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Dolby Hybrik and the AV2 Roadmap: Why AI Pre-Processing Future-Proofs Your Stack

Dolby Hybrik and the AV2 Roadmap: Why AI Pre-Processing Future-Proofs Your Stack

AV2 Is Coming, But Bandwidth Pressure Is Already Here

The streaming industry finds itself at a critical juncture. While the Alliance for Open Media prepares to release AV2 by late 2025, bandwidth and cost pressures mount today. The global streaming market is projected to reach $285.4 billion by 2034, growing at a CAGR of 10.6% from 2024's $104.2 billion. This explosive growth demands immediate optimization strategies, not promises of future codec efficiency.

AV2 represents more than just an incremental upgrade. The codec provides enhanced support for AR/VR applications, split-screen delivery of multiple programs, and improved handling of screen content. Yet the reality of codec adoption tells a sobering story about timeline expectations.

Why Waiting for Hardware Decoders Delays ROI

Hardware-accelerated codec support faces significant timeline challenges that streaming providers cannot afford to ignore. Unlike software-only solutions that deploy immediately, hardware support requires chip design cycles of 18-24 months for silicon development, followed by 6-12 months for device manufacturing integration. Market penetration takes another 2-3 years for meaningful adoption rates.

The implications are stark: no current devices will support AV2 hardware decoding. New silicon is required across the entire ecosystem. Meanwhile, AI preprocessing solutions like SimaBit can deliver up to 22% bandwidth reduction on existing codecs today, while AV2 hardware support won't be widely available until 2027 or later.

How SimaBit Plugs Into Dolby Hybrik in Minutes

The seamless integration of SimaBit into Dolby Hybrik transforms theoretical efficiency into practical results. Every Hybrik workflow element can be managed through its RESTful API, making integration straightforward for engineering teams already familiar with the platform.

Hybrik processes media in your own secure cloud account, eliminating time wasted uploading files to external data centers. This architecture perfectly complements SimaBit's codec-agnostic approach, which works seamlessly with H.264, HEVC, AV1, and future AV2 implementations.

Enabling via the Hybrik SDK Flag

Activation requires minimal configuration changes. SimaBit is available through a simple SDK configuration within Hybrik. Teams can enable the preprocessing engine with a single flag adjustment, maintaining existing workflows while gaining immediate bandwidth savings.

Crunching the Numbers: 22 % AI Gains vs. 30–40 % AV2 Gains

The mathematics of optimization reveal compelling insights. AI preprocessing engines deliver measurable bandwidth reductions of 22% or more on existing H.264, HEVC, and AV1 stacks without requiring hardware upgrades. Early pilots suggest AV2 could achieve 30-40% better compression than AV1 while maintaining comparable encoding complexity.

AV1 reduces bandwidth by 30% compared to H.264 at the same quality. The BD rate analysis shows that CPU implementations of H264 and AV1 codecs require in mean more than 20% bitrate compared to GPU implementations. These metrics underscore an essential truth: optimization compounds across the encoding pipeline.

Consider the practical implications. A streaming service delivering 10 petabytes monthly could save 2.2 petabytes with AI preprocessing today, versus waiting years for theoretical AV2 savings of 3-4 petabytes. The EBU codec tests demonstrate that quality versus bitrate optimization requires careful consideration of PSNR, VMAF, and SSIM metrics across multiple codec generations.

Future-Proofing With Dolby Vision, Edge GPUs & Greener Streams

HDR video leverages modern displays with greater dynamic luminance and color range than previous standards. Dolby Vision's dynamic metadata, specified per shot, scene, or frame, delivers brighter images with greater contrast and enhanced color accuracy. This sophistication demands efficient preprocessing to maintain quality while managing bandwidth.

SimaBit reduces bandwidth requirements by 22% or more while boosting perceptual quality. The codec-agnostic approach ensures compatibility with emerging standards without workflow disruption. Environmental considerations amplify these benefits. Streaming generates approximately 55g CO₂e per hour, making bandwidth reduction a sustainability imperative.

