Deep Reinforcement Learning based Trading Agent for Bitcoin

Overview

Deep Trading Agent

license dep1 dep2 dep3 dep4 dep4
Deep Reinforcement Learning based Trading Agent for Bitcoin using DeepSense Network for Q function approximation.

model
For complete details of the dataset, preprocessing, network architecture and implementation, refer to the Wiki of this repository.

Requirements

  • Python 2.7
  • Tensorflow
  • Pandas (for pre-processing Bitcoin Price Series)
  • tqdm (for displaying progress of training)

To setup a ubuntu virtual machine with all the dependencies to run the code, refer to assets/vm.

Run with Docker

Pull the prebuilt docker image directly from docker hub and run it as

docker pull samre12/deep-trading-agent:latest
docker run -p 6006:6006 -it samre12/deep-trading-agent:latest

OR

Build the docker image locally by executing the command and the run the image as

docker build -t deep-trading-agent .
docker run -p 6006:6006 -it deep-trading-agent

This will setup the repository for training the agent and

  • mount the current directory into /deep-trading-agent in the container

  • during image build, the latest transactions history from the exchange is pulled and sampled to create per-minute scale dataset of Bitcoin prices. This dataset is placed at /deep-trading-agent/data/btc.csv

  • to initiate training of the agent, specify suitable parameters in a config file (an example config file is provided at /deep-trading-agent/code/config/config.cfg) and run the code using /deep-trading-agent/code/main.py

  • training supports logging and monitoring through Tensorboard

  • vim and screen are installed in the container to edit the configuration files and run tensorboard

  • bind port 6006 of container to 6006 of host machine to monitor training using Tensorboard

Support

Please give a to this repository to support the project 😄 .

ToDo

Docker Support

  • Add Docker support for a fast and easy start with the project

Improve Model performance

  • Extract highest and lowest prices and the volume of Bitcoin traded within a given time interval in the Preprocessor
  • Use closing, highest, lowest prices and the volume traded as input channels to the model (remove features calculated just using closing prices)
  • Normalize the price tensors using the price of the previous time step
  • For the complete state representation, input the remaining number of trades to the model
  • Use separate diff price blocks to calculate the unrealized PnL
  • Use exponentially decayed weighted unrealized PnL as a reward function to incorporate current state of investment and stabilize the learning of the agent

Trading Model

is inspired by Deep Q-Trading where they solve a simplified trading problem for a single asset.
For each trading unit, only one of the three actions: neutral(1), long(2) and short(3) are allowed and a reward is obtained depending upon the current position of agent. Deep Q-Learning agent is trained to maximize the total accumulated rewards.
Current Deep Q-Trading model is modified by using the Deep Sense architecture for Q function approximation.

Dataset

Per minute Bitcoin series is obtained by modifying the procedure mentioned in this repository. Transactions in the Coinbase exchange are sampled to generate the Bitcoin price series.
Refer to assets/dataset to download the dataset.

Preprocessing

Basic Preprocessing
Completely ignore missing values and remove them from the dataset and accumulate blocks of continuous values using the timestamps of the prices.
All the accumulated blocks with number of timestamps lesser than the combined history length of the state and horizon of the agent are then filtered out since they cannot be used for training of the agent.
In the current implementation, past 3 hours (180 minutes) of per minute Bitcoin prices are used to generate the representation of the current state of the agent.
With the existing dataset (at the time of writing), following are the logs generated while preprocessing the dataset:

INFO:root:Number of blocks of continuous prices found are 58863
INFO:root:Number of usable blocks obtained from the dataset are 887
INFO:root:Number of distinct episodes for the current configuration are 558471

Advanced Preprocessing
Process missing values and concatenate smaller blocks to increase the sizes of continuous price blocks.
Standard technique in literature to fill the missing values in a way that does not much affect the performance of the model is using exponential filling with no decay.
(To be implemented)

Implementation

Tensorflow "1.1.0" version is used for the implementation of the Deep Sense network.

Deep Sense

Implementation is adapted from this Github repository with a few simplifications in the network architecture to incorporate learning over a single time series of the Bitcoin data.

Deep Q Trading

Implementation and preprocessing is inspired from this Medium post. The actual implementation of the Deep Q Network is adapted from DQN-tensorflow.

Owner
Kartikay Garg
Major in Mathematics and Computing
Kartikay Garg
Pytorch implementation for "Implicit Semantic Response Alignment for Partial Domain Adaptation"

Implicit-Semantic-Response-Alignment Pytorch implementation for "Implicit Semantic Response Alignment for Partial Domain Adaptation" Prerequisites pyt

4 Dec 19, 2022
This is an (re-)implementation of DeepLab-ResNet in TensorFlow for semantic image segmentation on the PASCAL VOC dataset.

DeepLab-ResNet-TensorFlow This is an (re-)implementation of DeepLab-ResNet in TensorFlow for semantic image segmentation on the PASCAL VOC dataset. Up

19 Jan 16, 2022
Conservative and Adaptive Penalty for Model-Based Safe Reinforcement Learning

Conservative and Adaptive Penalty for Model-Based Safe Reinforcement Learning This is the official repository for Conservative and Adaptive Penalty fo

7 Nov 22, 2022
A simple version for graphfpn

GraphFPN: Graph Feature Pyramid Network for Object Detection Download graph-FPN-main.zip For training , run: python train.py For test with Graph_fpn

WorldGame 67 Dec 25, 2022
PyTorch implementation of the wavelet analysis from Torrence & Compo

Continuous Wavelet Transforms in PyTorch This is a PyTorch implementation for the wavelet analysis outlined in Torrence and Compo (BAMS, 1998). The co

Tom Runia 262 Dec 21, 2022
[CVPR2022] Representation Compensation Networks for Continual Semantic Segmentation

RCIL [CVPR2022] Representation Compensation Networks for Continual Semantic Segmentation Chang-Bin Zhang1, Jia-Wen Xiao1, Xialei Liu1, Ying-Cong Chen2

Chang-Bin Zhang 71 Dec 28, 2022
Depression Asisstant GDSC Challenge Solution

Depression Asisstant can help you give solution. Please using Python version 3.9.5 for contribute.

Ananda Rauf 1 Jan 30, 2022
Plugin for Gaffer providing direct acess to asset from PolyHaven.com. Only HDRIs at the moment, Cycles and Arnold supported

GafferHaven Plugin for Gaffer providing direct acess to asset from PolyHaven.com. Only HDRIs are supported at the moment, in Cycles and Arnold lights.

Jakub Vondra 6 Jan 26, 2022
A programming language written with python

Kaoft A programming language written with python How to use A simple Hello World: c="Hello World" c Output: "Hello World" Operators: a=12

1 Jan 24, 2022
Keras implementation of Deeplab v3+ with pretrained weights

Keras implementation of Deeplabv3+ This repo is not longer maintained. I won't respond to issues but will merge PR DeepLab is a state-of-art deep lear

1.3k Dec 07, 2022
Garbage Detection system which will detect objects based on whether it is plastic waste or plastics or just garbage.

Garbage Detection using Yolov5 on Jetson Nano 2gb Developer Kit. Garbage detection system which will detect objects based on whether it is plastic was

Rishikesh A. Bondade 2 May 13, 2022
Research on controller area network Intrusion Detection Systems

Group members information Member 1: Lixue Liang Member 2: Yuet Lee Chan Member 3: Xinruo Zhang Member 4: Yifei Han User Manual Generate Attack Packets

Roche 4 Aug 30, 2022
Code for sound field predictions in domains with impedance boundaries. Used for generating results from the paper

Code for sound field predictions in domains with impedance boundaries. Used for generating results from the paper

DTU Acoustic Technology Group 11 Dec 17, 2022
NeoDTI: Neural integration of neighbor information from a heterogeneous network for discovering new drug-target interactions

NeoDTI NeoDTI: Neural integration of neighbor information from a heterogeneous network for discovering new drug-target interactions (Bioinformatics).

62 Nov 26, 2022
Playing around with FastAPI and streamlit to create a YoloV5 object detector

FastAPI-Streamlit-based-YoloV5-detector Playing around with FastAPI and streamlit to create a YoloV5 object detector It turns out that a User Interfac

2 Jan 20, 2022
Uncertainty Estimation via Response Scaling for Pseudo-mask Noise Mitigation in Weakly-supervised Semantic Segmentation

Uncertainty Estimation via Response Scaling for Pseudo-mask Noise Mitigation in Weakly-supervised Semantic Segmentation Introduction This is a PyTorch

XMed-Lab 30 Sep 23, 2022
A Closer Look at Structured Pruning for Neural Network Compression

A Closer Look at Structured Pruning for Neural Network Compression Code used to reproduce experiments in https://arxiv.org/abs/1810.04622. To prune, w

Bayesian and Neural Systems Group 140 Dec 05, 2022
The source code of CVPR 2019 paper "Deep Exemplar-based Video Colorization".

Deep Exemplar-based Video Colorization (Pytorch Implementation) Paper | Pretrained Model | Youtube video 🔥 | Colab demo Deep Exemplar-based Video Col

Bo Zhang 253 Dec 27, 2022
ESP32 python application to read data from a Tilt™ Hydrometer for homebrewing

TitlESP32 ESP32 MicroPython application to read and log data from a Tilt™ Hydrometer. Requirements A board with an ESP32 chip USB cable - USB A / micr

IoBeer 5 Dec 01, 2022
Simple object detection app with streamlit

object-detection-app Simple object detection app with streamlit. Upload an image and perform object detection. Adjust the confidence threshold to see

Robin Cole 68 Jan 02, 2023