Bitcoin Pure: The Architecture Of Unified Decentralization

Bitcoin Pure: The Architecture Of Unified Decentralization

Bitcoin Pure: The Architecture Of Unified Decentralization

An Informal Bitcoin Improvement Proposal for the Future of the Global Monetary Layer

| PUBLISHED | UPDATED | | :--: | :--: | | 962,583 | - |


Personal Experience & Contextual Logic

NOTE: Skip to the next section if you don't care & just want the proposal.

I was born before the internet age. When I was very young, I got introduced to some of the first consumer PCs & I was fascinated with how agnostic code was. In the real world there were rules & laws we are all told to abide by, or some moral or legal consequence would follow. Computers didn't care about ANY of that shit; the code would just execute & there was nobody to judge whether the result was "good" or "bad"; you could just do things.

Fast forward some years & I became a freelance web developer. When I started coding, I would write entire HTML pages as a single entity. The HTML, the CSS, the JavaScript; it was all mashed together into a single file that any person accessing would have to load in its entirety. Everything worked just fine, but it was inefficient. Over time as the industry (and my own skills) evolved, everything became FAR more modular.

We started taking all the CSS & placing it outside of the HTML page. We took the JavaScript & placed it in a separate file. We started writing functions that would call upon certain codebases, tasks or assets on a dynamic "need-to-know" basis. It made life as a developer easier, faster, cheaper & less time-consuming. You could reuse code snippets across projects. You could write apps once & reference them an unlimited amount of times across clients. Everything just continued to get better, easier & more fun. I still remember the first day I implemented a "lazy loader" so my pages could snap into existence, while the slow, data heavy images could be grabbed asynchronously (and only if needed). I became OBSESSED with these small efficiency hacks. In the days of low bandwidth, anything that felt faster was more money I could sell a product for & I shaved off every millisecond that I possibly could because we all know that time is money. That's the end of my personal rant, but you need to understand that this is the context window through which I view the world.

Cool story, bro: Why this is relevant?

In looking at the blockchain, one can easily see that it's simply a collection of data, stored in various fields; from a data perspective, it's nothing more than a bog-standard database. In computer science, taking a database & restructuring, or parsing it into multiple different databases for efficiency is a fairly trivial act that is utilized all the time.

Recently I was scrolling through #Nostr & saw a post (link in the footnotes) that made me think:

"Why can't we just do that for Bitcoin?"

What's to stop us from looking at the existing database & simply parsing it into multiple datasets that can be called upon modularly to create computational efficiencies? After some thought, I couldn't personally come up with any real reason why it wouldn't be possible (or desirable).


Statement of Intent

The purpose of this architecture proposal is to spur conversation in an attempt to resolve the fundamental tension & increasing entropy within the #Bitcoin network. For its entire history, #BTC has been forced into a single, monolithic ledger where the full weight of every feature & action (from simple value transfer, to complex smart contract execution, to tokens & NFTs) is all crammed together & forced down everyone's throat. This introduces complexity & permanent burden onto everyone in the network, regardless of whether they want to interact with those components or not.

This proposal introduces Hierarchical Modular State Layering (HMSL). We are not adding additional features & we are not taking any existing features away; we are simply proposing an unbiased structural change to the organizational method of the existing data into a version-nested tree structure. This allows every participant to engage with the full potential of Bitcoin without bearing the burden of the entire history of every user. The goal is to end ideological division & allow a truly free market by providing a single, verifiable map that dictates where everything belongs.


The Problem: Every Bitcoiner "Hates" Bitcoin

Ask any Bitcoiner you meet & they will tell you straight-up that Bitcoin is the best thing that we have, but it isn't perfect. There is a very easily identifiable root cause of most disagreements in the space; anyone you ask will have a slightly different answer when you ask them two simple questions:

  1. "What is Bitcoin?"

  2. "What should Bitcoin do?"

Those two simple questions have caused countless rifts in the space (since we can no longer just ask the original architect for a definitive answer). Sure, we can look to his historical writings & records for guidance, but everyone has a different interpretation of them (similar to how legal judges interpret precedent & intent when trying to decipher & adhere to the laws). Even if everyone could come to an agreement on these definitions, Bitcoin has already undergone drift away from its original design. This makes it difficult to "steer the ship" & keep it on course amidst constantly turning tides.

The current monolithic architecture of Bitcoin presents a few major, critical challenges to mass adoption & long-term stability:

  1. Data Bloat: Every transaction ever made must be stored in the main ledger stream. This is one of the fundamental tenets of the protocol. This forces every node, from a small mobile wallet to an institutional validator, to download, verify, store & relay massive amounts of data. This persistently drives up operational costs & creates very real barriers to entry.

  2. Functional Overlap & Shared Burden: A user who only cares about a simple BTC transfer must still download, verify, store & relay all of the non-monetary complexity that has been accrued over time by every participant, even if they don't care about it; the data burden of this complexity is forced upon them.

  3. Ideological Division & Centralization Risk: When software developers (like Bitcoin Core or Bitcoin Knots) make changes to what can be added to the monolithic blockchain structure, users are often forced to accept those changes. If a developer makes an unpopular change (say, altering how much data can be allocated to the OP_RETURN field) the entire network is affected, forcing every user to bear that decision's burden. These decisions force users to then silo themselves into a software that aligns more with what they believe Bitcoin should be. This creates centralization risk: if too many people rely on one specific implementation, they lose their ability to opt out of the prevailing opinion of the developers.

NOTE: The common thread across all these issues is the emergent side-effect of forced partisanship; every single change made is another fracture in the unity & alignment of the network.


The Proposed Solution: Hierarchical Modular State Layering (HMSL)

"Bitcoin Pure" is my working codename for exploring a concept that solves all of these issues by identifying the complexity & organizing every component into a version-nested tree structure, ensuring maximum efficiency while maintaining absolute cryptographic integrity; a way for everyone to get what they want out of the same network.

I will now attempt to outline & illustrate the theoretical architecture to achieve this goal. Everything that follows is by no means set in stone & everything is a working name, just to be able to convey the concept. Everything is based on a Hierarchal Version Numbering System (HVNS) to put all of the data in its proper place (and for ease of reference between datasets). Everything that follows should be consumed with this in mind.

I. The Trunk: BIP-0 (The Monetary Base Layer)

BIP-0 is the foundational layer. It's only job is to handle two things:

  1. Money Transfer.
  2. Network State.

This layer remains pure & unclogged because its two-fold job is simple: prove that value moved correctly & store a snapshot of the state of the entire extended network. There are only two datasets stored on this layer; the UTXO Field & the Root Hash Field.

  • UTXO Field: By restricting itself solely to monetary data, it avoids the clutter of contracts, tokens & any other "feature" that has been added to the Bitcoin network over time.

  • Root Hash Field: BIP-0 contains only one extraneous (but crucial) field: The Root Hash Field. This hash acts as a single cryptographic fingerprint for the entire network's state at any given block height. It summarizes the status of every feature on all layers above it into one tiny, verifiable piece of data.

NOTE: The Root Hash Field will make much more sense as I further explain the architectural structure; keep it in your back pocket for now.

II. Organizing History: The Forking System

Bitcoin has obviously undergone many splits & forks, but they all share a common conception; The Genesis Block. Due to this property, it seems that it wouldn't be impossible to categorically organize all existing data from every chain into one giant "family tree" structure.

  • Hard Fork Classification (BIP-0.1): These are treated as major branches (children) that shoot off from the main trunk & have the categorical assignment of BIP-0.1. Forks are given their designations chronologically from the block height where they diverged:

    • Bitcoin Cash (BIP-0.1.1): The 1st hard fork of Bitcoin; it gets assigned BIP-0.1.1.

      • Bitcoin SV (BIP-0.1.1.1): The 1st hard fork of Bitcoin Cash; it gets assigned BIP-0.1.1.1.
      • eCash (BIP-0.1.1.2): The 2nd hard fork of Bitcoin Cash; it gets assigned BIP-0.1.1.2.
    • Bitcoin Gold (BIP-0.1.2): The 2nd hard fork of Bitcoin; it gets assigned BIP-0.1.2.

Every hard fork that shares the genesis block can be organized, referenced & accounted for using this simple structure (and it would apply to any other hard forks that I haven't explicitly listed here).

  • Soft Fork Classification (Universal Upgrades): These are treated as universally adopted upgrades. They do not get their own branch classification (since they were universally adopted & remain part of the parent chain); instead, they are referenced by the block height at which they were activated, providing a reference hook for precise historical accuracy & truth alignment across all layers.

III. The Branches: Feature Classifications

These are the major feature categories that sit directly on top of their parent branch. They define what kind of action is happening.

  • Hash Timelock Contracts (HTLCs) Classification (BIP-0.2): These are colloquially known as "Smart Contracts" is BIP-0.2; a brother/sister to the Fork Classification (BIP-0.1). This signifies that this feature eventually resolves back to its parent layer when certain contract conditions are met (e.g. a Lightning channel is opened or closed).

NOTE: The following examples are NOT architecturally accurate & are only being used for illustrative purposes (I have not done enough research on which protocols the L2s are using to know exactly how they are layered). Hopefully you still get the idea.

  • BIP-0.2.1: P2SH Multisig.

    • BIP-0.2.1.1: Rootstock (if it were using P2SH protocol)
    • BIP-0.2.1.2: Stacks (if it were using P2SH protocol).
  • BIP-0.2.2: P2WSH Multisig.

    • BIP-0.2.2.1: Liquid (if it were using P2WSH protocol).
    • BIP-0.2.2.2: Botanix (if it were using P2WSH protocol).
  • BIP-0.2.3: Taproot (key-path).

    • BIP-0.2.3.1: Lightning (if it were using Taproot protocol)
    • BIP-0.2.3.2: Citrea (if it were using Taproot protocol).

Since the examples above assume that those protocols are a layer removed from (and a branch off of) the main Bitcoin chain (BIP-0), it is assumed that their actions will resolve on that chain & no others. Their identifiers would also have been given by the date in which each protocol came into existence (oldest to newest).

  • Inscription Classification (BIP- 0.3): This is where all of the Ordinals live & anything using that standard.

    • BIP-0.3.1: BRC-20 Tokens
      • BIP-0.3.1.1: Taproot Wizards.
        • BIP-0.3.1.1.1: Fractional Taproot Wizards (Hypothetical; this doesn't exist)
      • BIP-0.3.1.2: Runes.

NOTE: Sorry if this section isn't completely accurate as I have extremely limited knowledge on the structure of how tokens work, or how they are layered & frankly, I don't care to learn about it; that's not what I'm here for. However, that doesn't mean that they should be excluded for the purposes of this proposal.


The Mechanics: How Verification Works

The Bitcoin Pure system operates through two continuous processes:

  1. Data Flow (which happens on layers that are downstream of the parent layers).

  2. Hash Aggregation (which is passed upstream to the parent layers).

Data Flow: These are the specific actions on any given protocol's layer. For example, sending a Lightning payment only requires that data be passed among the nodes in the Lightning network. The current state of the network regarding who owns what is maintained entirely on that L2 (Layer 2) network in realtime. There is no need to store this data on the main blockchain at all. However, when this data DOES matter, is an act that has to be passed up a layer (Like opening or closing a channel). This is where Hash Flow comes into play.

Hash Flow: This is the proof mechanism. For the same example of Lightning used above, let's assume a channel is opening. The act of opening a channel creates a UTXO transaction on the Bitcoin should take a snapshot of the current state of that Lightning Cannel's data & then pass a hash of that data back to the layer above it.

Using the example data earlier, If Lightning (BIP-0.2.3.1) Uses Taproot (BIP-0.2.3) HTLC (BIP-0.2) then the hash should be passed to the upstream layers, hashing the current state at each level to be able to write a final hash all the way back at the base layer (BIP-0).

In other words, the furthest layer from the (BIP-0) base layer hashes its total data state & passes that fingerprint up to its parent. That parent takes the fingerprint from all of its children & hashes it together to create another fingerprint, then pass that fingerprint back to its own parent. This process continues until all layer fingerprints are aggregated into one final Root State Hash, which is placed in the mandatory Hash Storage Field of the BIP-0 base layer.

In this way, the BIP-0 base layer can deterministically output a snapshot of the state of any network at the creation time of any block, effectively creating a "settlement" time capsule for every branch and layer of the network whenever a new block is mined on the BIP-0 base layer.

In the event that any fork, feature, protocol or token experiences some kind of catastrophic failure, it can be "reset" to the last known functional state. For instance, if the Lightning Network is knocked offline entire due to some kind of bug, hack, or shutdown of any kind, it could be "rebooted" from the last known state.

In that way, the base layer secures EVERYTHING built on top of it without the need to bloat the base chain at all, since hashes have a negligible footprint.


The User Experience: Modular Selection, Portability, and Risk Mitigation

The user experience is defined by choice, allowing users to select their data burden based on desired functionality. This modularity directly addresses centralization risk and feature rigidity.

I. The Choice Mechanism

Every participant chooses which features they want to engage with via a simple selection process (think: a "checkbox" in the software). They only download, verify, store & relay the specific datasets required for their chosen functions & are completely unaffected by any of the other activities that the broader network is engaging in.

| User Type | Desired Functionality | Required Data Downloaded/Relayed | Primary Benefit | | :--- | :--- | :--- | :--- | | User A: The OG Maxi | "We should only use Bitcoin the exact way that Satoshi designed it." | Only BIP-0 base layer. | Minimal storage, maximum speed. Ignores ALL complexity. | | User B: The Trust Fund Daddy | "I just want to secure my funds in a Taproot timelock for my kids." | BIP-0 data + BIP-0.2.3: Taproot (key-path). | Verifies contract validity without parsing the NFT crow's data. | | User C: The NFT Bro | "I wanna fractionalize my Taproot Wizards & sell them on OpenSea, bro." | BIP-0 + BIP-0.3: Inscriptions Classification + BIP-0.3.1: BRC-20 Token Classification + BIP-0.3.1.1: Taproot Wizards + BIP-0.3.1.1.1: Fractional Taproot Wizards | Only stores the NFT data he cares about. | | User D: Big Brother | "We're doing this for your own good." | All BIPs. | Complete realtime knowledge of the entire network state; maximum feature access; data center grade storage. |

In this way, the entire Bitcoin ecosystem becomes a completely free & open marketplace for ideas. If someone wants to build something on top of it, they can. As many users that want to join or leave any ecosystem are free to do so at any point; TRULY DEMOCRATIC ECONOMIC FREEDOM.

Everyone in the network defends everyone else by storing the Root State Hash & nobody has to bear the data burden of anything that they don't want to engage in. Problem solved; everybody's happy.

NOTE: I also theorize that this architecture model has the potential to completely wipe out the altcoin market. Why would you build a sidechain (and deal with all of the perils that come with maintaining your own isolated project), when you could just shitcoin on the most secure chain in existence? I also suspect that anything built on top of BIP-0 would ultimately have the tendency to be denominated in Bitcoin.

II. Historical Truth Alignment

The version nesting system ensures that historical addresses and balances are respected without forking the network, even if they were created before a specific layer existed. The old transaction is simply treated as implicitly carrying all possible features (BIP-0.2, etc.).

| Feature Type | Example | How it's Handled in UX | | :--- | :--- | :--- | | Hard Fork | Bitcoin Cash → BIP-0.1.1 | The user must choose to download the specific data set for this fork, ensuring they verify transactions under that rule set. | | Fork Divergence | Bitcoin SV from BCH → BIP-0.1.1.1 | This is a further nested choice; the user selects BIP-0.1.1.1 to validate their specific chain's history. | | Soft Fork | SegWit Activation (e.g.) | The feature is not a checkbox, but its activation block height is referenced in the metadata, ensuring historical truth alignment of whatever chain the user decides to run. |

III. Mitigating Centralization and Fragmentation Risk

This modularity of the architecture that I've outlined grants economic actors unprecedented freedom:

  • Opting Out: If software developers make changes to a feature, users can simply choose not to download that dataset, or even create a fork of their own to create a historical snapshot & retain the option to not pivot with the wishes of others. They can effectively opt out of that specific change while still benefiting from all other features & the core monetary layer.

  • Economic Portability: An economic actor (like a bank or DeFi protocol) can easily move between branches. If they decide to shift their primary focus from one area to another, they simply change the feature selection in their node & delete the unnecessary data. Their economic energy is portable because it is defined by its chosen branch.

  • Longest Chain Rule with Bloat Stripping: The core principle remains: the longest chain still wins. However, for every user who selects their features, all the unnecessary bloat from all other branches is stripped out by default. A Bitcoin Purist only downloads BIP-0; a Lightning Network enthusiast only downloads BIPs 0 + 0.2 + 0.2.3 + 0.2.3.1. They each get all the benefits of their desired Bitcoin layers without bearing the burden of everyone else's decisions.

  • Classification Standardization: The layer above the BIP-0 base chain only has to store the "container" data that outlines what that protocol's data set CAN include (without actually stuffing any data in it). Think of anything sitting at BIP-0.X as a rulebook for everything built on top of that. So If it's a hard fork, it might stipulate the new block size, difficulty adjustment, mining algorithm, etc. There is an unprecedented amount of freedom available within this architecture (limited only by the creativity of the developer & the strength of their idea).


Conclusion: The Unified Future

Bitcoin Pure provides a definitive architectural solution to modern blockchain fragmentation. By organizing every change into a version-nested tree structure, we ensure that complexity is both optional & verifiable. We allow users to choose their data burden based on functionality, while simultaneously guaranteeing that historical addresses and balances are respected because the provenance & properties of Bitcoin's history remain unchanged.

This modularity allows for maximum adoption and minimizes ideological conflict. It provides a free market where every participant can engage in their own decentralized, independent economics while still benefiting from centralized unity & security. The result is a single, verifiable truth layer where complexity is allowed, but not forced. We always say that Bitcoin is for friends & enemies alike; let's actually live by it though.


Final Call To Action

I am not technically savvy enough to write this software myself, or I would have just dropped it on the community. Much like Satoshi wasn't into design & outsourced it, I am calling on the community at large to take this concept & run with it; we can just do things. My goal in presenting this is for people to reason through this concept, tear it apart, expand upon it, tell me why it can/can't work & generally shit test it to push the concept forward. I believe that it is a solution for every user & allows enough freedom that nobody has any reason to complain or push back against this (unless they simply want Bitcoin to fail entirely). I will also be updating this document to reflect any incoming feedback & additions that the community may send my way & I have left space at the top of this document to account for that.

If you know any developers who are deeply familiar with the Bitcoin code/protocol:

  1. Tag them below.

  2. Send them a link.

  3. Repost/share/boost for visibility.

As with anything else in the space, I implore you to DYOR & don't trust, but verify. I look forward to seeing where this road takes us.

"Have Fun Staying Pure." 🤙 —nostr:nprofile1qqsxew647syatr8wexg7avd54grhjv086pudvjw6vesjss5mkeakjrqpzemhxue69uhhyetvv9ujuerfw36x7tnsw43z7qgswaehxw309ahx7um5wghx6mmd9uq3samnwvaz7tmjv4kxz7fwvehh2mn5v95kutnxd5hsn0dq0k



Disclaimers/Disclosures:
This article was written by nostr:nprofile1qqsxew647syatr8wexg7avd54grhjv086pudvjw6vesjss5mkeakjrqpzemhxue69uhhyetvv9ujuerfw36x7tnsw43z7qgswaehxw309ahx7um5wghx6mmd9uq3samnwvaz7tmjv4kxz7fwvehh2mn5v95kutnxd5hsn0dq0k using the help of Gemma 4 (Uncensored) AI model. The AI was only used to speed up organization & compilation of my catastrophically messy thoughts, but in doing so, it may have introduced some errors that were not immediately apparent to me upon final review.
The original idea to explore this concept came (ironically enough) from a thread resulting from a satirical post by nostr:nprofile1qqsvyxc6dndjglxtmyudevttzkj05wpdqrla0vfdtja669e2pn2dzuqpzemhxue69uhhyetvv9ujumt0wd68ytnsw43z7qg6waehxw309aex2mrp0yh8qunfd4skctnwv46z7a339uqjqamnwvaz7tmwdaehgu3wv45kuatwv3a8wctw0f5kwtnnwpskxef0hln7g2:

nostr:nevent1qqspq4qhaqqcr627xfkg0crzsqgejhkelfrwq4klcc50e022rkku7pcpr4mhxue69uhkummnw3ez6vp39eukz6mfdphkumn99e3k7mf0qgsxew647syatr8wexg7avd54grhjv086pudvjw6vesjss5mkeakjrqrqsqqqqqpn9ultm