YAML configuration reference#
Auto-generated from Pydantic schemas - This document is the authoritative reference for all supported YAML configuration options.
Note
Auto-Generated File - Do Not Edit Manually
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Do not modify this file directly! Your changes will be overwritten.
To update this reference:
Modify
jesterTOV/inference/config/schema.py(Pydantic models)Run:
uv run python -m jesterTOV.inference.config.generate_yaml_reference
Overview#
The JESTER inference system uses YAML configuration files validated by Pydantic models. This reference documents every supported field, its type, default value, and purpose.
Run Options#
Control runtime behavior for validation, debugging, and random seed configuration.
Configuration Options
seed: 43 # Random seed for reproducibility
dry_run: false # Validate configuration without running inference
validate_only: false # Only validate configuration and exit
debug_nans: false # Enable JAX NaN debugging for numerical issues
Field Details:
seed(int, default:43) - Random seed for reproducibility across runsdry_run(bool, default:false) - Parse and validate configuration without running inferencevalidate_only(bool, default:false) - Validate configuration and prior file, then exitdebug_nans(bool, default:false) - Enable JAX NaN debugging for catching numerical issues during inference
EOS Configuration#
The eos section specifies which equation of state (EOS) parametrization to use.
Metamodel#
Metamodel EOS parametrization
Metamodel Configuration
eos:
type: "metamodel" # Required: EOS parametrization type
ndat_metamodel: 100 # Number of points for EOS table
nmax_nsat: 25.0 # Maximum density (in units of saturation density)
nmin_MM_nsat: 0.75 # Minimum density for metamodel (in units of n_sat)
crust_name: "DH" # Crust model: "DH", "BPS", "DH_fixed", or "SLy"
nb_CSE: 0 # Must be 0 for standard metamodel
Requirements:
nb_CSEmust be 0 (or omitted) for this parametrization
Metamodel CSE#
Metamodel EOS parametrization with speed-of-sound extension above a breakdown density
Metamodel CSE Configuration
eos:
type: "metamodel_cse" # Required: EOS parametrization type
nb_CSE: 8 # Number of CSE enforcement points (must be > 0)
ndat_metamodel: 100 # Number of points for EOS table
nmax_nsat: 25.0 # Maximum density (in units of saturation density)
nmin_MM_nsat: 0.75 # Minimum density for metamodel (in units of n_sat)
crust_name: "DH" # Crust model: "DH", "BPS", "DH_fixed", or "SLy"
Requirements:
nb_CSEmust be > 0 for this parametrization
Spectral (LALSuite-Compatible)#
Spectral decomposition parametrization compatible with LALSimulation for GW analysis.
Spectral (LALSuite-Compatible) Configuration
eos:
type: "spectral" # Required: EOS parametrization type
n_points_high: 500 # Number of points for high-density spectral region
crust_name: "SLy" # Must be "SLy" for LALSuite compatibility
Requirements:
crust_namemust be"SLy"(LALSuite compatibility requirement)nb_CSEmust be 0 (or omitted)n_points_highdefines high-density spectral region sampling (default: 500)
Recommended:
Use
constraints_gammalikelihood to bound Gamma parameters (optional but recommended)
TOV Configuration#
The tov section configures the Tolman-Oppenheimer-Volkoff equation solver used to compute neutron star structure (mass-radius-tidal deformability).
TOV Solver Configuration
tov:
type: "gr" # TOV solver: currently only "gr" is implemented
min_nsat_TOV: 0.75 # Minimum density for TOV solver (in units of n_sat)
ndat_TOV: 100 # Number of points for TOV integration
nb_masses: 100 # Number of masses for family construction
Field Details:
type(str, default:"gr") - TOV solver type. Supported values: ‘gr’ (General Relativity) and ‘anisotropy’ (post-TOV with beyond-GR corrections). ‘scalar_tensor’ is planned.min_nsat_TOV(float, default:0.75) - Minimum central density for TOV integration in units of saturation densityndat_TOV(int, default:100) - Number of data points for TOV integrationnb_masses(int, default:100) - Number of masses to sample when constructing the M-R-Λ family
Prior Configuration#
Specify prior distributions for EOS parameters using a .prior specification file.
