Luminis-MC

configuraciónes de SENSORES 1-1:06

KB/S kB/s

Sensor Inspector

4

ORIENTATION

android.sensor.orientation, #3 Continuous

Max Delay: 20000 us

Maximum Range: 360.0

#3 0.10 ms: 52.454 -4.586 3.357 a = 1

#3 0.10 ms: 52.432 -4.810 3.781 a = 1

#3 0.10 ms: 52.171 -4.854 3.881 a = 1

#3 0.10 ms: 52.157 -4.767 3.451 a = 1

#3 0.10 ms: 52.515-4.654 3.050 a = 1

#3 0.10 ms: 52.515 -4.654 3.050 a = 1

#3 0.10 ms: 52.252 -4.605 3.127 a = 1

#3 0.10 ms: 52.235 -5.112 3.337 a = 1

#3 0.10 ms: 52.235 -5.558 2.446 a = 1

#3 0.10 ms: 52.224 -5.474 0.550 a = 1

#3 0.10 ms: 53.008 -3.162 -4.981 a = 1

#3 0.10 ms: 54.765 3.506 -2.506 a = 1

#3 0.10 ms: 54.787 -1.580 3.785 a = 1

#3 0.10 ms: 53.404 -6.522 11.425 a = 1

#3 0.10 ms: 51.675 -10.606 11.819 a = 1

#3 0.10 ms: 50.811 -13.520 5.777 a = 1

#3 0.10 ms: 50.305 -9.549 9.663 a = 1

#3 0.10 ms: 50.810 -8.847 8.650 a = 1

#3 0.10 ms: 51.155 -8.315 8.841 a = 1

#3 0.10 ms: 50.260 -9.624 16.237 a = 1

#3 0.10 ms: 51.613 -6.570 -6.528 a = 1

HD

38 1:10

KS kB/s

HD 4G HD 4G 38

Sensor Inspector

Linear Acceleration Sensor

android.sensor.linear_acceleration, #10

Continuous

Max Delay: 0 us

Maximum Range: 19.6133

#10 0.10

#10 0.

4

3

#10 0.

