LandscapeDNDC  1.36.0
ldndc::PhysiologyVOCBIM Class Reference

This gas exchange module calculates emission of biogenetic volatile organic compounds. More...

Inherits ldndc::MBE_LegacyModel.

Static Private Attributes

static double const KM_TP = 10.0
 
static double const LOSS_RATE = 0.0035
 
static double const TP_LRATE = LOSS_RATE
 
static double const ADP_LRATE = LOSS_RATE * 10.0
 
static double const NAD_LRATE = LOSS_RATE * 10.0
 
static double const TREF = 303.0
 
static double const BETA = 0.09
 
static double const JEFF = 2.0
 
static double const TPU = 23.0
 
static double const DFOL = 0.38
 
static double const FCHL = 0.076
 
static double const FPGA = 0.8
 
static double const KM_DXPS_PEP = 65.0
 
static double const KM_DXPS_PGA = 120.0
 
static double const KM_DXPR_NADPH = 19.0
 
static double const KM_DXPR_DXP = 115.0
 
static double const KM_IDPS = 330.0
 
static double const KM_GGDPS_GDP = 7.7
 
static double const KM_GGDPS_IDP = 7.0
 
static double const KM_IDPI = 7.0
 
static double const KEQ_IDPI = 3.1
 
static double const CT_IDP = 21.90
 
static double const DS_IDP = 882.0
 
static double const HA_IDP = 55000.0
 
static double const CT_GDP = 33.05
 
static double const DS_GDP = 915.0
 
static double const HA_GDP = 83129.0
 

Detailed Description

This gas exchange module calculates emission of biogenetic volatile organic compounds.

implemented by: Ruediger Grote (RG), IMK-IFU Garmisch-Partenkirchen, ruedi.nosp@m.ger..nosp@m.grote.nosp@m.@imk.nosp@m..fzk..nosp@m.de published in:

W. Zimmer, N. Brueggemann, S. Emeis, C. Giersch, A. Lehning, R. Steinbrecher, and J.-P. Schnitzler. Process-based modelling of isoprene emission by oak leaves. Plant, Cell and Environment 23:585-595, 2000

R. Grote, S. Mayrhofer, R.J. Fischbach, R. Steinbrecher, M. Staudt, and J.-P. Schnitzler. Process-based modelling of isoprenoid emissions from evergreen leaves of Quercus ilex (L.). Atmospheric Environment, 40:152-165, 2006

R. Grote. Sensitivity of volatile monoterpene emission to changes in canopy structure - A model based exercise with a process-based emission model. New Phytologist 173: 550-561, 2007

Author
Ruediger Grote

Member Data Documentation

◆ ADP_LRATE

double const ldndc::PhysiologyVOCBIM::ADP_LRATE = LOSS_RATE * 10.0
staticprivate

transport and conversion rate of ATP (umol umol-1 s-1)

◆ BETA

double const ldndc::PhysiologyVOCBIM::BETA = 0.09
staticprivate

monoterpene scaling factor

◆ CT_GDP

double const ldndc::PhysiologyVOCBIM::CT_GDP = 33.05
staticprivate

scaling constant for temperature sensitivity

◆ CT_IDP

double const ldndc::PhysiologyVOCBIM::CT_IDP = 21.90
staticprivate

scaling constant for temperature sensitivity of IDP isomerase

◆ DFOL

double const ldndc::PhysiologyVOCBIM::DFOL = 0.38
staticprivate

leaf tissue density (kgDW dmFW-3)

◆ DS_GDP

double const ldndc::PhysiologyVOCBIM::DS_GDP = 915.0
staticprivate

entropy term for GDP synthase sensitivity to temperature (J mol-1 K-1)

◆ DS_IDP

double const ldndc::PhysiologyVOCBIM::DS_IDP = 882.0
staticprivate

entropy term for IDP isomerase sensitivity to temperature (J mol-1 K-1)

◆ FCHL

double const ldndc::PhysiologyVOCBIM::FCHL = 0.076
staticprivate

fraction chloroplast volume of total foliage volume (L dm-3)

◆ FPGA

double const ldndc::PhysiologyVOCBIM::FPGA = 0.8
staticprivate

fraction PGA formed from pyruvat pool (-)

◆ HA_GDP

double const ldndc::PhysiologyVOCBIM::HA_GDP = 83129.0
staticprivate

activation energy for GDP synthase (J mol-1)

◆ HA_IDP

double const ldndc::PhysiologyVOCBIM::HA_IDP = 55000.0
staticprivate

activation energy for IDP isomerase (J mol-1)

◆ JEFF

double const ldndc::PhysiologyVOCBIM::JEFF = 2.0
staticprivate

number of electrons needed per mole NADPH production

◆ KEQ_IDPI

double const ldndc::PhysiologyVOCBIM::KEQ_IDPI = 3.1
staticprivate

equation constant for DMADP / IDP

◆ KM_DXPR_DXP

double const ldndc::PhysiologyVOCBIM::KM_DXPR_DXP = 115.0
staticprivate

KM for MEP synthesis from NADPH (umol L-1)

◆ KM_DXPR_NADPH

double const ldndc::PhysiologyVOCBIM::KM_DXPR_NADPH = 19.0
staticprivate

KM for MEP synthesis from DXP (umol L-1)

◆ KM_DXPS_PEP

double const ldndc::PhysiologyVOCBIM::KM_DXPS_PEP = 65.0
staticprivate

KM for DXP synthesis from GAP (umol L-1)

◆ KM_DXPS_PGA

double const ldndc::PhysiologyVOCBIM::KM_DXPS_PGA = 120.0
staticprivate

KM for DXP synthesis from PGA (umol L-1)

◆ KM_GGDPS_GDP

double const ldndc::PhysiologyVOCBIM::KM_GGDPS_GDP = 7.7
staticprivate

KM for GGDPS synthesis from GDP (umol L-1)

◆ KM_GGDPS_IDP

double const ldndc::PhysiologyVOCBIM::KM_GGDPS_IDP = 7.0
staticprivate

KM for GGDPS synthesis from IDP (umol L-1)

◆ KM_IDPI

double const ldndc::PhysiologyVOCBIM::KM_IDPI = 7.0
staticprivate

KM for IDP isomerisation with DMADP (umol L-1)

◆ KM_IDPS

double const ldndc::PhysiologyVOCBIM::KM_IDPS = 330.0
staticprivate

KM for various synthases transforming MEP to IDP (umol L-1)

◆ KM_TP

double const ldndc::PhysiologyVOCBIM::KM_TP = 10.0
staticprivate

MM parameter determining the transformation of triose phosphates into pyruvat

◆ LOSS_RATE

double const ldndc::PhysiologyVOCBIM::LOSS_RATE = 0.0035
staticprivate

depletion and conversion rate of intermediate substrates (umol umol-1 s-1)

◆ NAD_LRATE

double const ldndc::PhysiologyVOCBIM::NAD_LRATE = LOSS_RATE * 10.0
staticprivate

transport and conversion rate of NADPH (umol umol-1 s-1)

◆ TP_LRATE

double const ldndc::PhysiologyVOCBIM::TP_LRATE = LOSS_RATE
staticprivate

transport and conversion rate of Pyruvat (umol umol-1 s-1)

◆ TPU

double const ldndc::PhysiologyVOCBIM::TPU = 23.0
staticprivate

triose phosphate utilisation (umol m-2 s-1)

◆ TREF

double const ldndc::PhysiologyVOCBIM::TREF = 303.0
staticprivate

reference temperature (K)