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8.7.3.12. Mortality and Respiration¶
Respiration and mortality stop at \({c}_j^{\min}\) (maybe should not use \({c}_j^{\min}\) for respiration?)
The released matter splits into dissolved and particulate organic pools,
8.7.3.12.1. Parameters¶
Trait |
Param |
Symbol |
Default |
Units |
Description |
|---|---|---|---|---|---|
\(r^{\op{resp}}_j\) |
0 |
s-1 |
respiration rate |
||
\(Q^{\mathrm{c}}_j\) |
1.8E-11 |
mmol C cell–1 |
cellular carbon content |
||
\(m^{(1)}_j\) |
0.02 / day |
s-1 |
linear mortality rate |
||
\(m^{(2)}_j\) |
0 |
m3 s / mmol C |
quadratic mortality coefficient |
||
\(c^{\min}_j\) |
0 |
mmol C m-3 |
minimum abundance for mortality, respiration and exudation |
||
\(e^{\op{m}}_j\) |
1 |
1: mortality is temp. dependent, 0: not |
|||
\(e^{\op{m2}}_j\) |
1 |
1: quadr.tic mortality is temperature dependent, 0: not |
|||
\(f^{\op{exp}\op{m}}_j\) |
0.5 |
fraction of linear mortality to POM |
|||
\(f^{\op{exp}\op{m2}}_j\) |
0.5 |
fraction of quadratic mortality to POM |
- 1
the units of a_respRate_c are mmol C cell–1, see discussion below.
The respiration rate follows a different scaling law from other traits: it scales in terms of cellular carbon content,
where
The units of a_respRate_c are mmol C cell–1 s–1. It now defaults to zero. In the quota model, the default was 3.21·10–11/86400.