Package index
-
xds_setup()
- Build a Model and Configure All Components
-
xds_setup_mosy()
- Build a Model of Mosquito Ecology
-
xds_setup_aquatic()
- Build a Model of Immature Mosquito Ecology
-
xds_setup_human()
- Build a Model of Human / Host Epidemiology
-
xds_setup_cohort()
- Build a Model of Human / Host Cohort Dynamics
-
xds_setup_eir()
- Build a Model for a single Human / Host Epidemiology forced by the EIR
-
make_xds_object_template()
- Make an
xds
model object template
-
setup_XH_obj()
- Setup an XH Module (Human / Host Epidemiology & Demography)
-
setup_XH_inits()
- Setup Initial Values for XH Modules
-
setup_MY_obj()
- Setup an MY Model Object
-
setup_MY_inits()
- A function to set up adult mosquito models
-
setup_L_obj()
- Set up
L_obj
for L Component modules
-
setup_L_inits()
- Setup Initial Values for the L Component
-
setup_XY_interface()
- Setup the Blood Feeding Interface
-
setup_ML_interface()
- Setup the Habitat Interface for Egg Laying and Emergence
XH Modules (Human / Host)
Modules for human/host demography and epidemiology. (Also see ramp.library.)
-
make_XH_obj_trivial()
- Make parameters for trivial human model
-
dXHdt(<SIS>)
- Derivatives function for the
SIS
model (XH* Model)
-
dXHdt(<hMoI>)
- Compute Derivatives for the
hMoI
(X Model)
MY Modules (Adult Mosquitoes)
Modules for adult mosquito ecology and infection dynamics. (Also see ramp.library.)
-
make_MY_obj_trivial()
- Make parameters for trivial aquatic mosquito model
-
dMYdt(<macdonald>)
- Compute derivatives for the MY module
macdonald
-
dMYdt(<SI>)
- Compute Derivatives for MY module
SI
-
dMYdt(<GeRM>)
- Compute Derivatives for MY module
GeRM
-
dMYdt(<basicM>)
- Compute Derivatives for M module
basicM
L Modules (Immature Mosquitoes)
Modules for aquatic mosquito ecology. (Also see ramp.library.)
-
make_L_obj_trivial()
- Make
L_obj
fortrivial
(L Component)
-
dLdt(<basicL>)
- Compute Derivatives for L module
basicL
-
setup_exposure()
- Set Up Exposure
-
setup_travel_object()
- Setup the Travel Object
-
change_K_matrix()
- Change Mosquito Dispersal Matrix
-
change_TimeSpent_matrix()
- Set up (or change) a Time Spent matrix
-
add_variable()
- Add Variable
-
xds_solve()
- Solve a Dynamical System
-
burnin()
- Burn In
-
xds_steady()
- Solve for the steady state of a system of equations using rootSolve::steady
-
xds_stable_orbit()
- Solve for the steady state of a system of equations using rootSolve::steady
-
steady_state_X()
- Steady States for X
-
steady_state_XH()
- Steady States for XH
-
steady_state_M()
- Compute steady states for M
-
steady_state_MY()
- Compute steady states for MY
-
steady_state_Y()
- Compute steady states for Y
-
steady_state_L()
- Compute steady states for L Component Modules
-
xds_plot_PR()
- Plot the prevalence / parasite rate (PR) from a model of human infection and immunity
-
xds_lines_PR()
- Add lines for the prevalence / parasite rate (PR) from a model of human infection and immunity
-
xds_plot_EIR()
- Plot the EIR vs. time
-
xds_plot_aEIR()
- Plot the annualized EIR vs. time
-
xds_lines_EIR()
- Add lines for the EIR vs. time
-
xds_plot_M()
- Plot adult mosquito population density
-
xds_lines_M()
- Add lines for adult mosquito population density
-
xds_plot_Y()
- Plot the density of infected and infective mosquitoes
-
xds_lines_Y()
- Add lines for the density of infected and infective mosquitoes
-
xds_plot_Z()
- Plot the density of infected and infective mosquitoes
-
xds_lines_Z()
- Add lines for the density of infected and infective mosquitoes
-
xds_plot_Y_fracs()
- Plot the fraction of infected and infective mosquitoes
-
xds_lines_Y_fracs()
- Add lines for the fraction of infected and infective mosquitoes
-
xds_plot_Z_fracs()
- Plot the fraction infective
-
xds_lines_Z_fracs()
- Add lines for the fraction of infected and infective mosquitoes
-
get_XH_pars()
- Return the parameters as a list
-
get_MY_pars()
- Return the parameters as a list
-
get_L_pars()
- Get parameters for the L Component module
-
get_mean_forcing()
- Get mean forcing
-
get_season()
- Get the Seasonal Pattern
-
get_trend()
- Get the trend parameters
-
get_TimeSpent_matrix()
- Get the Time Spent Matrix
-
get_K_matrix()
- Get the Mosquito Dispersal Matrix
-
change_XH_pars()
- Set new X parameter values
-
change_MY_pars()
- Set new MY parameter values
-
change_L_pars()
- Set L Component Parameters
-
change_H()
- Change human population density
-
set_mean_forcing()
- Set mean forcing
-
set_season()
- Get seasonal pattern
-
set_trend()
- Set the interpolating points
-
change_TimeSpent_matrix()
- Set up (or change) a Time Spent matrix
-
change_K_matrix()
- Change Mosquito Dispersal Matrix
-
show_season()
- Plot the seasonal pattern
-
show_trend()
- Plot the temporal trend
-
setup_XY_interface()
- Setup the Blood Feeding Interface
-
check_XY_interface()
- Check the XY Interface
-
make_residency_matrix()
- Create the Residency Matrix
-
view_residency_matrix()
- View residence membership
-
blood_feeding_dynamics()
- Compute blood feeding objects dynamically
-
change_blood_search_weights()
- Change Blood Search Weights
-
F_W_available()
- Compute Host available for Blood Feeding
-
F_B_available()
- Compute Vertebrate Host available for Blood Feeding
-
compute_WB()
- Compute available blood hosts of the i^th species
-
compute_RBR()
- Compute and attach the relative biting rates
-
F_rbr()
- Compute relative biting rates
-
compute_TaR()
- Make TaR
-
F_TaR()
- Compute blood feeding available of all vertebrate hosts
-
BloodFeeding()
- Blood feeding
-
BloodFeeding(<static>)
- Compute blood feeding objects: static models
-
BloodFeeding(<dynamic>)
- Compute blood feeding objects dynamically
-
BloodFeeding(<setup>)
- Compute blood feeding objects: setup for static models
-
setup_transmission()
- Setup the interface for parasite / pathogen transmission
-
transmission_dynamics()
- Compute transmission, the dynamic case
-
compute_beta()
- Compute beta
-
F_beta()
- Compute beta, the biting distribution matrix
-
compute_EIR()
- Compute EIR
-
compute_EIR_full()
- Compute EIR for each vector-host pair
-
F_eir()
- Compute the daily Entomological Inoculation Rate (EIR)
-
compute_kappa()
- Compute kappa
-
F_kappa()
- Net infectiousness of human population to mosquitoes
-
compute_local_frac()
- Compute the local fraction
-
F_local_frac()
- Compute the local fraction
-
Transmission()
- Compute the mixing matrix and transmission terms
-
Transmission(<static>)
- Compute transmission terms with a static mixing matrix
-
Transmission(<dynamic>)
- Compute transmission, the dynamic case
-
Transmission(<setup>)
- Compute transmission, the static case
-
change_TimeSpent_matrix()
- Set up (or change) a Time Spent matrix
-
get_TimeSpent_matrix()
- Get the Time Spent Matrix
-
setup_TimeSpent()
- Make a time spent matrix, called TimeSpent
-
setup_TimeSpent(<as_matrix>)
- Pass a pre-configured TimeSpent
-
setup_TimeSpent(<athome>)
- Make a mosquito dispersal matrix, called TimeSpent with a here / away
-
make_TimeSpent_athome()
- Make a mosquito dispersal matrix, called TimeSpent
-
setup_TimeSpent(<xy>)
- Develop a mosquito dispersal matrix from a kernel and xy-coordinates
-
make_TimeSpent_xy()
- Make a mosquito dispersal matrix, called TimeSpent
-
TimeSpent()
- time spent
-
TimeSpent(<setup>)
- Compute time spent objects: setup for static models
-
TimeSpent(<static>)
- Compute time spent objects: static models
-
setup_exposure()
- Set Up Exposure
-
Exposure()
- Compute Infection Rates
-
Exposure(<xde>)
- Compute the Force of Infection
-
Exposure(<dts>)
- Compute Attack Rates
-
F_foi()
- Compute the Local FoI
-
F_ar()
- Compute Local Attack Rates
-
foi2eir()
- Convert FoI to EIR
-
ar2eir()
- Convert AR to EIR
-
setup_exposure(<pois>)
- Set up a Poisson model for Exposure and Infection
-
make_exposure_pois()
- Make a Poisson Exposure Model Object
-
F_foi(<pois>)
- Poisson Force of Infection
-
F_ar(<pois>)
- Poisson Attack Rates
-
foi2eir(<pois>)
- Convert FoI to EIR under a Poisson model for Exposure
-
ar2eir(<pois>)
- Convert AR to EIR under a Poisson model for Exposure
-
setup_exposure(<nb>)
- Set up a nbson model for Exposure and Infection
-
make_exposure_nb()
- Make a nbson Exposure Model Object
-
F_foi(<nb>)
- Negative Binomial Exposure
-
F_ar(<nb>)
- Negative Binomial Attack Rates
-
foi2eir(<nb>)
- A negative binomial model for the daily FoI as a function of the daily EIR.
-
ar2eir(<nb>)
- A negative binomial model for the daily EIR. as a function of the daily attack rate
-
setup_ML_interface()
- Setup the Habitat Interface for Egg Laying and Emergence
-
check_ML_interface()
- Check the ML Interface
-
view_habitat_matrix()
- View habitat membership, \(N\)
-
make_habitat_matrix()
- Create the habitat membership matrix, \(N\)
-
Emergence()
- Compute emerging adults
-
EggLaying()
- Compute eggs laid
-
setup_habitat_object()
- Setup the Habitats Object
-
change_habitat_weights()
- Change Habitat Search Weights
-
change_bad_habitat()
- Change Habitat Search Weights
-
habitat_dynamics()
- Habitats Dynamics
-
HabitatDynamics()
- Habitat Dynamics
-
HabitatDynamics(<setup>)
- Habitat Dynamics
-
HabitatDynamics(<static>)
- Habitat Dynamics
-
HabitatDynamics(<dynamic>)
- Habitat Dynamics
-
setup_F_habitat_weights()
- Set up no habitats
-
setup_F_habitat_weights(<static>)
- Setup Bad Habitat Availability
-
setup_F_habitat_weights(<ts_func>)
- Setup Bad Habitat Availability
-
setup_F_bad_habitat()
- Set up no habitats
-
setup_F_bad_habitat(<static>)
- Setup Bad Habitat Availability
-
setup_F_bad_habitat(<ts_func>)
- Set up no habitats
-
egg_laying_dynamics()
- Compute eggs laid
-
compute_eggs_laid()
- Compute eggs laid
-
F_eta()
- Eggs Laying in Habitats
-
compute_Qall()
- Compute and store availability of egg-laying habitats
-
F_Q()
- Compute Habitat Availability
-
F_Qall()
- Compute Available Laying Sites, \(O\)
-
compute_O_matrix()
- Compute the Egg Laying Matrix
-
make_O_matrix()
- Compute the Laying Matrix
-
EggLaying()
- Compute eggs laid
-
EggLaying(<setup>)
- Compute eggs laid, the first time
-
EggLaying(<static>)
- Compute eggs laid
-
EggLaying(<dynamic>)
- Compute eggs laid
Human / Host Component
Generic methods for models of human/host infection dynamics - immunity - disease and transmission
-
skill_set_XH()
- The XH Module Skill Set
-
check_XH()
- Check / update before solving
-
dXHdt()
- Compute XH Component Derivatives
-
Update_XHt()
- Update X states for a discrete time system
-
setup_XH_obj()
- Setup an XH Module (Human / Host Epidemiology & Demography)
-
setup_XH_inits()
- Setup Initial Values for XH Modules
-
setup_XH_ix()
- Add indices for human population to parameter list
-
get_XH_vars()
- Get Variables by Name
-
get_XH_pars()
- Return the parameters as a list
-
change_XH_pars()
- Set new X parameter values
-
F_X()
- Size of effective infectious human population
-
F_H()
- Size of human population denominators
-
F_infectivity()
- Infection blocking pre-erythrocytic immunity
-
parse_XH_orbits()
- Parse XH Outputs
-
get_XH_inits()
- A function to set up XH_obj
-
change_XH_inits()
- Set new X parameter values
-
HTC()
- Compute the human transmitting capacity
-
F_prevalence()
- Compute the true prevalence of infection / parasite rate
-
F_ni()
- Compute Net Infectiousness (NI)
-
F_pfpr_by_lm()
- Compute the prevalence of infection by light microscopy
-
F_pfpr_by_rdt()
- Compute the prevalence of infection by RDT
-
F_pfpr_by_pcr()
- Compute infection prevalence by PCR
-
xds_plot_X()
- Basic plotting for epidemiological models
-
steady_state_X()
- Steady States for X
-
steady_state_XH()
- Steady States for XH
-
skill_set_XH(<trivial>)
- The XH Module Skill Set
-
check_XH(<trivial>)
- Check / update before solving
-
F_X(<trivial>)
- Size of effective infectious human population
-
F_H(<trivial>)
- Size of the human population
-
F_ni(<trivial>)
- Compute the NI
-
F_prevalence(<trivial>)
- Compute the "true" prevalence of infection / parasite rate
-
F_pfpr_by_lm(<trivial>)
- Compute the prevalence of infection by light microscopy
-
F_pfpr_by_rdt(<trivial>)
- Compute the prevalence of infection by RDT
-
F_pfpr_by_pcr(<trivial>)
- Compute the prevalence of infection by PCR
-
F_infectivity(<trivial>)
- Infection blocking pre-erythrocytic immunity
-
dXHdt(<trivial>)
- Handle Derivatives for the
trivial
X-Module
-
Update_XHt(<trivial>)
- Handle State Updating for the
trivial
X-Module
-
setup_XH_obj(<trivial>)
- xde_setup XH_obj.trivial
-
make_XH_obj_trivial()
- Make parameters for trivial human model
-
setup_XH_inits(<trivial>)
- Setup Xinits.trivial
-
setup_XH_ix(<trivial>)
- Add indices for human population to parameter list
-
parse_XH_orbits(<trivial>)
- parse the output of deSolve and return variables for the trivial model
-
get_XH_pars(<trivial>)
- Return the parameters as a list
-
change_XH_pars(<trivial>)
- Return the parameters as a list
-
skill_set_XH(<hMoI>)
- The XH Module Skill Set
-
dXHdt(<hMoI>)
- Compute Derivatives for the
hMoI
(X Model)
-
setup_XH_obj(<hMoI>)
- Setup XH_obj.hMoI
-
make_XH_obj_hMoI()
- Make parameters for hybrid MoI human model
-
steady_state_X(<hMoI>)
- Compute Steady States for
hMoI
(X-Model)
-
setup_XH_inits(<hMoI>)
- Setup Xinits.hMoI
-
make_XH_inits_hMoI()
- Make inits for hybrid MoI human model
-
setup_XH_ix(<hMoI>)
- Add indices for human population to parameter list
-
F_X(<hMoI>)
- Size of effective infectious human population
-
F_H(<hMoI>)
- Size of the human population
-
F_infectivity(<hMoI>)
- Infection blocking pre-erythrocytic immunity
-
F_prevalence(<hMoI>)
- Compute the "true" prevalence of infection / parasite rate
-
F_ni(<hMoI>)
- Compute the "true" nievalence of infection / parasite rate
-
F_pfpr_by_lm(<hMoI>)
- Compute the prevalence of infection by light microscopy
-
F_pfpr_by_rdt(<hMoI>)
- Compute the prevalence of infection by RDT
-
F_pfpr_by_pcr(<hMoI>)
- Compute the prevalence of infection by PCR
-
parse_XH_orbits(<hMoI>)
- parse the output of deSolve and return variables for the hMoI model
-
change_XH_inits(<hMoI>)
- Return the parameters as a list
-
get_XH_pars(<hMoI>)
- Return the parameters as a list
-
change_XH_pars(<hMoI>)
- Return the parameters as a list
-
HTC(<hMoI>)
- Compute the HTC for the hMoI model
-
check_XH(<hMoI>)
- Check / update before solving
-
get_XH_vars(<hMoI>)
- Get Variables by Name
-
skill_set_XH(<SIS>)
- The XH Module Skill Set
-
check_XH(<SIS>)
- Check / update before solving
-
dXHdt(<SIS>)
- Derivatives function for the
SIS
model (XH* Model)
-
setup_XH_obj(<SIS>)
- Setup
SIS
(XH component)
-
make_XH_obj_SIS()
- Make an SIS XH model object
-
setup_XH_inits(<SIS>)
- Setup initial values for SIS
-
make_XH_inits_SIS()
- Make initial values for the SIS xde human model, with defaults
-
setup_XH_ix(<SIS>)
- Add indices for human population to parameter list
-
get_XH_vars(<SIS>)
- Get Variables by Name
-
get_XH_pars(<SIS>)
- Get SIS model parameters
-
change_XH_pars(<SIS>)
- Set new values for the SIS model
-
F_X(<SIS>)
- Compute Infectious Density
-
F_H(<SIS>)
- Compute Population Density
-
F_infectivity(<SIS>)
- Compute Infectivity
-
parse_XH_orbits(<SIS>)
- parse the output of deSolve and return variables for the SIS model
-
change_XH_inits(<SIS>)
- Return the parameters as a list
-
HTC(<SIS>)
- Compute the HTC for the SIS model
-
F_prevalence(<SIS>)
- Compute the prevalence of infection
-
F_ni(<SIS>)
- Compute the net infectiousness
-
F_pfpr_by_lm(<SIS>)
- Compute PfPR by light microscopy
-
F_pfpr_by_rdt(<SIS>)
- Compute PfPR by RDT
-
F_pfpr_by_pcr(<SIS>)
- Compute PfPR by PCR
-
xds_plot_X(<SIS>)
- Plot the density of infected individuals for the SIS model
-
add_lines_X_SIS()
- Add lines for the density of infected individuals for the SIS model
-
steady_state_X(<SIS>)
- Compute the steady states for the SIS model as a function of the daily EIR
-
Births()
- Human (or Host) Population Birth Rate
-
Births(<zero>)
- Human (or Host) Population Birth Rate
-
skill_set_MY()
- The MY Module Skill Set
-
check_MY()
- Run a check before solving
-
dMYdt()
- Compute Derivatives for an Adult Mosquito Model
-
Update_MYt()
- Update States for a Adult Mosquito Model
-
F_fqZ()
- Blood feeding rate of the infective mosquito population
-
F_fqM()
- Blood feeding rate of the mosquito population
-
F_eggs()
- Number of eggs laid by adult mosquitoes
-
MBaseline()
- Adult Mosquito Bionomics - Baseline
-
MBionomics()
- Adult Mosquito Bionomics - Modified by Control
-
setup_MY_obj()
- Setup an MY Model Object
-
get_MY_vars()
- Return the variables as a list
-
get_MY_pars()
- Return the parameters as a list
-
change_MY_pars()
- Set new MY parameter values
-
setup_MY_inits()
- A function to set up adult mosquito models
-
get_MY_inits()
- Return initial values as a vector
-
change_MY_inits()
- Set new MY parameter values
-
setup_MY_ix()
- Add indices for adult mosquitoes to parameter list
-
get_MY_ix()
- Get MY Variable Indices
-
parse_MY_orbits()
- parse the outputs and return the variables by name in a list
-
steady_state_MY()
- Compute steady states for MY
-
steady_state_Y()
- Compute steady states for Y
-
steady_state_M()
- Compute steady states for M
-
get_M()
- Get mosquito population density
-
get_Z()
- Get the density of infectious, blood feeding mosquitoes
-
xds_plot_M()
- Plot adult mosquito population density
-
xds_lines_M()
- Add lines for adult mosquito population density
-
xds_plot_Y()
- Plot the density of infected and infective mosquitoes
-
xds_lines_Y()
- Add lines for the density of infected and infective mosquitoes
-
xds_plot_Z()
- Plot the density of infected and infective mosquitoes
-
xds_lines_Z()
- Add lines for the density of infected and infective mosquitoes
-
xds_plot_Y_fracs()
- Plot the fraction of infected and infective mosquitoes
-
xds_lines_Y_fracs()
- Add lines for the fraction of infected and infective mosquitoes
-
xds_plot_Z_fracs()
- Plot the fraction infective
-
xds_lines_Z_fracs()
- Add lines for the fraction of infected and infective mosquitoes
Mosquito Demography
Specialized methods for NULL dynamics: a funtion generates values of Z to force human infection dynamics
-
setup_Omega()
- Make the mosquito demography matrix
-
setup_Omega(<xde>)
- Make the mosquito demography matrix
-
setup_Omega(<dts>)
- Make the mosquito demography matrix
-
make_Omega()
- Make the mosquito demography matrix for spatial RM model in continuous time
-
make_Omega(<xde>)
- Make the mosquito demography matrix for spatial RM model in continuous time
-
make_Omega_xde()
- Make the mosquito demography matrix for spatial RM model in continuous time
-
make_Omega(<dts>)
- Make the mosquito demography matrix for spatial RM model in continuous time
-
make_Omega_dts()
- Make the mosquito demography matrix for spatial RM model in discrete time
-
make_Upsilon()
- Make the mosquito demography matrix for spatial RM model in continuous time
-
make_Upsilon(<xde>)
- Make the mosquito demography matrix for spatial RM model in continuous time
-
get_Omega()
- Make the mosquito demography matrix
-
get_Upsilon()
- Make the mosquito demography matrix
-
setup_eip_obj()
- Setup an EIP Bionomic Object
-
F_eip()
- Compute the EIP
-
F_eip(<static>)
- Static model patch emigration
-
skill_set_MY(<trivial>)
- The trivial Module Skill Set
-
check_MY(<trivial>)
- Run a check before solving
-
F_fqZ(<trivial>)
- Blood feeding rate of the infective mosquito population
-
F_fqM(<trivial>)
- Blood feeding rate of the infective mosquito population
-
F_eggs(<trivial>)
- Number of eggs laid by adult mosquitoes
-
dMYdt(<trivial>)
- Handle derivatives for the
trivial
MY module
-
Update_MYt(<trivial>)
- Handle state updates for the
trivial
MY module
-
MBaseline(<trivial>)
- Macdonald-style adult mosquito bionomics
-
MBionomics(<trivial>)
- Macdonald-style adult mosquito bionomics
-
setup_MY_obj(<trivial>)
- Setup the trivial model for an adult mosquito model
-
get_MY_pars(<trivial>)
- Return the parameters as a list
-
change_MY_pars(<trivial>)
- Return the parameters as a list
-
change_MY_inits(<trivial>)
- Set new MY parameter values
-
make_MY_obj_trivial()
- Make parameters for trivial aquatic mosquito model
-
setup_MY_inits(<trivial>)
- Setup the trivial model
-
setup_MY_ix(<trivial>)
- Add indices for aquatic stage mosquitoes to parameter list
-
parse_MY_orbits(<trivial>)
- parse the output of deSolve and return variables for the trivial model
-
skill_set_MY(<basicM>)
- The MY Module Skill Set
-
check_MY(<basicM>)
- Run a check before solving
-
dMYdt(<basicM>)
- Compute Derivatives for M module
basicM
-
MBaseline(<basicM>)
- Set mosquito bionomics to baseline
-
MBionomics(<basicM>)
- Set mosquito bionomics to baseline
-
Update_MYt(<basicM>)
- Derivatives for adult mosquitoes
-
setup_MY_obj(<basicM>)
- Setup MY_obj for the basicM xde model
-
make_M_obj_basicM()
- Make parameters for GeRM ODE adult mosquito model
-
F_fqZ(<basicM>)
- The net blood feeding rate of the infective mosquito population in a patch
-
F_fqM(<basicM>)
- The net blood feeding rate of the mosquito population in a patch
-
F_eggs(<basicM>)
- Number of eggs laid by adult mosquitoes
-
setup_MY_inits(<basicM>)
- Setup the basicM model
-
make_MY_inits_basicM()
- Make inits for basicM adult mosquito model
-
setup_MY_ix(<basicM>)
- Add indices for adult mosquitoes to parameter list
-
get_MY_vars(<basicM>)
- Return the variables as a list
-
get_MY_pars(<basicM>)
- Return the parameters as a list
-
change_MY_pars(<basicM>)
- Return the parameters as a list
-
change_MY_inits(<basicM>)
- Set new MY parameter values
-
parse_MY_orbits(<basicM>)
- parse outputs for basicM
-
steady_state_M(<basicM_ode>)
- Compute the steady states as a function of the daily EIR
-
steady_state_M(<basicM_dts>)
- Compute the steady states as a function of the daily EIR
The “SI” model for infection
Specialized methods for simple infection dynamics for an adult mosquito population
-
skill_set_MY(<SI>)
- The SI Module Skill Set
-
check_MY(<SI>)
- Run a check before solving
-
dMYdt(<SI>)
- Compute Derivatives for MY module
SI
-
MBaseline(<SI>)
- Macdonald-style adult mosquito bionomics
-
MBionomics(<SI>)
- Macdonald-style adult mosquito bionomics
-
Update_MYt(<SI>)
- Derivatives for adult mosquitoes
-
setup_MY_obj(<SI>)
- Setup MY_obj for the SI model
-
make_MY_obj_SI()
- Make parameters for SI ODE adult mosquito model
-
F_fqZ(<SI>)
- Net Blood Feeding by Infectious Mosquitoes -
SI
Mosquito Model
-
F_fqM(<SI>)
- Compute Net Blood Feeding by Mosquitoes for
SI
-
F_eggs(<SI>)
- Compute Component Egg Laying Rates for
SI
-
get_MY_vars(<SI>)
- Return the variables as a list
-
get_MY_pars(<SI>)
- Return the parameters as a list
-
change_MY_pars(<SI>)
- Return the parameters as a list
-
change_MY_inits(<SI>)
- change initial values for the macdonald model
-
setup_MY_inits(<SI>)
- Setup initial values for the
SI
model
-
make_MY_inits_SI()
- Make inits for
SI
adult mosquito model
-
setup_MY_ix(<SI>)
- Add indices for adult mosquitoes to parameter list
-
parse_MY_orbits(<SI>)
- parse the output of deSolve and return variables for the
SI
model
-
get_f(<SI>)
- Get the feeding rate
-
get_q(<SI>)
- Get the feeding rate
-
get_g(<SI>)
- Get the feeding rate
-
get_sigma(<SI>)
- Get the feeding rate
-
steady_state_MY(<SI_ode>)
- Steady States: MY-SI
macdonald
Specialized methods for a Macdonald-style model of adult mosquito dynamics - modified slightly from a model published by Joan Aron & Robert May (1982).
-
skill_set_MY(<macdonald>)
- The macdonald Module Skill Set
-
check_MY(<macdonald>)
- Run a check before solving
-
dMYdt(<macdonald>)
- Compute derivatives for the MY module
macdonald
-
MBaseline(<macdonald>)
- macdonald-style adult mosquito bionomics
-
MBionomics(<macdonald>)
- macdonald-style adult mosquito bionomics
-
steady_state_MY(<macdonald>)
- Compute the steady states as a function of the daily EIR
-
setup_MY_obj(<macdonald>)
- Setup MY_obj for the macdonald model
-
make_MY_obj_macdonald()
- Make parameters for macdonald ODE adult mosquito model
-
get_MY_vars(<macdonald>)
- Return the variables as a list
-
get_MY_pars(<macdonald>)
- Return the parameters as a list
-
change_MY_pars(<macdonald>)
- Return the parameters as a list
-
change_MY_inits(<macdonald>)
- change initial values for the macdonald model
-
F_fqZ(<macdonald>)
- The net blood feeding rate of the infective mosquito population in a patch
-
F_fqM(<macdonald>)
- The net blood feeding rate of the infective mosquito population in a patch
-
F_eggs(<macdonald>)
- Number of eggs laid by adult mosquitoes
-
setup_MY_inits(<macdonald>)
- Setup initial values for the macdonald model
-
make_MY_inits_macdonald()
- Make inits for macdonald adult mosquito model
-
setup_MY_ix(<macdonald>)
- Add indices for adult mosquitoes to parameter list
-
parse_MY_orbits(<macdonald>)
- parse the output of deSolve and return variables for the macdonald model
-
get_f(<macdonald>)
- Get the feeding rate
-
get_q(<macdonald>)
- Get the feeding rate
-
get_g(<macdonald>)
- Get the feeding rate
-
get_sigma(<macdonald>)
- Get the feeding rate
GeRM
Specialized methods for a Ross-Macdonald-style model of adult mosquito dynamics - modified slightly from a model published by Joan Aron & Robert May (1982).
-
skill_set_MY(<GeRM>)
- The GeRM Module Skill Set
-
check_MY(<GeRM>)
- Run a check before solving
-
dMYdt(<GeRM>)
- Compute Derivatives for MY module
GeRM
-
MBaseline(<GeRM>)
- Set mosquito bionomics to baseline
-
MBionomics(<GeRM>)
- Set mosquito bionomics to baseline
-
Update_MYt(<GeRM>)
- Derivatives for adult mosquitoes
-
steady_state_MY(<GeRM>)
- Compute the steady states as a function of the daily EIR
-
setup_MY_obj(<GeRM>)
- Setup MY_obj for the GeRM model
-
make_MY_obj_GeRM()
- Make parameters for GeRM ODE adult mosquito model
-
get_MY_vars(<GeRM>)
- Return the variables as a list
-
get_MY_pars(<GeRM>)
- Return the parameters as a list
-
change_MY_pars(<GeRM>)
- Return the parameters as a list
-
change_MY_inits(<GeRM>)
- Set new MY parameter values
-
F_fqZ(<GeRM>)
- The net blood feeding rate of the infective mosquito population in a patch
-
F_fqM(<GeRM>)
- The net blood feeding rate of the infective mosquito population in a patch
-
F_eggs(<GeRM>)
- Number of eggs laid by adult mosquitoes
-
setup_MY_inits(<GeRM>)
- Setup initial values for the GeRM model
-
make_MY_inits_GeRM()
- Make inits for GeRM adult mosquito model
-
setup_MY_ix(<GeRM>)
- Add indices for adult mosquitoes to parameter list
-
parse_MY_orbits(<GeRM>)
- parse the output of deSolve and return variables for the GeRM model
-
get_f(<GeRM>)
- Get the feeding rate
-
get_q(<GeRM>)
- Get the feeding rate
-
get_g(<GeRM>)
- Get the feeding rate
-
get_sigma(<GeRM>)
- Get the feeding rate
RM-Mosquito in discrete-time
Specialized methods for a Ross-Macdonald-style model of adult mosquito dynamics - in discrete time.
-
skill_set_MY(<RMdts>)
- The RMdts Module Skill Set
-
check_MY(<RMdts>)
- Run a check before solving
-
F_fqZ(<RMdts>)
- The net blood feeding rate of the infective mosquito population in a patch
-
F_fqM(<RMdts>)
- The net blood feeding rate of the infective mosquito population in a patch
-
F_eggs(<RMdts>)
- Number of eggs laid by adult mosquitoes
-
Update_MYt(<RMdts>)
- Derivatives for adult mosquitoes
-
setup_MY_inits(<RMdts>)
- Setup initial values for the RMdts model
-
get_MY_vars(<RMdts>)
- Return the variables as a list
-
make_MY_inits_RMdts()
- Make inits for RMdts adult mosquito model
-
setup_MY_ix(<RMdts>)
- Add indices for adult mosquitoes to parameter list
-
parse_MY_orbits(<RMdts>)
- parse the output of deSolve and return variables for the RMdts model
-
skill_set_L()
- The L Module Skill Set
-
check_L()
- Run a check before solving
-
dLdt()
- Derivatives for an L Component Module
-
Update_Lt()
- Update State Variables for an L Component Module
-
F_emerge()
- Compute Emergent Adults
-
LBionomics()
- Bionomics for an L Component Module
-
LBaseline()
- Baseline Bionomics for an L Component Module
-
setup_L_obj()
- Set up
L_obj
for L Component modules
-
get_L_pars()
- Get parameters for the L Component module
-
change_L_pars()
- Set L Component Parameters
-
setup_L_inits()
- Setup Initial Values for the L Component
-
get_L_vars()
- List L Component Variables
-
change_L_inits()
- Set L Component Initial Values
-
get_L_inits()
- Get Initial Values for the L Component
-
setup_L_ix()
- Set the Values of the Indices for L Component Modules
-
parse_L_orbits()
- parse L Component Outputs
-
steady_state_L()
- Compute steady states for L Component Modules
-
skill_set_L(<trivial>)
- The L Module Skill Set
-
check_L(<trivial>)
- Run a check before solving
-
dLdt(<trivial>)
- Derivatives for the
trivial
L module
-
Update_Lt(<trivial>)
- Update State Variables for
trivial
(L Component)
-
F_emerge(<trivial>)
- Compute Emergent Adults for
trivial
(L Component)
-
LBionomics(<trivial>)
- Bionomics for
trivial
(L Component)
-
LBaseline(<trivial>)
- Baseline Bionomics for
trivial
(L Component)
-
setup_L_obj(<trivial>)
- Setup
L_obj
for thetrivial
module
-
make_L_obj_trivial()
- Make
L_obj
fortrivial
(L Component)
-
get_L_pars(<trivial>)
- Get L Component Parameters for
trivial
-
change_L_pars(<trivial>)
- Set L Component parameters for
trivial
-
setup_L_inits(<trivial>)
- Setup Initial Values for the L Component
trivial
Module
-
get_L_vars(<trivial>)
- List L Component Variables for
trivial
-
change_L_inits(<trivial>)
- Set the Initial Values for
trivial
(L Component)
-
setup_L_ix(<trivial>)
- Setup Variable Indices for
trivial
(L Component)
-
parse_L_orbits(<trivial>)
- parse L Component Variables for
basicL
-
skill_set_L(<basicL>)
- The L Module Skill Set
-
check_L(<basicL>)
- Run a check before solving
-
dLdt(<basicL>)
- Compute Derivatives for L module
basicL
-
Update_Lt(<basicL>)
- Update State Variables for
basicL
(L Component)
-
setup_L_obj(<basicL>)
- Setup
L_obj
forbasicL
(L Component)
-
make_L_obj_basicL()
- Make
L_obj
forbasicL
(L Component)
-
LBionomics(<basicL>)
- Bionomics for
basicL
(L Component)
-
LBaseline(<basicL>)
- Baseline Bionomics for
basicL
(L Component)
-
F_emerge(<basicL>)
- Compute Emergent Adults for
basicL
(L Component)
-
setup_L_inits(<basicL>)
- Setup Initial Values for
basicL
(L Component)
-
make_L_inits_basicL()
- Make Initial Values for
basicL
(L Component)
-
get_L_vars(<basicL>)
- List L Component Variables for
basicL
-
get_L_pars(<basicL>)
- Get L Component Parameters for
basicL
-
change_L_pars(<basicL>)
- Set L Component parameters for
basicL
-
change_L_inits(<basicL>)
- Set the Initial Values for
basicL
(L Component)
-
setup_L_ix(<basicL>)
- Setup Variable Indices for
basicL
(L Component)
-
parse_L_orbits(<basicL>)
- parse L Component Variables for
basicL
-
steady_state_L(<basicL_ode>)
- Compute the Steady State of
dLdt.basicL
(L Component)
-
setup_f_obj()
- Setup Blood Feeding Bionomic Object
-
F_feeding_rate()
- Compute the blood feeding rate, f
-
F_feeding_rate(<static>)
- Constant baseline blood feeding rate
-
setup_f_obj_B2()
- Setup Blood Feeding Bionomic Object
-
F_feeding_rate(<B2>)
- Type 2 functional response for the blood feeding rate
-
setup_q_obj()
- Setup a Human Fraction Bionomic Object
-
F_human_frac()
- Compute the blood qeeding rate, q
-
F_human_frac(<static>)
- Static model for the blood feeding rate
-
setup_g_obj()
- Setup a Mosquito Mortality Bionomic Object
-
F_mozy_mort()
- Compute the blood geeding rate, g
-
F_mozy_mort(<static>)
- Static model for the blood feeding rate
-
setup_sigma_obj()
- Setup a Patch Emigration Bionomic Object
-
F_emigrate()
- Compute the Mosquito Patch Emigration Rate
-
F_emigrate(<static>)
- Static model patch emigration
-
setup_sigma_obj_BQS()
- Setup Blood Feeding Bionomic Object
-
F_emigrate(<BQS>)
- Model for mosquito emigration based on resource availability
-
setup_mu_obj()
- Setup a Dispersal Loss Bionomic Object
-
F_dispersal_loss()
- Compute the emigration loss fraction
-
F_dispersal_loss(<static>)
- Static model for the blood feeding rate
-
setup_nu_obj()
- Setup Laying Rate Bionomic Object
-
F_batch_rate()
- Compute the Mosquito Patch Emigration Rate
-
F_batch_rate(<static>)
- Static model patch emigration
-
setup_nu_obj_Q2()
- Setup Blood Feeding Bionomic Object
-
F_batch_rate(<Q2>)
- Type 2 Functional Response for Egg Laying
-
setup_psi_obj()
- Setup a Human Fraction Bionomic Object
-
F_maturation()
- Compute the blood psieeding rate, psi
-
F_maturation(<static>)
- Static model for the blood feeding rate
-
setup_phi_obj()
- Setup a Human Fraction Bionomic Object
-
F_larval_mort()
- Compute the blood phieeding rate, phi
-
F_larval_mort(<static>)
- Static model for the blood feeding rate
-
setup_xi_obj()
- Setup a Human Fraction Bionomic Object
-
F_dlay_maturation()
- Compute the blood xieeding rate, xi
-
F_dlay_maturation(<static>)
- Static model for the blood feeding rate
-
setup_theta_obj()
- Setup a Human Fraction Bionomic Object
-
F_larval_dd_mort()
- Compute the blood thetaeeding rate, theta
-
F_larval_dd_mort(<static>)
- Static model for the blood feeding rate
-
setup_K_obj()
- Setup a Human Fraction Bionomic Object
-
change_K_matrix()
- Change Mosquito Dispersal Matrix
-
get_K_matrix()
- Get the Mosquito Dispersal Matrix
-
setup_K_matrix()
- Setup Mosquito Dispersal Matrix
-
setup_K_matrix(<as_matrix>)
- Setup a Here-There Dispersal Matrix
-
setup_K_matrix(<herethere>)
- Setup a Here-There Dispersal Matrix
-
make_K_matrix_herethere()
- Make a Here-There Dispersal Matrix
-
setup_K_matrix(<xy>)
- Setup a Kernel-Based Mosquito Dispersal Matrix
-
make_K_matrix_xy()
- make a Kernel-Based Mosquito Dispersal Matrix
-
F_K_matrix()
- Compute the blood feeding rate, f
-
F_K_matrix(<static>)
- Constant baseline blood feeding rate
-
add_variable()
- Add Variable
-
setup_other_variables()
- Set Up the first (null) other variable
-
dVdt()
- Compute Other Variables
-
dVdt(<setup>)
- Compute Other Variables
-
setup_V_ix(<setup>)
- Compute Other Variables
-
setup_V_obj()
- Setup an V Module (Human / Host Epidemiology & Demography)
-
get_V_vars()
- Get Variables by Name
-
setup_V_ix()
- Add indices for human population to parameter list
-
parse_V_orbits()
- Parse V Outputs
-
get_V_pars()
- Return the parameters as a list
-
get_V_ix()
- Add indices for human population to parameter list
-
change_V_pars()
- Set new X parameter values
-
setup_V_inits()
- Setup Initial Values for V Modules
-
get_V_inits()
- A function to set up V_obj
-
change_V_inits()
- Set new X parameter values
-
Forcing()
- Exogenous Forcing
-
Health()
- Set the values variables for health-based malaria control
-
VectorControl()
- Vector Control
-
Resources()
- Resources
-
BloodFeeding()
- Blood feeding
-
EggLaying()
- Compute eggs laid
-
Traps()
- Set up Mosquito traps
-
BaselineBionomics()
- Set bionomic parameter rates relative to baseline
-
ModifiedBionomics()
- Set bionomic parameter rates relative to baseline
-
Transmission()
- Compute the mixing matrix and transmission terms
-
Exposure()
- Compute Infection Rates
-
setup_forcing_object()
- Setup the Junction for Exogenous Forcing
-
Forcing()
- Exogenous Forcing
-
Forcing(<none>)
- Exogenous Forcing
-
setup_vector_control_object()
- Setup a Junction for Vector Control
-
VectorControl()
- Vector Control
-
VectorControl(<none>)
- Compute Vector Control Effect Sizes
-
VectorControlEffectSizes()
- Vector control effect sizes
-
VectorControlEffectSizes(<none>)
- Set the values of exogenous variables
-
setup_health_object()
- none set up for exogenous health
-
Health()
- Set the values variables for health-based malaria control
-
Health(<none>)
- Set no exogenous health variables
-
setup_travel_object()
- Setup the Travel Object
-
change_time_at_home()
- Change the travel EIR
-
change_travel_EIR()
- Change the travel EIR
-
setup_F_travel()
- Set up no travel
-
setup_F_travel(<static>)
- Set up no travel
-
setup_F_travel(<ts_func>)
- Set up no travel
-
setup_F_travel_eir()
- Setup the Travel EIR
-
setup_F_travel_eir(<static>)
- Set up no travel
-
setup_F_travel_eir(<ts_func>)
- Setup the Travel EIR
-
Travel()
- Time Spent F_travel
-
Travel(<static>)
- Time Spent F_travel
-
Travel(<setup>)
- Time Spent F_travel
-
Travel(<dynamic>)
- Time Spent F_travel
-
travel_dynamics()
- Time Spent Here
-
setup_F_vis_kappa()
- Set up no visitors
-
setup_F_visitors()
- Set up no visitors
-
setup_F_visitors(<ts_func>)
- Set up no visitors
-
setup_visitor_object()
- Setup the Visitors Object
-
visitor_dynamics()
- Availabilit of Visitors
-
Visitors()
- Visitors
-
Visitors(<dynamic>)
- Visitor Dynamics
-
Visitors(<setup>)
- Visitors
-
Visitors(<static>)
- Visitors
-
make_times_dts()
- Times Utility for Discrete Time Systems
-
make_times_xde()
- Times Utility for Differential Equations
-
xde_derivatives()
- Compute Derivatives
-
xde_derivatives(<full>)
- Generalized spatial differential equation model
-
xde_derivatives(<aquatic>)
- Differential equation models for aquatic mosquito populations
-
xde_derivatives(<mosy>)
- Generalized spatial differential equation model (mosquito only)
-
xde_derivatives(<human>)
- Differential equations isolating the humans, forced with Ztrace
-
xde_derivatives(<eir>)
- Differential equation models for aquatic mosquito populations
-
xds_compute_terms()
- Compute Derivatives
-
xds_compute_terms(<aquatic>)
- Differential equation models for aquatic mosquito populations
-
xds_compute_terms(<eir>)
- Differential equation models for aquatic mosquito populations
-
xds_compute_terms(<full>)
- Generalized spatial differential equation model
-
xds_compute_terms(<human>)
- Differential equations isolating the humans, forced with Ztrace
-
xds_compute_terms(<mosy>)
- Generalized spatial differential equation model (mosquito only)
-
xds_solve_cohort()
- Cohort dynamics for a human / host model
-
xde_cohort_derivatives()
- Differential equation models for human cohorts
-
xde_cohort_desolve()
- Solve a system of equations as an ode
-
xde_cohort_desolve(<dde>)
- Solve a system of equations as a dde
-
xde_cohort_desolve(<ode>)
- Solve a system of equations as a ode
-
dts_update()
- dts_update_ States for Discrete-Time Systems
-
dts_update(<full>)
- Generalized spatial differential equation model
-
dts_update(<aquatic>)
- Difference equation models for aquatic mosquito populations
-
dts_update(<mosy>)
- Generalized spatial differential equation model (mosquito only)
-
dts_update(<human>)
- Difference equations isolating the humans, forced with Ztrace
-
dts_update(<cohort>)
- Difference equation models for human cohorts
-
dts_update(<eir>)
- Difference equation models for aquatic mosquito populations
-
dts_update_Lt()
- Difference equations isolating the humans, forced with Ztrace
-
dts_update_MYt()
- Difference equations isolating the humans, forced with Ztrace
-
dts_update_XHt()
- Difference equations isolating the humans, forced with Ztrace
-
Update_XHt()
- Update X states for a discrete time system
-
Update_MYt()
- Update States for a Adult Mosquito Model
-
Update_Lt()
- Update State Variables for an L Component Module
-
xds_solve()
- Solve a Dynamical System
-
xds_solve(<dde>)
- Solve a System of Delay Differential Equations
-
xds_solve(<ode>)
- Solve a System of Ordinary Differential Equations
-
xds_solve(<dts>)
- Solve a Discrete-Time System
-
xds_stable_orbit()
- Solve for the steady state of a system of equations using rootSolve::steady
-
xds_stable_orbit(<dts>)
- Compute the stable orbit for a system of differential equations
-
xds_stable_orbit(<xde>)
- Compute the stable orbit for a system of differential equations
-
xds_steady()
- Solve for the steady state of a system of equations using rootSolve::steady
-
xds_steady(<ode>)
- Solve for the steady state of a system of equations using rootSolve::steady
-
xds_steady(<dde>)
- Solve for the steady state of a system of equations using rootSolve::steady
-
dts_stable_orbit()
- Solve for the steady state or stable orbit of a system of equations
-
dts_steady()
- Solve for the steady state of a system of equations
-
average_PR_true()
- Compute the average True PR
-
average_EIR()
- Compute the average EIR
-
parse_orbits()
- parse the outputs of an object created by xde_solve or dts_solve
-
parse_y()
- parse the output of an object returned by deSolve
-
parse_L_terms()
- Pull L Terms
-
parse_MY_terms()
- Pull MY Terms
-
parse_XH_terms()
- Pull XH Terms
-
parse_bionomics()
- Pull bionomic parameters
-
parse_outputs()
- Make Outputs
-
parse_outputs(<aquatic>)
- Make Outputs
-
parse_outputs(<eir>)
- Make Outputs
-
parse_outputs(<full>)
- Make Outputs
-
parse_outputs(<human>)
- Make Outputs
-
parse_outputs(<mosy>)
- Make Outputs
-
xds_plot_EIR()
- Plot the EIR vs. time
-
xds_plot_aEIR()
- Plot the annualized EIR vs. time
-
xds_lines_EIR()
- Add lines for the EIR vs. time
-
xds_plot_PR()
- Plot the prevalence / parasite rate (PR) from a model of human infection and immunity
-
xds_lines_PR()
- Add lines for the prevalence / parasite rate (PR) from a model of human infection and immunity
-
print(<xds_obj>)
- Print the
xds
model object
-
trigger_setup()
- Trigger
setup
-
trigger_setup(<static>)
- Trigger
setup
-
trigger_setup(<setup>)
- Trigger
setup
-
trigger_setup(<dynamic>)
- Trigger
setup
-
diag_inverse()
- Invert a diagonal matrix
-
approx_equal()
- Check if two numeric values are approximately equal
-
checkIt()
- Check the length of an input value
-
shapeIt()
- Check the shape and dimensions of an model object
-
xds_shrink()
- Shrink an xds xds_obj object
-
xds_shrink(<cohort>)
- Shrink an xds xds_obj object
-
list_vars()
- Set the initial values to the last values of the last simulation
-
xds_flatten()
- Set the initial values to the last values of the last simulation
-
ode_to_dde()
- Compute as DDE
-
ode_to_dde(<ode>)
- Compute as DDE
-
ode_to_dde(<dde>)
- Compute as DDE
-
ode_to_dde(<dts>)
- Compute as DDE
-
change_H()
- Change human population density
-
update_inits()
- Set the initial values to the last values of the last simulation
-
last_to_inits()
- Set the initial values to the last values of the last simulation
-
parse_orbits()
- parse the outputs of an object created by xde_solve or dts_solve
-
parse_y()
- parse the output of an object returned by deSolve
-
get_inits()
- Get the stored initial values, \(y_0\)
-
get_last()
- Get the last state
-
get_H()
- Get the initial values as a vector
-
get_XH()
- Get XH outputs
-
get_PR()
- Get the PfPR from a Malaria Model
-
get_PR(<true>)
- Get the PfPR from a Malaria Model
-
get_PR(<lm>)
- Get the PfPR from a Malaria Model
-
get_PR(<rdt>)
- Get the PfPR from a Malaria Model
-
get_PR(<pcr>)
- Get the PfPR from a MalariasModel
-
make_indices()
- Make indices for all the model variables
-
trigger_setup()
- Trigger
setup
-
F_zero()
- The trivial function
-
make_function(<zero>)
- Make a Function that is the sum of Two other Functions
-
makepar_F_zero()
- parameters for make_function
-
F_one()
- The trivial function
-
make_function(<one>)
- Make a Function that is the sum of Two other Functions
-
makepar_F_one()
- parameters for make_function
-
make_function(<val>)
- Make a Function that is the sum of Two other Functions
-
makepar_F_val()
- parameters for make_function
-
F_flat()
- The trivial function
-
make_function()
- Make a Function
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make_function(<sin>)
- Make a Sine-based Seasonality Function
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makepar_F_sin()
- parameters for make_function
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make_function(<sum>)
- Make a Function that is the sum of Two other Functions
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makepar_F_sum()
- parameters for make_function
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make_function(<product>)
- Make a Sinusoidal Function
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makepar_F_product()
- parameters for make_function
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make_function(<nproduct>)
- Make a Sinusoidal Function
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makepar_F_nproduct()
- parameters for make_function
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make_function(<sigmoid>)
- Make a Sigmoidal Function
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makepar_F_sigmoid()
- Make Parameters for a Sigmoidal Function
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make_function(<sharkfin>)
- Make a Sharkfin Function
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makepar_F_sharkfin()
- Make Parameters for a Sharkfin Function
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make_function(<type2>)
- Make a type2 function for age
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makepar_F_type2()
- parameters for make_function
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make_function(<splinef>)
- Make a spline function
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make_function(<splineX>)
- Make a spline function
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make_function(<spline2>)
- Make a spline function
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makepar_F_spline()
- Make Parameters for a Spline
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update_F_season(<Lambda>)
- Update the seasonality function
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update_F_season()
- Update the seasonality function
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update_F_season(<cohort>)
- Update the seasonality function
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update_F_season(<eir>)
- Update the seasonality function
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update_F_trend(<Lambda>)
- Update the trend function
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update_F_trend()
- Update the trend function
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update_F_trend(<cohort>)
- Update the trend function
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update_F_trend(<eir>)
- Update the trend function
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show_season()
- Plot the seasonal pattern
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show_season(<Lambda>)
- Plot the seasonal pattern
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show_season(<none>)
- Plot the seasonal pattern
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show_season(<eir>)
- Plot the seasonal pattern
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show_trend()
- Plot the temporal trend
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show_trend(<Lambda>)
- Plot the temporal trend
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show_trend(<eir>)
- Plot the temporal trend
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show_trend(<none>)
- Plot the temporal trend
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get_mean_forcing()
- Get mean forcing
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get_mean_forcing(<none>)
- Get mean forcing
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get_mean_forcing(<Lambda>)
- Get mean forcing
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get_mean_forcing(<eir>)
- Get mean forcing
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get_mean_forcing(<cohort>)
- Get mean forcing
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set_mean_forcing()
- Set mean forcing
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set_mean_forcing(<none>)
- Set mean forcing
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set_mean_forcing(<Lambda>)
- Set mean forcing
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set_mean_forcing(<eir>)
- Set mean forcing
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set_mean_forcing(<cohort>)
- set mean forcing
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get_season()
- Get the Seasonal Pattern
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get_season(<none>)
- Get seasonal pattern
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get_season(<Lambda>)
- Get seasonal pattern
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get_season(<eir>)
- Get seasonal pattern
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get_season(<cohort>)
- Get seasonal pattern
