Web3: a democratic revolution?

Web3: a democratic revolution?

Old wine, new bottles

In the early 1980s, in a Brazil plagued by dictatorship and economic stagnation, a soccer player succeeded in transforming the structure of one of the most famous Brazilian football teams, named Corinthians, into the only shared governance laboratory in the football world.
A revolution that has gone down in history as Democracia Corinthiana.

Tired of the way the players were treated and some of the decisions made by the previous president, Socrates, in agreement with the rest of the team, convinced the club’s new management that any decisions would have to be discussed at an assembly and then put to a vote by all employees. From the transfer window to the redistribution of the economic income, everything had to be decided in a democratic manner (1).
The experiment had its ups and downs, including a brief period of rather confusing total self-management that led to much criticism from the club’s advisors. At that moment, the team realized that the only way to continue the experiment was to win. And so it did.
Between 1982 and 1983 Corinthians returned to win the championship for two consecutive years, as it had not happened since the 1950s (2).

Web3: a democratic revolution?
Figure1: Socrates wearing the Corinthians’ shirt. Source: Medium

 

Inspired by the reading of a recent book called “Think Blockchain“, written by Jerry Cuomo (IBM Fellow, VP and CTO of Technology & Consulting), I will explain in the next sections why this ideal of shifting profit and control from the managers to the content creators stands at the foundation of the Web3 development and how things are going so far.

 

Context

The current phase of the internet is defined by accessing and creating content. Web2 is dominated by centralized companies, e.g., Big Tech such as MAMAA, which provide services in exchange for accessing and monetizing users’ personal data. On the contrary, the next phase aims at leaving the ownership of data and information to the content producers, i.e., us, without transferring the potential value created.

However, the Web3, term originally coined by Ethereum co-founder Gavin Wood in 2014, offers much more than this. The rise of products related to the token-economy, e.g., NFTs, is an example, but Figure 2 offers a more comprehensive overview of the different use cases and of the companies involved at each layer.

The Web 3 Stack
Figure2: Companies operating in the Web3 space divided per layer of the Web3 Stack. Source: Coinbase

Architecture

Contrary to its previous version, Web3 will be built using Decentralized Peer-to-Peer networks, Artificial Intelligence, Crypto-wallets, and distributed ownership of Protocols rather than corporate servers. Nevertheless, Web3 represents an extension more than a replacement of Web2, as it will enable to “off-board” key personal and application data from centralized organizations to decentralized wallets, blockchain and storage networks, under the control of the user (3).

Web3: a democratic revolution?
Figure3: Web3 Architecture taken from J. Cuomo’s book “Think Blockchain”

Characteristics

After having spoken about the architecture, we should now move to the main features characterizing Web3: (3) (4)

  • Distributed and Decentralized Governance:
    • Respectively, the record of all transactions is stored and shared across all the actors of the network and no single actor controls the operation of the blockchain.
      For more details of this process, check Philipp‘s blog on the topic.
  • Universal Identity:
    • An anonymous single-sign-on will allow to use just one username and authentication method across all websites, rather than individual logins, without the need to share personal information. In fact, thanks to Web3 wallets backed by blockchain, the user always retains control of the personal data and login credential.
      • An example of a Crypto-wallet is CoinBase, already valued more than $11 billion in terms of market cap.
  • Token-based:
    • Activities that contribute to Web3 will be rewarded by a token (either NFT or fungible) to incentivize participation and distribute ownership. This token can be “minted” (generated) and stored into a crypto-wallet.
      • An example is Pixie, the world’s first fully functional decentralized photo and video sharing social network based on blockchain crypto economics. Pixie, like a crypto version of TikTok or Instagram, encouraging users to create quality content and interact constructively with fellow users, thus all the content can circulate inside Pixie effectively (5).
  • Self-governing:
    • Blockchains will rely on the entire network to verify an activity via consensus. However, specific governance mechanisms can be established to democratize decisions, based on the quality or volume of a user’s investment into a site or DApp. Thus, when the rules are set, new forms of organization can arise, thanks to the execution of smart contracts.
      • An example is BitDAO, a Decentralized Autonomous Organization (DAO) with one of the largest and most diverse token-governed treasuries in the world and more than $2.5 billion invested (3).
  • Immersive and augmented experience
    • As described by Nicola in a previous blog post, the combination of decentralized solutions and immersive technologies coming to maturity may give birth to decentralized Metaverses, providing an open exchange of digital assets.
      To give you a sense of what this buzzword means, here there is a list of examples coming from the manufacturing industry and the entertainment sector.

      • BMW’s future factory developed on Omniverse platform;
      • Volkswagen’s experience with Web3;
      • Renault unveiled a partnership geared towards offering virtual automobile experiences by leveraging blockchain technology and Web3-based solution;
      • For entertainment there are a lot of examples like, Sandbox and Decentraland.

A longer list spanning across different industries has been prepared by Rejolut and can be found here.

 

Critics

As for every innovation, limits and possible negative externalities have to be considered. In this case, the criticism concerns its feasibility, due to hurdles around scalability, control, and adoption that must be overcome (4). You can find some interesting commentaries below:

Moreover, a policy brief published last March by the Bennett Institute for Public Policy in Cambridge warned against several risks related to the immutability of the blockchain (Online safety), the diffusion of cryptocurrencies as an incentive to ransomware attacks and a possible threat for unprepared consumers.
The report concludes that even though some market intermediaries are extractive rentiers, many others play value-adding governance roles that cannot be replicated with smart contract code. Thus, trusted central authorities will still keep a key role, making blockchain a redundant solution.

 

Conclusion

Being a new phenomenon, there are still more questions than answers about the future of Web3. However, I hope that this blog has helped to clarify some aspects related to its architecture, its relationship with blockchain, and has sparked interest in critically analysing its pros and cons.

Now, let’s move to the third episode of my column!

 

Surfin’ Internet

 

Feel free to comment and share your thoughts on this topic, see you soon!

 

References

(1) https://www.ultimouomo.com/buon-compleanno-dottor-socrates/

(2) https://www.ilpost.it/2021/12/16/socrates-democrazia-corinthiana/

(3) Jerry Cuomo, Mark Parzygnat, Shaun Lynch, Irving Wladawsky-Berger. (2022). “Think Blockchain: A Student’s Guide to Blockchain’s Evolution from Bitcoin, Ethereum, Hyperledger to Web3.”

(4) https://eco.brainsy.com/kb/article/web3-defined

(5) Pixie: The blockchain social platform taking the internet by storm (cointelegraph.com)

Alex Murray, Dennie Kim, Jordan Combs. (2022). The promise of a decentralized internet: What is Web3 and how can firms prepare?. Business Horizons.

Blockchain - Revolution or Buzzword?

Blockchain – Revolution or Buzzword?

Blockchain - Revolution or Buzzword?
Tweet by Elon Musk (19.06.2022)

Tweets like these are thought-provoking. It’s fascinating how far technologies like blockchain have come in our everyday lives. New cryptocurrencies are being created every day, and at the moment technological achievements seem to be expanding (check out Ali Syed Hassan’s blog post about NFTs).

This blog entry is dedicated to the technological awareness of blockchain technology. As we live in a rapidly changing world, it is important to keep up with the pace and understand how new technological innovations work.

So what is blockchain in the first place and what are the connections to distributed ledger technology (DLT), NFTs and cryptocrurrencies?

What is it all about?

Blockchain technology (BCT) is already established as an innovative component of society that continues to gain increasing relevance, especially for private financial usage. Key features of this distributed ledger technology ensure transparency between all parties, enhanced traceability and security and therefore provide a promising information technology system. BCT potential application reaches beyond digital currencies (such as Bitcoin and Dogecoin) and financial assets as its potential has been stated as “endless” with already established functions, for instance with financial transactions and blockchain enabled smart contracts (Abeyratne & Monfared, 2016).

Satoshi Nakamoto, the inventor of the first cryptocurrency, Bitcoin, developed a peer-to-peer network concept in 2008 which is the foundation of all cryptocurrencies (Nakamoto, 2008). Since many components of the Bitcoin blockchain are used for other virtual currencies, the focus in explaining the principle will be highlighted on the Bitcoin blockchain.

Peer-to-peer networks

A peer-to-peer network is a decentralized network in which every participant is treated equally. The users are linked with one another and have a large number of connections. Moreover, each participant is able to verify the legitimacy of the transactions carried out in the network by holding and forwarding a local copy of the decentralized database, the so-called blockchain register (Berentsen & Schär, 2017).

