to answer that question. I'll answer the question. You want answers? I think I'm entitled. You want answers? I want the truth. You can't handle the truth.
Quantized:  Don, I'll just, if you order the code right. You don have to answer that question. I'll answer the question. You want answers. I think I'm entitled you want answer. I want the truth. You can't handle the truth. You can't handle the truth.

Compare performance and accuracy of the original and quantized models

Finally, we compare original and quantized Whisper models from accuracy and performance stand-points.

To measure accuracy, we use 1 - WER as a metric, where WER stands for Word Error Rate.

%%skip not $to_quantize.value

import time
from contextlib import contextmanager
from jiwer import wer, wer_standardize


TEST_DATASET_SIZE = 50

def calculate_transcription_time_and_accuracy(ov_model, test_samples):
    whole_infer_times = []

    ground_truths = []
    predictions = []
    for data_item in tqdm(test_samples, desc="Measuring performance and accuracy"):

        start_time = time.perf_counter()
        transcription = ov_model.generate(data_item["audio"]["array"])
        end_time = time.perf_counter()
        whole_infer_times.append(end_time - start_time)

        ground_truths.append(data_item["text"])
        predictions.append(transcription.texts[0])

    word_accuracy = (1 - wer(ground_truths, predictions, reference_transform=wer_standardize,
                             hypothesis_transform=wer_standardize)) * 100
    mean_whole_infer_time = sum(whole_infer_times)
    return word_accuracy, mean_whole_infer_time

test_dataset = load_dataset("openslr/librispeech_asr", "clean", split="test", streaming=True, trust_remote_code=True)
test_dataset = test_dataset.shuffle(seed=42).take(TEST_DATASET_SIZE)
test_samples = [sample for sample in test_dataset]

accuracy_original, times_original = calculate_transcription_time_and_accuracy(ov_pipe, test_samples)
accuracy_quantized, times_quantized = calculate_transcription_time_and_accuracy(ov_quantized_pipe, test_samples)
print(f"Whole pipeline performance speedup: {times_original / times_quantized:.3f}")
print(f"Whisper transcription word accuracy. Original model: {accuracy_original:.2f}%. Quantized model: {accuracy_quantized:.2f}%.")
print(f"Accuracy drop: {accuracy_original - accuracy_quantized:.2f}%.")

Measuring performance and accuracy:   0%|          | 0/50 [00:00<?, ?it/s]

Measuring performance and accuracy:   0%|          | 0/50 [00:00<?, ?it/s]

Whole pipeline performance speedup: 1.350
Whisper transcription word accuracy. Original model: 82.88%. Quantized model: 84.13%.
Accuracy drop: -1.25%.

Interactive demo

We are also providing an interactive demo using the Gradio interface, where you can test model capabilities on your own audio data (using the upload button) or record using your microphone.

import requests

if not Path("gradio_helper.py").exists():
    r = requests.get(url="https://raw.githubusercontent.com/openvinotoolkit/openvino_notebooks/latest/notebooks/whisper-asr-genai/gradio_helper.py")
    open("gradio_helper.py", "w").write(r.text)

from gradio_helper import make_demo, GradioPipeline

pipe = ov_quantized_pipe if to_quantize.value else ov_pipe

gr_pipeline = GradioPipeline(pipe, model_id.value, quantized=to_quantize.value)

demo = make_demo(gr_pipeline)

try:
    demo.launch(debug=True)
except Exception:
    demo.launch(share=True, debug=True)
# if you are launching remotely, specify server_name and server_port
# demo.launch(server_name='your server name', server_port='server port in int')
# Read more in the docs: https://gradio.app/docs/