Video streaming demand increases with 4K/8K resolution and higher frame rates, making energy consumption critical. The global ICT sector emitted 1.0--1.7 Gt CO2-eq in 2020, with video streaming generating 40-52% of total digital content impacts.

Checklist: Rolling Out SimaBit + Hybrik in Your Pipeline

All API submissions use HTTP commands POST, PUT, GET, and DELETE with JSON structures defining each element. The maximum array elements passable via query string is 250, ensuring efficient batch processing. Hybrik breaks jobs into Tasks during processing, with Elements defining processing steps like transcoding or logic operations.

SimaBit works seamlessly with all major codecs including H.264, HEVC, and AV1, as well as custom encoders. This flexibility ensures teams can implement preprocessing without disrupting established workflows or quality standards.

Automated QC and VMAF Tracking

VMAF integration in FFmpeg enables automated quality tracking through the configure flag --enable-libvmaf. This Emmy-winning perceptual video quality assessment algorithm provides objective measurements essential for validating preprocessing effectiveness across diverse content types.

Key Takeaways

The convergence of immediate needs and future possibilities defines modern video infrastructure strategy. SimaBit's breakthrough integration into Dolby Hybrik delivers measurable bandwidth reduction today while maintaining compatibility with tomorrow's codec evolution. Every Hybrik workflow element remains manageable through the RESTful API, ensuring teams maintain control while gaining efficiency.

The choice facing streaming providers is clear: wait years for AV2 hardware penetration while bandwidth costs mount, or implement AI preprocessing now for immediate savings that compound with future codec improvements. Sima Labs offers the practical path forward, delivering 22% bandwidth reduction today while preparing your stack for the AV2 transition ahead. Teams ready to optimize their Dolby Hybrik workflows can explore SimaBit integration today, transforming codec roadmap promises into present-day performance gains.

Frequently Asked Questions

When will AV2 deliver real ROI for streaming providers?

Hardware decoders require new silicon, device integration, and market penetration, which typically extends into late 2027 or beyond. AI preprocessing delivers savings now, so you can capture ROI immediately while adoption builds.

How does SimaBit integrate with Dolby Hybrik?

SimaBit is enabled via a simple SDK flag in Hybrik and fits into Hybrik REST API workflows without disrupting existing pipelines. See Sima Labs announcement for Dolby Hybrik integration at https://www.simalabs.ai/pr.

What bandwidth savings can I expect today, and how do they stack with AV2 later?

AI preprocessing typically reduces bitrate by about 22% across H.264, HEVC, and AV1 today. Early AV2 pilots suggest 30–40% gains versus AV1, and AI preprocessing compounds with future codec adoption for even greater efficiency.

Does SimaBit support HDR and Dolby Vision workflows?

Yes. SimaBit preserves perceptual fidelity while helping manage bitrate for HDR content, including Dolby Vision with dynamic metadata. Hybrik provides Dolby Vision tooling that aligns cleanly with preprocessing workflows.

How should teams validate quality after enabling AI preprocessing?

Use VMAF with FFmpeg --enable-libvmaf for automated QC and track PSNR and SSIM where relevant. Run A/B ladders on representative titles to confirm equal or better perceptual quality at lower bitrates.

What are the sustainability and cost impacts of enabling SimaBit now?

Reducing bitrate lowers CDN egress and storage costs while cutting emissions, with streaming estimated around 55 g CO2e per hour per viewer. At scale, immediate savings and lower environmental impact are significant.

