"Authenticity" has instead become the scarcest element.
The ultimate goal of smartphone photography: authenticity or aesthetics?
On September 22, in Shanghai, OPPO unveiled its new generation imaging flagship, the Find X10 series.
It remains as powerful as ever: featuring the Hasselblad dual 200-megapixel lens cluster, the full-blooded Dimensity 9600 chipset, an 8000mAh Glacier Battery, ultra-narrow 0.99mm symmetrical bezels on all four sides, and the new-generation 1-nit Eye-Care Display...
With maxed-out performance and a comprehensive setup, it debuts as the most powerful imaging flagship.
However, compared to these specs, what catches my attention more is the statement made by Liu Zuohu, OPPO's Chief Product Officer, at the launch event: "Authentic reproduction is the soul and ultimate mission of OPPO's imaging."
This statement was not made casually, nor is it merely a slogan; it is the strategic foundation of OPPO's smartphone imaging and the very direction it is heading.
[1]
In recent years, computational photography has become the mainstream.
The in-depth application of algorithms has compensated for the inherent limitations of smartphone hardware, allowing smartphone imaging capabilities to surge continuously.
However, a growing number of people are beginning to raise a new question:
Are algorithms truly "assisting in recording," or are they "tampering with reality"?
The moment we press the shutter, from HDR, multi-frame fusion, sharpening, and noise reduction to color enhancement; from skin whitening, skin smoothing, eye enlargement, face slimming, to leg lengthening; from the moon, stars, and fireworks to idol stages, the entire world has been completely transformed.
The original intention of smartphone imaging algorithms was to compensate for the limitations of optical physics.
However, fierce market competition has gradually led manufacturers into a "prisoner's dilemma" of pandering to users: photos and videos are no longer authentic memories of that moment, but rather another fabricated world that users demand.
In the dissemination chain of social platforms, "looking good" is more likely to receive instant feedback than "authenticity." Rendering blurry light spots into clear craters, switching an overcast day to falling snow or a sunset glow with one click, and shaving a square jaw into a V-shaped face indeed make it easier to gather likes on social media.
Consequently, imaging styles have gradually shifted to another extreme: global color saturation boost, excessive edge sharpening, heavy skin smoothing, violently brightening shadows in night scenes to make midnight look like daytime, and flattening the light and dark transitions on portrait faces...
Now, OPPO has chosen a different path: the smartphone is responsible for faithful recording, leaving stylistic expression to the users.
Instead of deciding "what looks good" for the users, it simply ensures that the images are authentic, the details are complete, and the colors are accurate, allowing users to define the style themselves.
"OPPO does not oppose using algorithms to optimize images, but believes that algorithms should not rewrite reality," said Zhuo Shijie, Head of the OPPO Find Product Line.
[2]
OPPO may not be the earliest brand to realize this issue, but it is the first brand to treat "authenticity" as a product guideline and put it into practice.
Why haven't others done this?
Because the four words "authentic reproduction" sound simple, but in reality, they are much harder to achieve than all forms of "inauthenticity."
Just as Luo Jun, Director of OPPO's Imaging Algorithm Department, said: "Good computational photography makes you forget it is computational photography."
In fact, there is no standard answer for the optimization effect of algorithms.
Making smartphone imaging reproduce the real world as seen by the human eye actually tests smartphone imaging capabilities even more.
Whether it is color, light and shadow, brightness and darkness, skin tone, texture, or atmosphere, it must be reproduced with pinpoint accuracy.
Any addition or subtraction results in distortion.
[3]
At the launch event of the Find X10 series, OPPO proposed its goal: to turn the smartphone into a "Hasselblad Ultra-Clear Original Camera."
This is not a slogan, nor a metaphor, but a complete imaging system aimed at "authentic reproduction."
It builds a solid image quality foundation with ultra-high-pixel lenses, reproduces authentic colors with the Danxia lens and LUMO Color Science, and recreates real light and shadow with the LUMO Native Light and Shadow Engine and ProXDR. Multiple capabilities work in synergy to achieve authentic reproduction across different focal lengths, scenes, and imaging formats.
This system is precisely the "ultimate completed form" of the continuous upgrade of OPPO's smartphone imaging capabilities in recent years.
First, there is the image quality foundation built with an ultra-high-pixel lens cluster.
Going back to March 2023, the OPPO Find X6 series was the first in the industry to propose the "Triple Main Camera" concept: completely abandoning the then industry-standard practice of "one dominant main camera and filler secondary cameras," and adopting large sensors for all three cameras—wide-angle, telephoto, and ultra-wide-angle.
The strategic significance of this step lies in the fact that it changed the underlying logic of smartphone imaging.
In traditional multi-camera setups, the sensor quality varies drastically between different lenses, leading to a cliff-like drop in image quality during zoom transitions. The "Triple Main Camera" concept allowed users to experience, for the first time on a smartphone, the consistency of "main camera-level image quality regardless of which lens is used."
This is especially true for one of the most headache-inducing issues in past multi-camera smartphones: the "jump" where brightness, color, and field of view all change abruptly during focal length switching. One of the root causes is precisely the massive difference in sensor quality among different lenses, leaving the algorithms unable to smooth out the transition in time.
When all three lenses possess the same pixel foundation and optical specifications, the "consistency" is built on a solid hardware foundation.
Today, the "Triple Main Camera" has become an industry rule followed by all manufacturers. The Find X10 Pro Max has been upgraded once again. Building on the "Triple Main Camera" concept, OPPO has pushed the pixels of all three lenses to 200 million simultaneously. The main camera, ultra-wide-angle, and telephoto lenses all feature 200 megapixels, large sensors, and large apertures—every single one is an ultra-clear main camera.
Next, there is the color foundation built with the 2nd-generation Danxia Color Reproduction Lens + LUMO Color Science.
In April 2025, OPPO launched its new imaging technology brand, LUMO, while also bringing the industry-first Danxia True Color Lens to the Find X8 Ultra.
The launch of LUMO marks the first time OPPO has organized its imaging capabilities as a "system" rather than mere "features." Relying on three core technologies—the Ultra-Light-Sensing Computational Optics System, the Ultra-Perception Digital Imaging Engine, and the Full-Link True Color ProXDR—it leverages the mutual drive of optics, algorithms, and computing power to make the images captured by the smartphone closer to the reality seen by the human eye.
In particular, the industry-first Danxia True Color Lens breaks the industry's shackle of applying global color grading to images, accurately identifying the portrait subject and the background, dividing them into different color temperature zones for separate adjustments, thereby achieving a more authentic reproduction of human skin tones.
Finally, there is the light and shadow foundation built with the LUMO Native Light and Shadow Engine + the new-generation ProXDR technology.
In August 2026, OPPO released the new-generation ProXDR technology, integrating real-time high dynamic range and ultra-high pixels into a single imaging solution for the first time, achieving a single-frame dynamic range of 17EV. A month later, the LUMO Native Light and Shadow Engine was officially implemented.
What is the concept of 17EV? The light intensity difference between the darkest and brightest areas reaches 2 to the power of 17: 131,072 times—it has even surpassed traditional motion picture film negatives (approximately 13EV) and most cinema cameras.
More crucially, it is the two words "single frame."
In the past, high dynamic range was achieved by stacking multi-frame synthesis: capturing several shots with different exposures and stitching them together into a final image with non-overexposed highlights and detailed shadows. However, if the light is dim, the motion is fast, or the phone shakes, "ghosting" or "flickering between light and dark" may occur.
More importantly, such crude and brute-force merging often flattens authentic light and shadow details, causing the captivating on-site atmosphere to vanish completely.
Now, based on the richer on-site light and shadow information preserved by the single-frame 17EV, the "LUMO Native Light and Shadow Engine" identifies different areas in the image, judges the light attributes of each area, and then separately decides whether to brighten or retain the shadows, thereby achieving non-overexposed highlights and detailed shadows, maximizing the reproduction of the native on-site light and shadow atmosphere.
[4]
Currently, the competition in smartphone imaging has increasingly shifted from "single-point breakthroughs" to "full-link competition."
With the same generation of sensors, the same generation of chips, and the same generation of lens modules, the hardware gap from the supply chain has long been continuously leveling out.
What truly determines imaging capability is no longer the parameters of a single lens, but rather the full-link collaborative capability from sensor to chip, from algorithm to color science, and from capture to presentation.
Just like OPPO, from solidifying image quality with the "Triple Main Camera" on the Find X6; completing color reproduction with the Danxia lens on the Find X8 Ultra, to clarifying light and shadow with the Find X10 series, it has ultimately integrated the three foundations into a complete system, constructing its own "authenticity moat."
This path may not have been the fastest to travel, but it is sufficiently solid.
Looking back, the evolution history of smartphone imaging is essentially a "catch-up history": catching up with the image quality of professional cameras, catching up with the focal lengths of traditional optics, catching up with the high dynamic range of cinema cameras...
Every technological iteration has been answering the same question: Can smartphones take photos as good as cameras?
But now, smartphone imaging has reached a new turning point.
After more than 10 years of continuous iteration, from single lenses to multi-lenses, and from optical imaging to computational imaging, smartphones have carved out a unique development path of their own, achieving more capabilities that subvert traditional professional imaging with a smaller form factor.
At this point, the question we need to consider is no longer "whether smartphones can replace cameras," but rather "where smartphone imaging should head next."
Just like algorithms, which can be used to compensate for many shortcomings of traditional imaging, they may also cause users to lose trust due to abuse.
Perhaps, we should stop and rethink the original intention of smartphone imaging—enabling every ordinary person to record real life, so that when looking back ten years later, they can still recall the light of that day, the emotion of that moment, and the authentic appearance of that person.
When everyone can create "perfection," "authenticity" instead becomes an even scarcer commodity.
This is not a technical issue, but a choice of values.