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Solana (SOL): Scaling Crypto to the Masses

Solana (SOL) was created in 2017 with the goal of efficiently scaling censorship resistance to support an order of magnitude increase in transaction throughput. The resulting blockchain is an ultrafast network capable of operating far more cost-effectively than most other established blockchains.

Gemini-Solana (SOL)- Scaling Crypto to the Masses


Solana (SOL) was created in 2017 with the goal of scaling censorship resistance to support an order of magnitude increase in transaction throughput, at a much lower cost compared to other blockchains like Bitcoin or Ethereum. Designed as a decentralized protocol, Solana incorporates an innovative Proof of History (PoH) timing mechanism that is implemented prior to, and facilitates, its Proof of Stake (PoS) protocol structure. The result is an ultrafast blockchain capable of processing more than 50,000 transactions per second, with the ability to scale as usage of the protocol grows without relying on layer 2 systems or sharding.


Native Scalability of the Solana Blockchain

The scalability problem has plagued many cryptocurrencies since almost day one. Blockchain ledgers and decentralized payment networks provide decentralized security to users — but usually the more decentralized security they provide, the longer it can take for new transactions to be verified and added to the blockchain. These networks are faced with the challenge of providing ample transaction speed as their user count and transaction volume continues to increase, while still preserving the security and decentralization of the network. 

When we talk about scalability and throughput, we’re referring to how many transactions can take place per second. With a high volume of transactions occurring every second, time becomes a crucial element for efficiency. Each computer (or node) processing transactions on a decentralized blockchain network has its own internal clock on which it operates. With thousands of nodes all over the world, there are bound to be slight discrepancies with local system clocks. This becomes problematic when the decentralized network of nodes needs to reach consensus about which transactions have taken place and the order in which they occurred. The timestamp synchronization problem is inherent in both Proof-of-Work (PoW) and Proof-of-Stake (PoS) consensus mechanisms. 

When transactions occur, they are timestamped according to their local system clock. Then, when other nodes verify the transactions, messages about their confirmation or rejection are also timestamped. The inherent discrepancies between local system clocks (even those from nodes acting in good faith) ultimately paves a path for attacks where bad actors can try to take over a cryptocurrency network using fake transaction broadcasts that closely approximate real timestamps — for example “fake stake” (or “resource exhaustion”) attacks in the case of PoS, and denial of service (DoS) attacks in the case of PoW. In order to ensure that transactions have not been manipulated and that funds are spent only once, a lot of time and processing power needs to be dedicated to verifying timestamp accuracy in a PoW or PoS system.

When all the respective clocks across the decentralized network of nodes are synchronized, transactions take much less time to verify because individual nodes do not have to dedicate so much processing power toward verifying various timestamps. This synchronization allows the network to optimize for speed, and as a result, the Solana blockchain is inherently fast and engineered for native scalability — enabling higher energy efficiency and higher security through the low processing power and the tamper-resistant nature of its synchronized timestamps. Solana’s efforts to boost transaction speed rely on a semi-centralized structure in which a node leader is elected and all nodes agree to adopt one universal source of time.

Solana’s built-in mechanism for synchronizing time across nodes helps the network support a theoretical peak capacity of 65,000 transactions per second. Although this figure is supported by a testnet rather than real-world implementation, even at-scale speeds of 50% of Solana’s testnet capacity would be a groundbreaking achievement for the blockchain space. In terms of transaction speed, 65,000 transactions per second is around 10,000x faster than Bitcoin, 4,000x faster than Ethereum, and 35x faster than Ripple — even around 2.5x faster than Visa. The protocol is theoretically designed to scale with Moore’s Law, doubling in capacity every two years with improvements in hardware and bandwidth. In other words, as computers get faster, so will Solana. 

A New Blockchain Architecture: Proof of Stake and Proof of History

Most existing blockchains largely ignore the role of time in their function, with each node timestamping transactions and messages about their confirmation or rejection solely according to its local clock, and sorting out the discrepancies later on. This becomes problematic when the decentralized nodes of a network must reach consensus about the validity of transactions and the order in which they occurred. 

In traditional consensus methods, all the nodes must communicate with one another to determine that time has passed. Each node submits an up vote or down vote for any given block which indicates that the block is valid or invalid, respectively. A certain number of up votes must be counted in order for a block to be considered valid by the network. So, if a local clock produces a timestamp that widely differs from the time used by other validators, it can result in a delay in confirmation time or even rejection of the block. 

Because nodes must communicate back and forth to establish the passing of time, a significant amount of processing power and time must be dedicated to determine the correct chronological order of messages and transactions. The longer it takes to reach consensus, the slower the process of adding new blocks becomes because the next block cannot be verified and added to a blockchain until the current one is confirmed.

Without a trusted source of time, discrepancies between individual device clocks can become a recurring and significant problem, in which there is no guarantee that each node or network participant will verify the authenticity of a message quickly or accurately. 

Solana’s blockchain protocol is designed to provide a verifiable passage of time and still preserve many decentralized characteristics without resorting to a “central clock.” The project employs what is known as a Proof of History (PoH) consensus method to add the element of time to the Solano blockchain ledger. It is designed to cryptographically verify the passage of time between two events. It chains messages from nodes about the validity of blocks together to provide a relative chronological order of events that is not dependent upon local clocks or timestamps.

To accomplish this, a network node is selected as the leader and placed in charge of generating a PoH sequence. This leader sequences messages for maximum efficiency and throughput. The ordered output is sent to replicator nodes called validators, which are in charge of verification for the consensus algorithm. At any given time, there is one leader on the network, chosen by proof of stake (PoS) elections. Solana’s PoS system relies on a Byzantine Fault Tolerance (BFT) mechanism called Tower Consensus. Tower Consensus leverages PoH as a global source of time before consensus is achieved in order to reduce latency. 

Any validator node is eligible to be chosen as the PoH leader. If there is any failure detected with the PoH generator, then the validator node with the next highest voting power will be chosen to replace the original leader. 

Proof of Stake Consensus Algorithm With the SOL Coin

SOL is the native coin of the Solana blockchain. The validators who process transactions and run the network — as well as the leaders who generate PoH sequences — are chosen according to how much stake they have in the network's overall success, represented by how much SOL they have staked. The nodes with the biggest stakes are likely to be chosen to validate and add transactions to the blockchain, thereby earning the associated rewards. This structure ensures that those running the network have a strong incentive to guarantee it performs optimally and without failure.  

Users who hold only a small amount of SOL can also delegate their SOL to a larger validator. By doing so, they can earn a portion of the validator rewards despite not having enough SOL to stake in order to become a validator themselves. This method of delegation incentivizes even those with small SOL holdings to support the Solana network. 

Solana’s system of incentivization increases the overall network security with so many people financially invested in its proper functioning. It also deters malicious and frivolous actors from attacking the Solana blockchain because of the staking requirements to become an active network participant.  

SOL Coin Structure and Economics

In addition to providing staked users with eligibility to become a validator or leader, SOL can be used for generating staking rewards, paying transaction fees on the Solana network, and PoS voting for governance of the network. 

500 million SOL were initially created. Of that amount, 12.5% were retained by the founders, 1.6% were sold at auction, 35.4% were allocated to locked investors, 38% were designated as community tokens, and 12.5% are held by the Solana Foundation, which is operated by an independent board in Geneva, Switzerland. The Foundation funds are used for programs, marketing, grants, and the continued development and support of Solana. By design, Solana transaction fees are paid in SOL and burnt (or permanently destroyed) as a deflationary mechanism to reduce the total supply and thereby maintain a healthy SOL price.

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Anatoly Yakovenko


Anatoly Yakovenko

Co-Founder & CEO, Solana

Anatoly Yakovenko is the creator of Solana. He led development of operating systems at Qualcomm, distributed systems at Mesosphere, and compression at Dropbox. He holds two patents for high performance Operating Systems protocols and was a core kernel developer for BREW, which powered every CDMA flip phone (100m+ devices). He also led development of tech that made Project Tango (VR/AR) possible on Qualcomm phones.

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