Sources

  1. https://aomedia.org/press%20releases/AOMedia-Announces-Year-End-Launch-of-Next-Generation-Video-Codec-AV2-on-10th-Anniversary/

  2. https://www.simalabs.ai/blog/getting-ready-for-av2-why-codec-agnostic-ai-pre-processing-beats-waiting-for-new-hardware

  3. https://www.streamingmedia.com/Articles/ReadArticle.aspx?ArticleID=171548

  4. https://www.simalabs.ai/blog/step-by-step-guide-to-lowering-streaming-video-cos-c4760dc1

  5. https://docs.hybrik.com/rest_api/introduction/

  6. https://professional.dolby.com/technologies/cloud-media-processing/customers

  7. https://www.simalabs.ai/resources/ai-enhanced-ugc-streaming-2030-av2-edge-gpu-simabit

  8. https://www.fastpix.io/blog/cloud-transcoding-choosing-the-right-solution-for-your-video-centric-product

  9. https://www.scilit.com/publications/e682d1069456d0216d4c95ed950c9026

  10. https://tech.ebu.ch/docs/techreports/tr062.pdf

  11. https://docs.hybrik.com/tutorials/dolby_vision

  12. https://www.simalabs.ai/resources/jetson-agx-thor-vs-orin-4k-object-detection-live-sports-benchmarks-2025

  13. https://link.springer.com/chapter/10.1007/978-3-031-84651-9_5?error=cookies_not_supported&code=bcacca3e-f250-4162-bc61-057d6206ef5b

  14. https://inalco.hal.science/MIAI/hal-04920612v1

  15. https://docs.hybrik.com/job_json/overview

  16. https://repo.or.cz/vmaf.git

Dolby Hybrik and the AV2 Roadmap: Why AI Pre-Processing Future-Proofs Your Stack

AV2 Is Coming, But Bandwidth Pressure Is Already Here

The streaming industry finds itself at a critical juncture. While the Alliance for Open Media prepares to release AV2 by late 2025, bandwidth and cost pressures mount today. The global streaming market is projected to reach $285.4 billion by 2034, growing at a CAGR of 10.6% from 2024's $104.2 billion. This explosive growth demands immediate optimization strategies, not promises of future codec efficiency.

AV2 represents more than just an incremental upgrade. The codec provides enhanced support for AR/VR applications, split-screen delivery of multiple programs, and improved handling of screen content. Yet the reality of codec adoption tells a sobering story about timeline expectations.

Why Waiting for Hardware Decoders Delays ROI

Hardware-accelerated codec support faces significant timeline challenges that streaming providers cannot afford to ignore. Unlike software-only solutions that deploy immediately, hardware support requires chip design cycles of 18-24 months for silicon development, followed by 6-12 months for device manufacturing integration. Market penetration takes another 2-3 years for meaningful adoption rates.

The implications are stark: no current devices will support AV2 hardware decoding. New silicon is required across the entire ecosystem. Meanwhile, AI preprocessing solutions like SimaBit can deliver up to 22% bandwidth reduction on existing codecs today, while AV2 hardware support won't be widely available until 2027 or later.

How SimaBit Plugs Into Dolby Hybrik in Minutes

The seamless integration of SimaBit into Dolby Hybrik transforms theoretical efficiency into practical results. Every Hybrik workflow element can be managed through its RESTful API, making integration straightforward for engineering teams already familiar with the platform.

Hybrik processes media in your own secure cloud account, eliminating time wasted uploading files to external data centers. This architecture perfectly complements SimaBit's codec-agnostic approach, which works seamlessly with H.264, HEVC, AV1, and future AV2 implementations.

Enabling via the Hybrik SDK Flag

Activation requires minimal configuration changes. SimaBit is available through a simple SDK configuration within Hybrik. Teams can enable the preprocessing engine with a single flag adjustment, maintaining existing workflows while gaining immediate bandwidth savings.

Crunching the Numbers: 22 % AI Gains vs. 30–40 % AV2 Gains

The mathematics of optimization reveal compelling insights. AI preprocessing engines deliver measurable bandwidth reductions of 22% or more on existing H.264, HEVC, and AV1 stacks without requiring hardware upgrades. Early pilots suggest AV2 could achieve 30-40% better compression than AV1 while maintaining comparable encoding complexity.

AV1 reduces bandwidth by 30% compared to H.264 at the same quality. The BD rate analysis shows that CPU implementations of H264 and AV1 codecs require in mean more than 20% bitrate compared to GPU implementations. These metrics underscore an essential truth: optimization compounds across the encoding pipeline.

Consider the practical implications. A streaming service delivering 10 petabytes monthly could save 2.2 petabytes with AI preprocessing today, versus waiting years for theoretical AV2 savings of 3-4 petabytes. The EBU codec tests demonstrate that quality versus bitrate optimization requires careful consideration of PSNR, VMAF, and SSIM metrics across multiple codec generations.

Future-Proofing With Dolby Vision, Edge GPUs & Greener Streams

HDR video leverages modern displays with greater dynamic luminance and color range than previous standards. Dolby Vision's dynamic metadata, specified per shot, scene, or frame, delivers brighter images with greater contrast and enhanced color accuracy. This sophistication demands efficient preprocessing to maintain quality while managing bandwidth.

SimaBit reduces bandwidth requirements by 22% or more while boosting perceptual quality. The codec-agnostic approach ensures compatibility with emerging standards without workflow disruption. Environmental considerations amplify these benefits. Streaming generates approximately 55g CO₂e per hour, making bandwidth reduction a sustainability imperative.

Video streaming demand increases with 4K/8K resolution and higher frame rates, making energy consumption critical. The global ICT sector emitted 1.0--1.7 Gt CO2-eq in 2020, with video streaming generating 40-52% of total digital content impacts.

Checklist: Rolling Out SimaBit + Hybrik in Your Pipeline

All API submissions use HTTP commands POST, PUT, GET, and DELETE with JSON structures defining each element. The maximum array elements passable via query string is 250, ensuring efficient batch processing. Hybrik breaks jobs into Tasks during processing, with Elements defining processing steps like transcoding or logic operations.

SimaBit works seamlessly with all major codecs including H.264, HEVC, and AV1, as well as custom encoders. This flexibility ensures teams can implement preprocessing without disrupting established workflows or quality standards.

Automated QC and VMAF Tracking

VMAF integration in FFmpeg enables automated quality tracking through the configure flag --enable-libvmaf. This Emmy-winning perceptual video quality assessment algorithm provides objective measurements essential for validating preprocessing effectiveness across diverse content types.

Key Takeaways

The convergence of immediate needs and future possibilities defines modern video infrastructure strategy. SimaBit's breakthrough integration into Dolby Hybrik delivers measurable bandwidth reduction today while maintaining compatibility with tomorrow's codec evolution. Every Hybrik workflow element remains manageable through the RESTful API, ensuring teams maintain control while gaining efficiency.

The choice facing streaming providers is clear: wait years for AV2 hardware penetration while bandwidth costs mount, or implement AI preprocessing now for immediate savings that compound with future codec improvements. Sima Labs offers the practical path forward, delivering 22% bandwidth reduction today while preparing your stack for the AV2 transition ahead. Teams ready to optimize their Dolby Hybrik workflows can explore SimaBit integration today, transforming codec roadmap promises into present-day performance gains.

Frequently Asked Questions

When will AV2 deliver real ROI for streaming providers?

Hardware decoders require new silicon, device integration, and market penetration, which typically extends into late 2027 or beyond. AI preprocessing delivers savings now, so you can capture ROI immediately while adoption builds.

How does SimaBit integrate with Dolby Hybrik?

SimaBit is enabled via a simple SDK flag in Hybrik and fits into Hybrik REST API workflows without disrupting existing pipelines. See Sima Labs announcement for Dolby Hybrik integration at https://www.simalabs.ai/pr.

What bandwidth savings can I expect today, and how do they stack with AV2 later?

AI preprocessing typically reduces bitrate by about 22% across H.264, HEVC, and AV1 today. Early AV2 pilots suggest 30–40% gains versus AV1, and AI preprocessing compounds with future codec adoption for even greater efficiency.

