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Introduction: The Broadcast World Is Changing Faster Than the Signal Chain
The professional video industry is going through one of its most significant transformations in decades. Traditional SDI infrastructure is steadily giving way to IP-based production, while broadcasters and live-event operators are being asked to deliver more formats, higher resolutions, wider color ranges, and increasingly sophisticated real-time experiences.
That transition sounds straightforward until the realities of a modern production environment come into view.
A single workflow may need to handle different frame rates, resolutions, HDR and SDR content, legacy interlaced material, regional standards, and IP transport simultaneously. Add live sports, remote production, cloud workflows, LED displays, immersive venues, and demanding latency requirements, and video processing quickly becomes one of the most technically critical components in the entire media pipeline.
This is where adaptive computing becomes increasingly important.
AMD, working with ecosystem partners such as InSync, is positioning adaptive SoCs and FPGAs as a flexible foundation for next-generation broadcast and professional AV equipment. Rather than forcing manufacturers to build entirely new hardware every time a standard or customer requirement changes, adaptive platforms can provide the programmable architecture needed to evolve alongside the industry.
The September 2, 2026 article by Rob Green of AMD and James Taylor of InSync focuses on precisely this challenge: how advanced video processing technologies can help manufacturers build equipment capable of surviving the rapidly changing media landscape.
From SDI to IP: The Complexity Is Growing
The migration from SDI to IP is often described as a simple infrastructure upgrade, but the reality is considerably more complicated.
Modern media facilities are becoming highly interconnected environments where video can move between cameras, production systems, contribution networks, processors, cloud infrastructure, LED processors, distribution platforms, and monitoring systems.
Standards such as SMPTE ST 2110 are helping establish the foundation for this IP-centric future, but moving video through an IP network does not eliminate the need for sophisticated processing.
In many cases, it increases it.
A production system still needs to understand what the incoming signal represents, determine how it should be transformed, and deliver the correct output without introducing unacceptable latency or degrading image quality.
Frame Rates Are No Longer a Simple Choice
Frame-rate conversion is one of the most demanding requirements in professional video.
Different regions, production environments, cameras, archives, and distribution systems can operate at different frame rates. A workflow may therefore need to convert material between standards while preserving motion quality.
Basic conversion can duplicate or remove frames, but premium applications require much more sophisticated processing.
Motion-compensated conversion attempts to understand how objects move between frames and generate new frames accordingly. This becomes especially important for fast-moving material such as sports, where poor conversion can produce obvious artifacts.
For viewers watching a football match, tennis tournament, Formula 1 race, or other high-motion event, even small processing errors can become immediately visible.
Resolution Conversion Is Becoming More Important
The move toward UHD and increasingly ambitious production formats adds another layer of complexity.
Broadcasters and AV operators may need to upscale HD material for UHD production, downscale UHD content for legacy systems, or convert between different image formats as content travels through a production chain.
This means the video processor cannot simply be optimized for one resolution.
It needs to operate effectively across multiple formats while maintaining detail, minimizing artifacts, and meeting the real-time requirements of professional environments.
Legacy Video Still Matters
The
That creates another challenge.
Interlaced video remains present in archives and established workflows, requiring high-quality deinterlacing before the material can be integrated into modern progressive production environments.
A poor deinterlacing algorithm can introduce jagged edges, motion artifacts, or loss of detail.
For broadcasters with decades of archived programming, sophisticated processing is therefore not simply a new-production requirement. It is also a bridge between the past and the future.
HDR and SDR Create Another Processing Challenge
The transition from SDR to HDR has dramatically increased the importance of color processing.
HDR can deliver greater brightness, contrast, and dynamic range, but professional workflows cannot assume that every device or distribution channel supports the same format.
Content may therefore need to move between HDR and SDR environments.
That requires careful processing to preserve artistic intent and prevent highlights, shadows, skin tones, and other important visual information from being damaged during conversion.
As HDR becomes increasingly common outside traditional television, these capabilities are becoming relevant to a much broader AV ecosystem.
Why Adaptive Computing Matters
The central argument behind
AMD adaptive SoCs and FPGAs combine programmable logic with processing resources and high-speed connectivity, allowing manufacturers to develop specialized video systems on a common hardware foundation.
That architecture is particularly attractive in broadcast equipment because product lifecycles can be long.
A camera processor, video gateway, production appliance, or broadcast infrastructure device may remain deployed for years. During that time, standards can change, customers can demand new functionality, and production environments can evolve.
A fixed-function platform can become a limitation.
An adaptive platform can provide room to evolve.
The Advantage for Broadcast Equipment Manufacturers
For OEMs, the value is not only raw processing performance.
The larger advantage is the ability to differentiate products without reinventing the entire hardware architecture.
Manufacturers can use adaptive computing as a foundation while developing their own intellectual property, workflows, interfaces, processing pipelines, and specialized capabilities.
That creates an important balance between standardization and differentiation.
The underlying platform can remain consistent while the product built on top of it becomes unique.
InSync Brings Specialized Video Processing to the Platform
InSync is presented in the article as an example of how specialized video-processing technology can complement AMD adaptive computing.
The company has spent more than two decades developing technologies focused on video conversion and signal processing, including motion-compensated frame-rate conversion, standards conversion, deinterlacing, aspect-ratio conversion, HDR processing, and ST 2110 workflows.
This combination addresses a growing industry requirement: manufacturers need sophisticated video capabilities, but they do not necessarily want to develop every algorithm and processing engine internally.
Licensable IP can shorten that development path.
The MCC-UHD Targets High-End Production
One of the highlighted InSync products is the MCC-UHD, a motion-compensated frame-rate converter designed for demanding UHD and HD applications.
Its target environments include high-motion and complex video material, particularly premium sports and Tier 1 live production.
This is an important market because sports production exposes weaknesses in video processing more aggressively than many other forms of content.
A static interview can hide small conversion imperfections.
A fast-moving sports event cannot.
ST 2110 Changes the Infrastructure Equation
SMPTE ST 2110 represents a major step toward separating professional media transport from traditional dedicated SDI connections.
Instead of treating video infrastructure as a collection of point-to-point signal paths, IP-based production can allow media components to communicate across a network.
But networked video creates its own demands.
Systems must deal with timing, synchronization, bandwidth, interoperability, routing, processing, monitoring, and reliability.
This makes high-performance processing hardware increasingly important.
The Real Opportunity Is Bigger Than Broadcasting
One of the most interesting points in the article is that advanced broadcast video processing is no longer limited to television facilities.
Professional AV environments are converging with broadcast technologies.
Corporate communications can require broadcast-quality production.
Large LED walls can demand sophisticated scaling and format conversion.
Live events increasingly use complex multi-display environments.
Immersive venues can combine cameras, real-time graphics, enormous LED surfaces, and multiple signal formats.
In these environments, the distinction between “broadcast” and “AV” is becoming increasingly difficult to maintain.
The Rise of Hybrid Media Workflows
The next generation of production environments will likely be hybrid rather than purely traditional or purely cloud-based.
Cameras may generate content locally.
Processing could happen on dedicated hardware.
Media may travel over IP.
Cloud systems may handle selected production or distribution functions.
AI may assist with analysis and optimization.
Displays may exist across physical venues and remote locations.
The video-processing layer therefore has to connect all of these worlds.
Hardware Flexibility Becomes Strategic
The longer product lifecycles of broadcast hardware make adaptability a strategic advantage rather than a nice feature.
Manufacturers cannot predict every requirement their customers will have several years from now.
They can, however, choose architectures that make future changes easier.
That is the deeper significance of adaptive computing.
It shifts some of the product-development equation from “build exactly what is needed today” toward “build a platform capable of becoming what customers need tomorrow.”
IP Licensing Can Accelerate Product Development
InSync’s decision to offer video-processing technologies as licensable IP adds another dimension to this strategy.
Instead of every OEM independently creating frame-rate conversion, standards conversion, or ST 2110 processing technologies, manufacturers can integrate established capabilities into their own adaptive hardware designs.
This potentially reduces engineering effort and allows companies to focus their resources on product differentiation.
For smaller manufacturers, that can be particularly valuable.
Image Quality Remains the Ultimate Test
Despite all the discussion about IP infrastructure, adaptive computing, and networking, the final test remains surprisingly simple.
Does the picture look good?
Viewers do not care how many FPGA resources were used to create a frame.
They care whether motion looks natural, whether details remain sharp, whether colors appear correct, and whether the image remains stable under difficult conditions.
Professional video processing therefore has to combine engineering sophistication with visual quality.
Sports Will Continue to Push the Industry Forward
Sports broadcasting is likely to remain one of the strongest drivers of video-processing innovation.
Live sports demand low latency, high resolution, accurate color, reliable synchronization, and exceptional motion handling.
The move toward UHD, HDR, immersive production, and increasingly sophisticated display systems will only intensify those requirements.
Technology developed for elite sports environments frequently finds its way into other professional applications afterward.
Remote Production Adds Another Layer
Remote production is also reshaping the infrastructure.
Instead of keeping every production function at the venue, broadcasters can transport media over networks to centralized or distributed production facilities.
That reduces the amount of equipment and personnel required on location, but it places additional demands on connectivity, timing, processing, and reliability.
Adaptive hardware can help equipment manufacturers create products that can operate across these changing architectures.
The Cloud Does Not Eliminate Hardware
There is sometimes an assumption that cloud production will eventually make specialized hardware irrelevant.
The more realistic future is probably a combination of both.
Some workloads are well suited to cloud infrastructure, while others benefit from dedicated processing close to the source.
Live video, especially high-resolution and low-latency content, can impose significant bandwidth and computational requirements.
Specialized hardware can therefore remain an important part of the infrastructure even as more production workflows become software-defined.
The Importance of Long-Term Compatibility
Compatibility may become one of the defining competitive factors in professional AV.
A product that supports today’s standards but cannot adapt to tomorrow’s requirements may have a short commercial lifespan.
By contrast, equipment that can evolve through programmable logic and software updates can potentially remain useful for longer.
That can change the economics of infrastructure deployment for both manufacturers and customers.
IBC 2026 Highlights the
The article points toward IBC 2026 as an opportunity to demonstrate these technologies in a live environment.
That is significant because video processing is difficult to evaluate from specifications alone.
Live demonstrations can reveal motion quality, conversion behavior, latency, interoperability, and real-world workflow integration far more effectively than a datasheet.
For an industry built around visual performance, seeing the technology in operation matters.
Deep Analysis: What Is Happening Inside an Adaptive Video Pipeline?
Signal Ingestion
A modern processing system first needs to identify and ingest the incoming media signal.
Depending on the environment, that could involve SDI, IP-based media streams, or other professional interfaces.
The processor must understand timing, resolution, frame rate, color characteristics, and other metadata before transformation begins.
Format Detection
A robust pipeline can automatically determine the characteristics of incoming content.
A simplified diagnostic workflow on a Linux-based media workstation might begin with tools such as:
ffprobe -hide_banner input.mp4
This can expose information such as resolution, frame rate, codec, pixel format, and stream metadata.
For professional broadcast systems, however, the underlying hardware pipeline can be considerably more specialized than a software utility such as FFmpeg or FFprobe.
Frame-Rate Processing
The next stage determines whether frames must be repeated, removed, blended, or generated through motion estimation.
A simplified software conversion example could look like:
ffmpeg -i input.mp4 -vf "fps=59.94" output.mp4
High-end broadcast systems go considerably further.
Motion-compensated systems analyze movement and construct intermediate frames to preserve fluid motion.
Resolution Scaling
Scaling is another critical stage.
A basic software example is:
ffmpeg -i input.mp4 -vf "scale=3840:2160" output.mp4
Professional processors may use dedicated hardware pipelines optimized for real-time operation, allowing scaling to occur without depending entirely on general-purpose CPU resources.
Deinterlacing Legacy Material
For older interlaced sources, a processing pipeline may need to reconstruct progressive frames.
A basic software example is:
ffmpeg -i interlaced.mp4 -vf "yadif" progressive.mp4
Broadcast-grade implementations can employ more advanced algorithms designed to preserve detail while reducing motion artifacts.
HDR and SDR Conversion
HDR-to-SDR conversion requires more than simply changing metadata.
The processor must transform luminance and color information appropriately.
A simplified conceptual pipeline might be:
HDR Source
↓
Color / Transfer Analysis
↓
Tone Mapping
↓
Gamut Conversion
↓
SDR Output
The goal is to maintain visual consistency rather than merely produce technically valid output.
IP Transport
Once video enters an IP-centric workflow, the system must also account for network transport and synchronization.
SMPTE ST 2110 separates different media components into network streams, enabling more flexible routing and processing.
A simplified conceptual architecture is:
Camera
↓
Media Ingest
↓
Adaptive Processing
↓
ST 2110 Network
↓
Routing / Production
↓
Display / Distribution
The actual implementation is substantially more complex, particularly around timing, redundancy, synchronization, and network management.
Monitoring the Pipeline
Operational visibility is essential in live production.
Engineers may monitor stream health, frame loss, timing, latency, processing load, and signal integrity.
A simplified network diagnostic might use:
ip -s link
or:
ethtool <interface>
These commands are useful for basic Linux network inspection, although professional broadcast deployments normally use dedicated monitoring and observability systems.
Why FPGAs Are Relevant
FPGAs are particularly useful when workloads require deterministic, parallel processing.
Video is naturally parallel.
Thousands or millions of pixels must be processed repeatedly, often at very high frame rates.
Programmable logic can therefore provide a highly efficient foundation for specialized video pipelines.
The key advantage is not simply speed.
It is the ability to configure the hardware around the workload.
What Undercode Say:
1. Video Is Becoming a Compute Problem
Modern media production is increasingly dependent on computation.
Resolution is increasing.
Frame rates are increasing.
HDR expands the amount of visual information.
IP networking expands workflow flexibility.
Each development creates new processing requirements.
2. Adaptive Hardware Is About Future-Proofing
The most important word in this story may be “adaptive.”
Broadcast customers do not want equipment that becomes obsolete every time a new standard emerges.
They want infrastructure capable of evolving.
3. IP Does Not Mean Simplicity
Moving from SDI to IP can provide enormous flexibility, but it also introduces networking complexity.
The industry is effectively replacing one set of engineering problems with another.
4. Processing Quality Still Matters
A perfect network carrying poorly processed video is still a poor production system.
Image quality remains the ultimate benchmark.
5. Motion Compensation Is Increasingly Valuable
Fast-moving content is unforgiving.
Motion-compensated processing can make a major difference when converting frame rates for premium sports and live events.
6. Broadcast Technology Is Spreading
Technology once developed specifically for television is increasingly appearing in corporate AV, live entertainment, digital signage, and immersive environments.
7. LED Walls Are Changing Requirements
Huge LED displays make image defects easier to see.
Scaling, frame-rate conversion, and synchronization therefore become increasingly important.
- UHD Is Not the End of the Road
The industry continues to move toward higher-resolution workflows.
8K development mentioned by InSync demonstrates that manufacturers are already thinking beyond today’s mainstream UHD environments.
9. HDR Creates More Processing Demand
HDR improves visual quality but makes format conversion more complicated.
Every additional color and brightness standard increases interoperability requirements.
10. Legacy Content Will Not Disappear
Broadcasters will continue to operate enormous archives.
Deinterlacing and standards conversion will therefore remain important for years.
11. OEMs Need Differentiation
Hardware manufacturers cannot compete simply by offering generic processing.
They need unique functionality.
Adaptive platforms provide the foundation for that differentiation.
12. IP Licensing Can Reduce Development Burden
Using specialized IP can prevent OEMs from having to reinvent complex processing technologies.
That can shorten development cycles.
13. Software Alone Is Not Enough
Although software-defined production is expanding, demanding real-time workloads still benefit from specialized hardware acceleration.
14. Hardware Alone Is Not Enough Either
Modern broadcast systems increasingly require programmable software layers, networking, orchestration, monitoring, and automation.
The winning architecture will likely combine all of them.
15. Sports Remains the Ultimate Stress Test
If a system can process fast-moving UHD HDR sports reliably, it has already solved some of the hardest problems in professional video.
16. Remote Production Changes the Architecture
Production resources can increasingly be distributed geographically.
That makes interoperability and network transport more important.
17. Latency Is Becoming a Competitive Factor
The closer live production gets to real-time interaction, the less tolerance there is for processing delays.
18. Adaptive Computing Fits This Environment
A programmable architecture makes sense when requirements are changing faster than hardware product cycles.
19. The Industry Is Converging
Broadcast, professional AV, enterprise communications, live events, and immersive experiences increasingly share the same technical foundations.
20. Standards Matter More Than Ever
Interoperability is becoming a prerequisite for large-scale media infrastructure.
- ST 2110 Is Part of a Larger Transition
The significance of ST 2110 is not simply that it replaces a cable type.
It represents a broader shift toward network-based media architectures.
22. Processing and Transport Are Becoming Interconnected
A future media system must understand both the content and the network carrying that content.
23. Manufacturers Need Longer Product Lifecycles
Adaptive technology can help manufacturers extend the useful life of products.
24. Customers Benefit From Flexibility
If equipment can evolve through programmable technology, customers may avoid replacing entire systems whenever requirements change.
25. Premium Video Requires Premium Processing
Higher resolution does not automatically mean better video.
Poor conversion can destroy the benefits of high-quality source material.
