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July 14, 2025

CT3 Transitions to Compressed NFT Infrastructure for Scalable Asset Issuance

Minting traditional NFTs on Solana has proven to be effective, but at scale it becomes increasingly resource-intensive. Each NFT requires individual on-chain storage and separate transactions, which leads not only to higher costs, but also to operational overhead that grows proportionally with volume. When working with large datasets or массовой генерацией NFT, such an approach creates natural limitations in speed, throughput, and predictability of execution.

As our infrastructure continues to expand and the volume of processed data increases, the need for a more efficient and scalable model has become очевидной. For this reason, we are transitioning to compressed NFTs (cNFTs) — a standard specifically designed to support large-scale minting while significantly reducing resource consumption.

To support this transition, we are integrating the Bubblegum Batch SDK by Metaplex Foundation — a solution built to work natively with compressed NFTs and enable high-throughput minting in production environments.

What is Bubblegum Batch SDK and how is it related to cNFTs?

Bubblegum is the underlying protocol that enables the creation of compressed NFTs. The Batch SDK builds on top of this protocol by introducing a more advanced minting workflow, where assets are processed in batches rather than individually. This approach reduces transaction overhead, optimizes interaction with on-chain structures, and allows the system to handle significantly larger volumes without degradation in performance.

Instead of scaling linearly with each new NFT, the system becomes capable of handling large groups of assets within a single coordinated process, making high-volume minting not only possible, but efficient and predictable.

How compressed NFTs (cNFTs) work

Compressed NFTs redefine how NFT data is stored and verified. Instead of recording full metadata for each asset directly on-chain, the data is structured using Merkle trees — a cryptographic method that allows large datasets to be represented efficiently. In this model, only compact proofs are stored on the blockchain, while the full data can be reconstructed and verified when needed.

This drastically reduces the amount of on-chain storage required and minimizes transaction load, while still preserving the core principles of NFTs: ownership, uniqueness, and verifiability. The result is a system that maintains trustlessness, but operates with far greater efficiency.

What this means for our users

This transition is not just a technical upgrade — it directly improves how users interact with the platform. Faster minting operations mean that NFTs are delivered to users’ wallets almost instantly after creation, removing delays that previously occurred during high load or large batch processing. This is especially important in scenarios where multiple assets are generated simultaneously, such as uploading a large number of files.

At the same time, the system becomes significantly more устойчивой к нагрузке. The ability to process large volumes without bottlenecks ensures that performance remains stable regardless of scale, allowing consistent and predictable NFT issuance even under heavy usage. This results in a smoother user experience, faster confirmations, and greater reliability across all operations involving digital assets.

In addition, reduced resource consumption at the protocol level allows us to optimize overall costs and allocate infrastructure capacity more efficiently, which creates a stronger foundation for future features and expansion.

This transition marks an important step toward building a truly scalable digital asset infrastructure, where performance, speed, and efficiency are aligned with long-term growth and increasing demand.