BIP 110 Controversy: Why Bitcoin’s Spam War Became a Battle Over Network Neutrality

The BIP 110 controversy is often described as a technical fight over spam, Ordinals, inscriptions and arbitrary data stored on Bitcoin. That description is not entirely wrong, but it captures only the visible surface of a much larger conflict. Beneath the debate lies a fundamental question about Bitcoin governance: who has the authority to decide how the network may be used, and when does protecting...

The BIP 110 controversy is often described as a technical fight over spam, Ordinals, inscriptions and arbitrary data stored on Bitcoin. That description is not entirely wrong, but it captures only the visible surface of a much larger conflict. Beneath the debate lies a fundamental question about Bitcoin governance: who has the authority to decide how the network may be used, and when does protecting Bitcoin become an attempt to control it?

Michael Saylor and Adam Back have now emerged as two of the most prominent opponents of BIP 110. Their objections are not based on a defence of on-chain images, speculative tokens or blockchain data storage. Both are instead warning that the proposed solution may be more dangerous than the activity it seeks to restrict.

BIP 110 would temporarily introduce new consensus rules designed to limit the amount and structure of arbitrary data that can be embedded in Bitcoin transactions. Supporters describe the proposal as a defensive intervention intended to preserve Bitcoin as sound, permissionless money. Critics argue that it would transform a dispute over transaction policy into a consensus-level attempt to determine which valid uses of block space should be permitted.

That difference is decisive. A local transaction filter allows individual node operators to choose what they relay. A consensus rule allows nodes to reject blocks that do not comply. One expresses personal preference. The other attempts to redefine Bitcoin validity for the entire network.

This is why the BIP 110 controversy matters far beyond the Ordinals ecosystem. It tests Bitcoin’s resistance to social pressure, the limits of decentralized coordination and the distinction between defending the protocol and policing its users.

What BIP 110 Actually Proposes

BIP 110 is formally described as the Reduced Data Temporary Softfork. It proposes a temporary consensus change, lasting approximately one year, that would restrict several methods used to embed large amounts of data inside Bitcoin transactions.

According to the official BIP 110 specification, the proposal would limit most newly created scriptPubKeys to 34 bytes, while allowing OP_RETURN outputs of up to 83 bytes. It would also restrict certain data pushes and witness elements to a maximum of 256 bytes. Additional limitations would affect parts of Taproot, including annexes, large control blocks, undefined witness versions and specific Tapscript operations.

The proposal includes a grandfathering mechanism. Bitcoin outputs created before activation would generally remain exempt from the new restrictions, reducing the possibility that existing coins become unspendable. The new rules would primarily apply to outputs created after activation and would cease to operate once the temporary deployment expired.

On the surface, these restrictions appear narrowly targeted. They do not reduce Bitcoin’s monetary supply, change its issuance schedule or directly alter its proof-of-work mechanism. They are designed to make it harder to place large contiguous files, images and other non-financial data inside transactions.

However, the proposal operates at the consensus layer. A block containing a transaction that violates the new rules would be considered invalid by nodes enforcing BIP 110, even when that same block remains valid under the existing Bitcoin consensus rules.

That is the central source of controversy.

BIP 110 is not merely asking individual users to reject unwanted transactions from their mempools. It is asking a section of the network to reject entire blocks that include transactions currently considered valid. The distinction turns a debate over software policy into a possible chain split.

The proposal’s supporters believe this escalation is justified because transaction filters alone cannot prevent miners from directly including arbitrary data in blocks. Critics believe the inability to impose a local preference on every miner is not a flaw. It is a necessary consequence of decentralization.

Why Supporters Believe Bitcoin Has a Data Problem

The case for BIP 110 begins with the argument that Bitcoin was designed primarily as a monetary network, not as a decentralized storage service.

Since the rise of Ordinals inscriptions, Bitcoin transactions have increasingly been used to embed images, text, token metadata and other forms of arbitrary information. Some participants regard this experimentation as an expression of permissionless innovation. Others consider it an abuse of a scarce and globally replicated resource.

Every full node must download and verify the blockchain. Although old transaction data can be pruned under certain configurations, the network still bears costs related to bandwidth, validation and storage. These costs are distributed across thousands of independent node operators.

The person embedding a file pays a transaction fee once. The miner who includes the transaction receives that fee once. The data, however, may remain part of the blockchain indefinitely.

Supporters of BIP 110 therefore argue that the transaction fee does not completely internalize the long-term cost. The miner is compensated for block inclusion, but future node operators receive no share of the original fee while continuing to process and store the consequences of that transaction.

This creates what supporters describe as a negative externality. A private actor receives the benefit of permanent, globally replicated data storage, while some of the infrastructure cost is transferred to the broader Bitcoin network.

The official BIP 110 website frames the proposal as an attempt to protect Bitcoin’s monetary purpose, reduce unnecessary burdens on node operators and prevent arbitrary data storage from competing with payments. The project argues that higher node requirements could gradually weaken decentralization by making independent verification more expensive.

There is also a block-space argument. Bitcoin blocks have limited capacity. When demand rises, users compete through transaction fees. If inscription activity occupies a large share of block space, ordinary monetary transfers may become more expensive.

From the perspective of BIP 110 supporters, this produces an uncomfortable outcome. Bitcoin users seeking censorship-resistant payments could be priced out by speculative demand for images, tokens or data records. Lower-value users may then be pushed toward custodial services, centralized exchanges or intermediaries, weakening the very property Bitcoin was designed to protect.

This is not an irrational concern. Running a node should remain accessible, and Bitcoin’s monetary function depends on users being able to transact without excessive dependence on trusted third parties.

The dispute is therefore not between people who care about Bitcoin and people who do not. Both sides claim to be defending decentralization. They disagree over which threat is more serious.

Supporters see uncontrolled data usage as a long-term attack on accessible verification. Critics see consensus-level filtering as an attack on neutrality.

The Michael Saylor Objection: The Precedent Is More Dangerous Than the Spam

Michael Saylor’s opposition to BIP 110 focuses on precedent.

In a public statement posted on July 11, Saylor argued that there are “110 things more dangerous to Bitcoin than spam.” He warned that the proposal would turn a dispute over unwanted data into a consensus change capable of invalidating transactions that are currently valid and willing to pay market fees.

His core point was not that every use of Bitcoin block space is equally valuable. It was that Bitcoin should be extremely reluctant to introduce consensus rules based on subjective judgments about acceptable transaction content.

Saylor’s public statement on BIP 110 described the precedent itself as the real danger.

This position reflects a deeply conservative approach to Bitcoin protocol development. In monetary systems, predictability is a form of value. Bitcoin’s supply schedule matters because participants believe it will not be casually changed. Ownership rules matter because users expect valid coins to remain spendable. Consensus stability matters because investors, businesses and institutions need confidence that the network will not repeatedly redefine acceptable activity.

The problem with precedent is that it changes future expectations.

Today, a coalition might classify large inscriptions as spam. Tomorrow, a different coalition might target privacy-enhancing transactions, coin-mixing structures, low-value outputs, complex scripts or transactions associated with politically controversial actors.

The supporters of BIP 110 reject this slippery-slope argument. They maintain that the distinction between monetary transactions and arbitrary data storage is clear enough to prevent future overreach.

The critics are not convinced. Bitcoin transactions do not always fit into simple categories. A transaction may combine payment, custody, authentication, data commitments and advanced scripting. New monetary tools can initially appear experimental or inefficient. A rigid classification imposed today may interfere with applications that become economically important tomorrow.

Saylor’s concern is therefore not limited to the exact restrictions contained in BIP 110. His concern is the governance culture the proposal could normalize.

If Bitcoin begins responding to controversial usage through consensus-level restrictions, its rules may gradually become more dependent on social campaigns, developer coalitions and political coordination. The network would remain decentralized in a technical sense, but its boundaries could become increasingly negotiable.

For investors, this would introduce a new category of risk. Bitcoin would no longer be judged only by its fixed monetary policy and cryptographic security. It would also need to be evaluated according to the willingness of influential participants to modify transaction validity when certain uses become unpopular.

This is why the BIP 110 controversy touches Bitcoin’s monetary premium. The asset is valuable partly because changing it is difficult. A proposal intended to protect Bitcoin could weaken that perception if it suggests that protocol restrictions can be mobilized without overwhelming agreement.

Adam Back’s Argument: Decentralization Includes the Freedom to Disagree

Adam Back approaches the BIP 110 controversy from the principle of permissionless participation.

Back is one of Bitcoin’s most prominent cryptographers. His Hashcash proof-of-work system was cited in the original Bitcoin white paper, and his views carry particular weight in debates concerning Bitcoin’s technical and philosophical foundations.

His opposition to BIP 110 begins with a basic reality: decentralization prevents participants from imposing their preferences on everyone else.

A person who dislikes inscription transactions can modify local software, adopt stricter relay policies or refuse to interact with applications that create them. What that person cannot easily do is force every other node, miner and user to adopt the same definition of acceptable behaviour.

This limitation is not an accidental weakness. It is part of what makes Bitcoin resistant to centralized control.

Back argued that BIP 110 becomes, at its most basic level, an attempt to police other people’s transactions. He acknowledged that spam can be undesirable while rejecting the idea that personal hostility toward an activity automatically justifies a consensus intervention.

His broader position is that participants are free to run different software, but that freedom applies in both directions. BIP 110 supporters may coordinate around their preferred rules. Other users are equally free to reject them.

Back also warned that moving forward without broad consensus would not compel Bitcoin to accept the proposal. It would more likely cause BIP 110 nodes to separate themselves from the economically dominant chain.

In his public comments on the proposal, Back argued that supporters retain the permissionless right to organize and create a fork, but they cannot assume that the wider Bitcoin network will follow them.

This is an essential distinction in decentralized governance.

Anyone can write code. Anyone can publish an alternative implementation. Anyone can define a new chain as the legitimate continuation of Bitcoin. None of these actions automatically transfers Bitcoin’s economic network, liquidity, users, exchanges, wallets, miners or monetary credibility to that chain.

Bitcoin has no formal government, but it does possess an economic consensus. That consensus emerges from the independent decisions of thousands of actors. The chain recognized as Bitcoin is ultimately the one around which the relevant economic majority continues to coordinate.

Back’s argument therefore exposes a paradox at the heart of the BIP 110 controversy. The proposal seeks to use Bitcoin’s decentralized enforcement system to protect Bitcoin from an unwanted activity. Yet that same decentralized structure may prevent the proposal from achieving broad adoption.

The freedom that allows supporters to enforce BIP 110 also allows everyone else to ignore it.

Policy and Consensus Are Not the Same Thing

The most important technical distinction in the BIP 110 controversy is the difference between policy rules and consensus rules.

Policy rules are local. They influence which transactions a node accepts into its mempool, which transactions it relays to peers and which transactions miners may select through standard software configurations.

A node operator may choose a high minimum fee. Another may reject certain non-standard scripts. A miner may configure its block template differently. These choices can influence transaction propagation without changing the fundamental definition of a valid Bitcoin block.

Consensus rules operate at a deeper level. They determine whether a block belongs to the valid blockchain.

When a node receives a block, it checks proof-of-work, transaction structure, signatures, spending conditions and every other consensus requirement. If the block violates one of those requirements, the node rejects it regardless of how much computational work was used to produce it.

BIP 110 would move certain data restrictions from the policy layer into the consensus layer.

That means an enforcing node would not simply decline to relay an inscription transaction. It could reject a confirmed block containing that transaction, even when the block is accepted by nodes operating under the existing rules.

Supporters believe policy is insufficient because a miner can bypass normal relay behaviour and include a transaction directly. A policy filter can make data storage more difficult, but it cannot guarantee exclusion.

Critics reply that no node operator is entitled to a guarantee that all miners will follow the operator’s preferences. The purpose of policy is to express local priorities. The purpose of consensus is to preserve shared validity.

Using consensus to enforce a policy preference creates a much larger coordination burden. The change must receive sufficiently broad adoption to avoid splitting the network.

The official BIP acknowledges that spam is generally better addressed through policy and filters. It argues, however, that temporary consensus restrictions would send a stronger message that arbitrary data storage is not a supported Bitcoin use case.

That phrase, “supported use case,” reveals the philosophical disagreement.

Critics do not believe Bitcoin needs an authority capable of declaring which valid use cases are officially supported. The protocol defines valid transactions. Users then compete for block space through fees. An application does not require social approval in order to exist.

Supporters believe this interpretation is too passive. If technical features are exploited in ways that damage node decentralization and monetary accessibility, refusing to respond can itself become a governance decision.

The disagreement cannot be resolved by repeating that Bitcoin is permissionless. Both sides invoke permissionlessness. One side emphasizes permissionless transactions. The other emphasizes the ability of ordinary users to verify the network without facing continuously expanding infrastructure costs.

Is Arbitrary Data Really Different From a Financial Transaction?

BIP 110 depends on the assumption that arbitrary data storage can be meaningfully separated from legitimate monetary activity.

In simple cases, the distinction appears obvious. A conventional Bitcoin payment transfers value from one party to another. An inscription containing an image uses witness data to publish content. One looks monetary, while the other looks like file storage.

At the boundaries, the distinction becomes less clear.

Financial systems use data. Payment channels require commitments. Custody systems use scripts. Authentication protocols can anchor proofs to a blockchain. Asset systems may rely on metadata. Advanced contracts can combine monetary conditions with complex information structures.

A future application may use data in a way that appears unnecessary today but later becomes valuable for Bitcoin custody, scalability or interoperability.

BIP 110 supporters argue that the proposal was designed carefully enough to preserve all known monetary use cases. Existing outputs are grandfathered, ordinary multisignature configurations remain available, and the restrictions are temporary.

However, the official documentation also recognizes trade-offs. Large Taproot trees, some advanced smart-contract constructions and certain wallet configurations may be affected. Upgrade hooks using undefined witness versions or OP_SUCCESS would also be unavailable during the deployment.

The proposal’s authors consider these costs limited and manageable. Critics see them as evidence that consensus filtering cannot perfectly isolate “bad data” from legitimate experimentation.

This is not merely a technical problem. It is an epistemic problem. Developers cannot know every future use of the protocol.

Bitcoin’s conservatism traditionally addresses uncertainty by changing as little as possible. BIP 110 uses a different form of conservatism: it restricts a new class of activity to protect an older understanding of Bitcoin’s purpose.

Both approaches can be described as cautious. One is cautious about changing consensus. The other is cautious about allowing block-space usage to evolve without intervention.

The BIP 110 controversy is ultimately a conflict between these two forms of conservatism.

The Fee Market Argument

One of the strongest objections to BIP 110 is that the fee market should determine who uses Bitcoin block space.

Bitcoin does not promise cheap transactions at all times. Block space is scarce by design. When demand increases, users bid through fees. Miners prioritize transactions that offer greater compensation.

Under this model, an inscription transaction that pays a sufficient fee is not stealing block space. It is purchasing block space according to the same market mechanism used by every other participant.

Higher fees also contribute to miner revenue. This becomes increasingly important as the block subsidy declines through successive halvings. In the long run, Bitcoin must develop a sustainable security budget supported more heavily by transaction fees.

From this perspective, excluding fee-paying demand could be counterproductive. The network may need diverse forms of transaction activity to support miners and maintain security.

BIP 110 supporters respond that the fee market does not capture every cost. A transaction fee rewards the miner who confirms a transaction, but it does not continuously compensate every node that stores and serves the resulting blockchain data.

Furthermore, willingness to pay does not automatically make an activity socially beneficial. A wealthy actor could fill blocks with meaningless data. A speculative token mania could price out payment users. A fee market allocates scarce capacity according to purchasing power, not according to Bitcoin’s intended mission.

This exposes a broader economic conflict.

Should Bitcoin block space be neutral infrastructure sold to the highest bidder, or should its consensus rules privilege monetary use?

A completely neutral fee market allows the network’s purpose to emerge from user demand. A purpose-driven protocol places boundaries around the market to protect specific goals.

Bitcoin already has boundaries. Blocks have weight limits. Scripts have restrictions. Invalid transactions cannot become valid merely by paying more. The real question is whether arbitrary data should be placed outside those boundaries through a new rule.

Saylor and Back appear to believe that the threshold for such an intervention has not been met. Supporters believe the cost of waiting could be a gradual normalization of Bitcoin as a general data layer.

BIP 110 Activation and the Risk of a Minority Chain

The activation mechanism makes the BIP 110 controversy particularly sensitive.

The proposal uses miner signaling but does not depend exclusively on miners voluntarily reaching an overwhelming threshold. Early lock-in requires support from 55% of blocks during a 2,016-block difficulty period.

If early activation does not occur, the design includes a mandatory signaling phase. Nodes enforcing BIP 110 would begin rejecting blocks that fail to signal support, creating pressure on miners to comply.

This resembles a user-activated soft fork. Economic nodes attempt to enforce the rules from below, rather than waiting indefinitely for miners to coordinate.

User-activated mechanisms can be powerful when backed by a substantial economic coalition. Miners generally do not want to produce blocks that major exchanges, businesses, wallets and users will reject.

The strategy becomes dangerous when adoption is small.

As of July 12, 2026, the official BIP 110 signaling monitor reported zero signaling blocks in the current difficulty period, representing 0.00% support against a 55% early lock-in target. The previous completed period recorded 20 signaling blocks out of 2,016, equal to approximately 0.99%.

These figures can change as new blocks are mined, but they show that BIP 110 remains far from broad miner support at the time of writing.

The signaling deadline does not automatically disappear because adoption is low. If enforcing nodes continue following the activation schedule, they may eventually begin rejecting blocks accepted by the overwhelming majority of the network.

That would not force the majority chain to disappear. It would create incompatible views of validity.

Nodes running the current consensus rules would continue following the chain with the greatest valid accumulated proof-of-work. BIP 110 nodes could reject that chain and remain on a smaller branch containing only compliant blocks.

The likely result would be a minority fork.

Such a chain would face immediate economic questions. Which exchanges would list it? Which ticker would it receive? How much hashrate would secure it? Would stablecoin issuers, custodians and institutional platforms support it? Would wallets protect users from replay risks? Which chain would markets recognize as BTC?

This is why broad consensus matters before activation. A technically valid soft fork can still produce a socially and economically disruptive split if too few participants enforce it.

Bitcoin’s resistance to change is not created by a constitutional court or development foundation. It comes from the difficulty of coordinating a fragmented global network around new rules.

The low signaling rate suggests that the current economic network is not prepared to accept BIP 110 as a common standard.

Bitcoin Governance Without a Government

The BIP 110 controversy demonstrates how Bitcoin governance actually works.

Bitcoin is often described as leaderless, but leaderless does not mean free from influence. Developers write code. Maintainers review changes. Miners select transactions and produce blocks. Node operators enforce rules. Exchanges determine market symbols and liquidity. Businesses decide which chain they accept. Investors assign economic value.

No single group controls Bitcoin, yet every group influences the outcome.

A BIP is not a law. The official Bitcoin BIPs repository explicitly explains that publication does not mean a proposal has community consensus, is necessarily a good idea or is about to be adopted. Final acceptance rests with Bitcoin users and the broader economic network.

This point is frequently misunderstood. The existence of “BIP 110” does not mean Bitcoin developers have approved a protocol upgrade. A BIP number gives a proposal a structured place in the technical discussion. It does not grant authority.

Likewise, miner signaling is not the only form of consensus. Miners provide proof-of-work, but they cannot unilaterally redefine validity for nodes that reject their blocks. Node operators enforce their own software rules, but a tiny group of nodes cannot force markets to value its preferred chain.

Economic consensus emerges from coordination among these actors.

This process can appear chaotic because there is no formal vote. Social media debate becomes intense. Competing groups claim to represent the “real Bitcoin.” Accusations of censorship, capture and developer manipulation become common.

Yet this disorder is part of the system’s defence.

A centralized network can adopt an upgrade quickly because a central authority decides. Bitcoin changes slowly because no actor can easily compel the rest of the ecosystem. The inefficiency of governance is connected to the reliability of the monetary rules.

For students and investors following the Block2Learn Learning Path, this is an important distinction. Decentralization is not measured by the absence of disagreement. It is measured by whether disagreement can be resolved without a single party possessing the power to impose an outcome.

BIP 110 supporters can run their preferred software. Opponents can reject it. Miners can signal or remain neutral. Markets can decide which chain carries economic legitimacy.

That process may be uncomfortable, but it is more decentralized than a clean decision imposed from above.

Does Rejecting BIP 110 Mean Bitcoin Supports Spam?

Opposing BIP 110 does not necessarily mean supporting inscriptions, tokens or arbitrary data storage.

Saylor’s statement clearly separates the problem from the solution. Spam may be undesirable, but a consensus intervention could still create greater risks.

Back has similarly expressed hostility toward spam while rejecting the idea that dislike alone justifies policing other users through consensus.

This distinction is important because public debates often collapse into false binaries. Participants are told they must choose between unrestricted blockchain abuse and aggressive protocol filtering.

There are intermediate approaches.

Node operators can adopt stricter relay policies. Miners can decide not to include certain transactions. Developers can improve pruning, indexing and storage efficiency. Wallets can avoid unnecessary UTXO growth. Market participants can refuse to support speculative token standards. Alternative layers can provide data availability without burdening Bitcoin’s base layer.

None of these tools completely eliminates arbitrary data. That may be frustrating, but the inability to achieve perfect enforcement is not unique to Bitcoin.

A permissionless system cannot simultaneously guarantee absolute freedom and absolute control over how every participant behaves.

The correct standard should therefore not be whether BIP 110 solves spam perfectly. Even its authors acknowledge that data can be fragmented, disguised or reconstructed through external software. The relevant question is whether the expected reduction in harmful data justifies the consensus risks and technical trade-offs.

At present, miner signaling suggests that the network has not accepted that trade.

The Institutional Importance of Protocol Neutrality

Institutional Bitcoin adoption adds another dimension to the BIP 110 controversy.

Large companies, asset managers, custodians and treasury holders are attracted to Bitcoin because its core monetary rules are difficult to alter. They need confidence that ownership and settlement will not depend on unpredictable political decisions.

Protocol neutrality does not mean every transaction will be socially approved. It means validity is determined by stable, transparent rules rather than discretionary approval.

BIP 110 supporters argue that their proposal preserves neutrality by protecting monetary transactions while excluding data storage. Critics argue that the classification itself introduces discretion.

The concern is not that a one-year data restriction would immediately transform Bitcoin into a centrally managed network. The concern is cumulative.

Every successful consensus intervention becomes part of Bitcoin’s institutional memory. Future campaigners can cite earlier restrictions as evidence that transaction categories may be limited when a sufficiently organized coalition labels them harmful.

This may affect how investors understand Bitcoin’s risk profile.

Bitcoin is often compared with physical gold because neither asset has an issuing company. The comparison is imperfect, but the governance contrast with conventional financial systems remains important. Central banks can modify monetary policy. Corporate boards can issue shares. Governments can rewrite regulations. Bitcoin’s advantage lies in the difficulty of coordinated change.

A network that becomes more responsive to social governance may gain adaptability while losing part of its credibility as an inflexible monetary system.

This is the deeper warning in Saylor’s position. He is not claiming Bitcoin should never evolve. He is arguing that the burden of proof for consensus changes should remain extraordinarily high.

BIP 110 may address a real issue. The existence of a problem does not automatically make every proposed solution acceptable.

What Investors Should Monitor

The BIP 110 controversy is unlikely to be resolved by rhetoric alone. The network’s behaviour will provide the most important evidence.

Miner signaling remains a key indicator. A meaningful increase would suggest that BIP 110 is developing operational support rather than merely social attention. Continued signaling near zero would reinforce the conclusion that the proposal lacks the coordination necessary for network-wide activation.

Node adoption also matters, but raw node counts must be interpreted carefully. Nodes do not all carry equal economic weight. A node operated by an exchange, custodian or major payment service can influence more economic activity than an isolated personal node. At the same time, economic importance cannot be measured perfectly from public network data.

Major mining pools should also be monitored. A pool may begin signaling because its operators support BIP 110, because miners connected to the pool request it or because the pool wants to remain compatible with a potential enforcing coalition.

Exchange announcements would become critical if a fork appeared likely. Markets would need to determine ticker symbols, deposit rules, withdrawal support and replay protection. Silence from major financial infrastructure providers would suggest little institutional appetite for a minority chain.

Developers and wallet providers must evaluate compatibility. Even when existing funds are protected through grandfathering, newly created outputs using affected constructions could encounter problems during the deployment period.

Finally, investors should distinguish protocol risk from short-term price action. Bitcoin may trade without reacting materially to the debate, especially while BIP 110 adoption remains limited. That does not make the issue irrelevant. Governance conflicts can reveal structural properties that matter over a much longer horizon.

The Block2Learn News section follows these developments through the interaction between market structure, incentives, regulation and technology rather than treating every dispute as an isolated headline.

The Larger Lesson From the BIP 110 Controversy

The most important lesson is not that arbitrary data is harmless. It is not that every transaction deserves moral approval. It is not even that BIP 110 is technically incapable of reducing some forms of blockchain data storage.

The larger lesson is that protecting Bitcoin and controlling Bitcoin can begin to look remarkably similar.

Supporters of BIP 110 believe they are defending node decentralization, affordable payments and Bitcoin’s monetary mission. Critics believe they are defending consensus stability, transaction neutrality and the right of users to operate without permission.

Both sides can point to genuine risks.

Unrestricted growth in blockchain data may increase infrastructure demands. High fees can reduce accessibility. Speculative applications can divert technical attention and create externalities.

Consensus-level filtering can produce chain splits. It can interfere with legitimate experimentation. It can establish a precedent for future transaction policing. It can weaken the expectation that valid, fee-paying transactions will remain valid under stable rules.

There is no cost-free outcome.

Doing nothing permits current uses to continue. Intervening changes the boundaries of the protocol. Policy filters remain incomplete. Consensus rules require broad coordination. A fork preserves freedom of choice but fragments liquidity and security.

Bitcoin’s solution to this tension is not to eliminate conflict. It is to make unilateral victory difficult.

Saylor and Back are effectively arguing that this resistance is a feature. Bitcoin should tolerate frustration, inefficiency and even some unwanted behaviour before allowing a coalition to rewrite consensus. The network’s value depends partly on the fact that no group can easily convert its preferences into universal rules.

The low miner support recorded in July suggests that BIP 110 has not convinced the wider network. Unless that changes dramatically, the proposal is more likely to produce a small minority chain or fail to achieve meaningful activation than to redefine Bitcoin for everyone.

That outcome would not prove that the spam problem is imaginary. It would prove that recognizing a problem and agreeing on a consensus solution are entirely different things.

The BIP 110 controversy therefore offers a live demonstration of Bitcoin governance. There is no executive order, no emergency committee and no final authority capable of ending the argument. There are only proposals, software, incentives, independent operators and economic choice.

For a conventional institution, this would look like a failure to govern.

For Bitcoin, it may be the strongest evidence that no one governs it.

Investors who want to understand why these technical conflicts influence monetary credibility, decentralization and long-term risk can explore the complete Block2Learn Learning Path or start with the free educational guides. Information explains what happened. A structured framework explains why it matters.

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OASIS

Investor and entrepreneur with a focus on jewelry, e-commerce, and blockchain technologies. Founder of Block2Learn, a platform dedicated to educating on crypto, NFTs, and decentralized finance. Passionate about empowering others through innovative investments in digital assets and traditional industries.

