How-To
l 5min

Streaming vs. Batch Transcription: A Guide to Real-Time Transcription Architecture

Ai Architecture
Author
Muhammed Shabreen

Key Takeaways

1

Streaming transcription delivers text in real-time (sub-second latency) and is ideal for applications like live captioning, voice commands, and real-time agent assistance.

2

Batch transcription processes complete audio files asynchronously and is optimized for accuracy and cost-efficiency, making it ideal for media archiving, post-meeting analysis, and compliance.

3

The choice between streaming and batch is a strategic decision driven by business needs, not just a technical implementation detail.

4

Streaming prioritizes latency and immediate action, while batch prioritizes accuracy and throughput. Many enterprises use a hybrid architecture that combines both approaches: streaming for real-time insights and batch for the final, highly accurate archival record.

In the world of enterprise AI, the decision to transcribe audio is just the first step. The more critical question is how. The choice between a streaming and a batch transcription architecture is not a minor implementation detail; it is a fundamental strategic decision that dictates cost, accuracy, complexity, and, most importantly, what an organization can do with the resulting text.

This article explores the technical characteristics of both architectures, the strategic trade-offs between them, and the practical use cases where each approach delivers the most value.

How Batch Transcription Works: The Asynchronous Approach

Batch transcription is the simpler and more traditional of the two architectures. The process is straightforward: a complete, pre-recorded audio file is uploaded to a server, placed in a queue, and processed asynchronously. Once the entire file has been transcribed, the system returns a complete text document.

Technical Characteristics

  • Focus on Throughput: Because latency is not a primary concern, batch systems are optimized for throughput. They can process large volumes of audio files in parallel, making them highly efficient for large-scale archival projects.
  • Higher Potential Accuracy: The ASR model has access to the entire audio file from the start. This allows it to use the full context of the conversation to disambiguate words and phrases. 

    • For example, if a speaker mumbles a word at the beginning of a meeting, a batch model can use information from later in the conversation to correctly identify it. It can also perform multiple processing passes to refine the transcript.
  • Cost-Efficiency: Batch processing is generally more cost-effective. Jobs can be queued and run during off-peak hours when computational resources are cheaper.

Use Cases

The defining characteristic of a batch use case is that the transcript is not needed until after the event has concluded. The value is in the final, accurate record.

  • Media Archiving: Transcribing years of broadcast footage for search and content repurposing.
  • Post-Meeting Analysis: Creating a searchable record of recorded sales calls, board meetings, or user research interviews.
  • Compliance and Legal: Generating verbatim transcripts of depositions or customer service calls for regulatory review.

Inclusive Arabic Voice AI

Batch transcription is like sending a document to a professional translation service. You send the entire file and receive the full, polished translation back hours later.

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This is some text inside of a div block.
This is some text inside of a div block.
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How Streaming Transcription Works: The Real-Time Approach

Streaming transcription, also known as real-time transcription, operates on a completely different principle. Instead of waiting for a complete file, the client opens a persistent connection to the ASR server (typically using a WebSocket) and sends audio data in small, continuous chunks, often as short as 100 milliseconds. The server processes these chunks immediately and sends back partial transcripts as they are generated.

Technical Characteristics

  • Focus on Latency: The entire architecture is optimized for speed. The goal is to return a transcript with sub-second latency, so the text appears on the screen almost simultaneously with the spoken words.
  • Dynamic and Provisional Results: A key feature of streaming models is their ability to revise their own output. As more audio context becomes available, the model may update a previously transcribed word.
  • Higher Computational Cost: Streaming systems must be "always on" and ready to handle unpredictable loads. This requires dedicated computational resources that are provisioned to handle peak capacity.

Arabic Voice AI Enterprise Use Cases

Use Cases

Streaming is the choice when the value of the transcript is in its immediacy. The text is needed during the event to enable a real-time action.

Live Captioning: Providing captions for live broadcasts, webinars, or in-person events for accessibility.

Voice Commands: Powering voice-activated assistants and smart devices that need to respond instantly to user commands.

Real-Time Agent Assistance: In a contact center, a streaming transcript can be fed into an NLU model to provide real-time guidance to a customer service agent while they are on a call.

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The Strategic Trade-Offs: A Comparison Framework

The decision between streaming and batch is a trade-off across multiple dimensions. There is no single "better" architecture; there is only the architecture that is better suited to a specific business problem.

Dimension Streaming Architecture Batch Architecture
Latency Sub-second (real-time) Minutes to hours (asynchronous)
Primary Goal Immediate text for real-time action Final, accurate record for post-event analysis
Accuracy High, but limited by real-time context Potentially higher, as the model has full context
Computational Cost Higher per audio hour (always-on resources) Lower per audio hour (optimized for throughput)
Implementation More complex (WebSockets, endpointing) Simpler (file upload, API call)
Use Cases Live captioning, voice commands, agent assist Media archiving, meeting analysis, compliance

A Hybrid Architecture: The Enterprise Standard

For many large enterprises, the choice is not a binary one. A hybrid architecture that combines both streaming and batch processing often provides the most comprehensive solution. MAny production systems use streaming for immediate insights and batch for the final archival record.

Consider a financial services contact center. A streaming architecture can be used to transcribe the agent-customer conversation in real time. This transcript can be used to:

  1. Trigger Real-Time Alerts: If the customer says, "I want to close my account," the system can immediately flag the call for a retention specialist.
  2. Provide Agent Guidance: The transcript can be fed into a knowledge base to surface relevant articles and next-best-action recommendations to the agent.

However, this real-time transcript may not be the most accurate version possible. After the call is complete, the full audio recording is sent to a batch processing pipeline. This pipeline can use a larger, more computationally intensive model to generate a final, definitive transcript with the highest possible accuracy. This archival transcript then becomes the official record for:

  • Compliance Audits: Providing a tamper-proof record of the conversation.
  • Business Intelligence: Analyzing trends in customer complaints, product mentions, and competitor activity across thousands of calls.
  • Agent Training: Identifying coaching opportunities by reviewing past interactions.

This hybrid approach delivers the best of both worlds: the immediate value of real-time insights and the long-term value of a highly accurate historical record.

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Align Architecture with Business Value

The decision to implement streaming or batch transcription is not merely a technical one. It is a strategic choice that should be driven by a clear understanding of the business problem you are trying to solve. If the value lies in immediate action, streaming is the answer. If the value lies in the final, accurate record, batch is the more efficient choice. And for many enterprises, a hybrid approach that serves both needs will provide the most robust and valuable solution.

By aligning the architecture with the business case, organizations can move beyond simply transcribing audio and begin to turn their voice data into a true strategic asset.

FAQ

What is the difference between streaming and batch transcription?
Which is more accurate: streaming or batch?
What is a WebSocket?

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Last update :
June 13, 2026

Streaming vs. Batch Transcription: A Guide to Real-Time Transcription Architecture

How-To
Ai Architecture
Author
Sarra Turki
Muhammed Shabreen
5min read

Bring Arabic Voice AI to production

Native‑level Arabic STT & TTS
Built for GCC gov & enterprises
Sovereign and on‑prem deployment
Contact Sales
Thank you! Your submission has been received!
Oops! Something went wrong while submitting the form.

Key Takeaways

Streaming transcription delivers text in real-time (sub-second latency) and is ideal for applications like live captioning, voice commands, and real-time agent assistance.

Batch transcription processes complete audio files asynchronously and is optimized for accuracy and cost-efficiency, making it ideal for media archiving, post-meeting analysis, and compliance.

The choice between streaming and batch is a strategic decision driven by business needs, not just a technical implementation detail.

Streaming prioritizes latency and immediate action, while batch prioritizes accuracy and throughput. Many enterprises use a hybrid architecture that combines both approaches: streaming for real-time insights and batch for the final, highly accurate archival record.

In the world of enterprise AI, the decision to transcribe audio is just the first step. The more critical question is how. The choice between a streaming and a batch transcription architecture is not a minor implementation detail; it is a fundamental strategic decision that dictates cost, accuracy, complexity, and, most importantly, what an organization can do with the resulting text.

This article explores the technical characteristics of both architectures, the strategic trade-offs between them, and the practical use cases where each approach delivers the most value.

