SBAA717 August 2025 DLP472NE , DLP472TE , DLP472TP , DLP473NE , DLP473TE , DLP650TE , DLP651NE , DLP780NE , DLP780TE , DLP781NE , DLP781TE , DLP801XE
TI DLP® technology using RGB laser illumination delivers exceptional image quality with wider color gamut, high color accuracy and superior native contrast, setting it apart from the focus on color light output from 3LCD systems and the emphasis on low cost for 1LCD solutions.
Figure 1 Skyline With Wide Color
GamutThe color gamut describes a range of colors within the spectrum of colors, or a color space, that can be reproduced on a projector. Color gamut is 3-dimensional, encompassed by hue, saturation and brightness. A wider color gamut means the projector can display more colors, resulting in more vibrant, lifelike and accurate images. A color space describes a specific, measurable and fixed range of possible colors and luminance values.
The International Commission on Illumination (CIE) is the international authority on light, illumination, color and color spaces. When describing color gamut, a CIE chromaticity diagram is used, which is a two-dimensional plot representing all colors that the human eye can perceive, independent of their luminance or brightness. The three main color gamut projector standards are Rec.709, DCI-P3 and Rec. 2020.
Rec. 709 is the most common color space used in projection with a color space that is ideal for traditional high-definition content and general-purpose projectors. High dynamic range (HDR) content is most commonly mastered in DCI-P3. Rec. 709, while sufficient for standard dynamic range (SDR) content, simply does not have the color range to fully support HDR content expanded dynamic range.
Rec. 2020 provides a wider gamut, which makes colors appear more vivid and accurate, especially when displaying content like movies, games and HDR content.
Color light output (CLO) does not take color accuracy into account, and it reveals nothing about whether the projector is calibrated to retain highlight detail.
RGB laser illumination using DLP technology eliminates the need for color filters because it directly generates light in the specific wavelengths of red, green, and blue, which are the primary colors used to create a full spectrum of visible light. This maintains consistent color reproduction across the entire image, even in dynamic scenes.
The combination of RGB lasers' ability to generate pure and highly saturated primary colors and DLP technology's precise control over individual pixels allows for projectors with superior color accuracy, a wider color gamut and vibrant, lifelike images.
Native contrast represents a projector’s inherent contrast ratio, determined by its ability to display deep blacks and bright whites without additional enhancements. While both DLP and 3LCD projectors utilize dynamic contrast to enhance perceived contrast, DLP projectors generally offer a higher native contrast ratio, which translates to deeper blacks and a more nuanced image, especially in darker scenes.
DLP technology uses a digital micromirror device (DMD) chip. This chip contains tiny mirrors that tilt to reflect light towards or away from the lens, creating pixels. When a mirror is tilted away, the light is directed towards a heatsink and absorbed, resulting in a true black pixel. This allows for deeper blacks and higher native contrast ratios.
Using RGB laser light sources with DLP technology provides even greater control over light output. This allows for exceptionally dark blacks, further enhancing contrast and overall image depth.
LCD panels can experience light bleed, also known as backlight bleeding. This occurs when light from the panel's backlight leaks around the edges or corners, especially noticeable on dark backgrounds. It's a common phenomenon in LCD technology and is often more visible in darker environments, which can cause black areas to appear as dark gray instead of true black.
RGB laser illumination using DLP technology maintain color fidelity over time with minimal degradation. The solid-state laser source avoids the color decay seen in lamp-based systems. Some 3LCD systems that are reliant on lamps or LEDs experience color shift as light sources age, affecting long-term image quality. 1LCD systems, using simpler optics and lower-cost components, are prone to faster degradation, impacting both color and brightness consistency.
Projector convergence, also known as panel alignment, is the process of precisely aligning the red, green and blue color components of a projector's image so they perfectly overlap. This verifies a sharp, clear and color-accurate picture, free from color fringing or blurring. Crystal panels are used in LCD projectors to concentrate colors. When there is a convergence issue, the visuals are hazy and full of inaccuracies.. An LCD panel alignment feature allows users to manually adjust the color convergence of red and blue colors in the projected image.
RGB laser illumination using DLP technology excels in delivering stunning image quality through a wider color gamut, superior color accuracy, higher native contrast and long-term consistency. These differentiators make it ideal for applications demanding cinematic visuals, such as home theater, professional displays and large venues.
DLP technology, paired with RGB laser, delivers exceptional performance by offering a wider color compared to 3LCD and 1LCD systems, ensuring vibrant, lifelike visuals for an unparalleled viewing experience.