Why is everyone talking about Sony’s new True RGB TVs? Because the landscape of high-end display technology is shifting—fast. For years, OLED has set the benchmark for deep blacks, infinite contrast, and razor-thin form factors. Yet as bright-room performance and color accuracy rise to the forefront of consumer demand, challengers are stepping up with new answers to OLED's limitations.
Enter Sony. Industry leaks and early reports point to a revolutionary True RGB approach that bypasses the blue OLED + color filter design and moves toward a system with discrete red, green, and blue light sources. The expected result? Better brightness, crisper color reproduction, and a leap forward in TV tech sophistication. The upcoming product line, rumored to carry the name “True RGB,” signals Sony’s next big play in redefining premium home entertainment displays.
Why is everyone talking about Sony’s new True RGB TVs? Because the landscape of high-end display technology is shifting—fast. For years, OLED has set the benchmark for deep blacks, infinite contrast, and razor-thin form factors. Yet as bright-room performance and color accuracy rise to the forefront of consumer demand, challengers are stepping up with new answers to OLED's limitations.
Enter Sony. Industry leaks and early reports point to a revolutionary True RGB approach that bypasses the blue OLED + color filter design and moves toward a system with discrete red, green, and blue light sources. The expected result? Better brightness, crisper color reproduction, and a leap forward in TV tech sophistication. The upcoming product line, rumored to carry the name “True RGB,” signals Sony’s next big play in redefining premium home entertainment displays.
True RGB technology refers to displays in which red, green, and blue subpixels each emit their own dedicated light. This contrasts sharply with WRGB panels, where each pixel consists of red, green, blue, and an additional white subpixel. QD-OLED, on the other hand, uses a blue OLED light source combined with quantum dots to produce red and green, effectively relying on conversion rather than direct RGB emission.
The distinction lies in purity. True RGB panels generate color directly from self-emissive red, green, and blue diodes. WRGB relies on white light filtered through color layers, leading to lower saturation. QD-OLED improves on this but still converts one wavelength of light to produce others, which introduces compromises in power efficiency and native color fidelity.
Self-emissive RGB systems structure each pixel with independent light-emitting diodes for red, green, and blue. Each subpixel creates its color natively without color filters or wavelength conversion. The fundamental benefit of this method is separation—each diode emits light within a narrow band of the visible spectrum, allowing precise color control.
WRGB OLED panels generate all light through white OLEDs, which are essentially blue OLEDs sublayered with yellow phosphors. To create color, these displays use masks and filters. This process broadens the spectral output and reduces peak brightness. As a result, WRGB panels deliver less saturated colors compared to panels relying on direct RGB emission.
True RGB delivers a level of color precision unmatched by WRGB or QD-OLED. Each subpixel shines only in its designed wavelength range, meaning no spectral overlap. This separation ensures that what the display outputs aligns more accurately with the source signal. Color calibration becomes easier, and coverage of wide color gamuts like Rec. 2020 reaches higher percentages.
In real-world applications, users will notice deeper reds, more vibrant greens, and blues with cleaner purity. This matters in high dynamic range (HDR) scenarios, where subtle color gradations play a key role in realism and visual impact.
Ready for hyper-real color on screen? This is the direction Sony appears to be heading—True RGB panels remove the last bottlenecks in display performance. When saturation meets precision, and peak brightness no longer ruins color consistency, the entire visual experience changes.
True RGB technology refers to displays in which red, green, and blue subpixels each emit their own dedicated light. This contrasts sharply with WRGB panels, where each pixel consists of red, green, blue, and an additional white subpixel. QD-OLED, on the other hand, uses a blue OLED light source combined with quantum dots to produce red and green, effectively relying on conversion rather than direct RGB emission.
The distinction lies in purity. True RGB panels generate color directly from self-emissive red, green, and blue diodes. WRGB relies on white light filtered through color layers, leading to lower saturation. QD-OLED improves on this but still converts one wavelength of light to produce others, which introduces compromises in power efficiency and native color fidelity.
Self-emissive RGB systems structure each pixel with independent light-emitting diodes for red, green, and blue. Each subpixel creates its color natively without color filters or wavelength conversion. The fundamental benefit of this method is separation—each diode emits light within a narrow band of the visible spectrum, allowing precise color control.
