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Money, cryptography, the blockchain and the future of financial freedom. A complete 12-module study guide.

NivelixPro Team · Study guide · ~30 min read
12Modules
78Topics
200+Subtopics
2009Genesis year
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01
Module 01 · Fundamentals

Money: What It Is, How It Works and Why It Matters

The foundations that make Bitcoin make sense. Without understanding money, you cannot understand Bitcoin.

1.1 What is money?

Money is not something natural. It does not exist in nature like water or oxygen. It is a social technology: a collective agreement that a certain thing has value because we all believe that everyone else believes it too. That circularity is its essence.

Before money there was barter. If you were a fisherman and needed shoes, you had to find a shoemaker who needed exactly fish. Economists call this the double coincidence of wants — and it is brutally inefficient. Money was born to break that chain.

Medium of exchange
Anyone accepts it without the need for barter. It enables indirect exchanges between people who produce different things.
Unit of account
It lets you compare the value of different goods. Without it, we would need an infinite price table between every pair of goods.
Store of value
You can save it today and use it tomorrow. Fresh fish fails here; gold does not. Bitcoin does not deteriorate either.

1.2 Properties of ideal money

To fulfil those functions well, money needs certain properties. Historically, no good has met all of them perfectly — until Bitcoin:

Property
Salt/Shells
Gold
Fiat
Bitcoin
Scarcity
3
5
1
5
Durability
2
5
3
5
Divisibility
4
3
5
5
Portability
3
2
4
5
Verifiability
3
3
3
5
Censorship resist.
2
3
1
5
Bitcoin is the first form of money in history that scores the maximum on all properties at the same time. That is no coincidence — it was deliberately designed that way.

1.3 The history of money

~5000 BC
Salt, grain and cattle as money
The first forms of standardised exchange. Salt was so valuable that Roman soldiers were paid in it — hence the word "salary".
~600 BC
Lydia mints the first electrum coins
Gold and silver dominate world trade. The soundest money that existed for 2,500 years.
1694
The Bank of England is founded
The first modern central bank. Banks begin issuing notes as receipts for gold deposits — paper is more convenient, but it requires trust in the issuer.
1944
Bretton Woods — The dollar anchors the world
44 countries agree to peg their currencies to the dollar, and the dollar to gold at $35/ounce. A stable order... but a fragile one.
1971
Nixon Shock — The end of the gold standard
The greatest monetary experiment in history begins. Every currency in the world becomes backed only by trust in its government. The printing press can run without limit.
2008
Global financial crisis — Bank bailout
Governments print trillions to bail out those responsible for the disaster. The system reveals itself as fragile and captured.
2009
₿ Bitcoin Genesis Block
January 3, 2009. The first block includes a Times headline: "Chancellor on brink of second bailout for banks." A statement of intent.

1.4 How money is created today

Fractional-reserve banking

When you deposit €1,000 in a bank, the bank does not keep it. It keeps only a fraction (in Europe the requirement is ~1%) and lends out the rest. The bank that receives that loan does the same. This is how money is "created" out of nothing: from €1,000 of real deposit, up to €100,000 in credit can circulate through the economy.

Quantitative Easing (QE)

Central banks (the Fed, the ECB) can create money directly by buying assets with newly created money. Between 2020 and 2022 alone, the Fed expanded its balance sheet from 4 to more than 9 trillion dollars. That money did not exist the day before.

Bitcoin solves this with an immutable rule written in code: there will never be more than 21 million bitcoins. No central bank, no government, no monetary-policy committee. The supply is fixed forever.

1.5 Failed attempts before Bitcoin

ProjectYearInnovationWhy it failed
DigiCash (Chaum)1989First private digital cashCentralised company. Went bankrupt in 1998.
E-Gold1996Digital gold. 5M usersSeizable physical servers. Shut down by the U.S. in 2007.
Liberty Reserve2006Global anonymous paymentsRegistered company. Dismantled in 2013.
b-money (Wei Dai)1998Decentralised proposalNever fully implemented.
Bit Gold (Szabo)2005Design almost identical to BitcoinDid not solve the double-spending problem.

Satoshi read all of this. Bitcoin responds directly to every failure: no company, no central servers, no leader to arrest, no physical address to seize.

1.6–1.7 Money, freedom and why Bitcoin is different

Whoever controls money controls behaviour. History is full of examples: the Argentine "corralito" (2001), the seizure of deposits in Cyprus (2013), the freezing of Canadian truckers’ accounts (2022), the financial blockade of WikiLeaks (2010).

Key factIn 1971, an ounce of gold cost 35 dollars. Today it costs more than 2,000 dollars. It is not that gold became more expensive — it is that the dollar has lost 98% of its purchasing power against gold since the end of the gold standard.

Bitcoin is the first technology in history that lets anyone in the world store and transfer value without anyone’s permission. It requires no bank, no government and no name.

02
Module 02 · Technology

Cryptography: From Caesar to the Blockchain

The millennia-old science that makes Bitcoin possible. Without cryptography, there is no Bitcoin.

2.1 What cryptography solves

Confidentiality
That no one who intercepts the message can read it.
Integrity
That the recipient can verify the message was not altered in transit.
Authentication
That the recipient knows with certainty who sent the message.
Non-repudiation
That the sender cannot deny having sent the message.

In Bitcoin, these four problems are solved mathematically, with no need to trust any central institution.

2.2–2.3 From Antiquity to World War II

Caesar cipher (~50 BC)

Julius Caesar sent military messages by shifting each letter of the alphabet three positions. 'A' → 'D', 'B' → 'E'. It has only 25 possible keys. The underlying principle is the same as all modern cryptography: turning plaintext into ciphertext using a key.

The Spartan scytale (~500 BC)

A rod of a specific diameter for encrypting messages by wrapping leather around it. The first example of a transposition cipher in history.

Enigma and Alan Turing

Germany used Enigma in World War II — a machine with more than 158 quintillion possible combinations. Alan Turing led the team that broke it. It is estimated to have shortened the war by 2 to 4 years. Without Turing there would be no modern computing, and without computing there would be no Bitcoin.

2.4–2.5 The revolution: public and private keys

The key-exchange problem

All historical ciphers shared one problem: the recipient needs the key to decrypt, but how do you send it securely if the channel is not secure? It is the chicken-and-egg dilemma.

Diffie-Hellman (1976): the greatest cryptographic breakthrough in history

They proved mathematically that two people could establish a shared secret key over a completely public channel. No one intercepting the communication could deduce the key. It was a Copernican leap.

RSA (1977) and digital signatures

Rivest, Shamir and Adleman created the first practical public-key system, based on the fact that it is very easy to multiply two huge primes but very hard to factor the result. Public/private keys gave birth to digital signatures: you can prove you signed something without revealing your secret key. This is exactly what Bitcoin does when you send a transaction.

2.6 Cryptographic hash functions — SHA-256

A hash function turns any input into a fixed-length "fingerprint". Bitcoin uses SHA-256. Its properties are critical:

  • Determinism: the same input always produces the same output.
  • Avalanche effect: changing a single bit completely changes the output (~50% of the bits).
  • One-way: impossible to obtain the input from the output.
  • Collision resistance: practically impossible for two different inputs to produce the same output.
SHA-256 of "Hola" → 8b1a9953c4611296a827abf8c47804d7... SHA-256 of "hola" (lowercase) → a completely different result. There is no known mathematical calculation to reverse the process.

2.7–2.8 Elliptic curves and the Cypherpunk movement

secp256k1: Bitcoin’s curve

Bitcoin uses elliptic-curve cryptography (ECC), specifically the secp256k1 curve. A 256-bit ECC key is equivalent in security to a ~3,072-bit RSA key. Your Bitcoin private key is a random 256-bit number. Elliptic-curve operations derive your public key, and from it your address. The process is one-way at every stage.

The Cypherpunk Manifesto (1993)

In the early 1990s, a group of mathematicians and activists in San Francisco began meeting under the name "Cypherpunks". They believed digital privacy was the fundamental right of the information age. Eric Hughes wrote in 1993:

"Privacy is necessary for an open society in the electronic age. [...] We the Cypherpunks are dedicated to building anonymous systems."

Philip Zimmermann created PGP (Pretty Good Privacy) — the first email encryption accessible to the general public. The U.S. government investigated him for 3 years for "exporting munitions". Satoshi Nakamoto published the Bitcoin whitepaper on the Cypherpunks’ cryptography mailing list in October 2008. Bitcoin is the culmination of decades of their work.

03
Module 03 · Protocol

The Birth and Real Workings of Bitcoin

How the first truly decentralised digital currency in history works on the inside.

3.1 Satoshi Nakamoto and the whitepaper

On October 31, 2008, a person or group under the pseudonym Satoshi Nakamoto published a 9-page document titled "Bitcoin: A Peer-to-Peer Electronic Cash System". In those 9 pages was the solution to a problem that had frustrated cryptographers for decades.

The double-spending problem

With physical money, if you have a €50 note you cannot give it to two people at once. Digital money has the opposite problem: a digital file can be copied infinitely. Satoshi’s solution: instead of a central arbiter (a bank), a network of thousands of computers that verify and record every transaction in a public, shared ledger — the blockchain.

The genesis blockOn January 3, 2009, Satoshi mined the first Bitcoin block and included a Times headline: "Chancellor on brink of second bailout for banks." It was no accident. It was a statement of intent. No one knows who Satoshi is. He holds ~1 million BTC that have never moved.

3.2 The blockchain: real structure

Previous block hash
The unique identifier of the previous block. This "chains" the blocks: changing one changes its hash and invalidates all the following ones.
Nonce
The number miners search for so the block hash meets the difficulty requirement.
Merkle Root
Root hash of the Merkle tree of all transactions in the block. It changes if any transaction is altered.
Transactions
The list of included transactions (~2,000–4,000 per block in Bitcoin).

3.3–3.4 Proof of Work and the Hashrate

What exactly does a miner do?

A miner takes the contents of the next block and searches for a number (nonce) such that the SHA-256 hash of the full block starts with a given number of zeros. There is no clever way to find it — only brute force: billions of attempts per second. The first to find it broadcasts the block and wins the reward: currently 3.125 BTC + fees.

Difficulty adjustment

Every 2,016 blocks (~2 weeks), the protocol automatically adjusts the difficulty so the average time between blocks is always ~10 minutes. If more miners join, difficulty rises. If they leave, it falls.

Hashrate in 2024: Bitcoin exceeds 600 EH/s (exahashes per second = 10¹⁸ hashes/s). To attack the network you would need more computing power than all the world’s supercomputers combined, thousands of times over.

3.5 Nodes: the true heart of Bitcoin

A common misconception: many believe miners are the guardians of Bitcoin. They are not — the nodes are.

Full node
Downloads and verifies the entire blockchain (~600 GB). It checks every transaction and block against the protocol rules. If a miner tries to create extra bitcoins, the nodes reject it immediately.
Mining node
A full node that also proposes new blocks and takes part in mining.
Light node (SPV)
Downloads only block headers. Useful for smartphones. Relies on full nodes for verification.

There are more than 15,000 active full nodes distributed around the world. There is no way to shut them all down. Miners work for the network — not the network for the miners.

3.6 The 21 million and the Halving

Bitcoin has a 21-million issuance cap, hard-coded into the protocol. Every 210,000 blocks (~4 years), the block reward is halved:

EventDateRewardBTC issued
Genesis200950 BTC0
1st Halving201225 BTC~10.5M
2nd Halving201612.5 BTC~15.75M
3rd Halving20206.25 BTC~18.375M
4th Halving20243.125 BTC~19.7M
Last block~2140~0 BTC21M

3.7–3.9 Transactions, Wallets and Lightning

The UTXO model

Bitcoin does not use accounts like a bank. It uses UTXOs (Unspent Transaction Outputs): each UTXO is like a physical banknote. When you spend it, you spend it whole and receive the "change" as a new UTXO.

Keys and wallets
Private key
A random 256-bit number. Whoever has it has the bitcoins. If you lose it, you lose them forever.
Public key
Derived from the private key. It can be shared. It lets signatures be verified without revealing the private key.
Bitcoin address
Derived from the public key. What you share to receive payments.
Seed phrase
12 or 24 words (BIP39) that represent your master key. With them you recover everything on any compatible device.
"Not your keys, not your coins." If your bitcoins are on an exchange, technically they are not yours — the exchange holds the private keys. If the exchange goes bankrupt (like FTX), you lose everything.
Lightning Network

Base Bitcoin processes ~7 transactions per second; Visa ~24,000. Lightning solves this with off-chain payment channels: you open a channel with an on-chain transaction, make instant and almost free payments inside the channel, and close it with another on-chain transaction. El Salvador uses it for everyday payments as legal tender.

04
Module 04 · Consensus

Proof of Work vs. Proof of Stake

Why the consensus mechanism defines the entire philosophy of a blockchain network.

4.1–4.2 PoW vs. PoS: the fundamental difference

⛏ Proof of Work
  • Security based on real physical energy — a cost external to the system
  • Each hash costs electricity — attacking costs real money
  • Decentralised by design: anyone can mine
  • Immutable: to rewrite history you need more energy than the entire network
  • Used by: Bitcoin, Litecoin
🔒 Proof of Stake
  • Security based on locked capital — a cost internal to the system
  • Energy efficiency: -99.95% vs. PoW
  • Centralisation risk: more coins = more power
  • Slashing: dishonest validators lose their stake
  • Used by: Ethereum, Cardano, Solana

Ethereum transitioned from PoW to PoS in September 2022 (The Merge). The Bitcoiner critique: "Without a real external cost, security is circular — it depends on the very coin the network issues."

4.3 Other consensus mechanisms

MechanismDescriptionExamplesVulnerability
DPoSHolders vote for delegates who validateEOS, TRONDelegate capture, centralisation
Proof of HistoryCryptographic proof of time orderingSolanaComplexity, validator outages
Proof of SpaceDisk space as a computational resourceChiaSpeculative storage market
Proof of AuthorityKnown, verified validatorsPrivate networksTotal centralisation, permissioned

4.4–4.5 Pools, Staking, Airdrops and Earning

Mining pools

Mining solo is like buying a lottery ticket: a chance to win but enormous variance. Pools combine the hashrate of thousands of miners and split the rewards proportionally. The largest in 2024: Foundry USA (~30%), AntPool (~20%), F2Pool (~15%).

Staking
Locking PoS coins to take part in validation and earn yields (typically 3–7% per year). Risk: slashing and depreciation of the coin.
Liquid staking
Derivatives representing staked coins (e.g. Lido’s stETH). They let you use the value while staking. They add smart-contract risk.
Airdrops
Free distribution of tokens to certain users. Historic example: Uniswap (UNI) in 2020 gave away 400 tokens (~€1,400) to any user who had interacted with the protocol.
Earning on exchanges
Yields for depositing crypto on exchanges. High counterparty risk: Celsius, BlockFi and Voyager went bankrupt in 2022.
05
Module 05 · Philosophy

Bitcoin, Human Freedom and Political Philosophy

Why Bitcoin matters beyond the price. The political and ethical dimension of a monetary technology.

5.1 Bitcoin as sovereign technology

In the physical world, "owning" something means no one can take it from you without physical force. In the digital financial world, "owning" money means a bank has an entry in its database that it can change.

Bitcoin changes this radically. If you hold the private key to a Bitcoin address, mathematically only you can move those funds. Not a bank, not a government, not a tech company.

"Not your keys, not your coins." And by extension: "Your keys, your coins." Bitcoin self-custody is the first truly sovereign form of digital property in history.

5.2 Real cases of financial censorship

  • WikiLeaks (2010): Visa, Mastercard, PayPal and Bank of America blocked payments before any court ruling existed. Bitcoin was the only channel that held.
  • Argentina (2001): The "corralito" froze every citizen’s bank deposits for over a year.
  • Cyprus (2013): The government directly took between 6.75% and 9.9% of bank deposits. Approved by the European Union.
  • Venezuela (2016–present): Hyperinflation that has destroyed 99.9% of the bolívar’s value. Millions adopt Bitcoin.
  • Canadian truckers (2022): The government froze protesters’ bank accounts without a court ruling within 48 hours.
  • Afghanistan (2021): After the Taliban takeover, women lost access to their accounts. Bitcoin does not discriminate.

5.3 Bitcoin vs. CBDCs

Central banks are developing their own digital currencies (CBDCs). On the surface they sound like "government crypto", but in their values they are the opposite of Bitcoin:

FeatureBitcoinCBDC
IssuanceLimited, predictable, immutableDiscretionary, unlimited
PrivacyPseudonymousTotal surveillance
Permission requiredNoneState-approved account
ProgrammabilityNo (by design)Money with expiry, spending restrictions
Censorship resistanceMaximumMaximum censorship capability
Holder controlTotal (with self-custody)Zero
The most-discussed risk of CBDCs is programmable money: technically it could expire if not spent, be usable only at certain merchants, or be disabled for certain citizens. China’s Central Bank has already experimented with this in the e-Yuan.

