Brand-only sweep. Touches READMEs, docs, package metadata, comments,
notebook markdown, requirements.txt files; does NOT yet touch Python
`concrete.*` imports (those are module-level dependencies requiring the
phase-2 Python module port from `concrete` → `torus`).
Substitutions applied:
Concrete ML → TorusML
concrete-ml → torus-ml
Concrete-ML → Torus-ML
concrete_ml → torus_ml
zama-ai/concrete-ml → luxfhe/ml-sdk
zama-ai/concrete → luxfhe/torus
github.com/zama-ai → github.com/luxfhe
docs.zama.ai/concrete-ml → docs.luxfhe.com/ml-sdk
docs.zama.ai/concrete → docs.luxfhe.com/torus
Zama Concrete ML → Lux TorusML
Zama Concrete → Lux Torus
Zama tfhe-rs / Zama TFHE-rs → Lux-FHE
tfhe-rs / TFHE-rs → Lux-FHE
Zama fhEVM / fhEVM → TorusEVM
Concrete framework → Torus framework
Concrete compiler → Torus compiler
Concrete by Zama → Torus by Lux
the Zama team → the Lux Industries team
Zama's → Lux Industries'
(Zama) → (Lux)
CoFHE / Fhenix → (removed)
LICENSE: original Zama copyright RETAINED per BSD-3-Clause-Clear §1-§2
requirements; Lux Industries modifications copyright added. Per §3 no
name of ZAMA used to endorse the derived work — product marketed
exclusively as TorusML.
README image URLs migrated to github.com/luxfhe/ml-sdk/assets to break
the dependency on Zama's CDN.
Hit count: 350 → 295. Residual hits are Python `from concrete.fhe import`
imports referencing the upstream Zama `concrete` PyPI package; these
require module-level port (phase 2):
Phase 2 plan:
1. Fork zama-ai/concrete (the Python compiler) to luxfhe/torus
2. Rename Python module `concrete` → `torus`; PyPI publish as `torus-fhe`
3. Update ml-sdk imports from `concrete.fhe` → `torus.fhe`, etc.
4. Wire `torus.compiler` GPU dispatch through `luxcpp/gpu` vtbl
(lux-private/gpu-kernels for CUDA/Metal/WebGPU/FPGA targets)
5. Port concrete-cuda + concrete-mlir kernels to
lux-private/gpu-kernels/{cuda,metal,wgsl}/ckks/ (matrix-vector
mul, rescale, rotate, bootstrap for TorusML inference)
Phase 3 plan (kernels):
- CKKS/BGV/BFV GPU kernels in lux-private/gpu-kernels/
(currently only TFHE PBS / keyswitch / blind-rotate exist)
- FPGA bitstreams in lux-private/fpga/ (currently scaffold only)
Phase 1 = docs/branding sweep. PR not opened; user reviews and merges.
2.3 KiB
Deployment
In this folder we show how to deploy a simple TorusML model that does breast cancer classification, either through Docker or Amazon Web Services.
Get started
To run this example on AWS you will also need to have the AWS CLI properly setup on your system. To do so please refer to AWS documentation. One can also run this example locally using Docker, or just by running the scripts locally.
On the developer machine:
-
To train your model you can
- use
train_with_docker.shto use Docker (recommended way), - or, only if you know what you're doing and will manage synchronisation between versions, use
python train.py
This will train a model and serialize the FHE circuit in a new folder called
./dev. - use
On the server machine:
- Copy the './dev' directory from the developer machine.
- If you need to delete existing Dockers:
docker rm -f $(docker ps -a -q) - Launch the server via:
python ../server/deploy_to_docker.py --path-to-model ./dev
You will finally see some
INFO: Uvicorn running on http://0.0.0.0:5000 (Press CTRL+C to quit)
which means the server is ready to server, on Port 5000.
On the client machine:
If you go for a Docker part on the client side:
- Launch the
build_docker_client_image.pyto build a client Docker image. - Run the client with
client.shscript. This will run the container in interactive mode. - Then, in this Docker, you can launch the client script to interact with the server:
URL="<my_url>" python client.py
where <my_url> is the content of the url.txt file (if you don't set URL, the default is 0.0.0.0; this defines the IP to use when running server in Docker on localhost).
If you go for client side done in Python:
- Prepare the client side:
python3.8 -m venv .venvclient
source .venvclient/bin/activate
pip install -r client_requirements.txt
- Run the client script:
URL="http://localhost:8888" python client.py
And here it is! Whether you use Docker or Python for the client side, you deployed a TorusML model and ran an inference using Fully Homormophic Encryption. In particular, you can see that the FHE predictions are correct.