Prior Configuration
prior:
specification_file: "prior.prior" # Path to prior specification file (required)
Field Details:
specification_file(str, required) - Path to prior specification file (must end with.prior)
Likelihoods#
The likelihoods section specifies observational constraints to include in the inference. Multiple likelihoods can be combined for multi-messenger analysis.
Gravitational Wave Observations#
Constrain the EOS using gravitational wave observations of binary neutron star mergers.
Standard GW Likelihood (Presampled)#
Standard GW Likelihood (Presampled) (type: “gw”)
- type: "gw"
enabled: true
parameters:
events: [{"name": "GW170817", "nf_model_dir": "./NFs/GW170817"}] # List of GW events (see GWEventConfig below)
N_masses_evaluation: 2000 # Number of mass samples to pre-sample (optional, default: 2000)
N_masses_batch_size: 1000 # Batch size for processing (optional, default: 1000)
seed: 42 # Random seed for mass sampling (optional, default: 42)
Field Details:
events(list[GWEventConfig]) - List of GW event configs (see GWEventConfig below). Each entry must havename. Three modes are supported:Pre-trained flow: set
nf_model_dirto point to a trained flow, or omit it to use a built-in preset.From bilby result: set
from_bilby_resultto the path of a bilby HDF5 result file; jester will extract posterior samples and train a flow automatically before inference.From NPZ file: set
from_npz_fileto an existing.npzfile with posterior samples; jester will train a flow directly from it, skipping the bilby extraction step.
penalty_value(float, default:0.0) - Log-likelihood penalty for masses exceeding TOV maximum mass (default: 0.0, i.e. no penalty)N_masses_evaluation(int, default:2000) - Number of mass samples to pre-sample from the GW posteriorN_masses_batch_size(int, default:1000) - Batch size for jax.lax.map processing of mass gridseed(int, default:42) - Random seed for mass pre-sampling from GW posterior
Description:
Default GW likelihood (presampled version): pre-samples masses from the GW posterior for efficient evaluation. Recommended for production use.
GWEventConfig fields (each entry in events):
Field |
Type |
Default |
Description |
|---|---|---|---|
|
str |
required |
Event name, e.g. |
|
str|null |
null |
Path to a pre-trained normalizing flow directory. Mutually exclusive with |
|
str|null |
null |
Path to a bilby result |
|
str|null |
null |
Path to an existing |
|
str|null |
null |
Path to a |
|
bool |
false |
Force re-training even if a cached flow exists (only valid with |
Examples:
# Pre-trained flow (preset):
events:
- name: GW170817
# Pre-trained flow (custom path):
events:
- name: GW170817
nf_model_dir: ./my_flow
# From bilby result (auto-train):
events:
- name: GW170817
from_bilby_result: ./GW170817_result.hdf5
# From existing NPZ file (skip bilby extraction):
events:
- name: GW170817
from_npz_file: ./GW170817_posterior.npz
Resampled GW Likelihood (Legacy)#
Resampled GW Likelihood (Legacy) (type: “gw_resampled”)
- type: "gw_resampled"
enabled: true
parameters:
events: [{"name": "GW170817", "nf_model_dir": "./NFs/GW170817"}] # List of GW events
N_masses_evaluation: 20 # Number of masses per evaluation (optional, default: 20)
N_masses_batch_size: 10 # Batch size for sampling (optional, default: 10)
Field Details:
events(list[dict]) - List of GW events withnameand optionalnf_model_dirkeyspenalty_value(float, default:0.0) - Log-likelihood penalty for masses exceeding TOV maximum mass (default: 0.0, i.e. no penalty)N_masses_evaluation(int, default:20) - Number of mass samples to draw on-the-fly per likelihood evaluationN_masses_batch_size(int, default:10) - Batch size for mass sampling and processing
Description:
Legacy GW likelihood: Resamples masses from GW posterior on-the-fly during each likelihood evaluation. Slower than presampled version.
X-ray Observations#
Constrain the mass-radius relation using NICER X-ray timing observations of millisecond pulsars.
NICER Flow Likelihood (DEFAULT)#
NICER Flow Likelihood (DEFAULT) (type: “nicer”)
- type: "nicer"
enabled: true
parameters:
pulsars: [{"name": "J0030", "amsterdam_model_dir": "./flows/models/nicer_maf/J0030/amsterdam", "maryland_model_dir": "./flows/models/nicer_maf/J0030/maryland"}] # List of pulsars with flow model directories
N_masses_evaluation: 100 # Number of mass samples (optional, default: 100)
N_masses_batch_size: 20 # Batch size for processing (optional, default: 20)
seed: 42 # Random seed for mass pre-sampling (optional, default: 42)
Field Details:
pulsars(list[dict]) - List of pulsars withname,amsterdam_model_dir, andmaryland_model_dirkeys. Model directories must point to trained normalizing flow models.N_masses_evaluation(int, default:100) - Number of mass samples to pre-sample from flow for deterministic evaluationN_masses_batch_size(int, default:20) - Batch size for processing mass samples with jax.lax.mapseed(int, default:42) - Random seed for reproducible mass pre-sampling from flow
Description:
Default NICER likelihood using pre-trained normalizing flows on M-R posteriors. Pre-samples masses once at initialization for efficient, deterministic evaluation. Recommended for production use.
NICER KDE Likelihood (LEGACY)#
NICER KDE Likelihood (LEGACY) (type: “nicer_kde”)
- type: "nicer_kde"
enabled: true
parameters:
pulsars: [{"name": "J0030", "amsterdam_samples_file": "./data/NICER/J0030/amsterdam.npz", "maryland_samples_file": "./data/NICER/J0030/maryland.npz"}] # List of pulsars with sample files
N_masses_evaluation: 100 # Number of masses per evaluation (optional, default: 100)
N_masses_batch_size: 20 # Batch size for sampling (optional, default: 20)
Field Details:
pulsars(list[dict]) - List of pulsars withname,amsterdam_samples_file, andmaryland_samples_filekeys pointing to M-R posterior samples (npz format).N_masses_evaluation(int, default:100) - Number of mass samples to draw on-the-fly from posterior samples per evaluationN_masses_batch_size(int, default:20) - Batch size for mass sampling and KDE evaluation
Description:
Legacy NICER likelihood using kernel density estimation on M-R posterior samples. Resamples masses during each evaluation (slower, non-deterministic). For backward compatibility only - use flow-based version for new analyses.
Radio Pulsar Observations#
Constrain neutron star masses using radio pulsar timing measurements.
Radio Pulsar Likelihood (type: “radio”)
- type: "radio"
enabled: true
parameters:
pulsars: [{"name": "J0740+6620", "mass_mean": 2.08, "mass_std": 0.07}] # List of pulsars
penalty_value: -1e5 # Penalty for M_TOV ≤ m_min (optional, default: -1e5)
nb_masses: 100 # Number of mass points (optional, default: 100)
Field Details:
pulsars(list[dict]) - List of pulsars withname,mass_mean, andmass_stdkeys for Gaussian mass constraintspenalty_value(float, default:-1e5) - Log-likelihood penalty for invalid TOV solutions (M_TOV ≤ m_min)nb_masses(int, default:100) - Number of mass points for numerical integration of Gaussian mass constraint
Nuclear Theory Constraints#
Constrain the low-density EOS using nuclear theory calculations and laboratory measurements.
ChiEFT Likelihood#
ChiEFT Likelihood (type: “chieft”)
- type: "chieft"
enabled: true
parameters:
nb_n: 100 # Number of density points to check against bands
Field Details:
nb_n(int, default:100) - Number of density points to evaluate against ChiEFT uncertainty bands
Description:
Constrains the EOS at densities below ~2 n_sat using chiral effective field theory calculations. The likelihood checks that the predicted pressure-density relation falls within the ChiEFT uncertainty bands.
REX Likelihood#
REX Likelihood (type: “rex”)
- type: "rex"
enabled: true
parameters:
experiment_name: "PREX" # Experiment: "PREX" or "CREX"
Field Details:
experiment_name(str) - Nuclear experiment identifier:"PREX"or"CREX"
Description:
Constrains the nuclear symmetry energy using neutron skin thickness measurements:
PREX - Lead Radius Experiment (²⁰⁸Pb)
CREX - Calcium Radius Experiment (⁴⁸Ca)
Generic Constraints#
Apply custom physics-motivated constraints on EOS and TOV observables.
EOS Constraints#
EOS Constraints (type: “constraints_eos”)
- type: "constraints_eos"
enabled: true
parameters: {}
Description:
Apply custom constraints on equation of state properties (pressure, energy density, sound speed).
