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Introduction: A Turning Point for Media Over IP
For years, the professional AV and broadcast industries have moved toward the same destination while traveling on different technical roads. Broadcasters built highly synchronized, standards-driven IP infrastructures, while Pro AV environments often depended on proprietary ecosystems that delivered strong performance but limited interoperability. Now, IPMX is beginning to close that gap.
The Internet Protocol Media Experience, better known as IPMX, has entered a more mature phase. The launch of an official testing and certification program—and the appearance of the first certified products at ISE 2026—signals that IPMX is no longer simply an ambitious framework or a technology waiting for market validation. It is becoming a deployable, verifiable, multi-vendor standard for real-world media infrastructure.
For manufacturers, system integrators, broadcasters, universities, enterprises, healthcare organizations, and live-event operators, this shift raises an important question: Is IPMX finally ready to replace fragmented AV-over-IP ecosystems with a common, open foundation?
The evidence suggests that the industry is moving rapidly in that direction.
The Original in Summary
The original article explains how IPMX builds on established technologies such as SMPTE ST 2110 and AMWA NMOS while adapting them to the practical requirements of professional AV and unified communications. It highlights IPMX’s flexible timing, automated device compatibility, compressed video support, content protection, interoperable encryption, and future USB extension capabilities.
The article also examines the transition from “IPMX Ready” products to independently verified “IPMX Certified” products. Certification is designed to confirm predictable behavior, multi-vendor interoperability, and compliance with published technical requirements.
At ISE 2026, the first major wave of certified products demonstrated that IPMX is beginning to cover the complete media chain, including encoders, decoders, gateways, monitoring platforms, display technologies, and FPGA reference designs.
Finally, the article explores how Adeas, Nextera Video, AMD, and intoPIX are helping manufacturers accelerate IPMX development through validated FPGA intellectual property, reference designs, programmable silicon, and cost-optimized “virtual ASIC” implementations.
What Is IPMX?
A Common Language for Professional Media
IPMX is an open standard for transporting professional video, audio, and associated data across standard IP networks. Rather than treating an audiovisual signal as one fixed connection, IPMX separates media into independent streams that can be discovered, managed, routed, monitored, and connected across Ethernet infrastructure.
This architecture provides a level of flexibility that conventional point-to-point AV connections cannot easily match.
A camera, media player, computer, encoder, display, audio processor, or production system can become part of a networked media environment. Instead of physically reconnecting cables whenever a workflow changes, operators can establish and modify media paths through software and network control.
That capability is particularly valuable in large campuses, broadcast facilities, corporate environments, universities, live venues, and multi-room installations.
Built on Broadcast-Proven Technology
SMPTE ST 2110 Meets the Needs of Pro AV
IPMX does not attempt to rebuild media-over-IP technology from the ground up. It extends the foundation created by SMPTE ST 2110, a family of standards widely used in professional broadcast environments.
ST 2110 separates video, audio, and ancillary information into independent network flows. This allows each component to be routed and processed separately, providing greater flexibility than traditional SDI-based workflows.
IPMX adds capabilities that are especially important outside large broadcast facilities. These include asynchronous timing, EDID-style compatibility management, compressed video profiles, content protection, and security mechanisms designed for multi-vendor deployments.
The result is a technology that preserves broadcast-grade capabilities while making IP media more practical for organizations that do not operate specialized broadcast networks.
Flexible Timing Changes the Deployment Model
PTP When Precision Matters
Precise synchronization remains essential for many professional media applications. Video walls, live production systems, multi-camera environments, and synchronized displays may require tightly coordinated timing.
IPMX supports IEEE 1588 Precision Time Protocol, commonly known as PTP, allowing systems to operate with the high timing accuracy expected in professional broadcast environments.
A PTP grandmaster can distribute time across the network, while compatible switches and endpoints maintain synchronized operation.
For demanding installations, this preserves the precision associated with mature ST 2110 deployments.
Asynchronous Operation When Simplicity Matters
Not every AV installation requires network-wide synchronization.
A university classroom, meeting room, corporate presentation system, temporary event network, or smaller regional facility may prioritize simplicity, affordability, and compatibility with existing IT equipment.
IPMX supports asynchronous operation for these environments. Devices can rely on local clocks or video-related timing without requiring a facility-wide PTP architecture.
This flexibility may significantly reduce infrastructure complexity.
Organizations can choose the timing model that fits the application rather than redesigning the entire network around a single synchronization requirement.
EDID Over IP Reduces Integration Problems
Making Device Compatibility More Automatic
Traditional HDMI and DisplayPort connections use EDID information to help source devices understand the capabilities of displays. A computer can identify supported resolutions, refresh rates, color formats, and other characteristics before sending a signal.
In older IP-based AV systems, this process was often inconsistent or required manual configuration.
IPMX addresses the challenge through AMWA NMOS IS-11, which provides stream compatibility management across the network.
Before a connection is established, control systems can examine device capabilities and determine whether the proposed media format is compatible.
This can prevent common installation problems before they reach the user.
Instead of discovering a resolution mismatch after a system has been installed, operators may be able to identify the issue during connection setup.
For integrators, that could mean fewer on-site troubleshooting hours, faster commissioning, and lower long-term support costs.
JPEG XS Expands IPMX Beyond High-End Networks
High-Quality Video on Existing Ethernet
Uncompressed media provides exceptional quality but consumes significant bandwidth.
High-resolution workflows may require 10GbE, 25GbE, or even 100GbE infrastructure. These network speeds are common in advanced broadcast facilities and major enterprise environments, but they are not available everywhere.
JPEG XS changes the economics of deployment.
The compression technology is designed to provide visually lossless quality with extremely low latency. In IPMX environments, it can enable high-quality 4Kp60 4:4:4 media transport over 1GbE or 2.5GbE networks.
That opens the door to organizations that already have standard copper Ethernet infrastructure.
Instead of replacing an entire network before adopting media over IP, some users may be able to introduce IPMX through compressed transport profiles.
This could make IPMX attractive to a much broader range of installations.
Certification Turns Promise into Measurable Trust
The Difference Between “Ready” and “Certified”
Before formal certification became available, manufacturers could describe products as “IPMX Ready.”
That designation helped demonstrate development progress and encouraged early interoperability testing. However, it did not provide the same level of independently verified assurance as a formal certification process.
Certification changes the meaning of market readiness.
An IPMX Certified product is tested against defined requirements and profiles. The objective is not merely to confirm that a device supports an IP-based media workflow. The objective is to establish predictable behavior and verified interoperability within the scope of the tested specifications.
This distinction matters because open standards are only valuable when implementations work reliably together.
What IPMX Certification Validates
Predictable Product Behavior
Certified products are expected to behave consistently under defined test conditions.
This helps reduce uncertainty for integrators and customers who need to understand how devices will operate in real installations.
Multi-Vendor Interoperability
One of IPMX’s central promises is that certified products from different manufacturers can work together without extensive custom integration.
That does not mean every feature from every product is automatically compatible. Interoperability depends on the specific profiles and capabilities tested.
However, certification provides a clearer foundation for selecting products across vendors.
Compliance with Published Requirements
Certification evaluates products against the relevant IPMX technical recommendations and test plans.
Official branding, registry information, unique identification details, and documented certification profiles give customers a clearer way to verify what a product has been tested to support.
The First Certified Products Prove Ecosystem Breadth
From Individual Devices to Complete Architectures
The first wave of certified products at ISE 2026 included 48 products from 11 manufacturers.
The significance is not limited to the number.
The certified products covered multiple parts of the media ecosystem, including endpoints, gateways, monitoring tools, display technologies, LED processing systems, and FPGA reference designs.
This breadth suggests that IPMX is moving beyond isolated demonstrations.
A complete IPMX environment requires more than a compatible encoder and decoder. It also needs network visibility, control, monitoring, integration with legacy equipment, and reliable delivery to displays.
The first certification wave indicates that these components are beginning to emerge together.
Why Gateways Still Matter
The Future Must Coexist with the Past
Most organizations cannot replace every existing media device overnight.
Broadcast facilities may have large SDI installations. Universities may depend on HDMI-based classrooms. Enterprises may operate years of installed AV equipment.
Gateways provide a practical migration path.
They can connect IPMX systems to SDI, HDBaseT, HDMI, and other established technologies.
This allows organizations to modernize gradually rather than requiring a complete infrastructure replacement.
The ability to bridge old and new technologies may be one of IPMX’s strongest advantages during its early adoption phase.
Broadcast Adoption: ST 2110 Made Easier
Extending Existing Investments
Broadcasters already understand the benefits of ST 2110.
Many have invested heavily in synchronized IP networks, PTP infrastructure, high-speed switching, and NMOS-based control.
For these organizations, IPMX may function as a strategic extension rather than a disruptive replacement.
It can bring broadcast-grade media workflows into environments where traditional ST 2110 deployment would be too complex or expensive.
Smaller regional stations, mobile production units, educational broadcasters, and mixed-use facilities may benefit from asynchronous operation and compressed transport.
IPMX can therefore extend IP media technology into areas where a full broadcast architecture would be difficult to justify.
Pro AV Adoption: Breaking the Proprietary Barrier
More Choice for Integrators
For decades, many AV-over-IP systems have operated as closed ecosystems.
A manufacturer might provide encoders, decoders, control software, network tools, and management platforms that work well together but are difficult to mix with competing products.
This approach can simplify deployment within one ecosystem, but it may also create long-term vendor dependence.
IPMX offers a standards-based alternative.
If certified products operate together within their tested profiles, integrators can select components based on performance, cost, physical design, power requirements, support quality, and application-specific features.
That could change how AV systems are designed.
Instead of choosing one vendor for the entire signal chain, organizations may be able to build systems from multiple specialized suppliers.
Healthcare and Regulated Environments
Security Is Becoming a Design Requirement
In many organizations, security is no longer an optional feature.
Healthcare providers, government institutions, financial organizations, and major enterprises increasingly evaluate encryption, authentication, access control, and network governance before considering media performance.
IPMX introduces security-related capabilities designed for multi-vendor environments.
The Privacy Encryption Protocol, or PEP, provides a common approach for protecting media content across compatible devices.
At the control layer, AMWA IS-10 supports authentication and authorization using established IT technologies such as TLS, OAuth 2.0, and JSON Web Tokens.
These capabilities can help IPMX fit more naturally into modern enterprise security strategies.
However, encryption alone does not secure an entire deployment.
Organizations still need network segmentation, identity management, secure configuration, software updates, monitoring, incident response, and strong operational policies.
Deep Analysis: Designing an IPMX Deployment
Step One: Identify the Media Requirements
Before selecting hardware, organizations should define the expected media workload.
Important questions include:
How many video streams are required?
What resolutions and frame rates will be used?
Is 4:4:4 color necessary?
Is uncompressed transport required?
Is low-latency compression acceptable?
Will the system carry protected content?
Are audio and USB extension required?
These answers determine the network, endpoint, and processing requirements.
Step Two: Evaluate Network Capacity
A basic Linux network check may begin with:
ip link show ip addr show ethtool eth0
Administrators can inspect interface status, link speed, and supported capabilities.
For a high-bandwidth IPMX environment, network planning should also consider multicast behavior, switch capacity, buffering, Quality of Service policies, and the number of simultaneous streams.
Step Three: Test Multicast Behavior
IP media systems often depend on multicast delivery.
Administrators can inspect multicast-related settings with:
ip maddr show cat /proc/net/igmp
Switches should be configured according to the requirements of the deployment.
IGMP snooping can help prevent multicast traffic from being unnecessarily forwarded to every network port.
However, configuration must be validated carefully because incorrect multicast policies can interrupt media delivery.
Step Four: Validate PTP Where Needed
Systems using synchronized timing should monitor PTP operation.
On Linux, administrators may use:
ptp4l -i eth0 -m
A related synchronization process may be started with:
phc2sys -s eth0 -c CLOCK_REALTIME -m
The exact configuration depends on the network architecture, hardware timestamping support, grandmaster design, and operating environment.
PTP should be tested under realistic traffic conditions rather than only in an isolated laboratory.
Step Five: Measure Network Performance
Basic throughput testing can be performed with tools such as iperf3.
On a server:
iperf3 -s
On a client:
iperf3 -c 192.168.1.10
For media systems, raw bandwidth is only one measurement.
Latency, jitter, packet loss, buffering behavior, and traffic bursts may have a direct impact on video performance.
Step Six: Secure the Control Plane
Organizations should avoid exposing media-control services directly to untrusted networks.
A basic firewall review might include:
sudo firewall-cmd --list-all
or:
sudo ufw status verbose
Access should be limited to authorized management networks.
Certificates, authentication tokens, software updates, and device credentials should be managed through formal operational processes.
Step Seven: Test Multi-Vendor Workflows
A successful single-vendor demonstration does not automatically prove multi-vendor interoperability.
Testing should include:
Device discovery
Connection management
Stream compatibility
Format negotiation
Timing behavior
Failover
Recovery after network interruption
Monitoring visibility
Security behavior
The most useful test is an end-to-end workflow involving the actual products intended for deployment.
Accelerating Development with FPGA IP
Avoiding a Full Implementation from Scratch
For manufacturers, IPMX adoption presents a major engineering challenge.
Implementing media transport, timing, compression, discovery, connection management, compatibility control, encryption, and hardware interfaces requires substantial expertise.
Building every component internally can increase development cost and certification risk.
Pre-validated FPGA IP cores and reference designs provide an alternative.
Adeas and Nextera Video offer modular IP solutions that include media transport functions, supporting software, NMOS capabilities, transmit and receive reference designs, and development tools.
Manufacturers can start from a validated foundation and focus engineering resources on product differentiation.
AMD Adaptive Silicon and IPMX
One Platform, Multiple Product Classes
AMD programmable devices provide flexibility for manufacturers building different types of IPMX products.
The Zynq UltraScale+ MPSoC can support demanding gateways, high-end endpoints, and systems that combine media processing with control functions.
Kria system-on-module products can reduce hardware development effort by providing production-ready modules.
The Zynq 7000 family offers a cost-focused route for compact devices such as wall plates, small gateways, transmission units, and display receivers.
Versal Adaptive SoCs can support high channel density, advanced processing, AI-assisted analysis, and more demanding media architectures.
The ability to reuse a programmable platform across multiple products may reduce development costs and simplify portfolio management.
The “Virtual ASIC” Model
Making IPMX More Accessible
A particularly important development is the cost-optimized solution combining AMD Zynq 7000 silicon, Adeas IPMX technology, Nextera control software, and intoPIX JPEG XS compression.
The design can function as a pre-integrated “virtual ASIC.”
Manufacturers may be able to add IPMX capabilities without building a large internal FPGA development team.
This approach could make IPMX more accessible to companies that have strong AV product expertise but limited experience in programmable logic design.
The target applications include compact transmitters, wall plates, set-top devices, small gateways, and display-integrated receivers.
What Undercode Say:
IPMX Is Moving from Theory to Infrastructure
IPMX is reaching the stage where market confidence matters more than technical promises.
Certification Creates a Stronger Buying Signal
The transition from “IPMX Ready” to “IPMX Certified” gives integrators a clearer way to evaluate interoperability claims.
Open Standards Can Reshape Vendor Competition
Manufacturers may increasingly compete on product quality, innovation, support, efficiency, and cost rather than ecosystem lock-in.