How Batch Transcription Works: The Asynchronous Approach

Batch transcription is the simpler and more traditional of the two architectures. The process is straightforward: a complete, pre-recorded audio file is uploaded to a server, placed in a queue, and processed asynchronously. Once the entire file has been transcribed, the system returns a complete text document.

Technical Characteristics

  • Focus on Throughput: Because latency is not a primary concern, batch systems are optimized for throughput. They can process large volumes of audio files in parallel, making them highly efficient for large-scale archival projects.
  • Higher Potential Accuracy: The ASR model has access to the entire audio file from the start. This allows it to use the full context of the conversation to disambiguate words and phrases. 

    • For example, if a speaker mumbles a word at the beginning of a meeting, a batch model can use information from later in the conversation to correctly identify it. It can also perform multiple processing passes to refine the transcript.
  • Cost-Efficiency: Batch processing is generally more cost-effective. Jobs can be queued and run during off-peak hours when computational resources are cheaper.

Use Cases

The defining characteristic of a batch use case is that the transcript is not needed until after the event has concluded. The value is in the final, accurate record.

  • Media Archiving: Transcribing years of broadcast footage for search and content repurposing.
  • Post-Meeting Analysis: Creating a searchable record of recorded sales calls, board meetings, or user research interviews.
  • Compliance and Legal: Generating verbatim transcripts of depositions or customer service calls for regulatory review.

Inclusive Arabic Voice AI

Batch transcription is like sending a document to a professional translation service. You send the entire file and receive the full, polished translation back hours later.

Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
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Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
Lorem ipsum dolor
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Lorem ipsum dolor

How Streaming Transcription Works: The Real-Time Approach

Understanding the origins of AI hallucinations is the first step toward mitigating them. The phenomenon is not a single problem but rather a complex issue with multiple contributing factors.

1

Training Data Deficiencies

Streaming transcription, also known as real-time transcription, operates on a completely different principle. Instead of waiting for a complete file, the client opens a persistent connection to the ASR server (typically using a WebSocket) and sends audio data in small, continuous chunks, often as short as 100 milliseconds. The server processes these chunks immediately and sends back partial transcripts as they are generated.

Technical Characteristics

  • Focus on Latency: The entire architecture is optimized for speed. The goal is to return a transcript with sub-second latency, so the text appears on the screen almost simultaneously with the spoken words.
  • Dynamic and Provisional Results: A key feature of streaming models is their ability to revise their own output. As more audio context becomes available, the model may update a previously transcribed word.
  • Higher Computational Cost: Streaming systems must be "always on" and ready to handle unpredictable loads. This requires dedicated computational resources that are provisioned to handle peak capacity.

Arabic Voice AI Enterprise Use Cases

Use Cases

Streaming is the choice when the value of the transcript is in its immediacy. The text is needed during the event to enable a real-time action.

Live Captioning: Providing captions for live broadcasts, webinars, or in-person events for accessibility.

Voice Commands: Powering voice-activated assistants and smart devices that need to respond instantly to user commands.

Real-Time Agent Assistance: In a contact center, a streaming transcript can be fed into an NLU model to provide real-time guidance to a customer service agent while they are on a call.

2

Training Data Deficiencies

The most significant contributor to AI hallucinations is the data on which the models are trained. LLMs learn from vast datasets scraped from the internet, which contain a mixture of factual information, opinions, misinformation, and biases. Several specific data-related issues can lead to hallucinations:

Enterprise Use Cases for Arabic Voice AI in 2025

The move to dialect-aware Arabic ASR is unlocking a new wave of enterprise applications across the GCC and MENA regions. Organizations are moving beyond basic transcription to sophisticated Arabic speech analytics.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

The Strategic Trade-Offs: A Comparison Framework

Understanding the origins of AI hallucinations is the first step toward mitigating them. The phenomenon is not a single problem but rather a complex issue with multiple contributing factors.

1

Training Data Deficiencies

The decision between streaming and batch is a trade-off across multiple dimensions. There is no single "better" architecture; there is only the architecture that is better suited to a specific business problem.

