Passing a function with multiple structures to a function with 1 input

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Raj Deepak S N
Raj Deepak S N el 26 de Nov. de 2019
Editada: Stephen23 el 4 de Dic. de 2019
Function 1 has 4 input structures (total parameters: 31), with 1 output structure (total output parameters: 12). This function has to be called as another function (Function 2) with 1 input array.
What should be done to call the structures?
function out = screening (X) % Function 2
% ? Steps to call the structures physcon, atmos, leaf and flux ?
@(x)screening(x)
[flux] = LeafPhotosynthesis (physcon, atmos, leaf, flux); % Function 1
opt = flux.an;
% Calculate the inverse of cumulative distribution function
% Use a Uniform distribution function [0,1]
pd = makedist('Uniform','lower',0,'upper',1);
value = (opt - 0.1*opt):0.01:(opt + 0.1*opt);
out = cdf(pd,value);
end
Please note that the structures vary in size as given below.
function [flux] = LeafPhotosynthesis (physcon, atmos, leaf, flux)
% Calculate leaf photosynthesis given a known Ci
% ------------------------------------------------------
% Input
% physcon.tfrz ! Freezing point of water (K)
% physcon.rgas ! Universal gas constant (J/K/mol)
% atmos.co2air ! Atmospheric CO2 (umol/mol)
% atmos.o2air ! Atmospheric O2 (mmol/mol)
% leaf.vcmax25 ! Maximum carboxylation rate at 25C (umol/m2/s)
% leaf.jmax25 ! Maximum electron transport rate at 25C (umol/m2/s)
% leaf.rd25 ! Leaf respiration rate at 25C (umol CO2/m2/s)
% leaf.kc25 ! Michaelis-Menten constant for CO2 at 25C (umol/mol)
% leaf.ko25 ! Michaelis-Menten constant for O2 at 25C (mmol/mol)
% leaf.cp25 ! CO2 compensation point at 25C (umol/mol)
% leaf.kcha ! Activation energy for Kc (J/mol)
% leaf.koha ! Activation energy for Ko (J/mol)
% leaf.cpha ! Activation energy for Cp (J/mol)
% leaf.vcmaxha ! Activation energy for Vcmax (J/mol)
% leaf.jmaxha ! Activation energy for Jmax (J/mol)
% leaf.rdha ! Activation energy for Rd (J/mol)
% leaf.vcmaxhd ! Deactivation energy for Vcmax (J/mol)
% leaf.jmaxhd ! Deactivation energy for Jmax (J/mol)
% leaf.rdhd ! Deactivation energy for Rd (J/mol)
% leaf.vcmaxse ! Entropy term for Vcmax (J/mol/K)
% leaf.jmaxse ! Entropy term for Jmax (J/mol/K)
% leaf.rdse ! Entropy term for Rd (J/mol/K)
% leaf.vcmaxc ! Vcmax scaling factor for high temperature inhibition (25 C = 1.0)
% leaf.jmaxc ! Jmax scaling factor for high temperature inhibition (25 C = 1.0)
% leaf.rdc ! Rd scaling factor for high temperature inhibition (25 C = 1.0)
% leaf.phi_psii ! Quantum yield of PS II
% leaf.theta_j ! Empirical curvature parameter for electron transport rate
% leaf.colim ! Photosynthesis co-limitation: 0 = no. 1 = yes
% leaf.colim_c3 ! Empirical curvature parameter for C3 co-limitation
% flux.apar ! Leaf absorbed PAR (umol photon/m2 leaf/s)
% flux.tleaf ! Leaf temperature (K)
%
% Output
% flux.vcmax ! Maximum carboxylation rate (umol/m2/s)
% flux.jmax ! Maximum electron transport rate (umol/m2/s)
% flux.cp ! CO2 compensation point (umol/mol)
% flux.kc ! Michaelis-Menten constant for CO2 (umol/mol)
% flux.ko ! Michaelis-Menten constant for O2 (mmol/mol)
% flux.je ! Electron transport rate (umol/m2/s)
% flux.ac ! Leaf Rubisco-limited gross photosynthesis (umol CO2/m2 leaf/s)
% flux.aj ! Leaf RuBP regeneration-limited gross photosynthesis (umol CO2/m2 leaf/s)
% flux.ag ! Leaf gross photosynthesis (umol CO2/m2 leaf/s)
% flux.an ! Leaf net photosynthesis (umol CO2/m2 leaf/s)
% flux.rd ! Leaf respiration rate (umol CO2/m2 leaf/s)
% flux.ci ! Leaf intercellular CO2 (umol/mol)
  1 comentario
Kavya Vuriti
Kavya Vuriti el 4 de Dic. de 2019
Hi,
What is the input to your function 2? Does it have something to do with the 4 structures? Is there a separate script to obtain these 4 structures which calls function 2?

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