Does SimaBit support HDR and Dolby Vision workflows?

Yes. SimaBit preserves perceptual fidelity while helping manage bitrate for HDR content, including Dolby Vision with dynamic metadata. Hybrik provides Dolby Vision tooling that aligns cleanly with preprocessing workflows.

How should teams validate quality after enabling AI preprocessing?

Use VMAF with FFmpeg --enable-libvmaf for automated QC and track PSNR and SSIM where relevant. Run A/B ladders on representative titles to confirm equal or better perceptual quality at lower bitrates.

What are the sustainability and cost impacts of enabling SimaBit now?

Reducing bitrate lowers CDN egress and storage costs while cutting emissions, with streaming estimated around 55 g CO2e per hour per viewer. At scale, immediate savings and lower environmental impact are significant.

Sources

  1. https://aomedia.org/press%20releases/AOMedia-Announces-Year-End-Launch-of-Next-Generation-Video-Codec-AV2-on-10th-Anniversary/

  2. https://www.simalabs.ai/blog/getting-ready-for-av2-why-codec-agnostic-ai-pre-processing-beats-waiting-for-new-hardware

  3. https://www.streamingmedia.com/Articles/ReadArticle.aspx?ArticleID=171548

  4. https://www.simalabs.ai/blog/step-by-step-guide-to-lowering-streaming-video-cos-c4760dc1

  5. https://docs.hybrik.com/rest_api/introduction/

  6. https://professional.dolby.com/technologies/cloud-media-processing/customers

  7. https://www.simalabs.ai/resources/ai-enhanced-ugc-streaming-2030-av2-edge-gpu-simabit

  8. https://www.fastpix.io/blog/cloud-transcoding-choosing-the-right-solution-for-your-video-centric-product

  9. https://www.scilit.com/publications/e682d1069456d0216d4c95ed950c9026

  10. https://tech.ebu.ch/docs/techreports/tr062.pdf

  11. https://docs.hybrik.com/tutorials/dolby_vision

  12. https://www.simalabs.ai/resources/jetson-agx-thor-vs-orin-4k-object-detection-live-sports-benchmarks-2025

  13. https://link.springer.com/chapter/10.1007/978-3-031-84651-9_5?error=cookies_not_supported&code=bcacca3e-f250-4162-bc61-057d6206ef5b

  14. https://inalco.hal.science/MIAI/hal-04920612v1

  15. https://docs.hybrik.com/job_json/overview

  16. https://repo.or.cz/vmaf.git

Dolby Hybrik and the AV2 Roadmap: Why AI Pre-Processing Future-Proofs Your Stack

AV2 Is Coming, But Bandwidth Pressure Is Already Here

The streaming industry finds itself at a critical juncture. While the Alliance for Open Media prepares to release AV2 by late 2025, bandwidth and cost pressures mount today. The global streaming market is projected to reach $285.4 billion by 2034, growing at a CAGR of 10.6% from 2024's $104.2 billion. This explosive growth demands immediate optimization strategies, not promises of future codec efficiency.

AV2 represents more than just an incremental upgrade. The codec provides enhanced support for AR/VR applications, split-screen delivery of multiple programs, and improved handling of screen content. Yet the reality of codec adoption tells a sobering story about timeline expectations.

Why Waiting for Hardware Decoders Delays ROI

Hardware-accelerated codec support faces significant timeline challenges that streaming providers cannot afford to ignore. Unlike software-only solutions that deploy immediately, hardware support requires chip design cycles of 18-24 months for silicon development, followed by 6-12 months for device manufacturing integration. Market penetration takes another 2-3 years for meaningful adoption rates.

The implications are stark: no current devices will support AV2 hardware decoding. New silicon is required across the entire ecosystem. Meanwhile, AI preprocessing solutions like SimaBit can deliver up to 22% bandwidth reduction on existing codecs today, while AV2 hardware support won't be widely available until 2027 or later.

