Geometric Langlands CLI
A user-friendly command-line interface for the Geometric Langlands computational framework, making advanced mathematical computations accessible to researchers and mathematicians.
Features
- Interactive REPL for mathematical computations
- Batch processing of correspondences and verifications
- Rich visualizations of mathematical objects
- Persistent storage with SQLite database
- Multiple export formats (JSON, LaTeX, Mathematica, SageMath, Python)
- Configuration management with TOML files
- Progress tracking with detailed progress bars
Installation
# Install from source
Quick Start
Start Interactive REPL
Compute Correspondences
# Verify Langlands correspondence
# Compute Hecke eigenvalues
# Evaluate L-functions
Visualizations
# Visualize Hecke eigenvalues
# Plot L-function
# Visualize moduli space
Train Neural Networks
# Train on correspondence patterns
# Use custom architecture
Verify Mathematical Properties
# Verify Ramanujan conjecture
# Check functoriality
# Verify reciprocity laws
Export Results
# Export to LaTeX
# Export to Mathematica
# Export to Python
Commands
Core Commands
langlands compute <type>- Run mathematical computationslanglands visual <type>- Create visualizationslanglands train- Train neural networkslanglands verify <property>- Verify mathematical propertieslanglands export <source>- Export results in various formatslanglands repl- Start interactive session
Computation Types
correspondence- Langlands correspondence verificationhecke- Hecke operator eigenvaluesl-function- L-function evaluationstrace-formula- Trace formula computationsspectral- Spectral decompositionfunctoriality- Functorial liftsramanujan- Ramanujan conjecture verification
Visualization Types
sheaf- Perverse sheaf structurerepresentation- Galois representationsmoduli-space- Moduli space of bundlesspectral-curve- Spectral curveshecke-eigenvalues- Hecke eigenvalue plotsl-function- L-function plotscorrespondence- Langlands correspondence diagram
Verification Properties
correspondence- Langlands correspondencefunctoriality- Functorial propertiesreciprocity- Reciprocity lawsramanujan- Ramanujan conjectureselberg- Selberg trace formulariemann-hypothesis- Generalized Riemann hypothesislocal-global- Local-global principle
Database Management
# Initialize database
# List stored computations
# Show computation details
# Export/import database
Configuration
# Show current configuration
# Set configuration values
# Reset to defaults
Interactive REPL
The REPL provides an interactive environment for mathematical exploration:
langlands> create group g GL 3
Created group g: GL(3)
langlands> create form f g 2
Created automorphic form f: Eisenstein series of weight 2
langlands> compute correspondence
Langlands correspondence: computed ✓
Verified: ✓
langlands> compute hecke 5
T_5(f) = 2.236068
langlands> plot hecke
Plot opened in viewer
langlands> verify ramanujan
Ramanujan conjecture at p=2: ✓
langlands> save session.json
Session saved to: session.json
REPL Commands
help- Show help messagevars- List all variablescreate <type> <name> [args]- Create mathematical objectscompute <operation>- Perform computationsplot <type>- Generate plotsverify <property>- Verify propertiessave/load <file>- Session management
Configuration
Configuration is stored in ~/.config/langlands-cli/config.toml:
= 64
= 10000
= 1e-10
[]
= true
= false
= true
[]
= [800, 600]
= "viridis"
= true
[]
= "langlands_v1"
= 0.001
= 32
[]
= 1000
= true
= "langlands> "
Output Formats
JSON
LaTeX
\begin{document}
The correspondence between automorphic forms and Galois representations...
\begin{align}\end{align}
\end{document}
Mathematica
correspondence = {
"type" -> "Langlands",
"verified" -> True,
"lFunction" -> LFunction[s]
};
Examples
Research Workflow
# 1. Set up computation
# 2. Verify correspondences for GL(n)
for; do
done
# 3. Train neural network on patterns
# 4. Generate visualizations
# 5. Export for publication
Batch Verification
#!/bin/bash
# Batch verify multiple properties
properties=("correspondence" "functoriality" "ramanujan" "reciprocity")
for; do
done
# Generate summary report
Performance
The CLI is optimized for mathematical computations:
- Parallel processing with configurable thread count
- GPU acceleration for supported operations (CUDA)
- Intelligent caching to avoid redundant computations
- Memory-efficient algorithms for large-scale problems
- Progress tracking for long-running computations
Contributing
We welcome contributions! Please see the main repository's contributing guidelines.
License
MIT License - see LICENSE file for details.
Citation
If you use this tool in your research, please cite: