I can give you an article on how to log in to Python, exit R and S (private and public keys).

Understanding the form of the Ethereum sign

The signature of Ethereum is based on the elliptical curve’s digital signature algorithm (ECDSA). The signature format consists of signatures, R and S components. Here is a sharing of form:

• Signature_hash: Message 64 bytes mix

• R: 256 -bit public major component

• S: 256 -bit the private key component

Python code

Here’s an example of a Python code fragment that shows you how to get R and S components from the signature:

`Python

hash

Crypto.publickey Imports C

Set the signatureHHH

Signature_hash = B '\ x02 \ x01 \ x00 \ x03 \ x12 \ x11 \ x14'

Remove the signatures (hex)

Hex_signature_hash = signature_hash.hex ()

Get public main ingredients

Public_key = EC (). key

R_component = hex (signature_hash) .RPlace ('\ x00', '')

S_component = hersa (public_key.r)

note: elliptic curve y instead of using x

Print (F "R_Component (bytes): {r_component}")

Print (f "s_component (hessa): {s_component}")

Explanation

• First, we define the signaturehhht syllable.

• We bring the signatter -Hash value in the hex format using the HEX () method.

• Note that we use x"y" y "y" because ECDSA is based on elliptic curves with a different curve than RSA.

• We may bring r and s components by converting a hexagonal to a signaturehandus to a syllable by using a "replacement ('\ x00') method that removes all zero characters ( \ x00). R component is now in the syllable but component Stays in the hex.

Note : Ethereum ECDSA uses a different curve than RSA. "Y We use” x “because the elliptical curve instead uses x.

Example use of use

You can check the signature’s authenticity and integrity to check this code fral. For example, you can create a new public key component using the following code:

`Python

Public_key = EC (). key

Print (public_key)

This removes the public main component in syllable form.

I hope it helps! Notify me if you have any questions or need additional help.