Exploring the Technical Architecture of TRON

1
Exploring the Technical Architecture of TRON
2
Technical Architecture

• The Google Protobuf (Protocol Buffers) framework
  was used to represent the TRON blockchain
  protocol a way for serialising structured data
  meant to allow platforms and systems communicate
  with one other quickly and effectively.
• The core layer is responsible for a number of
  essential functions that constitute the backbone
  of the blockchain's underlying protocol.
• This layer is also in charge of account
  administration and the system's smart contracts.
  The programming language Solidity (developed by
  the Ethereum network) was chosen as the TRON
  blockchain ecosystem's basic smart contract
  language.

3
Technical Architecture

• The TRON storage layer has been enhanced to allow
  for increasingly complicated data storage
  demands. It is intended for use as a robust
  distributed data storage system with high levels
  of stability and security.
• The application layer was created to make it
  easier for software programmers to interface with
  the TRON ecosystem.
• Decentralized crypto exchange JustSwap, the
  third most popular dApp in the TRON ecosystem, is
  one of the most well-known.
• TRON fosters simple and universal integration
  with most programming languages and design
  processes by using Google Protobuf standards.

4
TRON Virtual Machine (TVM)

• The Ethereum Virtual Machine (EVM) has evolved
  into the TRON Virtual Machine (TVM) (EVM). TVM
  was established with the goal of conserving
  resources while maintaining system stability.
• With its built-in energy mechanism, this
  optimised virtual framework allows developers to
  easily access the TRON blockchain network at a
  cheap cost
• The TVM is intended to be user-friendly and to
  serve as a single point of concentration for the
  development and execution of smart contracts.
• A new block on the chain is rejected if it
  exceeds this maximum threshold. An attacker, on
  the other hand, can easily prevent a block from
  being added if they include extra transactions in
  a freshly developing block.

5
TRON Virtual Machine (TVM)

• As a consequence, each account is required to
  purchase energy and receives 5,000 bandwidth
  points each day.
• If an account reaches its limit, it must freeze
  its tokens for at least three days in order to
  produce more. An account might possibly be
  holding inadequate bandwidth points or energy.
• The TRON blockchain (unlike Ethereum) decreases
  the possibility of Denial-of-Service (DoS)
  attacks by transferring transaction charges from
  a cumulative global model to an account-specific
  approach.

6
TRON 4.0 and zk-SNARKs Introduction

• In July of 2020, TRON 4.0 was released. The TRONZ
  privacy protocol, backed by zk-SNARK technology,
  is introduced in this latest upgrade to the TRON
  blockchain system.
• zk-SNARKs is a cryptographic proof method that
  uses shielded transactions to allow decentralised
  transaction confirmation while keeping private
  and confidential data hidden.
• TRON offers three ways for TRC-20 token holders
  to execute protected transactions. Participants
  can utilise a regular TRC-20 token and convert it
  to protected form using the first option, which
  is known as a "mint" transaction on the network.

7
TRON 4.0 and zk-SNARKs Introduction

• TRON blockchain transactions provide a number of
  advantages. Transaction data is kept on the
  blockchain using powerful encryption techniques
• The broad shielded transaction features of TRON
  are a strong set of tools, but TRON is also
  committed to preserving a universally adoptable
  blockchain paradigm.
• TRON blockchain, is a critical milestone for TRON
  4.0. Block confirmation times are reduced from an
  average of 57 seconds to three seconds, one of
  the quickest of the top 25 global cryptocurrency
  networks.
• The purchase of DLive, a TRON-based streaming
  platform built by the famed BitTorrent group, is
  one of TRON's most recent achievements.