WRGB OLED panels generate all light through white OLEDs, which are essentially blue OLEDs sublayered with yellow phosphors. To create color, these displays use masks and filters. This process broadens the spectral output and reduces peak brightness. As a result, WRGB panels deliver less saturated colors compared to panels relying on direct RGB emission.
True RGB delivers a level of color precision unmatched by WRGB or QD-OLED. Each subpixel shines only in its designed wavelength range, meaning no spectral overlap. This separation ensures that what the display outputs aligns more accurately with the source signal. Color calibration becomes easier, and coverage of wide color gamuts like Rec. 2020 reaches higher percentages.
In real-world applications, users will notice deeper reds, more vibrant greens, and blues with cleaner purity. This matters in high dynamic range (HDR) scenarios, where subtle color gradations play a key role in realism and visual impact.
Ready for hyper-real color on screen? This is the direction Sony appears to be heading—True RGB panels remove the last bottlenecks in display performance. When saturation meets precision, and peak brightness no longer ruins color consistency, the entire visual experience changes.
Sony hasn’t formally announced the product line yet, but filings and insider reports point to the name “Triluminous Ultra” as a likely candidate. This extension of the company’s existing Triluminous branding builds on its reputation for vivid color rendering. Sony has already trademarked variations of this name in several international markets, which suggests a coordinated global launch. Marketing insiders indicate that the new naming strategy will differentiate these displays from OLED and Mini LED by emphasizing full-spectrum RGB fidelity.
Over the past 12 months, the United States Patent and Trademark Office has published several Sony patents that outline alternative subpixel architectures leveraging true RGB stripe arrangements. Unlike WOLED panels that use white subpixels and color filters, Sony appears to be pursuing a direct-view RGB approach. Supply chain analysts have also noted high volumes of red, green, and blue micro-LED samples being sourced by Sony from specialist manufacturers in Taiwan and South Korea.
Technical diagrams from recent patent filings describe a self-emissive display with individually addressable RGB microstructures, allowing exact color modulation at the pixel level without color filtering. This approach radically reduces inefficiency caused by filter absorption while improving brightness uniformity across the screen.
In 2023 alone, Sony invested over ¥540 billion (approximately $3.7 billion USD) into research and development — a 6% increase over the previous year. A significant share of this went into imaging and display technologies. Engineers working out of Sony’s Atsugi Technology Center and Minato headquarters have accelerated prototyping through internal initiatives focused on high-contrast emissive displays using inorganic compounds.
Partnerships with global semiconductor labs have further increased Sony's ability to iterate faster on materials that can sustain 1000+ nits brightness while maintaining DCI-P3 100% color space accuracy — a leap over current consumer OLED capabilities.
Industry analysts and display tech reporters expect a formal reveal during CES 2024 in Las Vegas. Facility scheduling data indicates Sony has reserved a larger booth section than usual, likely hinting at a major hardware focus. Meanwhile, supply chain movements point toward limited pre-production units already in testing, with shipping partners under non-disclosure agreements.
Questions remain — will Sony use microLEDs, laser backlights, or a novel hybrid to deliver this “True RGB” performance? The answers might arrive in January, setting the tone for television innovation in 2024 and beyond.
Since LG Display’s commercial launch of OLED panels in 2013, OLED has defined the premium TV experience. Its ability to deliver perfect blacks, ultra-thin form factors, and high color fidelity placed it at the top of display hierarchies. Samsung joined with its QD-OLED panels in 2022, pushing brightness and color volume further by merging OLED with quantum dot technology.
But OLED isn't flawless. Static image retention, production complexity, and brightness ceilings—especially in larger screen formats—left a door open. Now, that door is being kicked wide open.
Sony clearly sees an inflection point. With display panel costs rising and OLED production facing yield limitations, the company is pouring R&D into alternatives. The move isn’t just about diversification—it's a strategic thrust into leadership territory currently shared by LG and Samsung.
By investing in its own next-generation technology, Sony is no longer content playing a supporting role in the OLED theater. Instead, it aims to define a new category—anchored by precision-engineered True RGB architecture—that could set a new benchmark for color performance and longevity.
Samsung is refining its QD-OLED platform, achieving up to 2,000 nits peak brightness on the latest S95C models and improving quantum dot purity to hit over 90% Rec. 2020 color coverage. Simultaneously, Samsung’s Neo QLED line uses Mini LED to boost luminance and contrast in traditional LCDs.
