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Led by Professor Emin Gün Sirer of Cornell University, one of the cryptosphere’s most esteemed critical thinkers, and the co-founders of AVA Labs, Kevin Sekniqi, CS Ph.D. at Cornell and Ted Yin, CS Ph.D. at Cornell, the “AVA Labs” team recently revealed the concept behind “Alpine Snowstorm”.
This took the form of a private testnet for a next-generation blockchain platform based on a novel metastable consensus protocol family called Snow-Avalanche.
However, does this represent the next chapter in the story of blockchain technology? Very likely, but let’s try to understand why. Despite several projects having emerged over the last two to three years, there has not yet been any major disruptor in the blockchain space. Although we constantly see projects adding features and building castles in mud fields, this progress is hamstrung by serious tech bottlenecks that are rarely addressed successfully.
Blockchain 1.0 (Nakamoto Consensus) Digital store and transfer of value:- Bitcoin: a peer‐to‐peer electronic cash system.- Litecoin: a peer-to-peer cryptocurrency.- Dogecoin: a meme coin.
Blockchain 2.0 (Nakamoto Consensus): Platforms and specific functionality/feature oriented chains:-Ethereum: a smart contract platform.-Monero: a privacy-oriented cryptocurrency.-Stellar: a cross-asset transfer of value.-Dash: a cryptocurrency for payments which utilizes masternodes for additional functionality and governance.
As well as these, there are many other well-known projects that have directly inherited some of the major problems inherent to blockchain 1.0. To combat these, a wide variety of tools have been introduced in Blockchain 2.0, which improve scalability, performance, and functionality. These incorporate additional layers such as the Lightning Network and State Channels both of which are side layers rather than layer 1 fundamental solutions. These often involve trade-offs where, in most cases, decentralization falls victim.
Snowflake to Avalanche
The released by Team Rocket on IPFS in May 2018
<a href="//medium.com/media/1720b5e5fef1d7e6fda9e425757c01ef/href">//medium.com/media/1720b5e5fef1d7e6fda9e425757c01ef/href</a>This paper introduces a family of leaderless Byzantine fault tolerance protocols, built around a metastable mechanism via network subsampling. These protocols provide a strong probabilistic safety guarantee in the presence of Byzantine adversaries while their concurrent and leaderless nature enables them to achieve high throughput and scalability
*Decentralization for Performance; Scalability for Security; Decentralization for Security; Scalability for Performance;
Bitcoin — 7 transactions per second
Ethereum — 15 transactions per second
Ripple — 1500 transactions per second
VISA — 1700 transactions per second
PayPal — 193 transactions per second
AVA — 6500 transactions per second
Such high adoption costs at the initial stages of innovation are nothing new. History is littered with examples of innovative products, including mobile phones, computer and mobile operating systems, and the internet, that initially were not accessible to the majority of users due to the complexity and costs of using them. However, as the technology improved and costs dropped, adoption grew.
In his 1991 book Crossing the Chasm_, Geoffrey Moore argued that the key to achieving breakthrough adoption for high-tech innovations was overcoming the “chasm” in order to reach the “early majority” (the pragmatists). He describes this chasm as the massive gap that lies between the early adopters (tech enthusiasts and visionaries) and the early majority, which exists when a new product has the potential to be highly disruptive and thus require behavioral changes —_
Source: (Moore, 1991; Nesmith, 2018) Besides the cost of adoption, DApp performance is very limited owing to the long period of time required for a transaction to enter a block.
Example: I have an encrypted chat DApp. It makes a lot of sense to utilize blockchain tech because it is decentralized, immutable and has no single point of failure.
Use Ethereum:
At today’s parameters, each message will cost users US$ 0.125 and the message will be received after 4–29 sec has elapsed (13 sec on average) If the network is under a very high load which is not hard to occur the users might have to pay up to US$3–4 per message and wait for it even longer as blocks would be full. Although I appreciate the benefits of blockchain tech for my DApp, it’s slow and expensive.Use AVAlanche:
The encrypted messages will require between 1–2s to reach its recipient. The TX cost will be low for two reasons: (i) flexibility to control their cost value; and (ii) the network cannot be easily overloaded. Now my DApp starts to make a lot more sense. In essence, Avalanche is a crowd oracle, where economical parameters can be voted on and adjusted dynamically without the need of a hard fork. That means that at any given moment the network participants can vote on the platform’s best interests and change the costs for certain transaction types.AVA is the platform of platforms. It allows all kinds of digital assets to be issued by anyone. What makes it different and special is that AVA will allow multiple scripting languages and multiple virtual machines. This means support for a variety of nodes with different capabilities, opening up a new spectrum of digital assets, functionalities, and capabilities in the process.
<a href="//medium.com/media/24e22e32ce4219c9b8da7ac98d2c187d/href">//medium.com/media/24e22e32ce4219c9b8da7ac98d2c187d/href</a>It is a construction kit, or LEGO if you like, for digital assets! — Prof. Emin Gun Sirer
Bitcoin is held by many people, and several others support the network by operating a full node, yet it is a sad truth that bitcoin mining and therefore the bitcoin ledger is in the hands of 13 mining pools:
Only 4 of those are enough to reach consensus.
Ethereum Mining Pool’s Hashrate Distribution
The truth is no different. 2–3 mining pools are able to reach a consensus and supposedly alter the chain or basically endanger its immutability.
Avalanche introduces extreme decentralization which enables very high immutability in the ecosystem by allowing thousands to millions of network participants by being lightweight, easy to implement/understand and has no specialized hardware requirement.
Examples:
Useful Links:Website: Whitepaper: Telegram: Discord: Reddit: Medium: Twitter: Facebook: Youtube: