use reservoirs::prelude::*; /// Produces a csv file of model fit to observed deposit ages. fn main() { // Load charcoal age data. // Change directory path for user, panics on invalid path let dep = Sample::read("data/dep.csv").unwrap(); // Mean charcoal ages of deposits. let fg: Vec = dep .iter() .filter(|x| x.facies == "FG") .map(|x| x.age + 50.0) .collect(); // Mean gravel deposit ages. let _df = dep .iter() .filter(|x| x.facies == "DF") .map(|x| x.age + 50.0) .collect::>(); // Mean gravel deposit ages. // Set model parameters. let model = ModelManager::new() .index(0..20000) // Range of years to fit transit time probabilities. .obs(&fg) // Observations to fit. .obs_len(&fg) // Number of samples to collect from source. .period(40000.0) // Time period of individual simulations in years. .range(1017) // Seed for rng for reproducibility. .runs(100000); // Number of times to run the model per sampling point. // Reservoir for gravel deposits. let fluvial = Fluvial::new() // .source(df) .source_from_csv("data/debris_flow_transits_kp.csv") .unwrap() // Set source as debris-flow deposits. .capture_rate_gravels(0.08333428) .storage_rate_gravels(0.01669015) .turnover(&191.0) .manager(&model.clone()); // Load model parameters. let mut rec = fluvial.cherry_pick(); utils::record(&mut rec, "/home/erik/output/stereotype_gravels_kp_1000.csv").unwrap(); }