Solana: How to accurately calculate token price using bonding curves?

I can give an article on how to accurately calculate the marker price using connecting curves.

Token’s price calculation I need using connecting curves

Connection curves are an essential tool for Solana developers to manage liquidity and ensure their token stability. In this article, we will look at how to accurately calculate the marker prices using the connecting curves.

Introduction to the connection curve

The binding curve is a mathematical function that is input value (eg the current market price) on the output value (eg marker price). The connection curve is designed to ensure a reliable and effective type of liquidity management and avoid price shocks.

Token price calculation using connecting curves

In order to accurately calculate the marker price using a binding curve, you must follow these steps:

1. Step: Search Account Information

First, you need to look for account information from a user who wants to calculate the marker price. You can use the “structure” library to analyze the user’s public key.

`Python

from the construction structure, int64ul

Import solana.rpc

Define the structure of the binding curve

Bondingcurvestruct (Structures) Class:

Def __init __ (itself, symbol, min_price, max_price):

self.symbol = symbol

self.min_price = min_price

self.max_price = max_price

Search Account Information to the user who wants to calculate the marker price

Solaris_key = "your_solarius_key"

replace with your Solana key

user_pubkey = solaris_key.public_Key ()

Bonding_curve = bondingcurvestruct (

Symbol = "Sun",

Define the connecting curve symbol

Min_Price = 1000,

Define the minimum price of the connection curve

Max_Price = 20000

Define the maximum price of the connection curve

)

Account_info = solana.rpc.fetch_account_info (user_pubkey, boxing_curs)

2. Step: Analyze account information

Once you have received your account information, you need to analyze them to obtain the information you need. You can use the “structure” library’s internal analysis features to convert the account account into a structured format.

`Python

Analyze account information in structured format

Account_info_struct = account_info.data

Bonding_curve_info = account_info_struct.account_info

Use the minimum and maximum prices of the connection curves

minimal

Max_price = bonding_curve_info.price.max

Step 3: Calculate the marker price using the connection curve

Now that you have obtained the information you need, you can calculate the marker price using the connection curve. You can use simple linear interpolation or more sophisticated algorithm for accuracy.

`Python

Define the marker symbol and minimum and maximum prices

token_symbol = "Sol"

min_price_token = 1000

Max_price_token = 20000

Calculate the marker price using the connection curve

Bonding_curve_struct = bondingcurstrukt (token_symbol, min_price_token, max_price_token)

Token_price = (min_price - min_price_token) / (max_price - min_price_token) * (Max_price - Max_price_token) + min_price_token

Step 4: Print the result

Finally, you can print the calculated marker price.

`Python

Print the result

Print ("Marker Price:", Token_Price)

Example of case use

Here is an example of how to use this code to calculate the price of a marker for a particular user:

“ Python

Solaris_key = “your_solarius_key”

replace with your Solana key

user_pubkey = solaris_key.public_Key ()

Bonding_curve = bondingcurvestruct (

Symbol = “Sun”,

Define the connecting curve symbol

Min_Price = 1000,

Define the minimum price of the connection curve

Max_Price = 20000

Define the maximum price of the connection curve

)

Account_info = solana.rpc.fetch_account_info (user_pubkey, boxing_curs)

Analyze account information in structured format

Account_info_struct = account_info.

CHANGING CHANGING DIGITAL

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