26. AI Will Likely Add Another Layer
Future processors may increasingly use AI-assisted techniques for motion analysis, restoration, scaling, noise reduction, and content-aware conversion.
27. That Will Increase Compute Requirements
AI-enhanced video processing will demand additional computational resources.
This makes flexible acceleration architectures even more interesting.
28. Cloud and Edge Will Coexist
Some workloads will move into the cloud.
Others will remain close to cameras, displays, and production hardware.
29. Adaptive Devices Can Bridge Both Worlds
Flexible hardware can act as an important processing layer between physical media infrastructure and software-defined workflows.
30. Professional AV Is Becoming Data Infrastructure
Video is increasingly transported, transformed, analyzed, and distributed like other forms of digital data.
31. Reliability Is Non-Negotiable
A consumer video application can tolerate an occasional glitch.
A global live broadcast cannot.
32. Deterministic Processing Matters
Predictable latency and consistent processing behavior are critical for live environments.
33. Integration Will Become a Bigger Differentiator
The best products will not simply perform one function well.
They will integrate processing, transport, monitoring, synchronization, and control.
34. Development Speed Matters
Media standards are evolving rapidly.
Companies that can bring updated products to market quickly will have an advantage.
35. Specialized Partnerships Make Sense
AMD provides the adaptive computing foundation.
InSync contributes specialized video-processing expertise.
That division of expertise can accelerate innovation.
36. The Market Is Expanding
The opportunity extends well beyond traditional broadcasters.
Live entertainment, enterprise video, stadiums, museums, retail environments, and immersive venues can all benefit.
37. Video Processing Is Becoming Invisible Infrastructure
When the technology works correctly, viewers rarely notice it.
But when it fails, everyone notices.
- The Best Processing Is Often the Processing Nobody Sees
Natural motion, accurate color, clean scaling, and reliable synchronization are signs of successful engineering.
- The Next Battle Will Be About Adaptability
Performance matters today.
Adaptability determines whether that performance remains relevant tomorrow.
- AMD and InSync Are Betting on That Future
The partnership reflects a broader industry movement toward programmable, standards-aware, high-performance media infrastructure.
The most important takeaway is that the future of professional video will not be defined by one resolution, one interface, or one processing standard. It will be defined by the ability to move between them without compromising quality.
✅ AMD Adaptive Computing Is Relevant to Broadcast Infrastructure
AMD’s adaptive SoCs and FPGAs are designed around programmable logic, processing capabilities, and connectivity, making them suitable for demanding embedded and media applications.
The article’s characterization of adaptive computing as a flexible foundation for broadcast OEMs is therefore consistent with the technology’s intended positioning.
✅ InSync Develops Professional Video Conversion Technology
The article identifies InSync as a specialist in video conversion and signal-processing technologies, including frame-rate and format conversion.
The
✅ SMPTE ST 2110 Is Central to IP-Based Professional Media
SMPTE ST 2110 is an established family of standards for transporting professional media over IP networks.
Its role in modern broadcast infrastructure and the broader transition away from traditional SDI-centric architectures is accurately represented.
✅ Motion-Compensated Frame-Rate Conversion Is Important for High-Motion Content
Motion-compensated conversion is specifically valuable when preserving natural motion during frame-rate transformations.
Sports and other fast-moving live content are particularly demanding because conversion artifacts are much easier to notice.
⚠️ The Technology Does Not Automatically Make Workflows “Future-Proof”
Adaptive hardware can substantially improve flexibility, but no platform can guarantee compatibility with every future standard.
Future-proofing depends on the combination of programmable hardware, software, standards support, networking, vendor updates, and the specific capabilities built into the final product.
Prediction
(+1) Adaptive Video Processing Will Become More Important Across Professional AV
The continued migration toward IP-based production, UHD, HDR, remote workflows, LED displays, and immersive experiences is likely to increase demand for flexible real-time video processing.
Over the next several years, the distinction between broadcast infrastructure and professional AV equipment will probably continue to disappear.
Adaptive SoCs and FPGAs should benefit from that transition because manufacturers increasingly need hardware that can evolve rather than remain locked to a single workflow.
The biggest opportunity may ultimately come from outside traditional television: stadiums, enterprise production, virtual production, immersive venues, digital signage, and large-scale live events.
If AMD and partners such as InSync can combine high-quality conversion algorithms with programmable acceleration and strong IP-based connectivity, their technology could become part of a broader transformation in how professional video is produced, transported, processed, and displayed.
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