How SimaBit Plugs Into Dolby Hybrik in Minutes

The seamless integration of SimaBit into Dolby Hybrik transforms theoretical efficiency into practical results. Every Hybrik workflow element can be managed through its RESTful API, making integration straightforward for engineering teams already familiar with the platform.

Hybrik processes media in your own secure cloud account, eliminating time wasted uploading files to external data centers. This architecture perfectly complements SimaBit's codec-agnostic approach, which works seamlessly with H.264, HEVC, AV1, and future AV2 implementations.

Enabling via the Hybrik SDK Flag

Activation requires minimal configuration changes. SimaBit is available through a simple SDK configuration within Hybrik. Teams can enable the preprocessing engine with a single flag adjustment, maintaining existing workflows while gaining immediate bandwidth savings.

Crunching the Numbers: 22 % AI Gains vs. 30–40 % AV2 Gains

The mathematics of optimization reveal compelling insights. AI preprocessing engines deliver measurable bandwidth reductions of 22% or more on existing H.264, HEVC, and AV1 stacks without requiring hardware upgrades. Early pilots suggest AV2 could achieve 30-40% better compression than AV1 while maintaining comparable encoding complexity.

AV1 reduces bandwidth by 30% compared to H.264 at the same quality. The BD rate analysis shows that CPU implementations of H264 and AV1 codecs require in mean more than 20% bitrate compared to GPU implementations. These metrics underscore an essential truth: optimization compounds across the encoding pipeline.

Consider the practical implications. A streaming service delivering 10 petabytes monthly could save 2.2 petabytes with AI preprocessing today, versus waiting years for theoretical AV2 savings of 3-4 petabytes. The EBU codec tests demonstrate that quality versus bitrate optimization requires careful consideration of PSNR, VMAF, and SSIM metrics across multiple codec generations.

Future-Proofing With Dolby Vision, Edge GPUs & Greener Streams

HDR video leverages modern displays with greater dynamic luminance and color range than previous standards. Dolby Vision's dynamic metadata, specified per shot, scene, or frame, delivers brighter images with greater contrast and enhanced color accuracy. This sophistication demands efficient preprocessing to maintain quality while managing bandwidth.

SimaBit reduces bandwidth requirements by 22% or more while boosting perceptual quality. The codec-agnostic approach ensures compatibility with emerging standards without workflow disruption. Environmental considerations amplify these benefits. Streaming generates approximately 55g CO₂e per hour, making bandwidth reduction a sustainability imperative.

Video streaming demand increases with 4K/8K resolution and higher frame rates, making energy consumption critical. The global ICT sector emitted 1.0--1.7 Gt CO2-eq in 2020, with video streaming generating 40-52% of total digital content impacts.

Checklist: Rolling Out SimaBit + Hybrik in Your Pipeline

All API submissions use HTTP commands POST, PUT, GET, and DELETE with JSON structures defining each element. The maximum array elements passable via query string is 250, ensuring efficient batch processing. Hybrik breaks jobs into Tasks during processing, with Elements defining processing steps like transcoding or logic operations.

SimaBit works seamlessly with all major codecs including H.264, HEVC, and AV1, as well as custom encoders. This flexibility ensures teams can implement preprocessing without disrupting established workflows or quality standards.

Automated QC and VMAF Tracking

VMAF integration in FFmpeg enables automated quality tracking through the configure flag --enable-libvmaf. This Emmy-winning perceptual video quality assessment algorithm provides objective measurements essential for validating preprocessing effectiveness across diverse content types.

Key Takeaways

The convergence of immediate needs and future possibilities defines modern video infrastructure strategy. SimaBit's breakthrough integration into Dolby Hybrik delivers measurable bandwidth reduction today while maintaining compatibility with tomorrow's codec evolution. Every Hybrik workflow element remains manageable through the RESTful API, ensuring teams maintain control while gaining efficiency.