TOV Constraints#
TOV Constraints (type: “constraints_tov”)
- type: "constraints_tov"
enabled: true
parameters: {}
Description:
Apply custom constraints on TOV solution properties (maximum mass, radius bounds, etc.).
Gamma Constraints#
Gamma Constraints (type: “constraints_gamma”)
- type: "constraints_gamma"
enabled: true
parameters: {}
Description:
Apply bounds on spectral decomposition Gamma parameters. Recommended when using type: "spectral" transform.
Prior-Only Sampling#
Sample from the prior without applying observational constraints.
Zero Likelihood (type: “zero”)
- type: "zero"
enabled: true
parameters: {} # No parameters needed
Description:
Returns zero log-likelihood (uniform likelihood) for all EOS configurations. Use this for prior-only sampling to explore the prior volume without observational constraints.
Samplers#
Choose a sampling algorithm for Bayesian inference. JESTER supports four production-ready samplers with different strengths.
FlowMC (Normalizing Flow MCMC)#
Normalizing flow-enhanced MCMC combining local MCMC proposals with global normalizing flow proposals.
FlowMC (Normalizing Flow MCMC) Configuration (type: “flowmc”)
sampler:
type: "flowmc" # Sampler type identifier
type: "flowmc" # Sampler type identifier
output_dir: "./outdir/" # Output directory for results
n_eos_samples: 10000 # Number of final posterior samples
log_prob_batch_size: 1000 # Batch size for log-probability evaluation
n_chains: 20 # Number of parallel MCMC chains
n_loop_training: 3 # Number of training loops
n_local_steps: 100 # Local MCMC steps per training loop
n_epochs: 30 # NF training epochs per loop
learning_rate: 0.001 # NF optimizer learning rate
train_thinning: 1 # Thinning factor for training samples
n_loop_production: 3 # Number of production loops
n_global_steps: 100 # Global NF proposal steps per production loop
output_thinning: 5 # Thinning factor for output samples
Sampling Phases:
Training Phase -
n_loop_trainingloops of:n_local_stepsMCMC steps using local proposalsTrain normalizing flow for
n_epochson collected samples
Production Phase -
n_loop_productionloops of:n_local_stepsMCMC steps using local proposalsn_global_stepsusing normalizing flow proposals
When to Use:
Multi-modal or high-dimensional posteriors
Long production runs requiring efficient exploration
When training overhead is acceptable
Sequential Monte Carlo with Random Walk#
BlackJAX SMC with adaptive tempering and Gaussian Random Walk kernel. Production-ready and recommended for most analyses.
Sequential Monte Carlo with Random Walk Configuration (type: “smc-rw”)
sampler:
type: "smc-rw" # Sampler type identifier
type: "smc-rw" # Sampler type identifier
output_dir: "./outdir/" # Output directory for results
n_eos_samples: 10000 # Number of final posterior samples
log_prob_batch_size: 1000 # Batch size for log-probability evaluation
n_particles: 10000 # Number of SMC particles
n_mcmc_steps: 1 # MCMC steps per tempering stage
target_ess: 0.9 # Target effective sample size (ESS) fraction
random_walk_sigma: 1.0 # Gaussian random walk step size
Field Details:
n_particles(int, default:10000) - Number of particles for SMCn_mcmc_steps(int, default:1) - MCMC rejuvenation steps per tempering stagetarget_ess(float, default:0.9) - Target ESS fraction for adaptive tempering (0.0-1.0)random_walk_sigma(float, default:1.0) - Step size for Gaussian random walk kernel
Output:
Posterior samples with equal weights
Effective sample size (ESS) statistics per tempering stage
When to Use:
General-purpose Bayesian inference (recommended default)
Fast inference on CPU or GPU
When derivative information is unavailable or expensive
Sequential Monte Carlo with NUTS#
BlackJAX SMC with adaptive tempering and No-U-Turn Sampler (NUTS) kernel. EXPERIMENTAL - use with caution.
Sequential Monte Carlo with NUTS Configuration (type: “smc-nuts”)
sampler:
type: "smc-nuts" # Sampler type identifier (EXPERIMENTAL)
type: "smc-nuts" # Sampler type identifier (EXPERIMENTAL)
output_dir: "./outdir/" # Output directory for results
n_eos_samples: 10000 # Number of final posterior samples
log_prob_batch_size: 1000 # Batch size for log-probability evaluation
n_particles: 10000 # Number of SMC particles
n_mcmc_steps: 1 # NUTS steps per tempering stage
target_ess: 0.9 # Target effective sample size (ESS) fraction
init_step_size: 0.01 # Initial NUTS step size
mass_matrix_base: 0.2 # Base value for mass matrix diagonal
mass_matrix_param_scales: {} # Per-parameter mass matrix scaling
target_acceptance: 0.7 # Target acceptance rate for step size adaptation
adaptation_rate: 0.3 # Rate of step size adaptation
Field Details:
init_step_size(float, default:0.01) - Initial step size for NUTS integratormass_matrix_base(float, default:0.2) - Base diagonal value for mass matrixmass_matrix_param_scales(dict, default:{}) - Per-parameter scaling factors for mass matrixtarget_acceptance(float, default:0.7) - Target acceptance probability for step size tuningadaptation_rate(float, default:0.3) - Adaptation rate for step size controller
Output:
Posterior samples with equal weights
Effective sample size (ESS) statistics per tempering stage
When to Use:
EXPERIMENTAL - Not recommended for production use
High-dimensional posteriors where gradient information helps
When NUTS kernel stability can be verified
Warning: This sampler is experimental. Use SMC Random Walk for production analyses.
Nested Sampling (BlackJAX NS-AW)#
BlackJAX nested sampling with acceptance walk for Bayesian evidence estimation and posterior sampling.
Nested Sampling (BlackJAX NS-AW) Configuration (type: “blackjax-ns-aw”)
sampler:
type: "blackjax-ns-aw" # Sampler type identifier
type: "blackjax-ns-aw" # Sampler type identifier
output_dir: "./outdir/" # Output directory for results
n_eos_samples: 10000 # Number of final posterior samples
log_prob_batch_size: 1000 # Batch size for log-probability evaluation
n_live: 1000 # Number of live points
n_delete_frac: 0.5 # Fraction of live points to delete per iteration
n_target: 60 # Target number of MCMC steps
max_mcmc: 5000 # Maximum MCMC steps per iteration
max_proposals: 1000 # Maximum proposals per live point update
termination_dlogz: 0.1 # Termination criterion (log evidence uncertainty)
Field Details:
n_live(int, default:1000) - Number of live points for nested samplingn_delete_frac(float, default:0.5) - Fraction of live points to delete per iterationn_target(int, default:60) - Target number of MCMC steps for acceptance walkmax_mcmc(int, default:5000) - Maximum MCMC steps per iterationmax_proposals(int, default:1000) - Maximum proposal attempts per live point updatetermination_dlogz(float, default:0.1) - Terminate when log-evidence uncertainty < this value
Output:
Log-evidence (logZ) with uncertainty estimate
Posterior samples with importance weights
When to Use:
Model comparison requiring Bayesian evidence
Exploring multi-modal posteriors
When evidence estimation is primary goal
Data Paths (Optional)#
Override default data file locations for likelihoods.
Data Path Overrides
data_paths:
# NICER data files
nicer_j0030_amsterdam: "./data/NICER/J0030/amsterdam.txt"
nicer_j0030_maryland: "./data/NICER/J0030/maryland.txt"
nicer_j0740_amsterdam: "./data/NICER/J0740/amsterdam.dat"
nicer_j0740_maryland: "./data/NICER/J0740/maryland.txt"
# ChiEFT uncertainty bands
chieft_low: "./data/chieft/low_density.txt"
chieft_high: "./data/chieft/high_density.txt"
# Gravitational wave normalizing flow models
gw170817_model: "./NFs/GW170817/model.eqx"
# REX posteriors
prex_posterior: "./data/REX/PREX_posterior.npz"
crex_posterior: "./data/REX/CREX_posterior.npz"
Description:
The data_paths section allows overriding default data file locations. If omitted, JESTER uses built-in default paths from the package installation.
Postprocessing#
Configure automatic plot generation and posterior analysis after inference completes.
Postprocessing Configuration
postprocessing:
enabled: true # Enable postprocessing
make_cornerplot: true # Generate corner plot of posterior
make_massradius: true # Generate M-R diagram
make_masslambda: true # Generate M-Λ diagram
make_pressuredensity: true # Generate P-ε diagram
make_histograms: true # Generate 1D posterior histograms
make_cs2: true # Generate speed-of-sound plot
prior_dir: null # Optional: directory with prior samples
injection_eos_path: null # Optional: path to true EOS for injection studies
Field Details:
enabled(bool, default:true) - Enable/disable all postprocessingmake_cornerplot(bool, default:true) - Generate corner plot of EOS parametersmake_massradius(bool, default:true) - Generate mass-radius diagram with posterior familiesmake_masslambda(bool, default:true) - Generate mass-tidal deformability diagrammake_pressuredensity(bool, default:true) - Generate pressure-energy density relationmake_histograms(bool, default:true) - Generate 1D marginalized posterior histogramsmake_cs2(bool, default:true) - Generate speed-of-sound as function of densityprior_dir(str | None, default:null) - Directory containing prior samples for comparisoninjection_eos_path(str | None, default:null) - Path to true EOS for injection studies
Complete Examples#
Minimal Configuration (Prior-Only)#
Sample from the prior distribution without observational constraints.
Minimal Configuration (Prior-Only)
seed: 43
eos:
type: "metamodel"
tov:
type: "gr"
prior:
specification_file: "prior.prior"
likelihoods:
- type: "zero"
enabled: true
sampler:
type: "smc-rw"
n_particles: 5000
output_dir: "./outdir/"
Multi-Messenger Configuration#
Combine gravitational wave, X-ray, radio, and nuclear theory constraints.
Multi-Messenger Configuration
seed: 43
eos:
type: "metamodel_cse"
nb_CSE: 8
ndat_metamodel: 100
nmax_nsat: 25.0
tov:
type: "gr"
min_nsat_TOV: 0.75
ndat_TOV: 100
nb_masses: 100
prior:
specification_file: "prior.prior"
likelihoods:
- type: "gw"
enabled: true
parameters:
event_name: "GW170817"
- type: "nicer"
enabled: true
parameters:
targets: ["J0030", "J0740"]
analysis_groups: ["amsterdam", "maryland"]
- type: "radio"
enabled: true
parameters:
psr_name: "J0740+6620"
mass_mean: 2.08
mass_std: 0.07
- type: "chieft"
enabled: true
sampler:
type: "smc-rw"
n_particles: 10000
n_mcmc_steps: 1
target_ess: 0.9
output_dir: "./outdir/"
postprocessing:
enabled: true
make_cornerplot: true
make_massradius: true
Spectral Parametrization (LALSuite-Compatible)#
Configuration using spectral decomposition for GW analysis workflows.
Spectral Parametrization (LALSuite-Compatible)
seed: 43
eos:
type: "spectral"
crust_name: "SLy" # Required for spectral
n_points_high: 500
tov:
type: "gr"
min_nsat_TOV: 0.75
ndat_TOV: 100
nb_masses: 100
prior:
specification_file: "spectral_prior.prior"
likelihoods:
- type: "gw"
enabled: true
parameters:
event_name: "GW170817"
- type: "constraints_gamma" # Recommended for spectral
enabled: true
sampler:
type: "flowmc"
n_chains: 20
n_loop_training: 3
n_loop_production: 5
output_dir: "./outdir/"
Validation Rules#
The configuration is validated using Pydantic. Common validation errors:
Validation Rules Details
EOS Type Consistency:
type: "metamodel"requiresnb_CSE: 0(or omit the field entirely)type: "metamodel_cse"requiresnb_CSE > 0type: "spectral"requires:crust_name: "SLy"(LALSuite compatibility)
nb_CSE: 0(or omit the field)
Recommended: Include
constraints_gammalikelihood
TOV Configuration:
typemust be"gr"or"anisotropy";"scalar_tensor"is planned but not yet availablemin_nsat_TOV,ndat_TOV, andnb_massesmust be positive
Prior File:
specification_filemust end with.priorextension
Likelihood Requirements:
At least one likelihood must have
enabled: true
Positive Value Constraints:
n_chains,n_loop_training,n_loop_productionmust be > 0learning_ratemust be in range (0, 1]n_particles,n_livemust be > 0
Crust Models:
crust_namemust be one of:"DH","BPS","DH_fixed", or"SLy"Spectral EOS specifically requires
"SLy"
Document Status: Auto-generated
Source: jesterTOV/inference/config/schema.py
Generator: jesterTOV/inference/config/generate_yaml_reference.py
To regenerate this reference after modifying schema.py:
uv run python -m jesterTOV.inference.config.generate_yaml_reference