Chin J Plant Ecol ›› 2026, Vol. 50 ›› Issue (1): 173-187.DOI: 10.17521/cjpe.2024.0288 cstr: 32100.14.cjpe.2024.0288
• Research Articles • Previous Articles Next Articles
SU Chen-Fei1,*, TIAN Wei2,1,*, ZHANG Nan3,1, TANG Long1,**(
), ZHAO Yu-Wei4, WANG Yao1
Received:2024-08-23
Accepted:2025-01-09
Online:2026-01-20
Published:2026-02-13
Contact:
TANG Long
About author:First author contact:*Contributed equally to this work
Supported by:SU Chen-Fei, TIAN Wei, ZHANG Nan, TANG Long, ZHAO Yu-Wei, WANG Yao. Multi-factor photosynthetic rate prediction model by fusion of photosynthetic response model and theory-guided neural network[J]. Chin J Plant Ecol, 2026, 50(1): 173-187.
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URL: https://www.plant-ecology.com/EN/10.17521/cjpe.2024.0288
Fig. 1 Modeling process for multifactorial photosynthetic rate prediction model. A, net photosynthetic rate; Amin, minimum net photosynthetic rate; Amax, maximum net photosynthetic rate; E, transpiration rate; WUE, water use efficiency; X, photosynthesis data for Phragmites australis and Spartina alterniflora; Ŷ, the output of the neural network.
| 模型 Model | 叶片温度 Tleaf (℃) | 初始斜率 α | 最大净光合速率 Amax (µmol·m-2·s-1) | 光补偿点 Ic (µmol·m-2·s-1) | 暗呼吸速率 Rd (µmol·m-2·s-1) | 模型拟合的决定系数 R |
|---|---|---|---|---|---|---|
| 直角双曲线模型 Rectangular hyperbola model | 20 | 0.055 4 | 76.109 1 | 108.260 3 | 5.561 6 | 0.983 7 |
| 25 | 0.049 4 | 81.143 2 | 62.736 8 | 2.985 4 | 0.989 0 | |
| 30 | 0.059 2 | 78.160 6 | 97.101 2 | 5.355 6 | 0.975 6 | |
| 35 | 0.059 5 | 77.629 1 | 100.994 0 | 5.574 3 | 0.976 0 | |
| 40 | 0.054 0 | 76.456 4 | 98.070 3 | 4.952 9 | 0.983 6 | |
| 非直角双曲线模型 Non-rectangular hyperbolic model | 20 | 0.033 0 | 43.819 3 | 70.154 9 | 2.314 6 | 0.989 6 |
| 25 | 0.035 7 | 52.939 4 | 29.800 2 | 1.060 3 | 0.990 2 | |
| 30 | 0.031 0 | 39.988 4 | 33.141 6 | 1.028 4 | 0.992 7 | |
| 35 | 0.031 9 | 41.794 3 | 45.647 5 | 1.460 1 | 0.990 5 | |
| 40 | 0.036 4 | 53.005 1 | 59.875 5 | 2.174 3 | 0.985 1 | |
| 直角双曲线修正模型 Modified model of rectangular hyperbola | 20 | 0.040 2 | 37.973 3 | 91.036 5 | 3.584 2 | 0.988 6 |
| 25 | 0.040 5 | 42.891 8 | 43.780 7 | 1.747 9 | 0.989 8 | |
| 30 | 0.043 6 | 39.648 7 | 86.064 3 | 3.670 5 | 0.986 9 | |
| 35 | 0.043 5 | 39.269 2 | 88.745 7 | 3.775 4 | 0.985 7 | |
| 40 | 0.039 5 | 38.420 6 | 77.286 2 | 2.992 2 | 0.987 6 | |
| 指数模型 Exponential Model | 20 | 0.044 2 | 47.011 6 | 25.302 6 | 1.103 9 | 0.985 8 |
| 25 | 0.042 2 | 51.911 4 | 25.027 3 | 1.045 1 | 0.989 6 | |
| 30 | 0.047 7 | 48.645 4 | 23.276 0 | 1.098 4 | 0.979 4 | |
| 35 | 0.047 5 | 48.226 8 | 23.476 4 | 1.102 8 | 0.979 6 | |
