Dismantling the AI Hardware Monopoly: Inside the Open CPX Blueprint

MALAGA, Spain – September 17, 2026 – Strip away the dizzying valuations and generative AI hype, and the reality of the modern technology boom is decidedly physical. The future of artificial intelligence is currently constrained not by software ingenuity, but by the mundane realities of heat, power, and the physical limits of copper wiring. As hyperscalers race to build massive compute factories, the industry is slamming into a wall.

Today, the Open CPX Multi Source Agreement (MSA) Group announced the general availability of its open specification for Co-Packaged Optics (CPO) and Near-Package Optics (NPO). Released a mere six months after the consortium's formation, the specification establishes a standardized, pluggable socket architecture designed to support massive XPU clusters and switch bandwidth scaling up to 100T and 200T.

This is not merely a technical milestone; it is a tactical maneuver by a broad coalition of industry heavyweights to democratize the underlying infrastructure of AI, stripping away the proprietary moats that have historically locked customers into single-vendor supply chains.

Dismantling the CPO Monopoly

For years, the networking industry has recognized that bringing optical connections closer to the switch chip is necessary to maintain speed and reduce power consumption. However, early implementations of co-packaged optics have been dominated by proprietary, vertically integrated players. Companies have relied on customized silicon photonics engines permanently soldered directly onto the substrate.

While technically impressive, this closed approach creates a logistical nightmare for data center architects. Hyperscalers demand multi-vendor disaggregation to ensure supply chain resiliency and competitive pricing. More critically, permanently attached optics introduce the "compounded yield trap."

If a high-end switch ASIC boasts a 90 percent manufacturing yield, but requires sixteen soldered optical engines that each have a 98 percent yield, the overall package yield plummets to roughly 65 percent. Scrapping a $10,000 switch ASIC because a single $50 laser diode fails is an economic non-starter.

The Open CPX specification solves this by introducing a standardized, pluggable socket. Optical engines and host boards can be manufactured, binned, and verified independently before socketing. Crucially, Open CPX modules plug into their sockets without the need for cumbersome compression hardware, mirroring the ease of standard front-panel pluggables but located deep inside the chassis.

"The general availability of the Open CPX Specification marks an important step toward a truly open ecosystem for co-packaged and near-package optics," noted Xi Wang, Senior Vice President and General Manager of the Connectivity Group at Marvell. "With strong momentum across AI infrastructure deployments, we believe Open CPX is well positioned to accelerate adoption at scale."

The Physics of the 200T Switch Frontier

To understand why this specification is necessary, one must look at the physics of modern data transmission. As AI clusters push toward 200 Gbps per lane signaling, electrical signals face severe attenuation. Traditional front-panel pluggable optics require host signals to traverse up to 350 millimeters of complex printed circuit board traces, losing upwards of 26 decibels of signal strength in the process.

To compensate for this loss, standard pluggable transceivers require power-hungry digital signal processors (DSPs), consuming 15 to 25 picojoules per bit (pJ/bit). In a next-generation 102.4 Tbps switch, pluggable modules would consume roughly 2,000 watts of optical power alone, breaching the limits of traditional air cooling.

The Open CPX architecture bypasses this "copper wall" by placing the socket directly adjacent to the ASIC. This shrinks the electrical trace to under 50 millimeters, dropping insertion loss to single digits and eliminating the need for module-side DSPs. The result is a staggering 65 to 70 percent reduction in interconnect power, bringing consumption down to a lean 2 to 5 pJ/bit.

Furthermore, the specification embraces the reality of next-generation data center environments by optimizing natively for direct-to-chip liquid cooling. By standardizing External Laser Module (ELM) configurations, the architecture allows sensitive laser sources to be kept on cooler, field-replaceable front panels, while the optical engines inside the chassis operate reliably under liquid cold plates.

"As a founding member of the Open CPX MSA, Molex offers a product portfolio aligned to the pluggable CPO/NPO form factor, helping accelerate multi-vendor sourcing and deployment of interoperable, high-density interconnects for next-generation AI infrastructure," stated Scott Sommers, Director of Industry Standards, Copper Solutions at Molex.

The AI Speed Trap and Tactical Alliances

Perhaps the most remarkable aspect of the Open CPX specification is the velocity of its creation. In the telecom and networking sectors, standardizing a complex mechanical, electrical, and optical framework typically requires two to four years of arduous committee deliberations within bodies like the IEEE or OIF. The Open CPX MSA delivered its comprehensive blueprint in exactly six months.

This aggressive timeline is a direct reflection of the immense pressure on AI hardware roadmaps. "Working on AI solutions means working on AI time scales," explained Peter Winzer, Chief Editor of the Open CPX MSA and Vice President of Engineering at Ciena. "The industry demands solutions quickly, which is why we pushed so hard to deliver the Open CPX Specification in just six months after the formation of the MSA."

This speed also highlights the defensive nature of the coalition. Founded by Ciena, Coherent, Marvell, Molex, Samtec, and TeraHop, the group has quickly swelled to include heavyweights like Intel, Dell, HPE, and Qualcomm. By banding together, these companies are ensuring that the physical layer of the AI revolution remains an open playing field, preventing a handful of vertically integrated silicon giants from monopolizing the 200T infrastructure market.

"Collaboration breeds disruption," noted Matthew Burns, Marketing Co-Lead for the Open CPX MSA and Director of Technical Marketing at Samtec. "By enabling optical or copper co-packaged and near packaged connectivity in a single socket, the new Open CPX MSA makes the scalability, flexibility, supply-chain resiliency, and time to market demands of evolving AI infrastructures possible."

As the industry transitions from specification to commercialization, the true test will arrive in 2027, when hyperscalers begin deploying these 102.4T and 200T systems in volume. With working silicon and test fixtures already making their way through the supply chain, the foundation has been laid. The future of AI scale-up will not just be defined by the processors doing the thinking, but by the open, standardized sockets that allow them to communicate.