Interoperability Will Be the Real Test
Certification is important, but long-term success will depend on how products behave in complex production environments.
The First Certified Products Are Only the Beginning
The first wave demonstrates ecosystem breadth, but the market will need more certified endpoints, control platforms, displays, gateways, and monitoring tools.
Timing Flexibility Could Drive Adoption
Asynchronous operation may be one of IPMX’s most commercially important capabilities.
PTP Will Remain Essential
High-precision broadcast and synchronized display environments will continue to depend on PTP.
IPMX Does Not Replace Every Existing Technology
HDMI, SDI, HDBaseT, and proprietary AV platforms will remain important for years.
Gateways Will Support Gradual Migration
Organizations are more likely to adopt IPMX when they can preserve existing equipment.
JPEG XS May Expand the Addressable Market
Low-latency compressed transport can make IPMX practical on networks that would not support uncompressed media.
Network Engineering Will Become More Important
AV professionals will need stronger knowledge of Ethernet, multicast, timing, monitoring, and cybersecurity.
IT Teams Will Become Key Stakeholders
IPMX projects will increasingly require cooperation between AV engineers and enterprise network teams.
Security Will Influence Purchasing Decisions
Encryption and authentication are becoming major requirements in enterprise and regulated environments.
PEP Is Valuable but Not a Complete Security Strategy
Media encryption must be combined with secure network design and operational controls.
Multi-Vendor Testing Must Continue
The industry should expand testing beyond controlled certification events.
Product Profiles Must Remain Clear
Customers need to understand exactly which IPMX capabilities a certified device supports.
Certification Labels Should Not Be Oversimplified
A badge should be interpreted alongside the product’s tested profiles and capabilities.
Monitoring Tools Are Critical
Open interoperability is difficult to maintain without strong network and media observability.
The Control Plane Deserves Equal Attention
Discovery and connection management are as important as raw video transport.
IS-11 Could Reduce Installation Costs
Automated compatibility checks may prevent common format-related failures.
Manufacturers Can Reduce Risk with Validated IP
Pre-certified reference designs may shorten development cycles.
FPGA Technology Offers Strategic Flexibility
Programmable hardware allows manufacturers to adapt products as standards evolve.
The Virtual ASIC Approach Is Commercially Significant
It can reduce the expertise required to bring IPMX products to market.
Cost Will Determine Adoption Speed
Open standards are attractive, but deployment economics will remain decisive.
Existing Ethernet Infrastructure Is a Major Opportunity
Compressed IPMX profiles may allow organizations to modernize without rebuilding every network.
Broadcast and Pro AV Are Converging
IPMX provides a shared technical foundation for both industries.
Education Could Become a Major Market
Universities often operate classrooms, event spaces, production facilities, and broadcast programs in one environment.
Healthcare May Benefit from Standardized Security
Interoperable encryption could make IPMX more attractive in regulated media workflows.
Enterprise AV Could Become More Modular
Organizations may gain more freedom to choose specialized components from different vendors.
Proprietary Vendors Will Need to Adapt
Some may embrace certification, while others may emphasize integrated ecosystems and unique features.
Open Standards Do Not Automatically Mean Simplicity
Networked media systems still require skilled design and testing.
Deployment Quality Will Matter More Than Marketing
A poorly engineered IPMX installation can still experience latency, packet loss, synchronization problems, or security weaknesses.
Training Will Become Essential
AV engineers may need deeper networking knowledge, while IT teams may need greater understanding of real-time media.
The Certification Ecosystem Must Scale Globally
Multiple testing locations could reduce barriers for manufacturers worldwide.
More Compression Profiles Could Accelerate Growth
HEVC and AVC support may attract organizations focused on bandwidth efficiency.
USB Extension Could Expand KVM Applications
Future support may enable broader remote workstation and control workflows.
The Industry Must Avoid Fragmenting the Standard
Optional profiles should not create a new generation of compatibility confusion.
Transparency Will Build Trust
Public registries and clear certification details can help buyers make informed decisions.
IPMX Could Become a Long-Term Infrastructure Layer
Its greatest value may be as a common foundation rather than as a single product category.
Early Movers May Gain Strategic Influence
Manufacturers entering the ecosystem now may help shape product expectations and interoperability practices.
The Market Has Reached an Important Threshold
IPMX is no longer only a future technology.
The Next Phase Is Execution
The industry must now prove that certification translates into reliable, scalable, and secure deployments.
✅ IPMX Has Entered Formal Certification
The article states that the official IPMX testing and certification program is active and that certified products were presented at ISE 2026. This is consistent with the source material’s description of the standard’s transition into a deployable certification phase.
✅ IPMX Builds on SMPTE ST 2110 and AMWA NMOS
The technical foundation described in the article is consistent with IPMX’s use of established broadcast media transport and network-control technologies.
✅ IPMX Supports Both PTP and Asynchronous Timing
The source explains that IPMX can operate with precise PTP synchronization or in asynchronous environments, depending on deployment requirements.
✅ JPEG XS Can Reduce Network Bandwidth Requirements
The article’s discussion of visually lossless, low-latency compressed transport aligns with the stated role of JPEG XS in enabling high-quality media delivery over lower-speed Ethernet infrastructure.
✅ Certification Is Profile-Specific
An IPMX certification badge should not be interpreted as proof that every possible IPMX feature is supported. The tested profiles and registry information remain important.
⚠️ IPMX Will Not Eliminate Proprietary AV Immediately
The standard may reduce vendor lock-in, but proprietary platforms will continue to operate and evolve. Adoption will depend on cost, interoperability, product availability, and customer requirements.
⚠️ Security Features Do Not Secure an Entire Deployment
PEP, TLS, OAuth 2.0, and token-based authentication can strengthen security, but they must be supported by network segmentation, patch management, monitoring, and operational governance.
Prediction
(+1) IPMX Will Expand Across Enterprise and Education
As more certified products become available, universities, enterprise campuses, and mixed-use facilities are likely to evaluate IPMX as a flexible alternative to closed AV-over-IP ecosystems.
(+1) Multi-Vendor AV Systems Will Become More Practical
Certification and clearer product profiles may reduce the cost and complexity of combining equipment from different manufacturers.
(+1) Compressed IPMX Will Accelerate Adoption
JPEG XS and future codec profiles may allow organizations to deploy IPMX without upgrading every network link to high-speed Ethernet.
(+1) FPGA Reference Designs Will Shorten Development Cycles
Manufacturers using validated IP cores and programmable silicon may reach certification faster than teams implementing the complete technology stack internally.
(-1) Compatibility Challenges Will Not Disappear Immediately
As optional capabilities and new profiles are introduced, buyers may still need careful testing to confirm interoperability.
(-1) Poor Network Design Could Damage Early Deployments
Packet loss, multicast misconfiguration, inadequate switching capacity, and weak timing design may create failures that are incorrectly blamed on the IPMX standard.
Conclusion: The Standard Is Ready—The Industry Must Deliver
IPMX has crossed an important boundary.
The technology now has an official certification process, a growing registry of verified products, support across major parts of the media signal chain, and a development ecosystem designed to help manufacturers move from concept to deployment.
Its value is not limited to transporting video over Ethernet.
IPMX offers a potential common infrastructure for broadcast, professional AV, enterprise communications, education, healthcare, live events, and other media-intensive environments.
Its flexible timing model makes it adaptable. Its NMOS-based control capabilities make it manageable. Its compressed transport profiles make it more accessible. Its security architecture makes it more relevant to modern organizations. And its certification program gives the market a stronger basis for trust.
The next challenge is not defining the standard.
It is building reliable products, deploying them correctly, testing them across vendors, and proving that open interoperability can deliver practical advantages at scale.
The Pro AV and broadcast industries have been moving toward convergence for years.
IPMX may finally provide the shared infrastructure capable of turning that convergence into a lasting reality.
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