#10 0.10 ms: -0.139 -0.064 -0.115 a = 3

#10 0.10 ms: -0.067 -0.043 -0.497 a = 3

#10 0.10 ms: 0.110 -0.022 -0.509 a = 3

#10 0.10 ms: 0.194 0.010 -0.777 a = 3

#10 0.10 ms: -0.005 -0.036 -1.063 a = 3

#10 0.10 ms: -0.113 -0.052 -0.648 a = 3

#10 0.10 ms: -0.080 -0.080 -0.162 a = 3

#10 0.10 ms: 0.055 -0.176 0.099 a = 3

#10 0.10 ms: 0.193 -0.161 0.032 a = 3

#10 0.10 ms: 0.097 -0.058 -0.212 a = 3

#10 0.10 ms: 0.006 -0.001 -0.573 a = 3

#10 0.10 ms: -0.158 0.064 -0.799 a = 3

#10 0.10 ms: -0.201 0.100 -0.663 a = 3

#10 0.10 ms: 0.050 0.088 -0.523 a = 3

#10 0.10 ms: 0.196 -0.008 -0.262 a = 3

#10 0.10 ms: 0.270 -0.039 -0.032 a = 3

#10 0.10 ms: 0.411 -0.049 0.069 a = 3

#10 0.10 ms: 0.310 -0.142 0.078 a = 3

#10 0.10 ms: 0.154 -0.061 0.037 a = 3

#10 0.10 ms: -0.320 -0.009 0.071 a = 3

#10 0.10 ms: -0.378 -0.083 0.142 a = 3

#10 0.10 ms: -0.049 -0.137 0.019 a = 3

#10 0.10 ms: 0.066 -0.118 -0.216 a = 3

#10 0.10 ms: 0.153 -0.058 -0.316 a = 3

#10 0.10 ms: 0.216 0.062 -0.379 a = 3

#10 0.10 ms: 0.259 0.088 -0.522 a = 3

#10 0.10 ms: 0.222 0.052 -0.668 a = 3

#10 0.10 ms: 0.066 -0.041 -0.400 a = 3

#10 0.10 ms: -0.118 -0.037 -0.045 a = 3

#10 0.10 ms: -0.183 -0.135 0.098 a = 3

#10 0.10 ms: -0.307 -0.202 0.236 a = 3

#10 0.10 ms: -0.267 -0.108 0.195 a = 3

#10 0.10 ms: -0.344 0.048 0.021 a = 3

#10 0.10 ms: -0.584 0.155 -0.343 a = 3

#10 0.10 ms: -0.519 0.464 -0.681 a = 3

#10 0.10 ms: -1.103 0.740 -1.023 a = 3 kB/s

HD

4G 38

Sensor Inspector

Rotation Vector Sensor

android.sensor.rotation_vector, #11

Continuous

Max Delay: 0 us

Maximum Range: 1.0

#11 0.10

0906

4200.000

a = 3

#11 0.

4

+≡

×

00.000

a = 3

#11 0.

20

0.000

a = 3

#11 0.10 ms:

0.186

-0.328

-0.825

0.420

0.000

a = 3

#11 0.10 ms:

0.186

-0.328

-0.825

0.420

0.000

a = 3

#11 0.10 ms:

0.186

-0.328

-0.825

0.420

0.000

a = 3

#11 0.10 ms:

0.186

-0.328

-0.825

0.420 0.000

a = 3

#11 0.10 ms:

0.187

-0.328

-0.825

0.420

0.000

a = 3

#11 0.10 ms:

0.187

-0.328

-0.825

0.420

0.000

a = 3

#11 0.10 ms:

0.187

-0.328

-0.825

0.421

0.000

a = 3

#11 0.10 ms:

0.187

-0.328

-0.825

0.421

0.000

a = 3

#11 0.10 ms:

0.187

-0.328

-0.825

0.421

0.000

a = 3

#11 0.10 ms:

0.188

-0.328

-0.825

0.421

0.000

a = 3

#11 0.10 ms:

0.188

-0.328

-0.825

0.421

0.000 a = 3

#11 0.10 ms:

0.188

-0.328

-0.824

0.421

0.000

a = 3

#11 0.10 ms:

0.188

-0.328 -0.824

0.421

0.000

a = 3

#11 0.10 ms:

0.188

-0.328

-0.824

0.421

0.000

a = 3

#11 0.10 ms:

0.189

-0.327

-0.824

0.422

0.000

a = 3

#11 0.10 ms:

0.189

-0.327

-0.824

0.422

0.000

a = 3

#11 0.10 ms:

0.189

-0.327

-0.824

0.422

0.000

a = 3

#11 0.10 ms:

0.189

-0.327

-0.824

0.422

0.000

a = 3

#11 0.10 ms:

0.189

-0.327

-0.824

0.422

0.000

a = 3

#11 0.10 ms:

0.189

-0.327

-0.824

0.423

0.000

a = 3

#11 0.10 ms:

0.189

-0.327

-0.824

0.423

0.000

a = 3

#11 0.10 ms:

0.190

-0.326

-0.824

0.423

0.000

a = 3

#11 0.10 ms:

0.190

-0.326

-0.824

0.423

0.000

a = 3

#11 0.10 ms:

0.190 -0.326

-0.824

0.423

0.000 a = 3

#11 0.10 ms:

0.190

-0.326

-0.823

0.424

0.000 a = 3

#11 0.10 ms:

0.190

-0.326

-0.823 0.000 a = 3

0.424

#11 0.10 ms:

0.190

-0.326

-0.823

0.424

0.000

a = 3

#11 0.10 ms:

0.190

-0.326

-0.823

0.424

0.000

a = 3

#11 0.10 ms:

0.190

-0.326

-0.823

0.424

0.000

a = 3

#11 0.10 ms: 0.191

-0.325

-0.823

0.425

0.000

a = 3

#11 0.10 ms:

0.191

-0.325

-0.823

0.425

0.000

a = 3

#11 0.10 ms:

0.192

-0.324

-0.823

0.425

0.000

a = 3

#11 0.10 ms:

0.192

-0.324

-0.823

0.425

0.000

a = 3

#11 0.10 ms:

0.192

-0.324

-0.823

0.425

0.000

a = 3

#11 0.10 ms:

0.192

-0.324

-0.823

0.426

0.000

a = 3

#11 0.10 ms: 0.192

-0.324

-0.823

0.426

0.000

a = 3 kB/s

HD4G

HD

4G 37

Sensor Inspector

GeoMag Rotation Vector Sensor

android.sensor.geomagnetic_rotation_vector,

#20

Continuous

Max Delay: 0 us

#20 0.10

#20 0.

