mitey0.2.0 package

Serial Interval and Case Reproduction Number Estimation

calculate_bootstrap_ci

Calculate Bootstrap Confidence Intervals for R Estimates

calculate_r_estimates

Calculate Reproduction Number Estimates

calculate_si_probability_matrix

Calculate Serial Interval Probability Matrix

calculate_truncation_correction

Calculate Right-Truncation Correction Factors

conv_tri_dist

Convolution of the triangular distribution with the mixture component ...

create_day_diff_matrix

Create Day Difference Matrix

f_gam

Calculate serial interval mixture density assuming underlying gamma di...

f_norm

Calculate serial interval mixture density assuming underlying normal d...

f0

Calculate f0 for Different Components

flower

Calculate flower for Different Components

fupper

Calculate fupper for Different Components

generate_case_bootstrap

Generate Bootstrap Sample of Case Incidence

generate_synthetic_epidemic

Generate Synthetic Epidemic Data Using the Renewal Equation

integrate_component

Integrate Serial Interval Component Functions for Likelihood Calculati...

integrate_components_wrapper

Compute Serial Interval Component Integrals for All Transmission Route...

mitey-package

mitey: Serial Interval and Case Reproduction Number Estimation

plot_si_fit

Visualize Serial Interval Distribution Fit to Outbreak Data

si_estim

Estimate Serial Interval Distribution Using the Vink Method

smooth_estimates

Apply Moving Average Smoothing to R Estimates

wallinga_lipsitch

Estimate Time-Varying Case Reproduction Number Using Wallinga-Lipsitch...

weighted_var

Calculate Sample Weighted Variance

wt_loglik

Calculate Weighted Negative Log-Likelihood for Gamma Distribution Para...

Provides methods to estimate serial intervals and time-varying case reproduction numbers from infectious disease outbreak data. Serial intervals measure the time between symptom onset in linked transmission pairs, while case reproduction numbers quantify how many secondary cases each infected individual generates over time. These parameters are essential for understanding transmission dynamics, evaluating control measures, and informing public health responses. The package implements the maximum likelihood framework from Vink et al. (2014) <doi:10.1093/aje/kwu209> for serial interval estimation and the retrospective method from Wallinga & Lipsitch (2007) <doi:10.1098/rspb.2006.3754> for reproduction number estimation. Originally developed for scabies transmission analysis but applicable to other infectious diseases including influenza, COVID-19, and emerging pathogens. Designed for epidemiologists, public health researchers, and infectious disease modelers working with outbreak surveillance data.

  • Maintainer: Kylie Ainslie
  • License: EUPL-1.2
  • Last published: 2025-09-02