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Aave (AAVE) $ 97.57 1.69%
mantra-dao
MANTRA (MANTRA) $ 0.006513 1.60%
aptos
Aptos (APT) $ 0.615503 0.78%
internet-computer
Internet Computer (ICP) $ 2.21 1.01%
monero
Monero (XMR) $ 347.12 0.37%
whitebit
WhiteBIT Coin (WBT) $ 57.61 0.43%
bittensor
Bittensor (TAO) $ 199.55 0.23%
ethereum-classic
Ethereum Classic (ETC) $ 7.00 0.03%
mantle
Mantle (MNT) $ 0.423986 1.04%
dai
Dai (DAI) $ 0.999813 0.00%
crypto-com-chain
Cronos (CRO) $ 0.058219 0.95%
vechain
VeChain (VET) $ 0.004895 1.62%
polygon-ecosystem-token
POL (ex-MATIC) (POL) $ 0.078558 2.06%
okb
OKB (OKB) $ 81.96 0.25%
kaspa
Kaspa (KAS) $ 0.028341 0.70%
algorand
Algorand (ALGO) $ 0.084145 0.49%
gatechain-token
Gate (GT) $ 6.67 1.14%
render-token
Render (RENDER) $ 1.53 0.58%
filecoin
Filecoin (FIL) $ 0.770143 2.44%
arbitrum
Arbitrum (ARB) $ 0.091099 1.85%
fetch-ai
Artificial Superintelligence Alliance (FET) $ 0.155397 1.72%
cosmos
Cosmos Hub (ATOM) $ 1.46 2.21%
coinbase-wrapped-btc
Coinbase Wrapped BTC (CBBTC) $ 76,366.00 3.12%
tokenize-xchange
Tokenize Xchange (TKX) $ 1.30 0.38%
ethena
Ethena (ENA) $ 0.089733 4.13%
celestia
Celestia (TIA) $ 0.362441 1.04%
optimism
Optimism (OP) $ 0.098241 1.45%
bonk
Bonk (BONK) $ 0.000003 0.45%
blockstack
Stacks (STX) $ 0.167967 0.36%
binance-peg-weth
Binance-Peg WETH (WETH) $ 2,262.26 3.62%
raydium
Raydium (RAY) $ 0.695734 2.26%
theta-token
Theta Network (THETA) $ 0.13744 1.23%
immutable-x
Immutable (IMX) $ 0.12828 0.82%
lombard-staked-btc
Lombard Staked BTC (LBTC) $ 76,491.00 3.15%
jupiter-exchange-solana
Jupiter (JUP) $ 0.191344 3.38%
movement
Movement (MOVE) $ 0.010815 1.00%
binance-staked-sol
Binance Staked SOL (BNSOL) $ 108.24 4.48%
first-digital-usd
First Digital USD (FDUSD) $ 0.997688 0.04%
injective-protocol
Injective (INJ) $ 5.21 1.51%
kelp-dao-restaked-eth
Kelp DAO Restaked ETH (RSETH) $ 2,404.69 3.37%
xdce-crowd-sale
XDC Network (XDC) $ 0.028303 2.68%
fasttoken
Fasttoken (FTN) $ 0.159833 0.00%
worldcoin-wld
Worldcoin (WLD) $ 0.382764 1.18%
kucoin-shares
KuCoin (KCS) $ 6.77 0.97%
lido-dao
Lido DAO (LDO) $ 0.401 2.22%
susds
sUSDS (SUSDS) $ 1.08 0.16%
the-graph
The Graph (GRT) $ 0.016516 1.53%
rocket-pool-eth
Rocket Pool ETH (RETH) $ 2,631.35 3.29%
sonic-3
Sonic (S) $ 0.024658 0.15%
mantle-staked-ether
Mantle Staked Ether (METH) $ 2,455.82 3.44%
nexo
NEXO (NEXO) $ 0.764665 0.53%
quant-network
Quant (QNT) $ 63.83 1.07%
flare-networks
Flare (FLR) $ 0.006679 1.01%
sei-network
Sei (SEI) $ 0.0463 1.78%
dogwifcoin
dogwifhat (WIF) $ 0.152973 0.45%
solv-btc
Solv Protocol BTC (SOLVBTC) $ 76,461.00 2.70%
virtual-protocol
Virtuals Protocol (VIRTUAL) $ 0.637085 4.18%
the-sandbox
The Sandbox (SAND) $ 0.048081 0.13%
msol
Marinade Staked SOL (MSOL) $ 133.18 5.83%
gala
GALA (GALA) $ 0.002076 2.14%
usual-usd
Usual USD (USD0) $ 0.999251 0.00%
floki
FLOKI (FLOKI) $ 0.000022 0.90%
jasmycoin
JasmyCoin (JASMY) $ 0.004462 4.08%
tezos
Tezos (XTZ) $ 0.227301 1.00%
kaia
Kaia (KAIA) $ 0.032081 1.84%
solv-protocol-solvbtc-bbn
Solv Protocol Staked BTC (XSOLVBTC) $ 76,043.00 2.27%
iota
IOTA (IOTA) $ 0.036537 2.97%
ethereum-name-service
Ethereum Name Service (ENS) $ 4.62 1.67%
spx6900
SPX6900 (SPX) $ 0.355681 1.09%
fartcoin
Fartcoin (FARTCOIN) $ 0.135473 2.34%
pudgy-penguins
Pudgy Penguins (PENGU) $ 0.006347 1.00%
pyth-network
Pyth Network (PYTH) $ 0.047732 2.35%
solana-swap
Solana Swap (SOS) $ 0.000168 3.79%
bittorrent
BitTorrent (BTT) $ 0.000000270739 0.86%
flow
Flow (FLOW) $ 0.025779 0.83%
bitcoin-sv
Bitcoin SV (BSV) $ 13.66 0.45%
neo
NEO (NEO) $ 2.03 0.21%
chain-2
Onyxcoin (XCN) $ 0.003611 0.75%
ronin
Ronin (RON) $ 0.05484 1.61%
jupiter-staked-sol
Jupiter Staked SOL (JUPSOL) $ 115.56 4.52%
curve-dao-token
Curve DAO (CRV) $ 0.216991 1.28%
jito-governance-token
Jito (JTO) $ 0.629572 2.11%
aioz-network
AIOZ Network (AIOZ) $ 0.049427 1.07%
renzo-restaked-eth
Renzo Restaked ETH (EZETH) $ 2,421.84 3.59%
arweave
Arweave (AR) $ 1.91 1.34%
binance-peg-dogecoin
Binance-Peg Dogecoin (DOGE) $ 0.107393 0.17%
arbitrum-bridged-wbtc-arbitrum-one
Arbitrum Bridged WBTC (Arbitrum One) (WBTC) $ 76,200.00 2.99%
starknet
Starknet (STRK) $ 0.029733 1.49%
axie-infinity
Axie Infinity (AXS) $ 0.925137 0.64%
wbnb
Wrapped BNB (WBNB) $ 759.61 1.56%
dexe
DeXe (DEXE) $ 4.43 54.72%
decentraland
Decentraland (MANA) $ 0.070045 0.40%
based-brett
Brett (BRETT) $ 0.004789 6.56%
elrond-erd-2
MultiversX (EGLD) $ 3.17 0.01%
beam-2
Beam (BEAM) $ 0.001538 0.81%
aerodrome-finance
Aerodrome Finance (AERO) $ 0.43187 4.51%
usdd
USDD (USDD) $ 0.999512 0.03%
dydx-chain
dYdX (DYDX) $ 0.125447 3.45%
thorchain
THORChain (RUNE) $ 0.437796 2.64%
morpho
Morpho (MORPHO) $ 1.89 6.70%
l2-standard-bridged-weth-base
L2 Standard Bridged WETH (Base) (WETH) $ 2,266.86 3.46%
mantle-restaked-eth
Mantle Restaked ETH (CMETH) $ 2,447.46 3.67%
conflux-token
Conflux (CFX) $ 0.046271 1.86%
reserve-rights-token
Reserve Rights (RSR) $ 0.001264 0.24%
arbitrum-bridged-weth-arbitrum-one
Arbitrum Bridged WETH (Arbitrum One) (WETH) $ 2,265.06 3.52%
zcash
Zcash (ZEC) $ 510.20 5.03%
tether-gold
Tether Gold (XAUT) $ 4,143.30 1.81%
ether-fi-staked-btc
Ether.fi Staked BTC (EBTC) $ 76,722.00 4.00%
ai16z
ai16z (AI16Z) $ 0.000385 1.90%
ether-fi-staked-eth
ether.fi Staked ETH (EETH) $ 2,317.47 1.05%
apecoin
ApeCoin (APE) $ 0.146271 0.41%
coredaoorg
Core (CORE) $ 0.02398 1.10%
helium
Helium (HNT) $ 0.203753 3.95%
frax
Legacy Frax Dollar (FRAX) $ 0.99045 0.12%
akash-network
Akash Network (AKT) $ 0.546484 0.57%
compound-governance-token
Compound (COMP) $ 17.30 0.37%
meow
MEOW (MEOW) $ 0.000006 0.49%
usdx-money-usdx
Stables Labs USDX (USDX) $ 0.007517 0.00%
ecash
eCash (XEC) $ 0.000008 4.62%
chiliz
Chiliz (CHZ) $ 0.014883 1.70%
wormhole
Wormhole (W) $ 0.009136 0.97%
amp-token
Amp (AMP) $ 0.000428 1.02%
ultima
Ultima (ULTIMA) $ 2,285.55 2.43%
eigenlayer
EigenCloud (prev. EigenLayer) (EIGEN) $ 0.240525 2.91%
pumpbtc
pumpBTC (PUMPBTC) $ 76,077.00 2.54%
deep
DeepBook (DEEP) $ 0.018686 0.23%
resolv-usr
Resolv USR (USR) $ 0.164323 1.47%
pancakeswap-token
PancakeSwap (CAKE) $ 1.40 0.52%
pax-gold
PAX Gold (PAXG) $ 4,143.85 1.88%
gigachad-2
Gigachad (GIGA) $ 0.002249 2.86%
mina-protocol
Mina Protocol (MINA) $ 0.046094 1.10%
gnosis
Gnosis (GNO) $ 111.69 0.06%
pendle
Pendle (PENDLE) $ 1.62 1.38%
bitcoin-avalanche-bridged-btc-b
Avalanche Bridged BTC (Avalanche) (BTC.B) $ 76,260.00 3.16%
beldex
Beldex (BDX) $ 0.081782 1.50%
echelon-prime
Echelon Prime (PRIME) $ 0.241912 2.88%
zksync
ZKsync (ZK) $ 0.009687 2.19%
paypal-usd
PayPal USD (PYUSD) $ 0.999843 0.01%
havven
Synthetix (SNX) $ 0.229719 0.94%
coinbase-wrapped-staked-eth
Coinbase Wrapped Staked ETH (CBETH) $ 2,539.40 3.57%
true-usd
TrueUSD (TUSD) $ 0.996615 0.05%
stakestone-berachain-vault-token
StakeStone Berachain Vault Token (BERASTONE) $ 1,938.39 0.67%
axelar
Axelar (AXL) $ 0.041757 1.08%
tbtc
tBTC (TBTC) $ 70,942.00 7.49%
apenft
AINFT (NFT) $ 0.000000268184 0.26%
snek
Snek (SNEK) $ 0.000318 4.97%
mog-coin
Mog Coin (MOG) $ 0.000000103498 0.16%
telcoin
Telcoin (TEL) $ 0.001877 3.17%
toshi
Toshi (TOSHI) $ 0.000111 0.40%
dydx
dYdX (ETHDYDX) $ 0.125617 3.62%
kava
Kava (KAVA) $ 0.045463 0.61%
polygon-pos-bridged-weth-polygon-pos
Polygon PoS Bridged WETH (Polygon POS) (WETH) $ 2,261.63 3.58%
newton-project
AB (AB) $ 0.000972 0.22%
notcoin
Notcoin (NOT) $ 0.000368 1.14%
chex-token
Chintai (CHEX) $ 0.014079 10.99%
bridged-usdc-polygon-pos-bridge
Polygon Bridged USDC (Polygon PoS) (USDC.E) $ 0.99972 0.00%
vethor-token
VeThor (VTHO) $ 0.000369 0.16%
frax-ether
Frax Ether (FRXETH) $ 2,262.16 2.20%
1inch
1INCH (1INCH) $ 0.082719 2.30%
trust-wallet-token
Trust Wallet (TWT) $ 0.340282 0.34%
quantixai
Quantix Finance (QFI) $ 59.04 0.09%
grass
Grass (GRASS) $ 0.373223 1.23%
stader-ethx
Stader ETHx (ETHX) $ 2,455.55 2.19%
superfarm
SuperVerse (SUPER) $ 0.087243 0.87%
terra-luna
Terra Luna Classic (LUNC) $ 0.000057 2.73%
sweth
Swell Ethereum (SWETH) $ 2,521.55 3.25%
safe
Safe (SAFE) $ 0.088289 7.65%
livepeer
Livepeer (LPT) $ 1.47 0.14%
hashnote-usyc
Circle USYC (USYC) $ 1.13 0.00%
usdb
USDB (USDB) $ 0.994997 0.85%
creditcoin-2
Creditcoin (CTC) $ 0.081553 1.26%
theta-fuel
Theta Fuel (TFUEL) $ 0.00803 0.64%
oasis-network
Oasis (ROSE) $ 0.005466 1.21%
super-oeth
Super OETH (SUPEROETH) $ 2,263.65 2.59%