4

0050 0 5220.000

a = 3

十三

×

20.000

a = 3

22 0.000

a = 3

#20 0.

#20 0.10 ms: 0.151

-0.021

-0.853

0.499

0.000

a = 3

#20 0.10 ms: 0.151

-0.021

-0.853

0.499

0.000

a = 3

#20 0.10 ms: 0.151

-0.021

-0.853

0.499

0.000

a = 3

#20 0.10 ms:

0.151 -0.021

-0.853

0.499

0.000

a = 3

#20 0.10 ms:

0.155 -0.024

-0.838

0.523

0.000

a = 3

#20 0.10 ms:

0.155 -0.024

-0.838

0.523

0.000

a = 3

#20 0.10 ms:

0.155 -0.024

-0.838

0.523

0.000

a = 3

#20 0.10 ms:

0.155 -0.024

-0.838

0.523

0.000

a = 3

#20 0.10 ms:

0.158 -0.031

-0.841

0.517 0.000

a = 3

#20 0.10 ms:

0.158 -0.031 -0.841

0.517 0.000

a = 3

#20 0.10 ms:

0.158 -0.031

-0.841

0.517

0.000

a = 3

#20 0.10 ms:

0.158

-0.031

-0.841

0.517 0.000

a = 3

#20 0.10 ms:

0.155 -0.039 -0.848 0.506

0.000

a = 3

#20 0.10 ms:

0.155 -0.039

-0.848

0.506 0.000

a = 3

#20 0.10 ms:

0.155 -0.039

-0.848

0.506

0.000

a = 3

#20 0.10 ms:

0.155 -0.039 0.000 a = 3

-0.848

0.506

#20 0.10 ms:

0.145 -0.049

-0.853

0.499

0.000

#20 0.10 ms:

0.145 -0.049

-0.853

0.499

0.000

a = 3

#20 0.10 ms: 0.145

-0.049

-0.853

0.499

0.000

a = 3

#20 0.10 ms:

0.145

-0.049

-0.853

0.499

0.000

a = 3

#20 0.10 ms: 0.111

-0.048

-0.857

0.502

0.000

a = 3

#20 0.10 ms: 0.111 0.502 0.000 a = 3

-0.048

-0.857

#20 0.10 ms: 0.111

-0.048

-0.857

0.502 0.000

a = 3

#20 0.10 ms: 0.111 -0.048 -0.857 0.502 0.000 a = 3

#20 0.10 ms: 0.088

-0.042 -0.861

0.500 0.000 a = 3

#20 0.10 ms:

0.088 -0.042

-0.861

0.500 0.000 a = 3

#20 0.10 ms:

0.088 -0.042

-0.861

0.500 0.000 a = 3

#20 0.10 ms:

0.088

-0.042

-0.861

0.500

0.000

a = 3

#20 0.10 ms: -0.015

-0.037

-0.863

0.503

0.000

a = 3

#20 0.10 ms:

-0.015

-0.037

-0.863

0.503

0.000

a = 3

#20 0.10 ms:

-0.015

-0.037

-0.863

0.503

0.000

a = 3

#20 0.10 ms:

-0.015

-0.037

-0.863

0.503

0.000

a = 3

#20 0.10 ms:

-0.023

-0.036

-0.878

0.476

0.000

a = 3

#20 0.10 ms:

-0.023

-0.036

-0.878

0.476

0.000

a = 3

#20 0.10 ms:

-0.023

-0.036

-0.878

0.476

0.000

a = 3

#20 0.10 ms: -0.023

-0.036

-0.878

0.476

0.000

a = 3

a = 3 kB/s

HD

4G HD

537

Sensor Inspector

ACCELEROMETER

android.sensor.accelerometer, #1

Continuous

Max Delay: 80000 us

Maximum Range: 78.453606

#1 0.10

#1 0.1

#1 0.10 ms: 0.603 6.805 5.908 a = 3

#1 0.10 ms: 0.550 6.848 5.884 a = 3

#1 0.10 ms: 0.452 6.786 5.999 a = 3

#1 0.10 ms: 0.426 6.767 6.097 a = 3

#1 0.10 ms: 0.273 6.798 6.322 a = 3

#1 0.10 ms: 0.179 6.798 6.526 a = 3

#1 0.10 ms: 0.246 6.820 6.526 a = 3

#1 0.10 ms: 0.357 6.805 6.361 a = 3

#1 0.10 ms: 0.397 6.774 6.179 a = 3

#1 0.10 ms: 0.424 6.712 6.076 a = 3

#1 0.10 ms: 0.304 6.669 6.081 a = 3

#1 0.10 ms: 0.103 6.652 6.291 a = 3

#1 0.10 ms: 0.014 6.659 6.684 a = 3

#1 0.10 ms: 0.040 6.688 6.832 a = 3

#1 0.10 ms: 0.060 6.674 6.765 a = 3

#1 0.10 ms: 0.048 6.566 6.753 a = 3

#1 0.10 ms: -0.081 6.621 6.947 a = 3

#1 0.10 ms: -0.229 6.681 7.199 a = 3

#1 0.10 ms: -0.296 6.717 7.445 a = 3

#1 0.10 ms: -0.241 6.750 7.455 a = 3

#1 0.10 ms: -0.200 6.702 7.388 a = 3

#1 0.10 ms: -0.117 6.575 7.244 a = 3

#1 0.10 ms: -0.035 6.446 7.089 a = 3

#1 0.10 ms: 0.038 6.377 7.031 a = 3

#1 0.10 ms: 0.105 6.310 7.101 a = 3

#1 0.10 ms: 0.119 6.324 7.285 a = 3

#1 0.10 ms: 0.014 6.398 7.503 a = 3

#1 0.10 ms: -0.054 6.451 7.488 a = 3

#1 0.10 ms: -0.073 6.492 7.292 a = 3

#1 0.10 ms: 0.002 6.468 7.096 a = 3

#1 0.10 ms: -0.040 6.542 6.986 a = 3

#1 0.10 ms: -0.196 6.614 6.808 a = 3

#1 0.10 ms: -0.088 6.501 6.741 a = 3

#1 0.10 ms: 0.057 6.219 6.727 a = 3

#1 0.10 ms: 0.340 5.989 6.770 a = 3

#1 0.10 ms: 0.922 5.608 6.971 a = 3 1:12

kB/s

HD

4G HD

4G 37

Sensor Inspector

MAGNETOMETER

android.sensor.magnetic_field, #2

Continuous

Max Delay: 200000 us

Maximum Range: 4912.0503

#2 0.19

#20.2

#2 0.20

#2 0.19 ms: 1.313 -14.775 15.338 a = 1

#2 0.19 ms: 0.656 -15.338 14.194 a = 1

#2 0.19 ms: 0.113 -16.163 12.094 a = 1

#2 0.19 ms: -0.319-16.988 9.038 a = 1

#2 0.20 ms: -0.713 -17.606 5.306 a = 1

#2 0.20 ms: -0.581 -18.075 1.406 a = 1

#2 0.20 ms: 0.188 -18.394 -2.344 a = 1

#2 0.20 ms: 1.069-18.619 -5.756 a = 1

#2 0.19 ms: 1.144-18.806 -8.775 a = 1

#2 0.19 ms: 1.538 -18.994-11.063 a = 1

#2 0.19 ms: 1.688 -19.256-12.731 a = 1

#2 0.19 ms: 1.669 -19.575-13.913 a = 1

#2 0.19 ms: 1.575 -19.988 -14.606 a = 1

#2 0.20 ms: 1.481 -20.438 -14.963 a = 1

#2 0.20 ms: 1.163 -20.850 -15.075 a = 1

#2 0.20 ms: 0.994 -21.244 -14.944 a = 1

#2 0.20 ms: 0.750 -21.544 -14.775 a = 1

#2 0.19 ms: 0.488 -21.769 -14.550 a = 1

#2 0.19 ms: 0.188 -21.919 -14.231 a = 1

#2 0.19 ms: -0.169 -22.050 -13.800 a = 1

#2 0.19 ms: -0.506 -22.144 -13.406 a = 1

#2 0.20 ms: -0.844 -22.238 -12.994 a = 1

#2 0.19 ms: -1.125 -22.313 -12.656 a = 1

#2 0.19 ms: -1.369 -22.388 -12.338 a = 1

#2 0.20 ms: -1.894 -22.425 -12.150 a = 1

#2 0.19 ms: -2.363 -22.425-12.056 a = 1

#2 0.20 ms: -2.513 -22.444-12.038 a = 1

#2 0.20 ms: -2.531 -22.444 -12.056 a = 1

#2 0.19 ms: -3.206 -22.350 -12.375 a = 1

#2 0.20 ms: -3.600 -22.256-12.713 a = 1

#2 0.20 ms: -3.619 -22.256-12.731 a = 1

#2 0.19 ms: -3.638 -22.256-12.769 a = 1

#2 0.20 ms: -3.638 -22.256 -12.806 a = 1

#2 0.19 ms: -3.638 -22.238 -12.844 a = 1

#2 0.19 ms: -3.863 -22.050 -13.294 a = 1

#2 0.20 ms: -4.500 -21.694 -13.856 a = 1

#2 0.19 ms: -5.044-21.394-14.381 a = 1 ----- STAR SENSORES MULTIPLES -----

Simulación Monte Carlo de transporte de fotones en medios turbios

Librería de alto rendimiento escrita en C++ con bindings de Python, diseñada para simular dispersión múltiple de luz incluyendo polarización, coherencia y Coherent Backscattering (CBS).

Características principales

Motor Monte Carlo vectorial con polarización completa (matrices de Jones / parámetros de Stokes)
Coherent Backscattering (CBS) — cálculo del path reverso por reciprocidad
Muestras multicapa — capas con diferentes propiedades ópticas apiladas en el eje z
Múltiples funciones de fase — Mie, Henyey-Greenstein, Rayleigh, Rayleigh-Debye-Gans, Draine
Solver de Mie completo — via Fortran 77 (MIEV0 de Wiscombe), con tablas precomputadas
Detectores variados — campo cercano/lejano, fluencia, speckle, CBS, estadísticas
Ejecución multi-hilo — paralelismo real con std::thread y merge de detectores
Interfaz Python — acceso zero-copy a resultados vía NumPy (buffer protocol)

Stack tecnológico

Componente	Tecnología
Núcleo computacional	C++23
Solver de Mie	Fortran 77 (MIEV0)
Bindings Python	pybind11
Build system	scikit-build-core + CMake
Paralelismo	`std::thread`

Instalación

Requisitos previos

Python 3.10+
Compilador C++23 (GCC 13+, Clang 16+, Apple Clang 15+)
Compilador Fortran (gfortran)
CMake 3.15+

Instalar desde fuente

git clone https://github.com/niaggar/luminis-mc.git
cd luminis-mc
pip install .

Para desarrollo (editable):

pip install -e .

Internamente, scikit-build-core invoca CMake, que compila la librería Fortran de Mie (mie_fortran), el core C++ (_core_c) y el módulo Python (_core).

Uso rápido

import luminis_mc as lmc
import numpy as np

# 1. Función de fase y medio dispersivo
phase = lmc.MiePhaseFunction(radius=0.5e-3, n_p=1.59, n_m=1.33, wl=0.633e-3)
medium = lmc.MieMedium(mu_a=0.01, mu_s=10.0, phase=phase,
                        radius=0.5e-3, n_particle=1.59, n_medium=1.33,
                        wavelength=0.633e-3)

# 2. Muestra (agua como solvente, una capa semi-infinita)
sample = lmc.Sample(n_medium=1.33)
sample.add_layer(medium, 0.0, float('inf'))

# 3. Láser
laser = lmc.Laser(wavelength=0.633e-3, n_medium=1.33)

# 4. Detector CBS en campo lejano
sensors = lmc.SensorsGroup()
det = sensors.add_detector(lmc.FarFieldCBSSensor(0.1, 6.28, 100, 1))

# 5. Configurar y ejecutar
config = lmc.SimConfig(n_photons=1_000_000, sample=sample,
                        laser=laser, detector=sensors)
config.n_threads = 8
config.track_reverse_paths = True
lmc.run_simulation_parallel(config)

# 6. Resultados
result = lmc.postprocess_farfield_cbs(det, 1_000_000)
enhancement = np.array(result.coherent.S0) / np.array(result.incoherent.S0)

Estructura del proyecto

luminis-mc/
├── CMakeLists.txt                  # Build system (CMake + scikit-build)
├── pyproject.toml                  # Metadata del paquete Python
│
├── include/luminis/                # Headers C++ (interfaz pública)
│   ├── core/                       #   Photon, Laser, Medium, Sample, Detector, Simulation
│   ├── math/                       #   Vec3, Matrix, RNG, utilidades matemáticas
│   ├── sample/                     #   Funciones de fase, tablas de muestreo, MFP
│   ├── log/                        #   Logger singleton
│   └── mie/                        #   Interfaz al solver Mie (Fortran)
│
├── src/                            # Implementaciones C++
│   ├── simulation.cpp              #   Loop principal de propagación
│   ├── detector.cpp                #   Todos los sensores (~1700 líneas)
│   ├── medium.cpp                  #   Muestreo de scattering, matrices de Mie
│   ├── phase.cpp                   #   Funciones de fase y muestreo condicional
│   └── mie/                        #   Solver de Mie (Fortran + wrapper C++)
│
├── python/
│   ├── python_module.cpp           # Bindings pybind11
│   └── luminis_mc/                 # Paquete Python
│       ├── __init__.py             #   Re-exporta todo desde _core
│       └── manager.py              #   Experiment y ResultsLoader
│
├── tests/                          # Scripts de simulación (Python)
└── apps/                           # Aplicaciones standalone C++

Arquitectura

Pipeline de simulación

Laser → emit_photon() → [Propagación Monte Carlo] → Detectores → Resultados (NumPy)

Configuración: se definen PhaseFunction, ScatteringMedium, Sample, Laser y SensorsGroup
Ejecución: run_simulation_parallel() distribuye fotones entre hilos; cada hilo opera con detectores clonados (sin locks)
Propagación (run_photon): para cada fotón se itera el ciclo step → detección → scattering → absorción
Merge: al finalizar, los detectores locales se fusionan en el principal
Post-procesamiento: normalización por ángulo sólido y número de fotones

Medios dispersivos

Clase	Descripción
`RGDMedium`	Rayleigh-Gans-Debye (partículas pequeñas, fórmula analítica)
`MieMedium`	Mie completo (tablas precomputadas via MIEV0, sin restricción de tamaño)

Funciones de fase

Clase	Modelo
`UniformPhaseFunction`	Isotrópica
`HenyeyGreensteinPhaseFunction`	Parametrizada por $g$
`RayleighPhaseFunction`	Rayleigh
`RayleighDebyePhaseFunction`	Rayleigh-Debye-Gans
`RayleighDebyeEMCPhaseFunction`	RDG con corrección EMC
`DrainePhaseFunction`	Draine ($g$, $\alpha$)
`MiePhaseFunction`	Mie exacta (tablas precalculadas)

Detectores

Clase	Uso
`PhotonRecordSensor`	Snapshot individual por fotón (post-procesamiento en Python)
`PlanarFieldSensor`	Campo eléctrico complejo en plano $(x, y)$ — speckle
`PlanarFluenceSensor`	Stokes en plano $(x, y, t)$ — fluencia espaciotemporal
`FarFieldFluenceSensor`	Stokes en campo lejano $(\theta, \phi)$
`FarFieldCBSSensor`	CBS en campo lejano — coherente + incoherente
`StatisticsSensor`	Histogramas configurables (scatterings, ángulos, tiempos)

Coherent Backscattering (CBS)

El fenómeno principal modelado por la librería. Para cada trayectoria forward, se calcula el path reverso usando el teorema de reciprocidad ($Q \cdot T^\top \cdot Q$), evitando recalcular cada scattering intermedio. El detector FarFieldCBSSensor acumula:

Intensidad coherente: $|E_f + E_r|^2$
Intensidad incoherente: $|E_f|^2 + |E_r|^2$

El enhancement factor es $\eta(\theta) = I_\text{coh} / I_\text{incoh}$, con $\eta \to 2$ en backscattering exacto para medios conservadores.

Name		Name	Last commit message	Last commit date
apps		apps
include/luminis		include/luminis
logs		logs
plots		plots
python		python
results		results
src		src
tools		tools
utils		utils
.gitignore		.gitignore
CMakeLists.txt		CMakeLists.txt
LICENSE		LICENSE
README.md		README.md
code_description.txt		code_description.txt
emc_literature.pdf		emc_literature.pdf
pyproject.toml		pyproject.toml
requirements.txt		requirements.txt

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