Colossus1.1.4.2 package

"Risk Model Regression and Analysis with Complex Non-Linear Models"

Check_Dupe_Columns

checks for duplicated column names

Check_Trunc

Applies time duration truncation limits to create columns for Cox mode...

Check_Verbose

General purpose verbosity check

Correct_Formula_Order

Corrects the order of terms/formula/etc

Cox_Relative_Risk

Calculates hazard ratios for a reference vector

Date_Shift

Automates creating a date difference column

Def_Control_Guess

Automatically assigns missing guessing control values

Def_Control

Automatically assigns missing control values

Def_model_control

Automatically assigns missing model control values

Def_modelform_fix

Automatically assigns geometric-mixture values and checks that a valid...

factorize_par

Splits a parameter into factors in parallel

factorize

Splits a parameter into factors

Gather_Guesses_CPP

Performs checks to gather a list of guesses and iterations

gcc_version

Checks default c++ compiler

gen_time_dep

Applies time dependence to parameters

get_os

Checks system OS

GetCensWeight

Calculates and returns data for time by hazard and survival to estimat...

interact_them

Defines Interactions

Joint_Multiple_Events

Automates creating data for a joint competing risks analysis

Likelihood_Ratio_Test

Defines the likelihood ratio test

Linked_Dose_Formula

Calculates Full Parameter list for Special Dose Formula

Linked_Lin_Exp_Para

Calculates The Additional Parameter For a linear-exponential formula w...

OMP_Check

Checks the OMP flag

Rcomp_version

Checks how R was compiled

Rcpp_version

Checks default R c++ compiler

Replace_Missing

Automatically assigns missing values in listed columns

RunCoxNull

Performs basic Cox Proportional Hazards regression with the null model

RunCoxPlots

Performs Cox Proportional Hazard model plots

RunCoxRegression_Basic

Performs basic Cox Proportional Hazards regression with a multiplicati...

RunCoxRegression_CR

Performs basic Cox Proportional Hazards regression with competing risk...

RunCoxRegression_Guesses_CPP

Performs basic Cox Proportional Hazards regression, Generates multiple...

RunCoxRegression_Omnibus_Multidose

Performs Cox Proportional Hazards regression using the omnibus functio...

RunCoxRegression_Omnibus

Performs Cox Proportional Hazards regression using the omnibus functio...

RunCoxRegression_Single

Performs basic Cox Proportional Hazards calculation with no derivative

RunCoxRegression_STRATA

Performs basic Cox Proportional Hazards regression with strata effect

RunCoxRegression_Tier_Guesses

Performs basic cox regression, with multiple guesses, starts with solv...

RunCoxRegression

Performs basic Cox Proportional Hazards regression without special opt...

RunPoissonEventAssignment_bound

Predicts how many events are due to baseline vs excess at the confiden...

RunPoissonEventAssignment

Predicts how many events are due to baseline vs excess

RunPoissonRegression_Guesses_CPP

Performs basic Poisson regression, generates multiple starting guesses...

RunPoissonRegression_Joint_Omnibus

Performs joint Poisson regression using the omnibus function

RunPoissonRegression_Omnibus

Performs basic Poisson regression using the omnibus function

RunPoissonRegression_Residual

Calculates poisson residuals

RunPoissonRegression_Single

Performs poisson regression with no derivative calculations

RunPoissonRegression_STRATA

Performs poisson regression with strata effect

RunPoissonRegression_Tier_Guesses

Performs basic poisson regression, with multiple guesses, starts with ...

RunPoissonRegression

Performs basic poisson regression

System_Version

Checks OS, compilers, and OMP

Time_Since

Automates creating a date since a reference column

Performs survival analysis using general non-linear models. Risk models can be the sum or product of terms. Each term is the product of exponential/linear functions of covariates. Additionally sub-terms can be defined as a sum of exponential, linear threshold, and step functions. Cox Proportional hazards <https://en.wikipedia.org/wiki/Proportional_hazards_model>, Poisson <https://en.wikipedia.org/wiki/Poisson_regression>, and Fine-Grey competing risks <https://www.publichealth.columbia.edu/research/population-health-methods/competing-risk-analysis> regression are supported. This work was sponsored by NASA Grant 80NSSC19M0161 through a subcontract from the National Council on Radiation Protection and Measurements (NCRP). The computing for this project was performed on the Beocat Research Cluster at Kansas State University, which is funded in part by NSF grants CNS-1006860, EPS-1006860, EPS-0919443, ACI-1440548, CHE-1726332, and NIH P20GM113109.

  • Maintainer: Eric Giunta
  • License: GPL (>= 3)
  • Last published: 2024-10-21