Types of network structures (Own representation based on Berentsen & Schär (2018)
Figure 1: Types of network structures (Own representation based on Berentsen & Schär, 2018)

Figure 1 illustrates the principle of the classic central network concept and the decentralized network concept. While a classic Internet application is divided into one service provider and many clients, the functionality in a decentralized network is provided by the cooperation of the existing participants. The decentralized infrastructure offers many advantages, such as its resistance to failures and attacks because it doesn’t rely on a central instance.

Network Participants

Cooperating computers in peer-to-peer networks have been referred to as participants. These participants are also called network nodes and facilitate three different functions: the verification function, the wallet function and mining (Sixt, 2017).

  • The verification function

This function describes all activities that are required for network participation. The task is fulfilled when nodes save local copies of the blockchain register and verify incoming transaction information, just before this information is stored and transmitted to other nodes.

  • The wallet function

This function covers the storage of public and private keys (cryptographic security units) of Bitcoin users. In
addition, a graphical user interface is usually integrated in order to simplify the receipt and dispatch of Bitcoin units.

  • The mining process

Nodes that perform a mining function are also called miners. They invest a great amount of computing power in order to participate in the generation process of new blocks which expand the blockchain register.

Executing the Transaction

Since there are no traditional banking accounts in the Bitcoin network, the coins are transferred to so-called Bitcoin addresses. A Bitcoin address is created with the wallet software by generating a cryptographic key pair, that are assigned to the users. The transfer plus an optional transaction fee is send to the network. The first node to receive the transaction executes the verification function by checking several factors. The transaction is considered as valid after this process, and the transaction is ready to be executed after feeding it into a new block.

Blockchain structure (Own representation based on Berentsen & Schär (2017))
Figure 2: Blockchain structure (Own representation based on Berentsen & Schär, 2017)

Expanding the Blockchain Register

The generation of a new block is known as mining. This mining activity processes all validated transactions in an irreversible way in the network. Each node that performs the mining function is able to create new block candidates by bundling unconfirmed transactions from their local transaction store (Sixt, 2017). In addition to transaction information, this block candidate contains a so-called block header, which contains descriptive information for the identification and localization of the block, as well as an identification number which references the previous block (Berentsen & Schär, 2017). Each block thus references the digital fingerprint of its respective predecessor block, which is why these blocks are firmly anchored in the structure and are dependent on one another (Berentsen & Schär, 2017). Figure 2 illustrates the dependency of the blocks.

Simplified transaction process (Own representation based on Berentsen & Schär (2017))
Figure 3: Simplified transaction process (Own representation based on Berentsen & Schär, 2017)

Proof-of-work and outview

The original blockchain consensus mechanism achieves consensus among the miners via a so-called proof-of-work scheme (Sixt, 2017). This scheme classifies a certain block of candidates as valid after a high level of computing power has been used. Each miner tries to solve a given problem that is extremely energy-intensive in order to be the first node to provide the proof-of-work and, ultimately, to chain the candidate block he has created in the blockchain register (Zohar, 2015).

The proof-of-work sets an increasing security factor for the register, since the chain is secured by computing power and strictly linked to costs. Figure 3 visualizes the complete transaction and mining process.

All in all it can be said that this system was brought to prominence due to cryptocurrencies. Nowadays, a variety of fields, including:

  • healthcare
  • real estate
  • government and
  • music

are finding applications for blockchain’s powerful architecture and secure way of storing, verifying, as well as encrypting data. As my research topic is also connected to implementation barriers of novel technologies and adoption behaviour, the evolution of blockchain that is applied to more and more sectors is an extremely interesting trend to follow for me.

For more information on blockchain and NFTs, check out the official website.

 

References

ABEYRATNE, S. & MONFARED, R. 2016. Blockchain Ready Manufacturing Supply
Chain Using Distributed Ledger. International Journal of Research in
Engineering and Technology, 05.

BERENTSEN, A. & SCHÄR, F. 2017. Bitcoin, Blockchain und Kryptoassets.

NAKAMOTO, S. 2008. Bitcoin: A Peer-to-Peer Electronic Cash System. Cryptography
Mailing list at https://metzdowd.com

SIXT, E. 2017. Bitcoins und andere dezentrale Transaktionssysteme: Blockchains als
Basis einer Kryptoökonomie.

ZOHAR, A. 2015. Bitcoin: Under the hood. Commun ACM Communications of the
ACM, 58, 104-113.