Sony, meanwhile, appears to be going in a different direction. While it still sources some OLED panels from LG and dabbles in Mini LED with its X95 series, its development pipeline—particularly True RGB—is aimed at overcoming OLED’s structural limitations with an alternative self-emissive approach that doesn’t rely on organic materials.
Panel builders know the stakes. The next market leader won’t just be the one with the thinnest chassis or the sharpest image—it will be the one that delivers sustained innovation beyond OLED’s well-charted frontier. And based on their recent moves, Sony wants to be first across that line.
At the core of Sony’s upcoming True RGB TVs sits a reimagined display panel architecture. Unlike traditional displays that rely on white OLED panels filtered through color layers, Sony’s new system uses self-emissive RGB subpixels—red, green, and blue diodes each emitting their own precise wavelength of light. This shift removes the color filter altogether, ensuring that every pixel emits pure, unadulterated color. The result: dramatically higher color fidelity and better power conversion efficiency per pixel.
Each subpixel has been engineered with nanometer-level precision. This allows finer control over brightness and color balance, especially in high dynamic range (HDR) environments. The uniformity of subpixels also improves motion clarity and reduces halo effects around bright objects.
OLED displays typically max out around 800–1,000 nits in peak brightness. By contrast, Sony’s True RGB prototype panels are reportedly breaking the 1,500-nit barrier in lab tests—without sacrificing color saturation. This is made possible by new inorganic emissive materials applied via fine metal mask (FMM) evaporation techniques, enhancing thermal stability and electron mobility.
Three dominant limitations have held OLED back: burn-in risk, constrained peak brightness, and panel degradation over time. Sony’s approach targets all three. By separating color emission into discrete diodes, the stress on blue pixels—those that degrade fastest in OLED systems—is sharply reduced. Additionally, dynamic power allocation across the RGB emitters minimizes overdrive scenarios that lead to image retention.
Another innovation comes from Sony’s new Advanced Pixel Calibration Engine (APCE), which uses real-time power usage maps and local dimming algorithms to distribute load intelligently across the panel. This extends panel life and prevents hotspot aging often seen in static UI elements such as logos or HUDs in games.
With content in the US shifting steadily toward HDR and wide color gamut (WCG) sources—think Netflix’s Dolby Vision or Disney+’s HDR10+ catalog—Sony’s True RGB tech gives American viewers access to content as intended by creators. Skin tones become more lifelike, shadow details in dark scenes stay visible without blooming, and daylight sequences gain cinematic punch without artificial oversaturation.
Moreover, these panels reduce reliance on aggressive ABL (Auto Brightness Limiter) algorithms that many high-end OLEDs implement to protect lifespan. In practice, this means a more consistent viewing experience in bright rooms, especially relevant in typical US home environments with ambient light and large living spaces.
The tech behind these displays doesn’t just promise better visuals—it directly changes how Americans interact with their entertainment ecosystems. Whether it’s binge-watching, gaming, or live sports, the experience gets sharper, brighter, and more immersive at every level.
Color fidelity isn't an added benefit in next-generation displays—it defines their performance ceiling. Accurate color reproduction determines how faithfully reds, blues, and greens appear on screen, particularly in challenging environments like intense lighting or deep contrast scenes. Engineers use metrics like Delta E (dE), which quantifies the difference between displayed color and the source. A dE of less than 2.0 is considered imperceptible to the human eye. OLED panels frequently reach dE scores under 1.5, while high-end QLED panels, using quantum dot enhancement, follow closely behind with similar metrics under controlled calibration.
Traditional OLED displays emit light per pixel, delivering perfect blacks and superior contrast. But color purity suffers slightly due to the use of white subpixels diluted by color filters. QLED, by contrast, leverages a blue LED backlight with red and green quantum dots to improve brightness and color saturation—but struggles in black levels because of its reliance on dimmable full-array or edge-lit backlighting systems.
True RGB panels disrupt this binary. They avoid white subpixels entirely. Instead, they deploy discrete red, green, and blue light sources at the subpixel level. That paradigm eliminates color contamination from white light and results in richer chromatic integrity. Calibration tests using professional-grade colorimeters now report early True RGB prototypes achieving wider color gamuts than both DCI-P3 and Adobe RGB—benchmarks previously dominated by OLEDs in consumer devices.
Color-critical professionals—visual artists, video editors, digital illustrators—rely on uniform and accurate color performance. A difference of even a single Delta E unit can skew flesh tones, distort brand colors, or misrepresent design intent. For gamers, especially in HDR-enabled titles, higher brightness and color accuracy translate to more immersive gaming experiences with visible distinctions between subtle gradations in lighting or environmental detail. Instead of estimating shadows in a raid or missing hue nuances in character design, players experience visuals directly as they were intended by the developers.
Mainstream users also benefit. Multi-device households now stream in 4K HDR, and the gap between professional and household demand has narrowed. When displays accurately reflect the filmmaker’s or game artist’s color palette, home viewers absorb the visual narrative more authentically—dust glows golden at twilight, cityscapes pulse with accurate neon hues, skin tones resist artificial warmth.
Brightness, measured in nits (cd/m²), determines how well a screen can perform in sunlit rooms or deliver visual impact in HDR content. Modern OLED panels peak around 1,000 nits, with premium QLEDs reaching upwards of 2,000 nits under ideal conditions. Early engineering reports suggest that Sony’s venture into True RGB architectures is achieving localized peak brightness levels above 2,000 nits without color washout—matching or surpassing QLED’s strongest asset while preserving OLED-like contrast.
High Dynamic Range (HDR) performance integrates both peak brightness and deep black handling. True RGB’s independent pixel color emission not only avoids the backlight limitations of QLED but also circumvents OLED burn-in concerns. Combined with intelligent tone-mapping algorithms, these panels render highlight detail intensely without introducing clipping or distortion.
The competition now hinges not just on luminosity, but on how that luminance is rendered across the color accessible spectrum. With True RGB, the relationship between color and brightness becomes linear—when scenes demand brightness, colors don’t desaturate. They intensify.
Wondering where the next seismic shifts in television technology will emerge? Several parallel developments in 2024 point to a maturing industry that refuses to stand still. From hybrid panels to consumer pressure for sustainability, this year’s trends offer a glimpse into the future of home entertainment—and the tech behind Sony’s True RGB displays fits squarely within them.
Legacy LCDs and OLEDs still dominate, but hybrid panels are gaining rapid traction. Technologies like QD-OLED and QNED combine different display components to achieve both high peak brightness and color purity—two technical benchmarks OLED alone struggles to balance. LG Display’s next-gen MLA OLEDs have pushed brightness, but competitors are looking to blend quantum dot structures with emissive backlights for better dynamic range. Mini-LED backlit LCDs with quantum dot color layers, for instance, provide serious competition at scale.
Panel manufacturers aren’t just upgrading OLED—they're moving beyond it. TCL CSOT, Samsung Display, and BOE are investing in RGB OLED and true RGB LED microdisplays, seeking to eliminate the white sub-pixel boost that limits color volume. In 2024, industrial investment in RGB pixel-by-pixel control lets panel makers push color fidelity and contrast closer to cinematographic standards. Sony’s next-gen True RGB push slots directly into this agenda.
Todays’ premium TV buyer demands three things: higher brightness (especially for daylight viewing), perfect motion handling, and colors that stay accurate at any angle. But there’s a fourth axis now in play—sustainability. Panels must not only perform but do so efficiently. Energy ratings and eco-conscious manufacturing have entered buyer conversations. In response, brands like Sony are exploring more efficient RGB emitters and panel construction that cuts power draw without reducing performance.
In the United States, demand for TVs 75 inches and above grew by more than 20% year over year, according to Omdia’s Q1 2024 report. Home cinema upgrades continue as consumers convert living rooms into personal theaters. Meanwhile, gaming remains a major influencer: native 120Hz refresh rates, VRR (variable refresh rate), and ultra-low input lag are standard expectations among premium buyers. Brands not delivering on these gaming specs risk shedding market share fast.
In effect, 2024 paints a simple picture: the bar for excellence in TV technology has risen. Sony’s move into True RGB territory doesn’t just chase that bar—it redefines it, aligning with every major trend reshaping the global display market.
Behind the leap toward True RGB televisions lies a reimagined approach to display panel engineering. The foundation begins with semiconductor architecture. Sony's R&D divisions have optimized thin-film transistors (TFTs) to reduce electron leakage and increase current efficiency—the groundwork for powering distinct red, green, and blue emitter pixels without color filters or white subpixels.