| 40 | 0.043 6 | 47.714 3 | 25.250 0 | 1.089 4 | 0.985 4 |
Table 1 Mean values of model parameters for Phragmites australis light response curve
| 模型 Model | 叶片温度 Tleaf (℃) | 初始斜率 α | 最大净光合速率 Amax (µmol·m-2·s-1) | 光补偿点 Ic (µmol·m-2·s-1) | 暗呼吸速率 Rd (µmol·m-2·s-1) | 模型拟合的决定系数 R |
|---|---|---|---|---|---|---|
| 直角双曲线模型 Rectangular hyperbola model | 20 | 0.055 4 | 76.109 1 | 108.260 3 | 5.561 6 | 0.983 7 |
| 25 | 0.049 4 | 81.143 2 | 62.736 8 | 2.985 4 | 0.989 0 | |
| 30 | 0.059 2 | 78.160 6 | 97.101 2 | 5.355 6 | 0.975 6 | |
| 35 | 0.059 5 | 77.629 1 | 100.994 0 | 5.574 3 | 0.976 0 | |
| 40 | 0.054 0 | 76.456 4 | 98.070 3 | 4.952 9 | 0.983 6 | |
| 非直角双曲线模型 Non-rectangular hyperbolic model | 20 | 0.033 0 | 43.819 3 | 70.154 9 | 2.314 6 | 0.989 6 |
| 25 | 0.035 7 | 52.939 4 | 29.800 2 | 1.060 3 | 0.990 2 | |
| 30 | 0.031 0 | 39.988 4 | 33.141 6 | 1.028 4 | 0.992 7 | |
| 35 | 0.031 9 | 41.794 3 | 45.647 5 | 1.460 1 | 0.990 5 | |
| 40 | 0.036 4 | 53.005 1 | 59.875 5 | 2.174 3 | 0.985 1 | |
| 直角双曲线修正模型 Modified model of rectangular hyperbola | 20 | 0.040 2 | 37.973 3 | 91.036 5 | 3.584 2 | 0.988 6 |
| 25 | 0.040 5 | 42.891 8 | 43.780 7 | 1.747 9 | 0.989 8 | |
| 30 | 0.043 6 | 39.648 7 | 86.064 3 | 3.670 5 | 0.986 9 | |
| 35 | 0.043 5 | 39.269 2 | 88.745 7 | 3.775 4 | 0.985 7 | |
| 40 | 0.039 5 | 38.420 6 | 77.286 2 | 2.992 2 | 0.987 6 | |
| 指数模型 Exponential Model | 20 | 0.044 2 | 47.011 6 | 25.302 6 | 1.103 9 | 0.985 8 |
| 25 | 0.042 2 | 51.911 4 | 25.027 3 | 1.045 1 | 0.989 6 | |
| 30 | 0.047 7 | 48.645 4 | 23.276 0 | 1.098 4 | 0.979 4 | |
| 35 | 0.047 5 | 48.226 8 | 23.476 4 | 1.102 8 | 0.979 6 | |
| 40 | 0.043 6 | 47.714 3 | 25.250 0 | 1.089 4 | 0.985 4 |
| 模型 Model | 叶片温度 Tleaf (℃) | 初始斜率 α | 最大净光合速率 Amax (µmol·m-2·s-1) | 光补偿点 Ic (µmol·m-2·s-1) | 暗呼吸速率 Rd (µmol·m-2·s-1) | 模型拟合的决定系数 R | |
|---|---|---|---|---|---|---|---|
| 直角双曲线模型 Rectangular hyperbola model | 20 | 0.094 3 | 61.488 0 | 107.877 6 | 8.732 0 | 0.962 2 | |
| 25 | 0.089 3 | 68.372 4 | 120.464 5 | 9.298 3 | 0.966 2 | ||
| 30 | 0.102 7 | 66.953 5 | 107.877 5 | 9.508 1 | 0.961 5 | ||
| 35 | 0.104 8 | 68.320 1 | 107.877 6 | 9.702 2 | 0.960 3 | ||
| 40 | 0.096 4 | 62.854 3 | 107.877 5 | 8.926 0 | 0.961 1 | ||
| 非直角双曲线模型 Non-rectangular hyperbolic model | 20 | 0.092 9 | 61.667 2 | 107.155 9 | 8.568 8 | 0.962 2 | |
| 25 | 0.042 4 | 39.048 8 | 103.921 2 | 4.400 1 | 0.992 7 | ||
| 30 | 0.045 6 | 39.765 2 | 84.978 2 | 3.864 5 | 0.989 3 | ||
| 35 | 0.046 5 | 40.576 8 | 84.978 5 | 3.943 4 | 0.989 4 | ||
| 40 | 0.042 8 | 37.330 6 | 84.978 1 | 3.627 9 | 0.988 9 | ||
| 直角双曲线修正模型 Modified model of rectangular hyperbola | 20 | 0.055 4 | 32.908 7 | 97.673 4 | 5.216 4 | 0.980 8 | |
| 25 | 0.058 1 | 34.590 9 | 120.743 9 | 6.720 5 | 0.984 6 | ||
| 30 | 0.060 3 | 35.833 9 | 97.673 3 | 5.680 0 | 0.981 1 | ||
| 35 | 0.061 6 | 36.565 2 | 97.673 5 | 5.796 0 | 0.981 3 | ||
| 40 | 0.056 6 | 33.640 0 | 97.673 3 | 5.332 3 | 0.980 2 | ||
| 指数模型 Exponential model | 20 | 0.063 4 | 37.039 3 | 19.380 2 | 1.207 8 | 0.971 5 | |
| 25 | 0.062 3 | 40.246 5 | 19.741 8 | 1.212 0 | 0.974 2 | ||
| 30 | 0.069 0 | 40.331 7 | 17.773 8 | 1.207 8 | 0.972 3 | ||
| 35 | 0.061 6 | 36.565 2 | 97.673 5 | 5.796 0 | 0.980 8 | ||
| 40 | 0.064 8 | 37.862 4 | 18.952 0 | 1.207 8 | 0.978 8 | ||
| 40 | 0.043 6 | 47.714 3 | 25.250 0 | 1.089 4 | 0.985 4 | ||
Table 2 Mean values of model parameters for Spartina alterniflora light response curve
| 模型 Model | 叶片温度 Tleaf (℃) | 初始斜率 α | 最大净光合速率 Amax (µmol·m-2·s-1) | 光补偿点 Ic (µmol·m-2·s-1) | 暗呼吸速率 Rd (µmol·m-2·s-1) | 模型拟合的决定系数 R | |
|---|---|---|---|---|---|---|---|
| 直角双曲线模型 Rectangular hyperbola model | 20 | 0.094 3 | 61.488 0 | 107.877 6 | 8.732 0 | 0.962 2 | |
| 25 | 0.089 3 | 68.372 4 | 120.464 5 | 9.298 3 | 0.966 2 | ||
| 30 | 0.102 7 | 66.953 5 | 107.877 5 | 9.508 1 | 0.961 5 | ||
| 35 | 0.104 8 | 68.320 1 | 107.877 6 | 9.702 2 | 0.960 3 | ||
| 40 | 0.096 4 | 62.854 3 | 107.877 5 | 8.926 0 | 0.961 1 | ||
| 非直角双曲线模型 Non-rectangular hyperbolic model | 20 | 0.092 9 | 61.667 2 | 107.155 9 | 8.568 8 | 0.962 2 | |
| 25 | 0.042 4 | 39.048 8 | 103.921 2 | 4.400 1 | 0.992 7 | ||
| 30 | 0.045 6 | 39.765 2 | 84.978 2 | 3.864 5 | 0.989 3 | ||
| 35 | 0.046 5 | 40.576 8 | 84.978 5 | 3.943 4 | 0.989 4 | ||
| 40 | 0.042 8 | 37.330 6 | 84.978 1 | 3.627 9 | 0.988 9 | ||
| 直角双曲线修正模型 Modified model of rectangular hyperbola | 20 | 0.055 4 | 32.908 7 | 97.673 4 | 5.216 4 | 0.980 8 | |
| 25 | 0.058 1 | 34.590 9 | 120.743 9 | 6.720 5 | 0.984 6 | ||
| 30 | 0.060 3 | 35.833 9 | 97.673 3 | 5.680 0 | 0.981 1 | ||
| 35 | 0.061 6 | 36.565 2 | 97.673 5 | 5.796 0 | 0.981 3 | ||
| 40 | 0.056 6 | 33.640 0 | 97.673 3 | 5.332 3 | 0.980 2 | ||
| 指数模型 Exponential model | 20 | 0.063 4 | 37.039 3 | 19.380 2 | 1.207 8 | 0.971 5 | |
| 25 | 0.062 3 | 40.246 5 | 19.741 8 | 1.212 0 | 0.974 2 | ||
| 30 | 0.069 0 | 40.331 7 | 17.773 8 | 1.207 8 | 0.972 3 | ||
| 35 | 0.061 6 | 36.565 2 | 97.673 5 | 5.796 0 | 0.980 8 | ||
| 40 | 0.064 8 | 37.862 4 | 18.952 0 | 1.207 8 | 0.978 8 | ||
| 40 | 0.043 6 | 47.714 3 | 25.250 0 | 1.089 4 | 0.985 4 | ||
Fig. 2 Analysis of differences in model parameters of Phragmites australis light response at different temperatures. Amax, maximum net photosynthetic rate; Ic, light compensation point; Rd, dark respiration rate; Tleaf, leaf temperature.
Fig. 3 Linear regression analysis of four light response models for Phragmites australis. A, Rectangular hyperbola model. B, Non-rectangular hyperbolic model. C, Exponential model. D, Modified model of rectangular hyperbola.
Fig. 4 Analysis of differences in model parameters of light response of Spartina alterniflora at different temperatures. Amax, maximum net photosynthetic rate; Ic, light compensation point; Rd, dark respiration rate; Tleaf, leaf temperature.
Fig. 5 Linear regression analysis of four light response models for Spartina alterniflora. A, Rectangular hyperbola model. B, Non-rectangular hyperbolic model. C, Exponential model. D, Modified model of rectangular hyperbola.
| 模型 Model | 叶片温度 Tleaf (℃) | 初始斜率 α | 最大净光合速率 Amax (µmol·m-2·s-1) | CO2补偿点 | 光呼吸速率 Rp (µmol·m-2·s-1) | 模型拟合的决定系数 R |
|---|---|---|---|---|---|---|
| 直角双曲线模型 Rectangular hyperbola model | 20 | 0.183 2 | 119.943 6 | 106.343 3 | 16.737 4 | 0.998 5 |
| 25 | 0.193 8 | 116.599 2 | 74.536 9 | 12.861 2 | 0.996 1 | |
| 30 | 0.207 5 | 115.981 9 | 77.440 0 | 14.119 1 | 0.993 7 | |
| 35 | 0.230 9 | 113.510 7 | 99.638 3 | 19.009 4 | 0.983 6 | |
| 40 | 0.202 5 | 111.775 0 | 101.130 7 | 17.300 0 | 0.998 8 | |
| Michaelis-Menten模型 Michaelis-Menten model | 20 | - | 119.943 6 | 106.343 3 | 16.737 4 | 0.998 5 |
| 25 | - | 116.599 2 | 74.536 9 | 12.861 2 | 0.996 1 | |
| 30 | - | 115.981 9 | 77.440 0 | 14.119 1 | 0.993 7 | |
| 35 | - | 113.510 7 | 99.638 3 | 19.009 4 | 0.983 6 | |
| 40 | - | 111.775 0 | 101.130 7 | 17.300 0 | 0.998 8 | |
| 直角双曲线修正模型 Modified model of rectangular hyperbola | 20 | 0.153 3 | 41.087 1 | 108.154 3 | 15.344 0 | 0.998 8 |
| 25 | 0.159 7 | 44.594 2 | 74.905 0 | 11.331 9 | 0.997 2 | |
| 30 | 0.174 1 | 46.207 5 | 77.867 5 | 12.638 7 | 0.994 6 | |
| 35 | 0.179 5 | 40.513 9 | 101.701 9 | 16.789 8 | 0.986 6 | |
| 40 | 0.169 4 | 41.739 2 | 102.650 3 | 15.800 8 | 0.999 1 |
Table 3 Mean values of Phragmites australis CO2 response model parameters
| 模型 Model | 叶片温度 Tleaf (℃) | 初始斜率 α | 最大净光合速率 Amax (µmol·m-2·s-1) | CO2补偿点 | 光呼吸速率 Rp (µmol·m-2·s-1) | 模型拟合的决定系数 R |
|---|---|---|---|---|---|---|
| 直角双曲线模型 Rectangular hyperbola model | 20 | 0.183 2 | 119.943 6 | 106.343 3 | 16.737 4 | 0.998 5 |
| 25 | 0.193 8 | 116.599 2 | 74.536 9 | 12.861 2 | 0.996 1 | |
| 30 | 0.207 5 | 115.981 9 | 77.440 0 | 14.119 1 | 0.993 7 | |
| 35 | 0.230 9 | 113.510 7 | 99.638 3 | 19.009 4 | 0.983 6 | |
| 40 | 0.202 5 | 111.775 0 | 101.130 7 | 17.300 0 | 0.998 8 | |
| Michaelis-Menten模型 Michaelis-Menten model | 20 | - | 119.943 6 | 106.343 3 | 16.737 4 | 0.998 5 |
| 25 | - | 116.599 2 | 74.536 9 | 12.861 2 | 0.996 1 | |
| 30 | - | 115.981 9 | 77.440 0 | 14.119 1 | 0.993 7 | |
| 35 | - | 113.510 7 | 99.638 3 | 19.009 4 | 0.983 6 | |
| 40 | - | 111.775 0 | 101.130 7 | 17.300 0 | 0.998 8 | |
| 直角双曲线修正模型 Modified model of rectangular hyperbola | 20 | 0.153 3 | 41.087 1 | 108.154 3 | 15.344 0 | 0.998 8 |
| 25 | 0.159 7 | 44.594 2 | 74.905 0 | 11.331 9 | 0.997 2 | |
| 30 | 0.174 1 | 46.207 5 | 77.867 5 | 12.638 7 | 0.994 6 | |
| 35 | 0.179 5 | 40.513 9 | 101.701 9 | 16.789 8 | 0.986 6 | |
| 40 | 0.169 4 | 41.739 2 | 102.650 3 | 15.800 8 | 0.999 1 |
| 模型 Model | 叶片温度 Tleaf (℃) | 初始斜率 α | 最大净光合速率 Amax (µmol·m-2·s-1) | CO2补偿点 | 光呼吸速率 Rp (µmol·m-2·s-1) | 模型拟合的决定系数 R |
|---|---|---|---|---|---|---|
| 直角双曲线模型 Rectangular hyperbola model | 20 | 2.260 4 | 74.634 5 | 22.385 1 | 30.155 5 | 0.992 6 |
| 25 | 2.130 4 | 74.802 1 | 22.121 0 | 28.911 8 | 0.993 1 | |
| 30 | 2.169 4 | 75.013 1 | 20.975 6 | 28.322 8 | 0.992 7 | |
| 35 | 1.272 5 | 69.188 4 | 19.595 8 | 18.329 9 | 0.997 4 | |
| 40 | 1.786 0 | 69.854 8 | 18.670 9 | 22.571 1 | 0.993 4 | |
| Michaelis-Mente模型 Michaelis-Menten model | 20 | - | 74.634 5 | 22.385 1 | 30.155 5 | 0.992 6 |
| 25 | - | 74.802 1 | 22.121 0 | 28.911 8 | 0.993 1 | |
| 30 | - | 75.013 1 | 20.975 6 | 28.322 8 | 0.992 7 | |
| 35 | - | 69.188 4 | 19.595 8 | 18.329 9 | 0.997 4 | |
| 40 | - | 69.854 8 | 18.670 9 | 22.571 1 | 0.993 4 | |
| 直角双曲线修正模型 Modified model of rectangular hyperbola | 20 | 0.596 4 | 39.818 2 | 11.817 3 | 6.383 9 | 0.995 3 |
| 25 | 0.626 2 | 40.902 1 | 13.017 0 | 7.305 3 | 0.992 7 | |
| 30 | 0.620 1 | 41.776 0 | 10.861 1 | 6.146 0 | 0.997 5 | |
| 35 | 0.625 3 | 43.911 9 | 13.381 3 | 7.498 2 | 0.997 0 | |
| 40 | 0.617 1 | 42.079 5 | 10.173 1 | 5.762 8 | 0.998 8 |
Table 4 Mean values of Spartina alterniflora CO2 response model parameters
| 模型 Model | 叶片温度 Tleaf (℃) | 初始斜率 α | 最大净光合速率 Amax (µmol·m-2·s-1) | CO2补偿点 | 光呼吸速率 Rp (µmol·m-2·s-1) | 模型拟合的决定系数 R |
|---|---|---|---|---|---|---|
| 直角双曲线模型 Rectangular hyperbola model | 20 | 2.260 4 | 74.634 5 | 22.385 1 | 30.155 5 | 0.992 6 |
| 25 | 2.130 4 | 74.802 1 | 22.121 0 | 28.911 8 | 0.993 1 | |
| 30 | 2.169 4 | 75.013 1 | 20.975 6 | 28.322 8 | 0.992 7 | |
| 35 | 1.272 5 | 69.188 4 | 19.595 8 | 18.329 9 | 0.997 4 | |
| 40 | 1.786 0 | 69.854 8 | 18.670 9 | 22.571 1 | 0.993 4 | |
| Michaelis-Mente模型 Michaelis-Menten model | 20 | - | 74.634 5 | 22.385 1 | 30.155 5 | 0.992 6 |
| 25 | - | 74.802 1 | 22.121 0 | 28.911 8 | 0.993 1 | |
| 30 | - | 75.013 1 | 20.975 6 | 28.322 8 | 0.992 7 | |
| 35 | - | 69.188 4 | 19.595 8 | 18.329 9 | 0.997 4 | |
| 40 | - | 69.854 8 | 18.670 9 | 22.571 1 | 0.993 4 | |
| 直角双曲线修正模型 Modified model of rectangular hyperbola | 20 | 0.596 4 | 39.818 2 | 11.817 3 | 6.383 9 | 0.995 3 |
| 25 | 0.626 2 | 40.902 1 | 13.017 0 | 7.305 3 | 0.992 7 | |
| 30 | 0.620 1 | 41.776 0 | 10.861 1 | 6.146 0 | 0.997 5 | |
| 35 | 0.625 3 | 43.911 9 | 13.381 3 | 7.498 2 | 0.997 0 | |
| 40 | 0.617 1 | 42.079 5 | 10.173 1 | 5.762 8 | 0.998 8 |
Fig. 6 Analysis of differences in model parameters of Phragmites australis CO2 response at different temperatures. Amax, maximum net photosynthetic rate; Γ*, CO2 compensation point; Rp, light respiration rate; Tleaf, leaf temperature.
Fig. 7 Linear regression analysis of three CO2 response models for Phragmites australis. A, Rectangular hyperbola model. B, Michaelis-Menten model. C, Modified model of rectangular hyperbola.
Fig. 8 Difference analysis of model parameters of CO2 response of Spartina alterniflora at different temperatures. Amax, maximum net photosynthetic rate; Γ*, CO2 compensation point; Rp, light respiration rate; Tleaf, leaf temperature.
Fig. 9 Linear regression analysis of three CO2 response models for Spartina alterniflora. A, Rectangular hyperbola model. B, Michaelis-Menten model. C, Modified model of rectangular hyperbola.
Fig. 10 Correlation analysis of photosynthetic metrics in Phragmites australis and Spartina alterniflora. A, Correlation analysis of photosynthetic indexes in Phragmites australis. B, Correlation analysis of photosynthetic indexes in Spartina alterniflora. A, net photosynthetic rate; Ci, plant intercellular CO2 concentration; Ca, ambient CO2 concentration; E, transpiration rate; gs, stomatal conductance; H, humidity; PAR, effective photosynthetic radiation; RH, relative humidity; Ta, temperature; Tleaf, leaf temperature; VPD, water vapor pressure deficit; WUE, water use efficiency. *, p < 0.05.
Fig. 11 Training process of a multifactorial photosynthetic rate prediction model based on Theory-guided neural network (TgNN). A, Training set loss variation. B, Test set loss variation.
| 植物类别 Plant category | 模型种类 Types of model | 平均绝对误差 MAE | 平均绝对百分比误差 MAPE | 均方误差 MSE | 均方根误差 RMSE |
|---|---|---|---|---|---|
| 芦苇 Phragmites australis | 多元线性回归 Multiple linear regression | 5.426 1 | 0.128 1 | 5.580 1 | 0.131 8 |
| 神经网络 Neural network | 4.687 0 | 0.110 4 | 4.736 8 | 0.111 5 | |
| 随机森林 Random forest | 4.343 6 | 0.102 5 | 4.345 3 | 0.102 6 | |
| 支持向量回归 Support vector regression | 5.584 9 | 0.131 9 | 5.658 1 | 0.133 7 | |
| 理论指导的神经网络 Theory-guided neural network | 2.574 5 | 0.060 7 | 2.669 2 | 0.063 6 | |
| 互花米草 Spartina alterniflora | 多元线性回归 Multiple linear regression | 3.737 3 | 0.332 3 | 4.215 1 | 0.583 1 |
| 神经网络 Neural network | 3.301 7 | 0.193 2 | 4.457 8 | 0.269 2 | |
| 随机森林 Random forest | 1.801 0 | 0.183 3 | 2.064 0 | 0.494 4 | |
| 支持向量回归 Support vector regression | 3.806 0 | 0.534 4 | 4.712 5 | 1.179 1 | |
| 理论指导的神经网络 Theory-guided neural network | 1.504 3 | 0.094 9 | 1.668 8 | 0.163 0 |
Table 5 Errors of various models on the test set
| 植物类别 Plant category | 模型种类 Types of model | 平均绝对误差 MAE | 平均绝对百分比误差 MAPE | 均方误差 MSE | 均方根误差 RMSE |
|---|---|---|---|---|---|
| 芦苇 Phragmites australis | 多元线性回归 Multiple linear regression | 5.426 1 | 0.128 1 | 5.580 1 | 0.131 8 |
| 神经网络 Neural network | 4.687 0 | 0.110 4 | 4.736 8 | 0.111 5 | |
| 随机森林 Random forest | 4.343 6 | 0.102 5 | 4.345 3 | 0.102 6 | |
| 支持向量回归 Support vector regression | 5.584 9 | 0.131 9 | 5.658 1 | 0.133 7 | |
| 理论指导的神经网络 Theory-guided neural network | 2.574 5 | 0.060 7 | 2.669 2 | 0.063 6 | |
| 互花米草 Spartina alterniflora | 多元线性回归 Multiple linear regression | 3.737 3 | 0.332 3 | 4.215 1 | 0.583 1 |
| 神经网络 Neural network | 3.301 7 | 0.193 2 | 4.457 8 | 0.269 2 | |
| 随机森林 Random forest | 1.801 0 | 0.183 3 | 2.064 0 | 0.494 4 | |
| 支持向量回归 Support vector regression | 3.806 0 | 0.534 4 | 4.712 5 | 1.179 1 | |
| 理论指导的神经网络 Theory-guided neural network | 1.504 3 | 0.094 9 | 1.668 8 | 0.163 0 |
Fig. 12 Regression analysis of five Phragmites australis photosynthetic rate prediction models. A, Multiple Linear Regression (MLR). B, Neural Network (NN). C, Random Forest (RF). D, Support Vector Regression (SVR). E, Theory-guided Neural Network (TgNN).
Fig. 13 Regression analysis of photosynthetic rate prediction models for five species of Spartina alterniflora. A, Multiple Linear Regression (MLR). B, Neural Network (NN). C, Random Forest (RF). D, Support Vector Regression (SVR). E, Theory-guided Neural Network (TgNN).
| [1] | Ali AA, Nugroho B, Moyano FE, Brambach F, Jenkins MW, Pangle R, Stiegler C, Blei E, Cahyo AN, Olchev A, Irawan B, Ariani R, June T, Tarigan S, Corre MD, et al. (2021). Using a bottom-up approach to scale leaf photosynthetic traits of oil palm, rubber, and two coexisting tropical woody species. Forests, 12, 359. DOI: 10.3390/f12030359. |
| [2] | Bai JH (2019). Target Parameter Acquisition Method of Co-regulation of CO2-light in Cucumber Juvenile Based on Photosynthetic Rate Prediction Model. Master degree dissertation, Northwest A&F University, Yangling, Shaanxi. |
| [白京华 (2019). 基于光合速率预测模型的黄瓜幼期CO2-光照协同调控目标参数获取方法. 硕士学位论文, 西北农林科技大学, 陕西杨凌.] | |
| [3] | Baly ECC (1935). The kinetics of photosynthesis. Proceedings of the Royal Society: Biological Sciences, 117, 218-239. |
| [4] | Bambach N, U KTP, Gilbert ME (2020). A dynamic model of RuBP-regeneration limited photosynthesis accounting for photoinhibition, heat and water stress. Agricultural and Forest Meteorology, 285, 107911. DOI: 10.1016/j.agrformet.2020.107911. |
| [5] | Bassman JH, Zwier JC (1991). Gas exchange characteristics of Populus trichocarpa, Populus deltoides and Populus trichocarpa × P. deltoides clones. Tree Physiology, 8, 145-159. |
| [6] | Cai SQ, Xu DQ (2000). Relationship between the CO2 compensation point and photorespiration in soybean leaves. Acta Photophysiologica Sinica, 26, 545-550. |
| [蔡时青, 许大全 (2000). 大豆叶片CO2补偿点和光呼吸的关系. 植物生理学报, 26, 545-550.] | |
| [7] | Chen YT, Zhang DX (2021). Theory-guided deep-learning for electrical load forecasting (TgDLF) via ensemble long short-term memory. Advances in Applied Energy, 1, 100004. DOI: 10.1016/j.adapen.2020.100004. |
| [8] | Choi D, Jang W, Toda H, Yoshikawa M (2021). Differences in characteristics of photosynthesis and nitrogen utilization in leaves of the black locust (Robinia pseudoacacia L.) according to leaf position. Forests, 12, 348. DOI: 10.3390/f12030348. |
| [9] |
Farquhar GD, Caemmerer SV, Berry JA (1980). A biochemical model of photosynthetic CO2 assimilation in leaves of C3 species. Planta, 149, 78-90.
DOI PMID |
| [10] | García-Rodríguez LDC, Prado-Olivarez J, Guzmán-Cruz R, Rodríguez-Licea MA, Barranco-Gutiérrez AI, Perez-Pinal FJ, Espinosa-Calderon A (2022). Mathematical modeling to estimate photosynthesis: a state of the art. Applied Sciences, 12, 5537. DOI: 10.3390/app12115537. |
| [11] |
Harley PC, Sharkey TD (1991). An improved model of C3 photosynthesis at high CO2: reversed O2 sensitivity explained by lack of glycerate reentry into the chloroplast. Photosynthesis Research, 27, 169-178.
DOI PMID |
| [12] | Hu BG, Zhao X, Yan HP, Ph DR, Blaise F, Xiong FL, Wang YM (2001). Plant growth modeling and visualization— Review and perspective. Acta Automatica Sinica, 27, 816-835. |
| [胡包钢, 赵星, 严红平, de Reffye Ph, Blaise F, 熊范纶, 王一鸣 (2001). 植物生长建模与可视化——回顾与展望. 自动化学报, 27, 816-835.] | |
| [13] |
Karpatne A, Atluri G, Faghmous JH, Steinbach M, Banerjee A, Ganguly A, Shekhar S, Samatova N, Kumar V (2017). Theory-guided data science: a new paradigm for scientific discovery from data. IEEE Transactions on Knowledge and Data Engineering, 29, 2318-2331.
DOI URL |
| [14] | Thornley JHM (1976). Mathematical Models in Plant Physiology: A Quantitative Approach to Problems in Plant and Crop Physiology. Academic Press, London. |
| [15] | Millan-Almaraz JR, Guevara-Gonzalez RG, Romero-Troncoso RDJ, Osornio-Rios RA, Torres-Pacheco I (2009). Advantages and disadvantages on photosynthesis measurement techniques: a review. African Journal of Biotechnology, 8, 7340-7349. |
| [16] |
Wang D, Rianti W, Gálvez F, van der Putten PEL, Struik PC, Yin XY (2022). Estimating photosynthetic parameter values of rice, wheat, maize and sorghum to enable smart crop cultivation. Crop and Environment, 1, 119-132.
DOI URL |
| [17] | Wang NZ, Zhang DX, Chang HB, Li H (2020). Deep learning of subsurface flow via theory-guided neural network. Journal of Hydrology, 584, 124700. DOI: 10.1016/j.jhydrol.2020.124700. |
| [18] | Yang WJ, Sun SX, Wang NX, Fan PX, You C, Wang RQ, Zheng PM, Wang H (2023). Dynamics of the distribution of invasive alien plants (Asteraceae) in China under climate change. Science of the Total Environment, 903, 166260. DOI: 10.1016/j.scitotenv.2023.166260. |
| [19] | Ye ZP (2008). A new model of light-response of photosynthesis and its application. Journal of Biomathematics, 23, 710-716. |
| [叶子飘 (2008). 光合作用对光响应新模型及其应用. 生物数学学报, 23, 710-716.] | |
| [20] |
Ye ZP (2007). A new model for relationship between irradiance and the rate of photosynthesis in Oryza sativa. Photosynthetica, 45, 637-640.
DOI URL |
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