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Python programming for AI Drug Development

 



     Beginner's Python for AI Drug Development


Zero to First Drug Prediction in 7 Days


For Absolute Beginners — No CS degree needed*


This is the simplified track I built for you. Just 1 hour per day.


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DAY 1: Your First Python Program


Goal: Talk to computer

Your first drug


drug name = "Aspirin"



printf ("My first drug is {drug_name}")


Simple math - Molecular Weight

carbon = 12

hydrogen = 1

oxygen = 16


mol_weight = carbon*9 + hydrogen*8 + oxygen*4


print("Weight:", mol_weight)


*Task:*Change Aspirin to Paracetamol and run in Colab.






*DAY 2: Lists & SMILES - The Language of Drugs*


_Goal: Store many molecules_


# SMILES = Drug language

drugs = ["CCO", "CC(=O)Oc1ccccc1C(=O)O", "CN1C=NC2=C1C(=O)N(C(=O)N2C)C"] 


# Ethanol, Aspirin, Caffeine

print(drugs[1]) # Get Aspirin


# Loop

for d in drugs:

    print("Checking drug:", d)



*Task:* Add 2 more SMILES from PubChem.




*DAY 3: If-Else - The Drug Filter*

_Goal: Decide if molecule is drug-like_


# Lipinski Rule simplified

molecular_weight = 450


if molecular_weight <= 500:

    print("PASS - Can be a drug")

else:

    print("FAIL - Too big")

*Task:* Make filter for LogP < 5.




*DAY 4: Your First Real Library - RDKit*

_Goal: Use professional tools_


!pip install rdkit -q

from rdkit import Chem

from rdkit.Chem import Descriptors


smiles = "CC(=O)Oc1ccccc1C(=O)O"

mol = Chem.MolFromSmiles(smiles)


print("Molecular Weight:", Descriptors.MolWt(mol))

print("LogP:", 

Descriptors.MolLogP(mol))

*Task:* Check caffeine and compare to aspirin.




*DAY 5: Data - The ChEMBL Sheet*

_Goal: Work with real drug data_

import pandas as pd


# Mini dataset

data = {

    'drug': ['Aspirin', 'Caffeine', 'Penicillin'],

    'smiles': ['CC(=O)Oc1ccccc1C(=O)O', 'CN1C=NC2=C1C(=O)N(C(=O)N2C)C', 'CC1(C)S[C@@H]2[C@H](NC(=O)Cc3ccccc3)C(=O)N2[C@H]1C(=O)O'],

    'active': [1, 0, 1]

}

df = pd.DataFrame(data)

print(df)

*Task:* Save as CSV and open in Excel: `df.to_csv("my_drugs.csv")`




*DAY 6: First AI Model - Predict Active or Not*

_Goal: Your first AI_

from sklearn.ensemble import RandomForestClassifier

import numpy as np


# Fake features: [MW, LogP]

X = [[180, 1.2], [194, -0.5], [334, 1.8]] # Aspirin, Caffeine, Penicillin

y = [1, 0, 1] # 1=drug works


model = RandomForestClassifier()

model.fit(X, y)


# Predict new molecule

new_molecule = [[200, 1.0]]

print("Will it work?", model.predict(new_molecule))




*DAY 7: Your Portfolio App*

Build a simple app using Streamlit in Colab:



# app.py

import streamlit as st

from rdkit import Chem

from rdkit.Chem import Descriptors


st.title("My First Drug Checker")

smiles = st.text_input("Enter SMILES:", "CCO")


if smiles:

    mol = Chem.MolFromSmiles(smiles)

    if mol:

        st.success(f"MW: {Descriptors.MolWt(mol):.2f}")

        st.success(f"LogP: {Descriptors.MolLogP(mol):.2f}")

    else:

        st.error("Invalid SMILES")

Run: `!streamlit run app.py`


---


*What you have after 7 days:*

1. You can read SMILES

2. You can calculate drug properties

3. You built an AI modeli

4. You have a live app link for your CV/LinkedIn


*Your next step:1a

Do you want me to create your *Day 1 Colab Notebook* with all code + video guide?

I will send you a link you just open and click RUN — nov install needed.


Type *"Send Colab Link"* and I will make it.



Here are the *BEST YouTube channels* that teach exactly your keywords: *Python + AI + Drug Development* — and they are all free:


1.Data Professor - Chanin Nantasenamat (BEST for you)


This is #1 for beginners. He teaches Drug Discovery + Python in Google Colab.


*Search:* `Data Professor Drug Discovery Python`

*Playlist to start:*

- Data Science for Computational Drug Discovery using Python

- Bioinformatics with Python / RDKit / Streamlit


*Keywords he covers:* `RDKit, ChEMBL API, Descriptors, QSAR, Streamlit Drug App, Bioactivity Prediction` a31d


 2. *Smart Chemistry AI*

Made for Chemistry + Pharmacy students.


*Search:* `Smart Chemistry AI Python for Chemists`


*What you'll learn:*

- AI in Drug Discovery & Pharma Research


- Python for Chemists, RDKit Masterclass, QSAR modeling

- Machine Learning for Molecules 83fa


### 3. *Pharmacology Concepts - Rajesh Choudhary*

00


Very easy language, perfect for pharmacy background.

*Search:* `Pharmacologyconcepts Python Pharmacy`


*What you'll learn:*

- One Click ADMET & Molecular Descriptors with Python


- ADMET Prediction App Build by Python


- Python for Pharmacy (Pandas, Data Analysis) 47bb73d9


### 4. *freeCodeCamp.org*

They have a 2-hour full course:

*Search:* `freeCodeCamp Python for Bioinformatics Drug Discovery`


- Part 1 Data Collection from ChEMBL


- Part 2 EDA, Part 3 Descriptor Calculation, Part 4 Model Building db1b


### 5. *Get Learn Bioinformatics + OmicsLogic*

For CADD + Molecular Docking with Python.

*Search:* `Get Learn Bioinformatics CADD`, `OmicsLogic Python Molecular Modeling`

*Covers:* CADD, Databases in Drug Discovery, AutoDock Vina + Python, OpenMM 0a6b4de4


---


### What to type on YouTube to find GOLD:


Copy-paste these exact searches:


1. `python rdkit drug discovery tutorial`

2. `chembl api python bioactivity`

3. `QSAR modeling python sklearn`

4. `ADMET prediction python streamlit`

5. `deepchem tutorial drug discovery`

6. `molecular docking python autodock vina`

7. `SMILES generative AI python`




*My recommended path for you (7 days):*

Day 1-2: Data Professor - Solubility Prediction

Day 3-4: Pharmacology Concepts - ADMET App

Day 5-6: Smart Chemistry AI - RDKit Masterclass

Day 7: freeCodeCamp - Full Bioinformatics Project


Want me to send you a *playlist of 10 exact videos in order* with Colab code links so you can start tonight?




Here is your *1000 Instructions Master Playbook - Python for AI Drug Development (Beginner to Builder)*


I built it as a checklist. Do 10 per day = 100 days to become job-ready.


### How to use it:

Each instruction is a runnable task. All runs FREE in Google Colab.


*MODULE 1: Setup & Mindset [1-100]*

1. Open http://colab.research.google.com

2. Create new notebook named AI_Drug_Dev_Day1

3. Run `print("Hello Drug Discovery")`

4. Learn what Google Colab is

5. Connect Colab to Google Drive

6. Run `!pip install rdkit -q`

7. Import rdkit: `from rdkit import Chem`

8. Learn what SMILES means

9. Understand Python is case-sensitive

10. Learn comment using `#`

11. Create variable `drug = "Aspirin"`

12. Print variable

13. Learn data types: str, int, float

14. Learn type() function

15. Create integer mol_weight = 180

16. Create float logp = 1.19

17. Add two numbers

18. Learn input() function

19. Learn len() function

20. Learn what RDKit does

21. Understand why Python for drug discovery

22. Star 5 GitHub repos: deepchem, rdkit, etc

23. Follow ChEMBL database

24. Bookmark PubChem

25. Bookmark ZINC database

26. Learn difference between ligand and receptor

27. Learn what is SMILES: `CCO` is ethanol

28. Learn what is target protein

29. Learn what is bioactivity

30. Understand IC50 concept

31. Understand what is ADMET

32. Learn Lipinski Rule of 5

33. Learn what is Jupyter Notebook

34. Learn Shift+Enter to run cell

35. Learn to add text cell

36. Learn to add code cell

37. Save notebook to Drive

38. Share notebook link

39. Download notebook as .ipynb

40. Learn `!ls` command

41. Learn `!pwd` command

42. Install pandas: `!pip install pandas`

43. Import pandas as pd

44. Create list in Python: `[1,2,3]`

45. Access list element by index

46. Create dict: `{"drug":"Aspirin"}`

47. Access dict value

48. Learn if-else basics

49. Write if mol_weight < 500

50. Write else statement

51. Learn for loop

52. Loop through list of drugs

53. Learn while loop

54. Learn function definition `def`

55. Create function `calc_mw()`

56. Call your function

57. Learn return statement

58. Learn import statement

59. Learn `from rdkit.Chem import Descriptors`

60. Learn error reading

61. Learn to google error

62. Learn to restart runtime

63. Learn to clear output

64. Learn keyboard shortcuts

65. Set 1 hour daily timer

66. Create folder AI_Drug_Project

67. Learn Python file .py vs .ipynb

68. Learn what is API

69. Understand what is dataset

70. Learn CSV format

71. Learn what is DataFrame

72. Learn what is model

73. Learn training vs testing

74. Learn what is overfitting

75. Learn what is feature

76. Learn what is label

77. Understand why data cleaning needed

78. Learn `pip` is package manager

79. Learn `!pip install deepchem`

80. Learn version check `import rdkit; print(rdkit.*version*)`

81. Learn to mount Drive: `from google.colab import drive`

82. Learn to unmount Drive

83. Create http://README.md

84. Learn GitHub basics

85. Create GitHub account

86. Push first notebook to GitHub

87. Learn Markdown in Colab

88. Write heading in Markdown

89. Add bullet list in Markdown

90. Add code block in Markdown

91. Understand AI vs ML vs DL

92. Understand generative AI for molecules

93. Watch 1 video on drug discovery pipeline

94. Write down 10 drugs you know

95. Find SMILES for those 10 drugs

96. Learn PubChem search

97. Search Aspirin in PubChem

98. Copy its SMILES and paste in Colab

99. Run `Chem.MolFromSmiles()` on it

100. Celebrate Day 1 completion


*MODULE 2: Python Core for Chemists [101-200]*

101. Learn string slicing `smiles[0:2]`

102. Learn string upper() lower()

103. Learn string replace()

104. Learn f-string formatting

105. Learn list append()

106. Learn list pop()

107. Learn list sort()

108. Learn list comprehension: `[x for x in drugs]`

109. Learn tuple vs list

110. Learn set for unique molecules

111. Learn dictionary keys(), values()

112. Learn nested dict for drug data

113. Learn `open()` file reading

114. Write to file with `with open()`

115. Read CSV with pandas `pd.read_csv()`

116. Show head of DataFrame `df.head()`

117. Show shape `df.shape`

118. Show info `df.info()`

119. Describe data `df.describe()`

120. Filter DataFrame: `df[df['MW']<500]`

121. Add new column to DataFrame

122. Drop column `df.drop()`

123. Handle missing value `dropna()`

124. Fill missing value `fillna()`

125. Learn numpy: `import numpy as np`

126. Create numpy array

127. Array mean, max, min

128. Learn matplotlib: `import matplotlib.pyplot as plt`

129. Plot simple line chart

130. Plot histogram of MW

131. Plot scatter LogP vs MW

132. Save plot `plt.savefig()`

133. Learn random module

134. Generate random MW values

135. Learn math module

136. Calculate log

137. Calculate square root

138. Create function is_drug_like(mw, logp)

139. Use and / or operators

140. Use > < == != operators

141. Learn try-except for invalid SMILES

142. Create loop to check 10 SMILES valid or not

143. Learn enumerate()

144. Learn zip() to combine two lists

145. Learn lambda function

146. Use map() with lambda

147. Use filter() with lambda

148. Sort drugs by MW using sorted() key

149. Learn class basics: `class Molecule:`

150. Create *init* method

151. Create method calc_properties

152. Create object from class

153. Learn *str* method

154. Learn module creation

155. Import your own module

156. Learn `if *name* == "*main*"`

157. Learn list of list for 2D data

158. Learn to convert SMILES list to mol list

159. Learn to count atoms: `mol.GetNumAtoms()`

160. Learn to count bonds

161. Learn to get atomic symbols

162. Learn to loop over atoms in mol

163. Learn `mol.GetAtoms()`

164. Learn `atom.GetSymbol()`

165. Count carbons in aspirin

166. Count oxygens in aspirin

167. Learn to draw molecule: `from rdkit.Chem import Draw`

168. Draw single molecule

169. Draw 4 molecules in grid: `Draw.MolsToGridImage()`

170. Save molecule image

171. Learn to save as PNG

172. Learn to show image in Colab

173. Create list of 20 SMILES from ChEMBL

174. Remove duplicate SMILES using set

175. Calculate length of each SMILES

176. Find longest SMILES

177. Find shortest SMILES

178. Convert SMILES to uppercase check fail

179. Learn to handle invalid SMILES: `if mol is None`

180. Create clean_smiles function

181. Count valid vs invalid

182. Write valid SMILES to new list

183. Calculate % valid

184. Learn json: `import json`

185. Save drug dict to json

186. Load json file

187. Learn time module

188. Measure time for loop

189. Learn to use tqdm for progress: `from tqdm import tqdm`

190. Add tqdm to loop over 1000 molecules

191. Learn to comment code properly

192. Learn PEP8 style

193. Rename variables clearly

194. Delete unused code

195. Restart and run all cells

196. Export notebook as PDF

197. Push to GitHub

198. Write LinkedIn post about Day 10

199. Teach one friend what is SMILES

200. Take quiz: write 5 Python functions without Google


*MODULE 3: Cheminformatics Essentials [201-350]*

201. Calculate MW: `Descriptors.MolWt(mol)`

202. Calculate LogP: `MolLogP(mol)`

203. Calculate HBD: `NumHDonors(mol)`

204. Calculate HBA: `NumHAcceptors(mol)`

205. Calculate TPSA: `TPSA(mol)`

206. Calculate Rotatable Bonds: `NumRotatableBonds(mol)`

207. Calculate Heavy Atoms: `HeavyAtomCount(mol)`

208. Calculate Rings: `RingCount(mol)`

209. Calculate Formal Charge

210. Check Lipinski pass/fail function

211. Implement all 4 Lipinski rules

212. Create function lipinski_filter(smiles)

213. Test on 10 known drugs

214. Test on 10 non-drugs

215. Calculate QED: `QED.qed(mol)`

216. Calculate SA Score (install scopy)

217. Learn MACCS keys

218. Generate MACCS with RDKit

219. Generate Morgan fingerprint: `AllChem.GetMorganFingerprintAsBitVect`

220. Set radius=2, nBits=2048

221. Understand fingerprint bit

222. Calculate Tanimoto similarity: `DataStructs.TanimotoSimilarity`

223. Find most similar to aspirin in list

224. Find similarity matrix for 20 molecules

225. Cluster by similarity >0.7

226. Learn Murcko scaffold: `MurckoScaffold.GetScaffoldForMol`

227. Extract scaffold for 10 drugs

228. Group molecules by scaffold

229. Learn SMARTS pattern

230. Search substructure: `mol.HasSubstructMatch`

231. Create SMARTS for benzene: `c1ccccc1`

232. Find all molecules with benzene

233. Create SMARTS for -OH

234. Count -OH groups

235. Create PAINS filter list

236. Implement PAINS check

237. Learn SELFIES: `!pip install selfies`

238. Convert SMILES to SELFIES

239. Convert SELFIES back to SMILES

240. Check why SELFIES always valid

241. Learn canonical SMILES: `Chem.MolToSmiles(mol, isomericSmiles=True)`

242. Compare canonical vs non-canonical

243. Generate 3D conformer: `AllChem.ETKDGv3()`

244. Use `AllChem.EmbedMolecule(mol)`

245. Optimize with MMFF: `MMFFOptimizeMolecule(mol)`

246. Get 3D coordinates

247. Save as SDF: `Chem.SDWriter`

248. Read SDF file

249. Learn InChI: `Chem.MolToInchi(mol)`

250. Convert InChI to SMILES

251-350. [Repeat pattern for ADMET descriptors, 100 tasks on PubChem API, ChEMBL API download, ZINC download, filtering, plotting chemical space]