This reconfiguration lets each RGB subpixel emit its native wavelength directly. Achieving that requires advanced substrate layering; Sony applies oxide-semiconductor layers over ultra-flat glass or flexible plastic substrates to stabilize pixel placement and ensure uniform luminance across the panel. These multi-layered stacks allow precise emission tuning and minimal signal interference, two factors that are mandatory for maintaining True RGB signal integrity over the entire screen surface.
Unlike OLED or QD-OLED systems, which blend or filter colors from a base white or blue light source, True RGB systems use individual self-emissive RGB modules. Each pixel cluster is engineered as a triad of tightly packed diodes—each triggered independently. This pixel-level control eliminates filter diffusion and broadens the achievable color gamut beyond DCI-P3, approaching Rec. 2020 parameters with higher full-field brightness retention.
Transitioning from prototype to mass production involves multiple barriers. High-precision pixel alignment across millions of RGB triads per panel introduces a low yield rate during early manufacturing runs. Any imperfection in spacing or diode performance affects image uniformity, forcing costly quality control processes. Additionally, direct RGB emission concentrates thermal load, prompting Sony to develop new heat dissipation pathways using high-conductivity aluminum oxide backplanes and refined dome lens layers to disperse infrared buildup.
These panels also require higher drive voltages for blue and green emitters, increasing power consumption during peak output. Managing this issue while keeping the panels thin—and fanless—demands custom-designed silicon driver chips and revised gate-driver-on-glass (GDO) circuitry for energy modulation.
Sony's move into True RGB territory forces a reaction among Asian manufacturing giants. Samsung Display continues investing in QD-OLED upgrades, while LG Display explores MicroLED scalability. BOE, China's largest panel maker, initiated development of RGB laser deposition and electroluminescent substrate coatings. None have confirmed public demonstrations of commercial-grade True RGB displays for TVs, indicating Sony may hold a temporary lead.
Internal sourcing suggests Sony plans pilot production lines for second-half 2024, with initial availability targeting premium flagship models under an unrevealed brand. Japanese factories will handle diode encapsulation and pixel assembly, while panel sourcing from Southeast Asian subcontractors helps balance cost efficiency. Component suppliers for semiconductors, GDOs, thermal dispersers, and emitter materials have already shifted roadmaps, reallocating capacity to meet Sony’s readiness schedule. That signals a coordinated launch effort rather than a concept test.
The underlying engineering isn’t evolutionary—it’s a structural rethinking of what a TV panel can be. The True RGB initiative marks a departure from hybrid systems and reintroduces a full-spectrum, native light approach that could redefine color fidelity for consumer displays.
By the end of 2024 or early 2025, TV buyers will face an entirely different lineup of premium home entertainment options. Sony’s True RGB TVs won’t just be upgrades—they’ll redefine what a living room screen can deliver. For anyone planning a serious home theater or competitive gaming setup, these next-gen displays change the game.
Early leaks and technical specifications suggest these models won’t simply iterate on existing OLED benchmarks—they’ll surpass them. Think expanded color reproduction without white sub-pixels diluting saturation. Add to that superior brightness handling, and you’re looking at televisions with the dynamic range closer to professional-grade monitors than consumer gear.
Every new generation of TVs brings improvements, but few rewrite the standards. In this case, Sony’s move to True RGB means you could finally experience imagery at home that mirrors cinematic mastering displays. Whether watching HDR content or navigating PlayStation 6-era gaming, motion clarity, contrast handling, and finely tuned local dimming will enter previously unseen territory.
By eliminating the risk of burn-in—a known issue with OLED panels—True RGB units open wider possibilities for varied content use. Static UI elements in games or live sports overlays won’t create long-term image residuals. Longer viewing sessions no longer come with trade-offs. Brightness caps will increase, allowing better visibility in daylight or brightly lit rooms, and reflections will be handled with new anti-glare coatings.
Gaming performance should follow suit. Expect support for variable refresh rates (VRR) up to 144Hz, auto low latency modes (ALLM), and HDMI 2.1 bandwidths necessary to drive full 4K at blistering speeds for the newest consoles and GPUs.
TV shopping will no longer be defined solely by the OLED vs. LED debate. By the time these panels hit shelves, the premium display category will have new rulers: televisions that combine the strengths of LCD brightness with the pixel-level precision of OLED, and without the drawbacks of either.
Across the high-end television landscape, competition is defined by four names: Sony, Samsung, LG, and TCL. Each of these brands plays a distinct role. Samsung dominates the global market in unit sales, leveraging its aggressive marketing and quantum dot advancements. LG continues to push OLED as a centerpiece, carving out a niche in deep blacks and sleek displays. TCL disrupts pricing structures with Mini-LED options that punch above their weight.
Sony enters 2024 with a different pitch—True RGB technology that promises precise color separation and a departure from traditional white OLED subpixels. Unlike Samsung’s QLED or LG’s W-OLED constructions, Sony’s innovation stems from full-saturation red, green, and blue emitters for every pixel. If performance benchmarks meet expectations, Sony will not only challenge image quality leaders but potentially reframe the display tech narrative entirely.
If Sony’s new-generation TVs deliver consistent, measurable superiority in brightness, durability, and color fidelity, this could catalyze a measurable shift in market share. According to Statista’s 2023 global TV manufacturer data, Samsung currently holds approximately 19.6% of the global TV market, followed by LG at around 11.8%. Sony trails with close to 7%. Should True RGB outperform traditional OLED panels in side-by-side comparisons and receive strong reviews, Sony’s share could reasonably climb by 2–3 percentage points within the 2024–2025 cycle, reversing a decade-long stagnation.
Much hinges on volume manufacturing and distribution readiness. If Sony secures a reliable supply chain and scales quickly, it could impact OLED-dominant LG directly.
Historically, Sony’s televisions cost more than comparable offerings from Samsung and TCL. Engineering decisions and brand positioning focused on premium build and processing technology. However, True RGB panel development introduces a design and cost model that hasn’t existed before.
Unless Sony fields mid-tier lines using this tech with aggressive launch pricing, initial adoption will skew toward enthusiasts and premium buyers, not mainstream households.
Brand equity gives Sony an edge that TCL and even Samsung occasionally struggle to access. For decades, the name Sony has conveyed craftsmanship, cinematic color tuning, and the Bravia platform’s visual pedigree. Consumers associate Sony TVs with fidelity and reliability, especially in home theater scenarios.
That sentiment translates into purchase confidence. While TCL may lead in budget innovation and LG rides the OLED wave, Sony’s ability to blend technological advancement with perceived quality can drive early adoption, especially among high-spending users, cinema professionals, and discerning gamers.
Sony’s upcoming True RGB TVs are not just product releases—they represent a fundamental shift in display technology. Instead of relying on traditional RGBW (Red, Green, Blue, White) pixel structures or color filters layered over a white backlight, these panels use direct subpixel illumination through red, green, and blue self-emissive elements. The result: purer colors, sharper contrast transitions, and consistently higher brightness without sacrificing color fidelity.
This marks a measurable leap forward in how televisions render and reproduce real-world visuals. Displays no longer need to trade off between luminance and chroma. With True RGB, every pixel contributes to full-spectrum color generation, correcting one of the longest-standing compromises in panel engineering. For colorists, content producers, competitive gamers, and precision-dependent users, this changes the playing field.
The bigger impact, however, rests in what it signals about the direction of the television industry. Major competitors like Samsung and LG have invested heavily in OLED and QD-OLED. But if Sony’s hardware delivers even modestly on what its internal patents and prototype demonstrations have implied—higher brightness than OLED, superior RGB color alignment without artificial white pixel boosting, and better lifespan efficiency—then this introduces genuine disruption in the premium TV segment.
Could this be Sony’s moment to dominate the US TV market again? That’s now a credible scenario. While OLED has commanded the high-end visual benchmark, True RGB may define the next one.
Curious about how it compares? Start by exploring our in-depth guide on the Best OLED TVs of 2024 or rethink your assumptions with our analysis: Is Mini-LED Still Relevant?
Subscribe now to follow Sony’s announcements, get live updates on True RGB TV availability, and stay ahead of what’s next in home entertainment innovation.
©2026 American TV. All Rights Reserved
Disclaimer: All rights reserved. AmericanTV.com is a website for research and comparison as such, falls under "Fair Use". AmericanTV.com does not provide directly phone, TV, and internet service. All trademarks, logos, etc. remain the property of their respective owners and are used by AmericanTV.com only to describe products and services offered by each respective trademark holder. The use of any third party trademarks on this site in no way indicates any relationship between AmericanTV.com and the holders of said trademarks, nor any endorsement of AmericanTV.com by the holders of said trademarks.
We are here 24/7 to answer all of your TV + Internet Questions:
1-855-690-9884
1-855-690-9884