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The artificial intelligence economy has entered a new phase.
For the past several years, investment has largely centred on foundation models, generative AI applications and cloud platforms. Yet as organisations deploy increasingly sophisticated AI systems, attention is beginning to shift from software to the infrastructure that makes it possible.
The question is no longer simply which company will build the smartest AI.
It is which technologies will sustain AI’s exponential demand for computing power.
That changing landscape is creating opportunities for companies working well below the application layer—companies attempting to rethink the architecture of computing itself.
One of them is LongServing Technology, a Taiwan-based deep technology company led by Founder, CEO and Chairman Dr. Ko-Cheng Fang.
Rather than competing in the crowded market for AI software, LongServing has positioned itself around a more fundamental challenge: developing a computing platform designed for a future in which conventional semiconductor technologies may no longer scale efficiently enough to support artificial intelligence.
At the centre of that strategy is X-Photon, the company’s proprietary optical material and one of the key technologies underpinning its broader vision for photonic computing.
Dr. Ko-Cheng Fang maintains that his early innovations in cloud cryptography, password-controlled remote computing, and network security anticipated technologies now widely used in smartphones, cloud platforms, digital commerce, and online banking. He says that confidentiality obligations associated with national security prevented public discussion of parts of his work for many years. Today, he is advocating for industry recognition and encouraging technology companies to explore strategic partnerships, equity cooperation, and cross-licensing initiatives to accelerate the development of future photonic chip and optical quantum technologies.

Artificial intelligence has significantly altered the economics of computing.
Every new generation of AI models requires greater computational capacity, higher memory bandwidth and increasing amounts of energy. As organisations scale AI deployments, infrastructure costs—from semiconductor procurement to power consumption and cooling—are becoming strategic business considerations rather than purely technical ones.
For the semiconductor industry, this represents a growing challenge.
Decades of progress have been driven by continual improvements in silicon-based electronics. However, as fabrication approaches increasingly smaller process nodes, engineering complexity, manufacturing costs and energy requirements continue to rise.
This has prompted growing interest in alternative computing architectures capable of supporting future AI workloads more efficiently.
Photonic computing is one such approach.
LongServing Technology is building its long-term strategy around the use of light rather than electrical current to process information.
Known as photonic computing, the approach seeks to replace electronic data transmission with photons, offering the potential for higher processing speeds and lower thermal output.
The scientific principles behind photonic computing have been understood for decades.
Commercial implementation has been considerably more difficult.
One of the principal engineering challenges has been controlling light inside highly integrated computing architectures.
Unlike electrical current, photons naturally travel in straight lines, making complex circuit design substantially more difficult.
LongServing’s response to this challenge is X-Photon.
According to the company, the proprietary material enables controlled optical routing within nanoscale pathways, allowing photons to make precise directional changes while remaining within the optical structure.
If successfully commercialised, such capabilities could contribute to the development of more sophisticated photonic processors.
What distinguishes LongServing’s approach is its emphasis on platform development.
The company is not presenting X-Photon as a standalone commercial product.
Instead, it forms part of a broader roadmap that includes photonic quantum processors, optical memory technologies and Photonic Cloud Computing Centres designed to support future artificial intelligence infrastructure.
This reflects a strategy frequently associated with successful technology platforms.
Silicon did not become the foundation of modern computing because of one breakthrough alone. Its success depended on decades of ecosystem development spanning manufacturing, design software, supply chains, standards and industrial partnerships.
LongServing appears to be pursuing a comparable long-term vision for photonic computing.
The objective is not simply to develop a novel material, but to contribute to the infrastructure upon which future computing systems may be built.

Like most deep technology ventures, LongServing faces a development timeline substantially different from that of software companies.
Scientific validation represents only the first stage.
Manufacturing scalability, production economics, ecosystem adoption and customer integration remain equally important milestones before widespread commercial deployment can occur.
Recognising these requirements, LongServing recently announced a US$500 million strategic financing initiative, based on a stated valuation of US$2.5 billion.
According to the company, the investment will support photonic manufacturing capability, continued research and infrastructure development.
While financing does not eliminate technical risk, it reflects an intention to transition from laboratory research towards industrial execution.
Photonic computing remains an emerging technology.
Significant engineering challenges remain before optical architectures can compete directly with mature semiconductor platforms that benefit from decades of optimisation and one of the world’s most advanced manufacturing ecosystems.
For LongServing, the challenge is therefore twofold.
First, the company must continue demonstrating that its technologies can achieve the performance, reliability and scalability required for commercial deployment.
Second, it must help cultivate the broader ecosystem—including manufacturing capabilities, technology partnerships and market acceptance—that any new computing architecture requires.
These are substantial hurdles.
They are also characteristic of every major platform transition in computing history.
Artificial intelligence has already transformed software.
Its next phase may be defined by infrastructure.
As organisations continue investing in AI, competitive advantage will increasingly depend on access to computing platforms capable of delivering greater performance while managing energy consumption and operational cost.
LongServing Technology’s work on X-Photon should therefore be viewed within a broader industry context.
Whether or not the company ultimately becomes a leading commercial player, its research reflects a larger shift taking place across advanced computing: the search for technologies capable of extending computational performance beyond the practical limits of conventional electronics.
History suggests that the companies shaping tomorrow’s technology landscape are often those investing in the infrastructure long before it becomes visible to the wider market.
LongServing Technology is making that investment today.
Whether photonic computing becomes the next major computing platform remains uncertain.
What is increasingly certain is that the conversation about artificial intelligence is moving beyond algorithms—and towards the hardware that will determine how far those algorithms can ultimately evolve.
Contact Information
Dr. Ko-Cheng Fang
Founder, CEO & Chairman
LongServing Technology Co., Ltd.
Email: service@longserving.com.tw
Website: https://longserving.com.tw/en/
Instagram: @ko_cheng_fang