Transaction process in TerraGeen

The blockchain consists of its security, structure, components, and stores a financial transaction. Blockchain functionalities can be specified as — Blockchain consists of blocks and it will have commencement for the blocks. TerraGreen blockchain consists of system verification through the cloud.

TerraGreen blockchain supports peer to peer network connection, where data can be transacted. These transactions of TerraGreen blockchain is done as it has distributed ledger, where it stores all the financial transactions. TerraGreen blockchain comprises of Consensus which is used for block verification. All the nodes inside the TerraGreen blockchain will create a Consensus protocol.

Each new block arrangement requires the miner to solve a cryptographic riddle and the miner who solve it first, broadcasts its outcome to the system and takes the reward. This computational reaction process is known as mining.

Therefore, TerraGreen Blockchain has a significance of a distributed ledger, which is strong, highly secured, and it is decentralized too. So, basically, it is helping TerraGreen to raise its popularity of Its TerraGreen ICOs.

This TerraGreen blockchain is completely trustworthy and functionally secured. This concept of cryptocurrencies has been known to many business process management, for smart contracts and many more. TerraGreen aims to include conceptual as well as application aspects of blockchain system. TerraGreen blockchain includes the fundamental designs and architectural primitives of blockchain which supports different business systems.

The transaction occurs in TerraGreen as the user will surf the TerraGreen application. Here, the users would go to the page where the user entities will be filled.

After filling the user details, the transaction will be assigned to the server network. The network will save the data on a server and will transfer to the nodes.

The node will transfer the data to the cloud, so that cloud verification will proceed here with Byzantine fault tolerance where the verification is processed for eliminating the faults.

After the cloud verification, it will give the data to verify into the algorithmSHA-34 for the further process, where the private key and public key is used.

Verifying from SHA- 384 its will again go to the cloud so that the cross-check of keys will be finalized. Here, no changes can be done after the data is stored in the cloud.

Now the cloud will transfer the data to the main node, and the further node will forward to the Finalize process where the data information is finalized and it will be assigned to the block. This is how the transaction process will have occurred in the system network.

There’s more about its process entities in detail:

SHA-384

SHA-384 is defined as following with two exceptions:

(1) the initial hash value H(0) is based on the fractional parts of the square
roots of the ninth through sixteenth primes:

H(0)
1 = cbbb9d5dc1059ed8
H(0)
2 = 629a292a367cd507
H(0)
3 = 9159015a3070dd17
H(0)
4 = 152fecd8f70e5939
H(0)
5 = 67332667ffc00b31
H(0)
6 = 8eb44a8768581511
H(0)
7 = db0c2e0d64f98fa7
H(0)
8 = 47b5481dbefa4fa4

(2) The final 384-bit hash is obtained by truncating the SHA-384-based hash

output to its left-most 384 bits.
Hence the hash of \abc” is
cb00753f45a35e8b b5a03d699ac65007 272c32ab0eded163 1a8b605a43ff5bed
8086072ba1e7cc23 58baeca134c825a7:
and the hash of
\abcdefghbcdefghicdefghijdefghijkefghijklfghijklmghijklmn
hijklmnoijklmnopjklmnopqklmnopqrlmnopqrsmnopqrstnopqrstu”
(with no line break after the first n) is
09330c33f71147e8 3d192fc782cd1b47 53111b173b3b05d2 2fa08086e3b0f712
fcc7c71a557e2db9 66c3e9fa91746039: