A standing-room panel at the SMPTE Exhibit Hall Center Stage at DisplayWeek 2026 brought together three voices with distinctly different vantage points on the display ecosystem: Michael Zink, VP of Strategic Partnerships at LG Electronics; Jeremy Hochman, CEO and co-founder of Megapixel; and Matthew Brantley, CTO of 6P Color. Moderated by Juan Reyes, president of Tech Align Group and SMPTE Hollywood Section Chair, the 45-minute session — titled Beyond the Screen: How M&E Innovation Is Shaping Next-Gen Displays — covered terrain that ranged from the consumer TV brightness wars to the philosophical underpinnings of creative intent in an era of radically heterogeneous display environments.
What emerged was a picture of an industry that has made extraordinary technical progress over the past decade, while simultaneously generating new and harder problems for both the content creation community and display manufacturers to solve.
The panel’s most important contributions were conceptual rather than technical. The shift from static to differential creative intent, the distinction between calibration and characterization, the reframing of HDR as a perceptual tool rather than a peak-luminance specification, and the case for decoupling color data containers from display primaries — these are ideas with real practical implications for how the industry manages the transition to a more capable, more heterogeneous, and more complex display ecosystem.
A Decade of Display Innovation — And the Taxonomy Problem
Zink opened by stepping back to frame the past ten years of TV development. He noted that roughly a decade ago, the UHD Alliance was forced to bifurcate its Premium Ultra HD specification into two separate tracks: one for high-brightness LCD panels and one for high-contrast OLED panels. The two technologies occupied fundamentally different positions on the brightness-versus-contrast axis, and no single display could satisfy both at once.
That constraint, Zink argued, has effectively dissolved. The convergence of mini-LED backlighting, local dimming zone densification, OLED panel efficiency gains, and the emergence of microLED as a self-emissive technology now means that multiple display technologies can simultaneously satisfy both the high-brightness and high-contrast requirements that once forced the specification split. OLED peak luminance, he noted, has roughly tripled over the past five years — a figure that would have seemed implausible at the time the original UHD Alliance specs were written.
Zink took care to point out, however, that the proliferation of display technologies has produced a consumer-facing nomenclature problem that the industry has largely failed to address. The current landscape — LED, mini-LED, RGB LED, micro-RGB, OLED, QD-OLED, microLED — means that a consumer walking into a retail environment is confronted with a taxonomy that is both technically accurate and practically incomprehensible. His observation that the first four rows of any comparative display chart describe only variations in LCD backlight architecture was a useful corrective for a field that sometimes mistakes the backlight for the panel.
The core competitive dynamic, he argued, continues to be driven by peak luminance. Retail environments reward brightness, and manufacturers have responded accordingly. Consumer TVs are now approaching and, in some cases, exceeding 10,000 nits — the upper boundary defined by the SMPTE ST 2084 PQ electro-optical transfer function. The PQ curve’s 10,000-nit ceiling was once a theoretical limit; some panels are now measuring in excess of it, which raises legitimate questions about whether the existing HDR standards infrastructure can contain what display hardware is now capable of delivering.
Large-Format Displays: A Different Engineering Problem Altogether
Hochman drew a sharp distinction between the consumer TV market and the large-format display segment that Megapixel works in — one where “large” means 150 feet across, not 150 inches. At that scale, microLED tiled systems consisting of 10,000 or more modules replace monolithic glass panels, and the engineering challenges shift accordingly.
The key shift is from device-level calibration to system-level characterization. In a conventional TV workflow, display calibration occurs at the factory and is addressed again only if a user initiates a service call. In a large-format tiled microLED installation, every individual module must be characterized — luminance, chromaticity, and sub-pixel data for every red, green, blue, and supplemental primary emitter — and that characterization data must be retained and managed as a persistent asset of the installation. The goal is not to calibrate once and hope for consistency, but to understand the raw physical capabilities of every pixel in the array so that a software-defined rendering layer can make ongoing, corrective decisions about how to represent color and luminance accurately across the full display surface.
Hochman was explicit that the distinction between “calibration” and “characterization” is not semantic. Calibration implies bringing a device to a known state and leaving it there. Characterization implies building a persistent model of a device’s physical behavior that can be interrogated and acted upon dynamically — including as algorithms improve, as new content standards emerge, or as the display itself ages. For a multi-million-dollar installation expected to remain in service for a decade or more, the difference matters enormously.
The practical implications for creative pipelines are significant. At the scale Megapixel works in — think stadium scoreboards, large-venue LED walls, and immersive architectural environments — the display fills the viewer’s entire field of view, not just occupies a portion of a living room wall. Color and luminance accuracy must be maintained across the full dynamic range of the panel and across the full spatial extent of the surface. Errors that would go unnoticed on a 77-inch OLED become immediately visible at 100 feet. Equally, the photographic and broadcast workflows that these environments must support place demands on color pipeline accuracy that far exceed the tolerances consumer TV manufacturers typically design to.
Color Management’s Expanding Mandate
Brantley’s framing of 6P Color’s role in this ecosystem was among the more conceptually precise contributions of the session. He characterized color management not as a solved problem being extended at the margins, but as an area that has acquired three genuinely new responsibilities in recent years — on top of the three classical ones.
The classical jobs of color management — representation (encoding intent as data), translation (mapping data to a display), and execution (the mathematical rendering) — remain necessary but are no longer sufficient. The three additions Brantley identified are orchestration, enhancement, and personalization.
Orchestration addresses the challenge of managing color coherence across large numbers of heterogeneous display devices — precisely the problem Hochman described at scale. Enhancement addresses the gap between content mastered for one set of display primaries and a display that may have a substantially different, potentially wider, gamut. And personalization addresses the end-user reality that consumers have a strong sense of what they want to see, even if they lack the vocabulary or technical means to specify it.
The technical platform 6P Color has built to address these requirements and is built around their Full Color Range (.FCR) container format and a cloud-based color management architecture (CMAS) paired with a device-resident Neural Render Engine for real-time processing. The .FCR format, as discussed in more detail by 6P Color at CES 2026, encodes colorimetric data against LMS cone fundamentals referenced to the human visual system rather than against device primaries — an approach that decouples the color signal from both the acquisition device and the display device, deferring gamut decisions until the rendering endpoint.
From a production workflow standpoint, Brantley was clear that 6P Color’s intention is to leave the colorist’s interface unchanged. If a colorist is working in DaVinci Resolve, they should be able to work the same way they always have — with the expanded capability expressed as a larger, more expressive palette within familiar controls, not as a new set of technical obligations. The decoupling of creative expression from display-specific rendering is the mechanism that makes this possible.
Multi-Primary Displays: The Industry’s Emerging Fault Line
The most substantive area of contention in the discussion — though the panelists were diplomatically aligned — concerned multi-primary displays and the extent to which the existing standards infrastructure can or should accommodate them.
Zink noted that consumer TVs already exceed the luminance ceiling defined by the PQ curve, and that the color side of the equation is heading in a similar direction. Displays with four or more color primaries are appearing on the show floor, driven by goals ranging from luminance efficiency (adding a white or cyan emitter) to metamerism reduction (adding a two white emitters to an RGB LED array, as in Megapixel’s five-primary film production panel) to gamut extension.
The tension Brantley identified is that Rec. ITU-R BT.2020, while defining a wide color gamut container, was not designed as a specification for display primaries — it was designed as a data representation standard. Using it as a display specification constrains manufacturers from designing displays whose primaries are optimized for the physical and perceptual goals of the application. A display designed with intentional primaries optimized for human color perception, metamerism minimization, or wide-gamut color rendering is a fundamentally different objective from a display whose primaries were determined by the availability of practical LED wavelengths when the standard was written.
The practical implication for the content creation community is that the traditional workflow assumption — that knowing the container format tells you what the display will do — no longer holds. As Hochman observed, the gamut achievable with current microLED technology already exceed what BT.2020 was designed to represent, and the industry is beginning to encounter the mismatch between the color container and the physical display in production environments.
Brantley’s response to the standards question was pragmatic: standards define interoperability frameworks, not display physical properties, and treating them as such — rather than as constraints on display design — opens up the possibility of devices that natively express a wider gamut while remaining conformant to existing distribution formats through mapping. As long as the mapping chain is documented and reversible, conformance can be demonstrated regardless of the display’s native primaries.
The Creative Intent Problem — Static vs. Differential
The session’s most philosophically interesting exchange concerned the definition of creative intent and whether the industry’s current framework for preserving it remains adequate.
Zink referenced the UHD Alliance’s Filmmaker Mode specification — a mode that disables post-processing on the display side and presents the decoded signal as closely as possible to the mastered signal — as an example of the industry’s current best attempt at static creative intent preservation. The goal is straightforward: reproduce what the colorist approved on their reference monitor, as faithfully as the display hardware allows.
Brantley’s counterargument was pointed: static creative intent preservation assumes that the studio can control the viewing environment. It cannot. A viewer watching a first-run theatrical release on a mobile device in a daylit airport is not watching in a color-grading suite on a calibrated OLED reference monitor at 48 nits. The perceptual experience of the content is categorically different. The question of whether the display is accurately reproducing the mastered signal is, in that context, the wrong question. The right question is: what would the cinematographer or colorist have done differently if they had known the content would be consumed in this environment?
Brantley described the .FCR metadata stack as an attempt to encode what he called differential creative intent — information that allows the rendering system to approximate, for a given viewing environment and display capability, what the creative’s choices would have been under different conditions, rather than simply enforcing one fixed luminance and color state regardless of context.
Hochman added a calibration-side dimension to this: the perceptual dynamic range required to maintain apparent shadow separation in a sun-lit atrium environment is fundamentally different from what is required in a black-box cinema. A display with a peak luminance of 5,000 nits operating in a high-ambient-light environment may need to deploy a significant fraction of that range simply to achieve the same perceptual shadow detail that a 150-nit projection system delivers in a darkened theater. In that sense, HDR’s role is shifting from a technical specification of absolute luminance capability to a perceptual tool for maintaining emotional and narrative range across heterogeneous viewing conditions.
This reframing has direct implications for HDR mastering practice. Both Hochman and Zink noted that creative use of HDR has matured and shifted direction — from early-era highlight obsession (when cinematographers and colorists were first exploring what specular highlights in the 4,000-to-10,000 nit range actually looked like) toward a growing emphasis on shadow detail and low-luminance discrimination. The content, as Zink observed, seems to be moving toward greater tonal complexity in the darker parts of the range at exactly the moment that display hardware is continuing to push toward higher peak luminance. That creates a potential mismatch that neither the mastering community nor the display industry has fully resolved.
The Single-Master Problem
An additional complication raised by Brantley is Hollywood’s push toward a single distribution master — one file that serves as the source for all downstream deliverables rather than separate distribution masters for theatrical, home video, streaming, and mobile distribution. This is primarily a cost-reduction initiative, but its technical implications are significant.
A single master optimized for one viewing context is, by definition, less optimized for other contexts. Combined with the growing diversity of display capabilities, viewing environments, and color rendering approaches, the single-master model places increased pressure on display-side adaptive processing to compensate for what the production pipeline cannot anticipate. The alternative — treating the single master as an intent description and using downstream metadata and rendering intelligence to adapt it to specific contexts — is closer to what 6P Color’s differential intent framework describes but requires a level of content pipeline and display ecosystem coordination that does not yet broadly exist.