aixbt
aixbt (AIXBT) $ 0.018905 1.29%
kusama
Kusama (KSM) $ 3.23 0.90%
bio-protocol
Bio Protocol (BIO) $ 0.027299 4.30%
layerzero
LayerZero (ZRO) $ 0.817364 2.13%
blur
Blur (BLUR) $ 0.016119 3.55%
dash
Dash (DASH) $ 33.50 3.29%
mimblewimblecoin
MimbleWimbleCoin (MWC) $ 9.85 3.19%
cat-in-a-dogs-world
cat in a dogs world (MEW) $ 0.00037 2.38%
ordinals
ORDI (ORDI) $ 3.56 1.80%
solayer-staked-sol
Solayer Staked SOL (SSOL) $ 112.14 4.30%
io
io.net (IO) $ 0.153242 0.22%
ondo-us-dollar-yield
Ondo US Dollar Yield (USDY) $ 1.14 0.11%
freysa-ai
Freysa AI (FAI) $ 0.002291 10.81%
arkham
Arkham (ARKM) $ 0.112449 2.08%
turbo
Turbo (TURBO) $ 0.000823 0.84%
popcat
Popcat (POPCAT) $ 0.044181 0.39%
binance-peg-busd
Binance-Peg BUSD (BUSD) $ 1.00 0.05%
olympus
Olympus (OHM) $ 18.58 0.30%
dog-go-to-the-moon-rune
Dog (Bitcoin) (DOG) $ 0.000626 3.42%
nervos-network
Nervos Network (CKB) $ 0.000929 0.98%
astar
Astar (ASTR) $ 0.005262 0.64%
just
JUST (JST) $ 0.10123 0.86%
compound-wrapped-btc
cWBTC (CWBTC) $ 1,534.90 2.99%
mx-token
MX (MX) $ 1.67 0.64%
zilliqa
Zilliqa (ZIL) $ 0.002464 2.43%
verus-coin
Verus (VRSC) $ 0.615014 0.76%
melania-meme
Melania Meme (MELANIA) $ 0.081415 0.14%
agentfun-ai
AgentFun.AI (AGENTFUN) $ 0.493938 54.82%
holotoken
holo (HOLO) $ 0.00001 0.17%
ai-rig-complex
AI Rig Complex (ARC) $ 0.064828 2.91%
origintrail
OriginTrail (TRAC) $ 0.308088 0.65%
liquid-staked-ethereum
Liquid Staked ETH (LSETH) $ 2,406.26 2.78%
polygon-bridged-wbtc-polygon-pos
Polygon Bridged WBTC (Polygon POS) (WBTC) $ 76,130.00 3.08%
0x
0x Protocol (ZRX) $ 0.085586 0.96%
baby-doge-coin
Baby Doge Coin (BABYDOGE) $ 0.00000000030475 0.19%
ether-fi
Ether.fi (ETHFI) $ 0.465576 4.04%
safepal
SafePal (SFP) $ 0.220869 0.21%
staked-frax-ether
Staked Frax Ether (SFRXETH) $ 2,589.68 3.62%
aethir
Aethir (ATH) $ 0.004669 1.82%
golem
Golem (GLM) $ 0.10049 0.99%
basic-attention-token
Basic Attention (BAT) $ 0.078771 0.20%
swissborg
SwissBorg (BORG) $ 0.15696 0.53%
skale
SKALE (SKL) $ 0.003952 0.34%
wemix-token
WEMIX (WEMIX) $ 0.235171 2.07%
mocaverse
Moca Network (MOCA) $ 0.008873 0.14%
xyo-network
XYO Network (XYO) $ 0.003021 0.97%
gas
Gas (GAS) $ 1.04 0.71%
celo
Celo (CELO) $ 0.072569 2.77%
benqi-liquid-staked-avax
BENQI Liquid Staked AVAX (SAVAX) $ 12.58 0.25%
qtum
Qtum (QTUM) $ 0.706925 0.35%
spell-token
Spell (SPELL) $ 0.000084 0.79%
would
would (WOULD) $ 0.08251 1.14%
vine
Vine (VINE) $ 0.009828 2.42%
zencash
Horizen (ZEN) $ 4.17 1.06%
woo-network
WOO (WOO) $ 0.013028 0.17%
iotex
IoTeX (IOTX) $ 0.002427 2.86%
bridged-wrapped-ether-starkgate
Bridged Ether (StarkGate) (ETH) $ 2,241.79 5.41%
resolv-wstusr
Resolv wstUSR (WSTUSR) $ 1.13 0.06%
siacoin
Siacoin (SC) $ 0.000592 0.77%
bybit-staked-sol
Bybit Staked SOL (BBSOL) $ 112.08 4.42%
plume
Plume (PLUME) $ 0.011556 2.97%
osmosis
Osmosis (OSMO) $ 0.033231 0.39%
vana
Vana (VANA) $ 1.22 1.74%
griffain
GRIFFAIN (GRIFFAIN) $ 0.008831 3.95%
zetachain
ZetaChain (ZETA) $ 0.034406 0.61%
uxlink
UXLINK (UXLINK) $ 0.000717 1.19%
ethereum-pow-iou
EthereumPoW (ETHW) $ 0.24086 1.49%
ankr
Ankr Network (ANKR) $ 0.003547 0.88%
akuma-inu
Akuma Inu (AKUMA) $ 0.000000060361 0.13%
tribe-2
Tribe (TRIBE) $ 0.315962 0.84%
ravencoin
Ravencoin (RVN) $ 0.003841 0.62%
enjincoin
Enjin Coin (ENJ) $ 0.028411 0.36%
peanut-the-squirrel
Peanut the Squirrel (PNUT) $ 0.041839 0.46%
elixir-deusd
Elixir deUSD (DEUSD) $ 0.000977 0.00%
memecoin-2
Memecoin (MEME) $ 0.000531 0.24%
aelf
aelf (ELF) $ 0.060978 0.79%
anime
Animecoin (ANIME) $ 0.002725 0.60%
constellation-labs
Constellation (DAG) $ 0.007949 0.81%
polymesh
Polymesh (POLYX) $ 0.037821 0.95%
convex-finance
Convex Finance (CVX) $ 1.27 1.94%
drift-protocol
Drift Protocol (DRIFT) $ 0.013368 0.06%
sats-ordinals
SATS (Ordinals) (SATS) $ 0.000000009552 0.58%
venice-token
Venice Token (VVV) $ 12.40 0.05%
qubic-network
Qubic (QUBIC) $ 0.000000463638 0.41%
coinex-token
CoinEx (CET) $ 0.012564 1.00%
peaq-2
peaq (PEAQ) $ 0.018874 2.14%
threshold-network-token
Threshold Network (T) $ 0.003681 0.51%
stepn
GMT (GMT) $ 0.007364 2.52%
usda-2
USDa (USDA) $ 0.983364 0.00%

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