The choice facing streaming providers is clear: wait years for AV2 hardware penetration while bandwidth costs mount, or implement AI preprocessing now for immediate savings that compound with future codec improvements. Sima Labs offers the practical path forward, delivering 22% bandwidth reduction today while preparing your stack for the AV2 transition ahead. Teams ready to optimize their Dolby Hybrik workflows can explore SimaBit integration today, transforming codec roadmap promises into present-day performance gains.

Frequently Asked Questions

When will AV2 deliver real ROI for streaming providers?

Hardware decoders require new silicon, device integration, and market penetration, which typically extends into late 2027 or beyond. AI preprocessing delivers savings now, so you can capture ROI immediately while adoption builds.

How does SimaBit integrate with Dolby Hybrik?

SimaBit is enabled via a simple SDK flag in Hybrik and fits into Hybrik REST API workflows without disrupting existing pipelines. See Sima Labs announcement for Dolby Hybrik integration at https://www.simalabs.ai/pr.

What bandwidth savings can I expect today, and how do they stack with AV2 later?

AI preprocessing typically reduces bitrate by about 22% across H.264, HEVC, and AV1 today. Early AV2 pilots suggest 30–40% gains versus AV1, and AI preprocessing compounds with future codec adoption for even greater efficiency.

Does SimaBit support HDR and Dolby Vision workflows?

Yes. SimaBit preserves perceptual fidelity while helping manage bitrate for HDR content, including Dolby Vision with dynamic metadata. Hybrik provides Dolby Vision tooling that aligns cleanly with preprocessing workflows.

How should teams validate quality after enabling AI preprocessing?

Use VMAF with FFmpeg --enable-libvmaf for automated QC and track PSNR and SSIM where relevant. Run A/B ladders on representative titles to confirm equal or better perceptual quality at lower bitrates.

What are the sustainability and cost impacts of enabling SimaBit now?

Reducing bitrate lowers CDN egress and storage costs while cutting emissions, with streaming estimated around 55 g CO2e per hour per viewer. At scale, immediate savings and lower environmental impact are significant.

Sources

  1. https://aomedia.org/press%20releases/AOMedia-Announces-Year-End-Launch-of-Next-Generation-Video-Codec-AV2-on-10th-Anniversary/

  2. https://www.simalabs.ai/blog/getting-ready-for-av2-why-codec-agnostic-ai-pre-processing-beats-waiting-for-new-hardware

  3. https://www.streamingmedia.com/Articles/ReadArticle.aspx?ArticleID=171548

  4. https://www.simalabs.ai/blog/step-by-step-guide-to-lowering-streaming-video-cos-c4760dc1

  5. https://docs.hybrik.com/rest_api/introduction/

  6. https://professional.dolby.com/technologies/cloud-media-processing/customers

  7. https://www.simalabs.ai/resources/ai-enhanced-ugc-streaming-2030-av2-edge-gpu-simabit

  8. https://www.fastpix.io/blog/cloud-transcoding-choosing-the-right-solution-for-your-video-centric-product

  9. https://www.scilit.com/publications/e682d1069456d0216d4c95ed950c9026

  10. https://tech.ebu.ch/docs/techreports/tr062.pdf

  11. https://docs.hybrik.com/tutorials/dolby_vision

  12. https://www.simalabs.ai/resources/jetson-agx-thor-vs-orin-4k-object-detection-live-sports-benchmarks-2025

  13. https://link.springer.com/chapter/10.1007/978-3-031-84651-9_5?error=cookies_not_supported&code=bcacca3e-f250-4162-bc61-057d6206ef5b

  14. https://inalco.hal.science/MIAI/hal-04920612v1

  15. https://docs.hybrik.com/job_json/overview

  16. https://repo.or.cz/vmaf.git

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©2025 Sima Labs. All rights reserved

SimaLabs

©2025 Sima Labs. All rights reserved

SimaLabs

©2025 Sima Labs. All rights reserved