Standards Bodies and the Role of SMPTE
All three panelists spoke positively about SMPTE’s role in the display standards ecosystem — notably the standardization of the ST 2084 PQ EOTF and ST 2086 mastering display metadata, both of which enabled downstream adoption by HDMI, CTA, and streaming distribution systems. Zink’s observation that SMPTE provides the infrastructure for critical peer review and standardization of technologies developed elsewhere — rather than necessarily originating those technologies — was an accurate description of how the ST 2084/2086 work proceeded.
Hochman highlighted SMPTE ST 2110 as a particularly important enabling standard for large-format and live-event display workflows. ST 2110’s architecture, which separates video essence, audio, and ancillary data into discrete IP streams with associated metadata, provides a transport layer that is agnostic to the payload and extensible as new formats emerge — without requiring hardware changes. For an installation expected to remain in service for a decade or more, the ability to update content handling through firmware and software rather than hardware replacement is commercially essential.
Implications for the Content Creation Community
The panel’s discussion points to several concrete developments that colorists, DITs, cinematographers, and post-production facilities should be tracking.
First, the assumption that knowing the delivery container format tells you what the display will do is weakening. As multi-primary displays become more common — in consumer TVs, in projection, and in large-format LED walls used for virtual production — the mapping between encoded signal and displayed color becomes increasingly dependent on display-side processing that may not be standardized. This is not a distant possibility; it is already the case on the virtual production stages using LED walls with five or more primaries.
Second, the concept of creative intent itself is under productive pressure. The static-intent model — reproduce what was approved on the reference monitor — is being supplemented by adaptive approaches that attempt to preserve perceptual and narrative fidelity across a range of viewing contexts. Colorists and finishing teams who understand this distinction will be better positioned to work with metadata frameworks like 6P Color’s .FCR or emerging adaptive tone-mapping approaches.
Third, the single-master strategy that Hollywood is pursuing for cost efficiency creates a technical obligation that the industry does not yet fully know how to discharge. The more heterogeneous the display ecosystem becomes — in terms of peak luminance, native color primaries, and viewing environments — the more the single master will need to carry metadata and intent information sufficient to guide adaptive rendering at the endpoint. That is a different way of thinking about mastering than the industry has historically practiced.
Fourth, ambient light compensation is no longer a nice-to-have. As Zink pointed out, the viewing environment has enormous perceptual consequences for content, and the display industry is only beginning to develop the sensor infrastructure and processing intelligence needed to adapt presentation to real-world conditions in a principled way. Production teams creating content for broadly distributed viewing should think carefully about how content will read across luminance and ambient conditions that would never be tolerated in a grading suite.
Implications for Display Manufacturers and System Integrators
For display manufacturers, the panel highlighted accuracy, uniformity, and spatial consistency as areas where consumer communication lags technical capability. Peak luminance remains the primary retail differentiator, but the production and post-production communities — whose influence on content quality ultimately affects the value of the display — are increasingly focused on ΔE uniformity, temporal stability, and the accuracy of color volume reproduction across the full luminance range. The challenge of making those attributes legible to consumers remains unsolved, and the panel did not pretend otherwise.
For large-format system integrators, the shift toward software-defined characterization and rendering — rather than hardware-calibrated fixed state — is already underway and will accelerate. Installations that capture and retain raw characterization data for every module, and that manage rendering through an updatable software layer, are better positioned to adapt to new content formats, new standards, and new rendering algorithms without hardware replacement. This is not merely a feature differentiation argument; it is a total-cost-of-ownership argument for installations with long service lives and high replacement costs.
For the projection and hybrid display sector, the emergence of multi-primary approaches is creating new opportunities for gamut extension and metamerism reduction that were not previously commercially viable. The availability of mature color management platforms that can handle arbitrary primary sets — including hybrid configurations that mix LED and phosphor sources — removes one of the traditional barriers to multi-primary deployment.
Summary Assessment
The industry has made extraordinary progress on the hardware side over the past decade. The harder work of building the software, metadata, and workflow infrastructure to make that hardware serve the creative community — without requiring the creative community to reinvent its practices — is what the next decade will be about.