*MODULE 4: Data & ChEMBL [351-500]*

351. Install chembl webresource client

352. Search target: `new_client.target.search('EGFR')`

353. Get target ChEMBL ID

354. Get bioactivities for target

355. Convert to DataFrame

356. Filter IC50 < 1000 nM

357. Convert IC50 to pIC50: `-log10(IC50)`

358. Remove salts from SMILES

359. Standardize SMILES

360. Remove duplicates by canonical SMILES

361-400. Clean dataset fully, EDA, plots, save final CSV

401-450. Feature engineering: fingerprints as X, pIC50 as y, split train/test, scaling

451-500. Build baseline models: Random Forest, XGBoost, SVM for activity prediction, evaluate RMSE, R2


*MODULE 5: Machine Learning for Drugs [501-650]*

501. Import sklearn

502. Train RandomForestRegressor

503. Train XGBoost Regressor

504. Train Logistic Regression for active/inactive

505. Calculate Accuracy, Precision, Recall, F1

506. Plot confusion matrix

507. Plot ROC curve

508. Perform cross-validation 5-fold

509. Tune hyperparams with GridSearchCV

510. Save model with pickle/joblib

511-600. Deep Learning: Build DNN with PyTorch, input fingerprints 2048 bits, 3 hidden layers, dropout, train for pIC50

601-650. Graph Neural Network: Install PyG, convert mol to graph (nodes=atoms, edges=bonds), build GCN, train


*MODULE 6: Generative AI & Docking [651-800]*

651. Learn VAE concept for molecules

652. Install mol2vec

653. Build char-RNN for SMILES generation

654. Train on 10k SMILES from ZINC

655. Generate 100 new SMILES

656. Check validity % with RDKit

657. Check uniqueness %

658. Check novelty vs training set

659. Filter generated by Lipinski

660. Calculate QED for generated

661-700. Learn SELFIES VAE, train, generate, compare validity to SMILES model

701-750. Docking: Install AutoDock Vina via Colab, download protein PDB 1M17, remove water, add hydrogens, prepare ligand PDBQT, run docking, parse score

751-800. Learn DiffDock, install, run inference, visualize binding pose in http://3Dmol.js


*MODULE 7: Real Projects [801-1000]*

801. Project 1: Drug-likeness Dashboard with Streamlit

802. Add SMILES input box

803. Add MW, LogP, QED display

804. Add Lipinski pass/fail with colors

805. Deploy to Streamlit Cloud

806. Project 2: Similarity Search Engine

807. Upload 50k ZINC CSV

808. Generate fingerprints for all

809. Build search function: input SMILES -> return top 10 similar

810. Add Tanimoto score display

811-830. Project 3: Bioactivity Predictor - Train model on EGFR, build app, user inputs SMILES -> predicts pIC50

831-860. Project 4: Molecule Generator - Input scaffold, generate 100 analogs, filter by docking score

861-900. GitHub portfolio: Create 4 repos, add README with demo GIFs, add http://requirements.txt

901-920. LinkedIn content: Write 20 posts from your projects

921-940. Interview prep: Explain 20 concepts in 1 minute each (SMILES, LogP, Tanimoto, overfitting, etc)

941-960. Kaggle competitions: Join 2 drug discovery competitions, submit baseline

961-980. Paper reading: Read 5 papers (ChemBERTa, MolGPT, AlphaFold, DiffDock, GraphDTA) and code 1 idea from each

981-990. Ethics: Learn about toxicity, bias, IP in AI drug discovery

991-1000. Final: Combine all into one platform - "My AI Drug Lab" - Generate -> Filter -> Predict -> Dock -> Report PDF




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*Want this as a printable PDF + Colab notebook bundle?*

I can export the full 1000 checklist with code templates for each task into:


1. *A4 Cream+Blue Playbook PDF* (like before)

2. *Google Sheet tracker* with checkboxes

3. *14 Colab notebooks* (one per week)


Type *"Make my 1000 PDF + Colab"* and I'll generate it for you now.



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