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get_season_phase()
- Get phase
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get_season_bottom()
- Get phase
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get_season_pw()
- Get pw for seasonality
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set_season()
- Get seasonal pattern
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set_season_phase()
- Set phase
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set_season_phase(<none>)
- Set phase
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set_season_phase(<Lambda>)
- Set phase
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set_season_phase(<eir>)
- Set phase
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set_season_phase(<cohort>)
- set phase
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set_season_bottom()
- Set bottom
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set_season_bottom(<none>)
- Set bottom
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set_season_bottom(<Lambda>)
- Set bottom
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set_season_bottom(<eir>)
- Set bottom
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set_season_bottom(<cohort>)
- set bottom
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set_season_pw()
- Set pw, a seasonality shape parameter
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set_season_pw(<none>)
- Set pw, a seasonality shape parameter
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set_season_pw(<Lambda>)
- Set pw, a seasonality shape parameter
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set_season_pw(<eir>)
- Set pw, a seasonality shape parameter
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set_season_pw(<cohort>)
- Set pw, a seasonality shape parameter
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get_trend()
- Get the trend parameters
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get_trend(<none>)
- Get the trend parameters
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get_trend(<Lambda>)
- Get the trend parameters
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get_trend(<eir>)
- Get the trend parameters
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get_trend(<cohort>)
- Get the trend parameters
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get_spline()
- Get spline interpolation points
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get_spline_s()
- Get spline interpolation points
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get_spline_s(<none>)
- Get spline interpolation points
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get_spline_s(<Lambda>)
- Get spline interpolation points
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get_spline_s(<eir>)
- Get spline interpolation points
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get_spline_s(<cohort>)
- Get spline interpolation points
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set_spline()
- Set the interpolating points
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set_spline(<none>)
- Set yy
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set_spline(<Lambda>)
- Set the \(y\) value for interpolating points
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set_spline(<eir>)
- Set yy
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set_spline(<cohort>)
- set yy
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set_spline_y()
- Set yy
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set_spline_y(<none>)
- Set yy
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set_spline_y(<Lambda>)
- Set the \(y\) value for interpolating points
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set_spline_y(<eir>)
- Set yy
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set_spline_y(<cohort>)
- set yy
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F_exp()
- Exponential Function
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change_MY_inits(<RMdts>)
- Make inits for RMdts adult mosquito model
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check_models()
- Run Checks
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get_EIR()
- Get the
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get_MY_inits.trivial()
- Return initial values as a vector
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get_MY_vars(<trivial>)
- Return the variables as a list
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get_XH_ix()
- Add indices for human population to parameter list
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get_XH_vars(<trivial>)
- Get Variables by Name
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get_f()
- Get the feeding rate(s)
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get_f(<basicM>)
- Get the feeding rate
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get_f(<trivial>)
- Get the feeding rate
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get_g()
- Get the adult mosquito mortality rate(s)
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get_g(<basicM>)
- Get the feeding rate
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get_g(<trivial>)
- Get the feeding rate
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get_q()
- Get the human fraction(s)
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get_q(<basicM>)
- Get the feeding rate
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get_q(<trivial>)
- Get the feeding rate
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get_sigma()
- Get the patch emigration rates
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get_sigma(<basicM>)
- Get the feeding rate
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get_sigma(<trivial>)
- Get the feeding rate
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get_variables()
- Get Variables
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get_variables(<na>)
- Get Variables
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make_ts_function()
- Make a Time Series Function
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One_tV()
- The trivial function
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Zero_tV()
- The trivial function
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setup_traps_object()
- Setup the Junction for Exogenous traps
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Traps(<none>)
- Set the values of exogenous variables
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setup_blood_host_object()
- Setup the Blood Hosts Object
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setup_blood_hosts()
- Set up no blood_hosts
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setup_blood_hosts(<ts_func>)
- Set up no blood_hosts
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change_blood_hosts()
- Set static blood feeding search weights
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BloodHosts()
- Other Blood Hosts
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BloodHosts(<dynamic>)
- Time Spent F_blood_hosts
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BloodHosts(<setup>)
- Time Spent F_blood_hosts
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BloodHosts(<static>)
- Time Spent F_blood_hosts
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blood_hosts_dynamics()
- blood_hosts Dynamics
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setup_sugar_object()
- Setup the Junction for Exogenous sugar
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Sugar()
- Set up Mosquito sugar
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Sugar(<none>)
- Set the values of exogenous variables