Dimension Streaming Architecture Batch Architecture
Latency Sub-second (real-time) Minutes to hours (asynchronous)
Primary Goal Immediate text for real-time action Final, accurate record for post-event analysis
Accuracy High, but limited by real-time context Potentially higher, as the model has full context
Computational Cost Higher per audio hour (always-on resources) Lower per audio hour (optimized for throughput)
Implementation More complex (WebSockets, endpointing) Simpler (file upload, API call)
Use Cases Live captioning, voice commands, agent assist Media archiving, meeting analysis, compliance
2

Training Data Deficiencies

The most significant contributor to AI hallucinations is the data on which the models are trained. LLMs learn from vast datasets scraped from the internet, which contain a mixture of factual information, opinions, misinformation, and biases. Several specific data-related issues can lead to hallucinations:

Enterprise Use Cases for Arabic Voice AI in 2025

The move to dialect-aware Arabic ASR is unlocking a new wave of enterprise applications across the GCC and MENA regions. Organizations are moving beyond basic transcription to sophisticated Arabic speech analytics.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Building better AI systems takes the right approach

We help with custom solutions, data pipelines, and Arabic intelligence.

A Hybrid Architecture: The Enterprise Standard

Understanding the origins of AI hallucinations is the first step toward mitigating them. The phenomenon is not a single problem but rather a complex issue with multiple contributing factors.

1

Training Data Deficiencies

For many large enterprises, the choice is not a binary one. A hybrid architecture that combines both streaming and batch processing often provides the most comprehensive solution. MAny production systems use streaming for immediate insights and batch for the final archival record.

Consider a financial services contact center. A streaming architecture can be used to transcribe the agent-customer conversation in real time. This transcript can be used to:

  1. Trigger Real-Time Alerts: If the customer says, "I want to close my account," the system can immediately flag the call for a retention specialist.
  2. Provide Agent Guidance: The transcript can be fed into a knowledge base to surface relevant articles and next-best-action recommendations to the agent.

2

Training Data Deficiencies

The most significant contributor to AI hallucinations is the data on which the models are trained. LLMs learn from vast datasets scraped from the internet, which contain a mixture of factual information, opinions, misinformation, and biases. Several specific data-related issues can lead to hallucinations:

However, this real-time transcript may not be the most accurate version possible. After the call is complete, the full audio recording is sent to a batch processing pipeline. This pipeline can use a larger, more computationally intensive model to generate a final, definitive transcript with the highest possible accuracy. This archival transcript then becomes the official record for:

  • Compliance Audits: Providing a tamper-proof record of the conversation.
  • Business Intelligence: Analyzing trends in customer complaints, product mentions, and competitor activity across thousands of calls.
  • Agent Training: Identifying coaching opportunities by reviewing past interactions.

This hybrid approach delivers the best of both worlds: the immediate value of real-time insights and the long-term value of a highly accurate historical record.

Enterprise Use Cases for Arabic Voice AI in 2025

The move to dialect-aware Arabic ASR is unlocking a new wave of enterprise applications across the GCC and MENA regions. Organizations are moving beyond basic transcription to sophisticated Arabic speech analytics.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Align Architecture with Business Value

Understanding the origins of AI hallucinations is the first step toward mitigating them. The phenomenon is not a single problem but rather a complex issue with multiple contributing factors.

1

Training Data Deficiencies

The decision to implement streaming or batch transcription is not merely a technical one. It is a strategic choice that should be driven by a clear understanding of the business problem you are trying to solve. If the value lies in immediate action, streaming is the answer. If the value lies in the final, accurate record, batch is the more efficient choice. And for many enterprises, a hybrid approach that serves both needs will provide the most robust and valuable solution.

By aligning the architecture with the business case, organizations can move beyond simply transcribing audio and begin to turn their voice data into a true strategic asset.

2

Training Data Deficiencies

The most significant contributor to AI hallucinations is the data on which the models are trained. LLMs learn from vast datasets scraped from the internet, which contain a mixture of factual information, opinions, misinformation, and biases. Several specific data-related issues can lead to hallucinations:

Enterprise Use Cases for Arabic Voice AI in 2025

The move to dialect-aware Arabic ASR is unlocking a new wave of enterprise applications across the GCC and MENA regions. Organizations are moving beyond basic transcription to sophisticated Arabic speech analytics.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Understanding the origins of AI hallucinations is the first step toward mitigating them. The phenomenon is not a single problem but rather a complex issue with multiple contributing factors.

