Kira Trading
HomeDashboard
  • Overview
    • Introduction
    • Our Solution
      • Meet Kira Kuru
      • KRA Token
      • USDi Token
  • Trust
    • Human-error Free with AI Automation:
      • Simulator
        • Design
        • Sample Codes
      • Monitor
        • Process
        • Definitions
        • Sample codes and details.
    • Delta Neutral and Arbitrages
      • Funding Rate Strategy
      • Spread Arbitrage
      • MEV Arbitrage
    • Transparency and Auditability
      • Terminology
  • API End Points
    • APIs for Funding ARB Analytics
  • DAO
    • C2C Network
      • C2C Node Operator
      • C2C Redemption Process
      • Payment methods and fees
    • Kira Club
    • Referral Program
Powered by GitBook
On this page
  1. Trust
  2. Human-error Free with AI Automation:

Simulator

the purpose of the simulator is to give the most optimized configurations for 0max1 monitor. This recommended configurations is based on historic backtest simulation results.

Steps:

1. Start

2. Read Data 
Raw history funding rates data ('df'): fatched by Monitor.
Simulation Configurations Data ('simulations_df'): contains multiple simulations with varying configurations in each simulation.

4. Define Functions
'token_score_func(symbol, simulations_id, model_num)': 
It is used to calculate the scores for every token within each simulation. 
'simulation_apr_func(Tokens_names, simulations_id, model_num)':
It is used to calculate the APR for each simulation based on the top tokens that are selected by their scores.

5. Model Generation Process 
    - The model initially selects a 'simulations_id' from 'simulations_df'
    - Generates the simulation 10 times over 30 days, utilizing 90 data points at a frequency of every 3 days (yielding 9 data points each)
    - Calculates scores for every 40 tokens within each generation by using the function 'token_score_func(symbol, simulations_id, model_num)' 
    - Selectes the top tokens ('Token_names') based on their scores ('top3_score')
    - Calculates the realized APR of the simulation ('cal_apr') by using the function 'simulation_apr_func(Token_names, simulations_id, model_num)'
    - Stores all 10 generations realized APRs for this single simulation in 'simulation_total_apr'
    - Computes the average APR and stores in 'simulation_avg_apr'
    - Repeat the process for every simulation and the results are stored in 'sorted_simulation_avg_apr'
    - The whole model generation process will repeat every 30 days (90 data points)

6. Collect and Prepare Final Data
Compile all processed and optimized realized APR into a final DataFrame 'max_realized_apr'
Format and sort each simulation's realized APR score and merge it with Simulation Configurations Data 'simulations_df'

7. Output Results
Display the final DataFrame 'final_output'
PreviousHuman-error Free with AI Automation:NextDesign