“I swapped three small NumPy helper scripts for Aion maths utilities in our lab notebook. Same outputs, fewer lines, and I could actually explain every step in the paper appendix.”
Mariam K.
Graduate researcher · applied ML
Aqwel AI turns opaque ML workflows into auditable, reproducible pipelines—with open libraries, datasets, and documentation built for researchers and engineers.
1import pytekt as pt2from pytekt.datasets import load_benchmark3from pytekt.former import FormerBlock, FastAttention4from pytekt.metrics import evaluate_run, accuracy56# 1. Reproducible seed & hardware acceleration7pt.seed(42)8device = pt.hardware.detect_accelerator() # Metal / SIMD910# 2. Ingest 1,000,000 tabular research records11dataset = load_benchmark("nyc-taxi-2.96m", scale=1_000_000)12X, y = dataset.to_cache_aligned_tensors(align=64)1314# 3. Compile AST-to-SIMD transformation kernel15@pt.jit(target="simd", vectorize=True)16def preprocess(row):17 return (row.fare * 2.0 + row.dist) / (row.tip + 1e-5)1819features = preprocess(X)2021# 4. Neural optimization & metric convergence22model = FormerBlock(d_model=128, n_heads=8, device=device)23loss, preds = model.fit(features, y, epochs=50, lr=1e-3)2425# 5. Auditable telemetry26metrics = evaluate_run(y, preds, track_memory=True)27print(f"acc: {metrics.accuracy:.1%} | loss: {loss:.4f} | rate: 223.4M/s")
✓ 1,000,000 records aligned to 64-byte cache
✓ AST-to-SIMD JIT kernel compiled in 0.38ms
→ Finished in 4.48ms · throughput: 223.4M/s
500+
Primitives
Maths, physics & ML
38
Pre-indexed Datasets
Up to 1M rows/set
100%
Deterministic
Zero stochastic drift
Apache 2.0
Open Core
Inspectable license
v0.2.0
Active Release
PyTekt stream
A new open library from Aqwel AI. Built for transparent, reproducible research workflows. We're putting the finishing touches on it.
OpenKL
pip install openkl
Our open-source scientific computing library is entering a new chapter. A refined identity tailored for Python-native workflows, expanded scientific toolkits, and verifiable intelligence.
Package: aqwel-aion
Initial foundation for reproducible research, NumPy Former, and deterministic matrix algebra.
Package: pytekt
Next-generation architecture: 500+ primitives, physics & astronomy toolkits, native C++ dispatch, and CLI workflows.
# Install: pip install pytekt
import pytekt as pt
# 1. Deterministic maths & tensor kernels
A = pt.maths.tensor([[1.0, 2.0], [3.0, 4.0]])
det = pt.maths.determinant(A)
# 2. Scientific & physics simulation
pendulum = pt.physics.Pendulum(length=1.0, mass=0.5)
orbit = pt.universe.compute_orbit(semi_major_axis=1.496e11, eccentricity=0.0167)
# 3. Composable Transformer former
former = pt.former.TransformerEncoder(embed_dim=512, num_heads=8)
print(f"PyTekt initialized • Determinant: {det:.2f}")Engineered directly for Python without opaque wrappers. Composable NumPy, SciPy, and PyTorch interop across 500+ primitives.
Modular architecture with neural blocks, deterministic physics integrators, and auditable pipelines.
Existing Aion workflows continue working seamlessly with drop-in aliases and zero breaking changes.
Every algorithm and benchmark is fully open-source, deterministic, and inspectable under the Apache 2.0 license.
Stateless operators, auditable I/O, and over 500 primitives engineered directly for Python.
71+ deterministic maths primitives for linear algebra, covariance, and ML kernels.
Simulations, celestial coordinates, and orbital mechanics with optional C++ dispatch.
Embeddings, RAG primitives, providers, and a NumPy Former in one Python surface.
From focused ML scripts to a full-spectrum scientific computing platform.
| Capability | v0.1.9 | v0.2.0 (PyTekt) |
|---|---|---|
| Focus | Providers, tools, RAG, Former, native fast_* | + physics, universe, vision, core ML, cache, serve/db, Hub |
| Modules | ~15 documented core groups | 50+ modules / 500+ primitives |
| Science | — | physics, universe |
| Vision / ML | Visualization + evaluate | vision, preprocessing, models, metrics, hyperopt |
| Platform | CLI, config, I/O | + serve, db, store, tracker, usage, hub, doctor |
| Upgrade | pip install aqwel-aion | pip install -U "aqwel-aion>=0.2.0" |
Consistent APIs for physics, astronomy, computer vision, and machine learning.
Solve classical physics tasks with aion.physics — or run a pendulum simulation.
from aion.physics import solve_physics_query, simulate_pendulum
result = solve_physics_query("kinetic energy mass=2 velocity=3")
print(result.output_value) # 9.0
sim = simulate_pendulum(1.0, 0.2, steps=100)
print(sim.summary["small_angle_period_s"])Health checks, local experimentation hubs, and native acceleration diagnostics built into the CLI.
Pull the latest PyTekt release and optional extras for vision, serve, or the full stack.
Extras: [vision] [serve] [db] [full]
Verify Python, numpy, optional deps, and native backends before experiments.
Also: pytekt welcome · pytekt info
Browse modules, dependency status, and run snippets in the browser.
Opens http://127.0.0.1:3000
Run science toolkits from the terminal without writing a notebook first.
Also: pytekt vision · pytekt usage
Designed for independent researchers, labs, and modern development teams.
88 datasets across 8 domains. Up to 1M rows per dataset. Free for research in CSV and JSON formats.
Wide structured tables tailored for ML experiments, baseline benchmarks, and verifiable research pipelines. Direct instant download without account requirements.
Fresh announcements on our Blog, paired with Lattice—a curated directory of battle-tested prompts.
Built for teams running reproducible AI research with reliability, transparency, and control at every layer.
We ship open infrastructure so scientific discovery remains inspectable, reproducible, and universally accessible.
Stateless maths, explicit I/O, and auditable primitives—libraries you can cite in a paper without vendor lock-in.
Clear computation paths, documented optional accelerators, and APIs designed for inspection—not black-box convenience.
From seeds and checksums to layered configs—research steps that stay traceable from raw data to published claims.
Mechanics-first articles on machine learning, computer vision, and reproducible experimentation.
Collaborations that help us deliver open research, education, and AI-native software.
Perspectives from researchers, engineers, and educators applying our open libraries and datasets.
“I swapped three small NumPy helper scripts for Aion maths utilities in our lab notebook. Same outputs, fewer lines, and I could actually explain every step in the paper appendix.”
Mariam K.
Graduate researcher · applied ML
“The evaluate module saved us a weekend—accuracy, F1, and ROC-AUC in one place without wiring sklearn boilerplate for every ablation run.”
Jonas R.
ML engineer · startup
“Wide synthetic tables with predictable seeds are perfect for teaching feature engineering. Students download CSV, preview rows in-browser, and reproduce the same splits every time.”
Elena V.
Instructor · data science
“The Aion docs site is what PyPI pages wish they were—searchable functions, copy-paste examples, and module boundaries that match the import paths.”
Dev P.
Backend engineer · open source
“The CNN matrices article finally connected convolutions to linear algebra the way I needed for a internal tech talk. No hand-wavy diagrams—just mechanics.”
Alex T.
Computer vision engineer
“Core install is lightweight; we added [full] only on the training machine. That layered dependency story is rare and honest.”
Sofia N.
Research software engineer
Everything you need to know about our open libraries, licenses, and architecture.