Infermo -> This project has been moved to: Endia 🔥
This project only works with old versions of Mojo, we call it deprecated and remommend using Endia instead!
Infermo is a Mojo library that provides two high-level features:
- Tensor computation
- Automatic Differentiation
Mojo currently operates on CPU only. GPU support will come soon!
Infermo is still a Proof-of-Concept, if you encounter any bugs, feel free to create an issue or a PR. Thank you for your contribution. 😊
# Lets's build a simple neural network that learns to approximate sin(15x)
# Dynamic Computation Graph (with conditional model architecture!!!) (static execution is also possible)
fn main() raises:
# init params
let W1 = Tensor(shape(1,64)).randhe().requires_grad()
let W2 = Tensor(shape(64,64)).randhe().requires_grad()
let W3 = Tensor(shape(64,1)).randhe().requires_grad()
let W_opt = Tensor(shape(64,64)).randhe().requires_grad()
let b1 = Tensor(shape(64)).randhe().requires_grad()
let b2 = Tensor(shape(64)).randhe().requires_grad()
let b3 = Tensor(shape(1)).randhe().requires_grad()
let b_opt = Tensor(shape(64)).randhe().requires_grad()
var avg_loss = Float32(0.0)
let every = 1000
let num_epochs = 20000
# training
for epoch in range(1,num_epochs+1):
# set input and true values
let input = Tensor(shape(32,1)).randu(0,1).dynamic()
let true_vals = sin(15.0 * input)
# define model architecture
var x = relu(input @ W1 + b1)
x = relu(x @ W2 + b2)
if epoch < 100:
x = relu(x @ W_opt + b_opt)
x = x @ W3 + b3
let loss = mse(x,true_vals).forward()
# print progress
avg_loss += loss[0]
if epoch%every == 0:
print("Epoch:",epoch," Avg Loss: ",avg_loss/every)
avg_loss = 0.0
# # compute gradients and optimize
loss.backward()
loss.optimize(0.01,"sgd")
# clear graph
loss.clear()
input.free()
- Memory Sharing
- Gradient Checkpointing
- Choose between static and dynamic graph execution
- More optimized memory management
- GPU support
- More operators, activiations, optimizers