5.4–5.5 Bitcoin, digital gold and human rights

Bitcoin competes with gold as a store of value, but surpasses it in portability, divisibility, verifiability and resistance to confiscation. In 1933, Roosevelt forced Americans to hand over their gold. In 2022, the West froze $300bn in Russian gold reserves. Properly self-custodied Bitcoin cannot be confiscated.

The Human Rights Foundation systematically documents how Bitcoin serves as a human-rights tool: 1.4 billion adults without banking access, remittances that cost 6–7% with the traditional system and <0.1% with Lightning, and savings protection in countries with hyperinflation.

06
Module 06 · Incentives

Game Theory and Bitcoin’s Incentives

Why Bitcoin is also a masterpiece of incentive design. When honesty is always the most rational strategy.

6.1 Key game-theory concepts

Nash equilibrium
A state where no player can improve their outcome by changing strategy, given what the others do. Bitcoin is designed so the Nash equilibrium is honesty.
Prisoner’s dilemma
A situation where individual rationality leads to a worse outcome for everyone. Bitcoin avoids this dilemma by aligning individual incentives with the collective good.
Schelling point
A focal point where independent agents converge without communicating. Bitcoin is the Schelling point of digital money: the most obvious, recognised and adopted.
Lindy effect
The future life expectancy of a non-perishable technology is proportional to its current age. Bitcoin has been around 15+ years. Each year it survives raises the probability it survives another.

6.2 Bitcoin’s incentive design

Satoshi designed a system where the honest strategy is the most lucrative. A miner has three options:

  • Mine honestly: earn block rewards + fees in valuable Bitcoin. The optimal strategy.
  • Attempt a 51% attack: spend an enormous cost to potentially double-spend, destroying trust in Bitcoin and therefore the value of all your own bitcoins. A suicidal strategy.
  • Not participate: earn nothing.
A malicious actor with 51% of the hashrate has more to lose by destroying the network than to gain by playing it honestly. Bitcoin’s security does not depend on trust — it depends on actors being rational.

6.3–6.5 Halving, network effects and the Schelling point

The halving as a game of expectations

Holders know issuance will be halved → incentive to accumulate beforehand. Miners know their income will drop → the inefficient leave, the efficient thrive. Institutions know the halving has historically preceded rallies → a self-fulfilling prophecy.

Why Bitcoin and not another crypto?

Network effects: larger market cap, higher hashrate, greater recognition, deeper liquidity, more nodes. Each advantage reinforces the others. Bitcoin has the largest market cap, the highest hashrate, the greatest global recognition, the most nodes and the deepest liquidity — a virtuous circle that is practically impossible to displace as the benchmark digital store of value.

07
Module 07 · Ecosystem

The Crypto Ecosystem: People, Companies and Evolution

The protagonists who have built and destroyed the sector. From visionary heroes to convicted villains.

7.1 The key figures

Satoshi Nakamoto
Creator of Bitcoin
Invented Bitcoin and vanished in 2010. His anonymity is a feature: with no visible leader, there is no head to cut off.
Hal Finney
First BTC recipient
Cypherpunk, creator of RPOW. Received the first 10 BTC from Satoshi. Died of ALS in 2014. He was cryopreserved.
Nick Szabo
Smart contracts
Invented smart contracts in 1994 and designed Bit Gold. A possible candidate to be Satoshi.
Vitalik Buterin
Creator of Ethereum
Proposed Ethereum at 19. He has retained influence over the ecosystem’s development.
Michael Saylor
CEO, MicroStrategy
The first CEO to turn his corporate treasury into Bitcoin. Over 200,000 BTC on the balance sheet in 2024.
Sam Bankman-Fried
FTX founder
Built the world’s 2nd-largest exchange. Sentenced to 25 years in prison for massive fraud.
CZ / Binance
World’s largest exchange
Built Binance. Fined $4.3bn and sentenced to prison in the U.S. in 2023.
Larry Fink
CEO, BlackRock
Went from calling Bitcoin a "money-laundering index" to launching the world’s largest Bitcoin ETF (IBIT).