1

Training Data Deficiencies

2

Training Data Deficiencies

The most significant contributor to AI hallucinations is the data on which the models are trained. LLMs learn from vast datasets scraped from the internet, which contain a mixture of factual information, opinions, misinformation, and biases. Several specific data-related issues can lead to hallucinations:

Enterprise Use Cases for Arabic Voice AI in 2025

The move to dialect-aware Arabic ASR is unlocking a new wave of enterprise applications across the GCC and MENA regions. Organizations are moving beyond basic transcription to sophisticated Arabic speech analytics.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Understanding the origins of AI hallucinations is the first step toward mitigating them. The phenomenon is not a single problem but rather a complex issue with multiple contributing factors.

1

Training Data Deficiencies

2

Training Data Deficiencies

The most significant contributor to AI hallucinations is the data on which the models are trained. LLMs learn from vast datasets scraped from the internet, which contain a mixture of factual information, opinions, misinformation, and biases. Several specific data-related issues can lead to hallucinations:

Enterprise Use Cases for Arabic Voice AI in 2025

The move to dialect-aware Arabic ASR is unlocking a new wave of enterprise applications across the GCC and MENA regions. Organizations are moving beyond basic transcription to sophisticated Arabic speech analytics.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Understanding the origins of AI hallucinations is the first step toward mitigating them. The phenomenon is not a single problem but rather a complex issue with multiple contributing factors.

1

Training Data Deficiencies

2

Training Data Deficiencies

The most significant contributor to AI hallucinations is the data on which the models are trained. LLMs learn from vast datasets scraped from the internet, which contain a mixture of factual information, opinions, misinformation, and biases. Several specific data-related issues can lead to hallucinations:

Enterprise Use Cases for Arabic Voice AI in 2025

The move to dialect-aware Arabic ASR is unlocking a new wave of enterprise applications across the GCC and MENA regions. Organizations are moving beyond basic transcription to sophisticated Arabic speech analytics.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Understanding the origins of AI hallucinations is the first step toward mitigating them. The phenomenon is not a single problem but rather a complex issue with multiple contributing factors.

1

Training Data Deficiencies

2

Training Data Deficiencies

The most significant contributor to AI hallucinations is the data on which the models are trained. LLMs learn from vast datasets scraped from the internet, which contain a mixture of factual information, opinions, misinformation, and biases. Several specific data-related issues can lead to hallucinations:

Enterprise Use Cases for Arabic Voice AI in 2025

The move to dialect-aware Arabic ASR is unlocking a new wave of enterprise applications across the GCC and MENA regions. Organizations are moving beyond basic transcription to sophisticated Arabic speech analytics.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Understanding the origins of AI hallucinations is the first step toward mitigating them. The phenomenon is not a single problem but rather a complex issue with multiple contributing factors.

1

Training Data Deficiencies

2

Training Data Deficiencies

The most significant contributor to AI hallucinations is the data on which the models are trained. LLMs learn from vast datasets scraped from the internet, which contain a mixture of factual information, opinions, misinformation, and biases. Several specific data-related issues can lead to hallucinations:

Enterprise Use Cases for Arabic Voice AI in 2025

The move to dialect-aware Arabic ASR is unlocking a new wave of enterprise applications across the GCC and MENA regions. Organizations are moving beyond basic transcription to sophisticated Arabic speech analytics.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

Arabic speech technology is rapidly advancing in 2025, driven by massive multilingual models and new Arabic-centric foundation models.

FAQ
What is the difference between streaming and batch transcription?
Which is more accurate: streaming or batch?
What is a WebSocket?
Can I use both streaming and batch transcription?

Bring Arabic Voice AI to production

Native‑level Arabic STT & TTS
Built for GCC gov & enterprises
Sovereign and on‑prem deployment
Contact Sales
Thank you! Your submission has been received!
Oops! Something went wrong while submitting the form.

Start free.  
Pay when you are ready.

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