7.2 The sector’s great collapses

Mt. Gox (2014)

The first major Bitcoin exchange, with 70% of global volume. 850,000 BTC stolen (~$50bn at current prices). Lesson: centralised custody creates catastrophic single points of failure.

FTX (2022)

Sam Bankman-Fried (SBF) built FTX as the most reputable exchange in the sector. In November 2022, within 72 hours, it collapsed. FTX lent user funds to its sister firm Alameda Research for speculative bets. $8bn of client funds. SBF was sentenced to 25 years.

The lesson of FTX is not that Bitcoin is a fraud — it is that centralised exchanges can be. The Bitcoin blockchain kept running without interruption throughout the entire FTX collapse.

7.3–7.4 CEX vs. DeFi

AspectCEX (Coinbase, Binance)DEX / DeFi (Uniswap, Aave)
CustodyThe exchange (counterparty risk)The user (smart contracts)
KYCMandatoryNot required
SpeedInstant (off-chain)Depends on the blockchain
FeesFixed, competitiveVariable (gas), sometimes high
Main riskBankruptcy, hack, freezingContract bugs, protocol hacks
AMM
Automated Market Maker. Provides liquidity automatically using mathematical formulas. Liquidity providers deposit asset pairs and earn fees. Uniswap, Curve.
DeFi lending
Collateralised loans: you deposit one asset as collateral and borrow another. Algorithmic rates. Aave, Compound.
Stablecoins
USDT (Tether): centralised, questioned. USDC (Circle): centralised, regulated. DAI: decentralised, over-collateralised with ETH.

7.5–7.7 ETFs, institutions and mining

On January 10, 2024, the U.S. SEC approved the first spot Bitcoin ETFs. In the first year, they accumulated more than $50bn — the most successful ETF launch in history. The main issuers: BlackRock (IBIT), Fidelity (FBTC), ARK Invest.

This fundamentally changes the dynamic: ETFs absorb bitcoins from the open market and lock them in institutional vehicles, reducing available supply exactly when institutional demand is growing.

08
Module 08 · Markets

Cycles, Volatility and Market Maturity

Why Bitcoin is volatile, why it will be less so, and how the market is maturing toward global integration.

8.1 The historical cycles

CycleLow priceHigh priceMax drawdownCatalyst
2011~$1~$31-93%Mt. Gox, first speculators
2013~$13~$1.163-85%Silk Road, early adoption
2017~$750~$20.000-84%ICO boom, mainstream media
2021~$10.000~$69.000-77%Institutions, futures ETFs

Observable pattern: each cycle reaches a higher all-time high. And each drop is smaller in percentage terms. The market is maturing.

8.2–8.3 Valuation models and on-chain analysis

Stock-to-Flow
PlanB’s model. Relates Bitcoin’s existing stock to its annual issuance flow. Historically predictive but with limitations.
MVRV Ratio
Market Value to Realized Value. MVRV >3.5 has historically signalled a euphoria zone; <1 signals a capitulation zone.
SOPR
Spent Output Profit Ratio. SOPR <1 indicates sellers are selling at a loss — a historical signal of a potential bottom.
HODL Waves
Visualises the percentage of bitcoins that have not moved over different periods. Many "dormant" coins indicate long-term conviction.
Exchange Inflows
When a lot of BTC flows into exchanges, there is potential selling pressure. When it flows out, holders prefer self-custody (a bullish signal).

8.4 How institutionalisation changes the cycles

  • Higher price floor: institutions buy the dips, reducing the magnitude of bear markets.
  • Longer cycles: longer institutional time horizons — less short-term panic.
  • Higher correlation with traditional assets: in moments of global stress, Bitcoin sells off alongside stocks.
  • Gradual volatility reduction: more "patient" capital cushions the extreme moves.
09
Module 09 · Positive factors

Factors That Favour Bitcoin’s Growth

The structural tailwinds driving long-term adoption.

9.1–9.7 The seven structural drivers

1. Programmed scarcity and the halving

Every four years, the halving cuts the creation of new bitcoins in half. Gold can discover new mines; fiat currencies can be printed without limit. Bitcoin is deflationary by design: creation falls inexorably and stops in 2140.

2. Growing institutional adoption

MicroStrategy (+200,000 BTC), Tesla, El Salvador, BlackRock and Fidelity ETFs, Wisconsin and Michigan pension funds in 2024. From a tech-enthusiast asset to an internationally recognised asset class.

3. Inflation and loss of trust in fiat

The 2020–2023 period was the largest monetary-expansion experiment in modern history. Governments injected more than 10 trillion dollars. The result was the highest inflation in 40 years in the West — making Bitcoin a relevant asset for protecting savings.

4. Growing regulatory clarity

Europe: MiCA (2024) provides a clear regulatory framework. U.S.: approval of spot ETFs, classification of Bitcoin as a commodity by the CFTC. Hong Kong, Singapore, Dubai: pro-crypto regulations attracting companies in the sector.

5. Network effects and global adoption

Each new user increases the value for everyone. The Bitcoin network grows with every wallet created, every active node, every exchange that lists it and every company that accepts it as payment.

6. Technological innovation

Lightning Network for micropayments, Taproot for greater privacy and simple contracts, Ordinals for new use cases, RGB and other second-layer protocols expanding capabilities without compromising the base layer.

7. Geopolitics and de-dollarisation

The BRICS are seeking alternatives to SWIFT. The freezing of $300bn in Russian reserves in 2022 showed every country that the dollar can be a weapon. Bitcoin is the only financial asset with no sovereign state behind it — neutral in geopolitical conflicts.

10
Module 10 · Negative factors

Factors That Harm Bitcoin’s Growth

The real headwinds the sector must know, analyse and overcome.

10.1 Adverse regulation

China (2021): banned all crypto activity. The hashrate fell 50% in weeks and recovered within months — miners migrated to the U.S., Kazakhstan, Russia. India: a 30% tax on gains. U.S.: the SEC aggressively pursued the sector under Gary Gensler (2021–2024).

No government can "switch off" Bitcoin, but they can significantly hinder its adoption in their jurisdiction — and that has a real economic impact in the short term.

10.2 Hacks, scams and loss of trust

  • Mt. Gox (2014): 850,000 BTC stolen.
  • Ronin Network (2022): $625M stolen by North Korean hackers — the largest DeFi hack in history.
  • Terra/Luna (2022): Collapse of the algorithmic stablecoin. $40bn evaporated in 72 hours.
  • FTX, Celsius, Voyager, BlockFi (2022): A chain of bankruptcies that destroyed billions in user funds.
Critical distinction: all of these collapses happened in centralised intermediaries or DeFi protocols — not in Bitcoin itself. The Bitcoin blockchain has never been hacked.

10.3–10.4 Energy consumption and negative narrative

Bitcoin consumes ~150–200 TWh per year. For comparison: the gold industry consumes ~131 TWh/year; global banking ~240 TWh/year; air conditioning in the U.S. ~600 TWh/year. More than 50% of Bitcoin’s energy is renewable.

The association of Bitcoin with illegal activity is another persistent FUD. The data show that less than 0.5% of Bitcoin transaction volume is tied to illicit activity — significantly less than dollar cash.

10.5–10.6 Competition and technical risks

Quantum computing

A sufficiently powerful quantum computer could break Bitcoin’s elliptic-curve cryptography. Today’s quantum computers have ~1,000 functional qubits; an estimated ~4 million would be needed to threaten Bitcoin. The community is already researching post-quantum algorithms. The same risk affects all of today’s digital infrastructure: online banking, military communications, government systems.

11
Module 11 · Financial System

Why the Banks Were Against It

The most documented story of institutional hypocrisy in financial history. And how they switched sides.

11.1 The threatened banking business model

Interest margin
They lend at higher rates than they pay on deposits. Bitcoin and DeFi let people lend directly with no intermediary.
Fees
International transfers, currency exchange. Bitcoin and Lightning remove the need for these services.
Custody
Charging to hold assets. With self-custodied Bitcoin, no one needs to pay for this.
Seigniorage
The profit from issuing currency (for central banks). Bitcoin cannot be issued by anyone.
Customer data
Transactional data has enormous value. Bitcoin reduces the information available to banks.

11.2–11.3 From attack to adoption

InstitutionAnti-Bitcoin statementLater action
JPMorgan (Dimon)"It’s a fraud" (2017)Launches a Bitcoin ETF, crypto services (2024)
Goldman Sachs"Not a viable asset class" (2018)Crypto trading desk, Bitcoin futures (2022)
BlackRock (Fink)"Money-laundering index" (2017)Launches IBIT, the world’s largest Bitcoin ETF (2024)
Morgan StanleyBanned crypto exposure for advisorsAllows recommending Bitcoin ETFs (2024)
ECBAcademic paper calling for a Bitcoin ban (2023)Launches the digital euro while Bitcoin keeps growing
The pattern is always the same: public attack → private research → quiet adoption → client service. Capital has no ideology — it goes where the returns and client demand are.

11.4 Tokenisation: banking embraces the blockchain

The financial sector has reached a conclusion: they cannot destroy Bitcoin or the blockchain, but they can adopt it. BlackRock has a $500M tokenised fund on Ethereum. JPMorgan runs repos with tokenised bonds. The debate is no longer "blockchain or not" — it is "private blockchain (corporate) vs. public blockchain (Bitcoin/Ethereum)".

12
Module 12 · Future

Bitcoin in the Global Economy: The Present and the Future

How Bitcoin is redrawing the world financial map — and how far it can go.

12.1 Bitcoin as a macro asset

In 2024, Bitcoin has become a genuine macroeconomic asset: its price is influenced by the Fed’s monetary policy (high rates → capital flows to safe assets → Bitcoin falls), the U.S. dollar (a historically inverse correlation), and geopolitical risk.

The question of whether Bitcoin is a "risk asset" or a "store of value" has no simple answer — it depends on the time horizon and the type of crisis. In the short term it behaves like a risk asset; in the long term, it tends to appreciate against all fiat currencies.

12.2 Adoption by countries

El Salvador (2021): the first country to adopt Bitcoin as legal tender. Goals: cut remittance costs (26% of GDP), include the 70% without a bank account, attract investment. As of 2024: Bitcoin remittances are less than 5% of the total (citizens prefer dollars), but the country has accumulated +5,000 BTC as a sovereign reserve with significant gains.

The strategic reserve: In 2024–2025, the debate over whether the U.S. should create a "strategic Bitcoin reserve" became a serious political topic in the Senate. If the U.S. adopted an accumulation policy, it would trigger a race between countries comparable to the gold reserves of the 20th century.

12.3 Future scenarios

ScenarioDescriptionEstimated price
Bitcoin StandardGlobal store of value. Countries use it as collateral.$1.000.000+
Digital goldCoexists with fiat as a store of value for 5–10% of world savings.$200K–500K
Alternative assetOne more asset in diversified portfolios. 1–2% of global assets.$50K–200K
Regulated stagnationExcessive regulation limits growth. It survives but does not scale.Stagnant price
Technological collapseQuantum computing, a catastrophic bug or technological replacement.<$1K

12.4 Protocol roadmap

  • Taproot (2021): Greater privacy, simple smart contracts (Schnorr signatures). Activated by consensus without controversy.
  • Ordinals and inscriptions (2023): NFTs and tokens on Bitcoin. Generates fees for miners post-halving.
  • CTV (CheckTemplateVerify): A proposal to enable more complex vault contracts on the base layer.
  • Post-quantum cryptography: Active research to migrate to quantum-resistant algorithms when needed.

12.5 Resources to keep studying

📚 Essential book
The Bitcoin Standard
Saifedean Ammous (2018). The Bitcoin bible from Austrian economic theory. Start here.
📚 Technical
Mastering Bitcoin
Andreas Antonopoulos (2014). The definitive technical guide. Open source on GitHub.
📚 Philosophical
The Sovereign Individual
Davidson & Rees-Mogg (1997). Predicted Bitcoin 12 years early. Essential for the philosophical context.
🎙 Podcast
What Bitcoin Did
Peter McCormack. In-depth interviews with figures from the ecosystem.
🔍 On-chain
Glassnode
The gold standard of on-chain analysis. MVRV, SOPR, HODL Waves and hundreds of metrics.
🔍 Mempool
Mempool.space
Real-time visualisation of the mempool, transactions and the state of the Bitcoin network.
📊 Dashboard
Clark Moody Dashboard
A complete dashboard of real-time Bitcoin metrics — nodes, hashrate, fees, supply.
🏛 Institutional
Bitcoin Treasuries
Up-to-date tracking of companies and governments with Bitcoin on their balance sheet.

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