山西省露天煤矿复垦区典型人工林凋落物持水性能研究

doi:10.13866/j.azr.2023.12.16

Abstract

Abstract:

To study the important effects of the water-holding capacity of litter in plantation plants in coal mine dumps on soil and water conservation and ecosystem restoration in mining areas, litter accumulation amount, the thickness, water-holding rate, water-holding capacity, and water absorption rate of different decomposition stages were investigated in four typical plantations of the same age (Populus simonii, Ulmus pumila, Pinus tabulaeformis, and Robinia pseudoacacia forests) in the Antaibao opencast coal mine reclamation area, through field investigation and soaking extraction. The results showed that the litter accumulation amount in the P. simonii forest was higher than that in the R. pseudoacacia and U. pumila forests (P < 0.05). The water-holding capacity and litter rate at different decomposition degrees changed logarithmically with immersion time (P < 0.01). The order of the water absorption rate of litter was R. pseudoacacia forest > U. pumila forest > P. simonii forest > P. tabulaeformis forest, and the water absorption rate showed a significant power function with immersion time (P < 0.01). In conclusion, the litter of the P. simonii forest had the strongest water-holding capacity, whereas the R. pseudoacacia forest had the fastest water absorption rate. Therefore, from the perspective of the water conservation capacity of litter, P. simonii forest should be prioritized and mixed with the R. pseudoacacia forest, which is more conducive to water conservation in the reclamation area of opencast coal mines.

Key words: reclamation area, plantation, litters, water-holding capacity, Shanxi Province

ZHANG Jianhua, ZHANG Kun, LIU Yong, ZHANG Hong, ZHANG Kaiquan, ZHOU Xiaoyang, XU Longchao. Study on water-holding capacity of litters from typical artificial forests in reclaimed regions of the opencast coal mine in Shanxi Province[J].Arid Zone Research, 2023, 40(12): 2043-2052.

Figures/Tables 10

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林型	纬度	经度	海拔 /m	人工林类型	林龄 /a	林下优势种	平均胸径/cm	平均树高/m	密度 /(株·hm^-2)	郁闭度 /%
小叶杨	39°29′26.15″N	112°18′55.30″E	1469	纯林	25	赖草、早熟禾、阿尔泰狗娃花	10.90	5.50	2133	40
榆树	39°29′28.64″N	112°18′44.41″E	1474	纯林	25	兴安胡枝子、早熟禾、阿尔泰狗娃花	12.90	5.50	1100	56
油松	39°29′29.80″N	112°18′46.49″E	1471	纯林	25	兴安胡枝子、早熟禾、阿尔泰狗娃花	10.70	4.70	1500	75
刺槐	39°29′33.35″N	112°18′44.08″E	1474	纯林	25	角蒿、铁杆蒿、早熟禾	9.80	4.80	2033	70

林型	总厚度 /cm	总蓄积量/（t·hm^-2）	未分解层（U）		半分解层（S）
林型	总厚度 /cm	总蓄积量/（t·hm^-2）	蓄积量/（t·hm^-2）	比例/%	蓄积量/（t·hm^-2）	比例/%
小叶杨	2.33±0.44b	3.53±0.72a	1.78±0.23a	53.25±8.13ab	1.76±0.58ab	46.75±8.13ab
榆树	2.60±0.31b	1.38±0.02b	0.93±0.03b	67.26±2.79a	0.45±0.05b	32.74±2.79a
油松	3.60±0.06a	3.14±0.81ab	1.07±0.11b	36.53±4.88b	2.07±0.09a	63.47±4.88b
刺槐	2.70±0.15ab	1.73±0.24ab	0.90±0.03b	53.35±5.63ab	0.83±0.21ab	46.65±5.63ab

人工林类型	凋落物层	方程	R²
小叶杨	半分解层	W=3.5359+0.2899lnt	0.9507^**
小叶杨	未分解层	W=1.3222+0.1070lnt	0.9564^**
榆树	半分解层	W=3.6787+0.3759lnt	0.9739^**
榆树	未分解层	W=2.5010+0.1179lnt	0.9955^**
油松	半分解层	W=3.0141+0.4581lnt	0.9229^**
油松	未分解层	W=1.8658+0.1959lnt	0.9691^**
刺槐	半分解层	W=1.1334+0.2441lnt	0.9814^**
刺槐	未分解层	W=2.0821+0.1668lnt	0.9650^**

人工林类型	凋落物层	方程	R²
小叶杨	半分解层	R=210.21+16.506lnt	0.9760^**
小叶杨	未分解层	R=290.25+24.142lnt	0.9959^**
榆树	半分解层	R=181.71+18.376lnt	0.9845^**
榆树	未分解层	R=301.38+13.745lnt	0.9933^**
油松	半分解层	R=169.70+25.719lnt	0.9199^**
油松	未分解层	R=200.68+21.030lnt	0.9693^**
刺槐	半分解层	R=106.10+23.170lnt	0.9812^**
刺槐	未分解层	R=231.85+18.470lnt	0.9689^**

人工林类型	凋落物层	方程	R²
小叶杨	半分解层	V=2.0981t^-0.927	0.9998^**
小叶杨	未分解层	V=1.7015t^-0.875	0.9986^**
榆树	半分解层	V=2.8951t^-0.923	0.9995^**
榆树	未分解层	V=2.0062t^-0.907	0.9997^**
油松	半分解层	V=1.8133t^-0.909	0.9998^**
油松	未分解层	V=1.058t^-0825	0.9994^**
刺槐	半分解层	V=3.013t^-0.957	0.9999^**
刺槐	未分解层	V=2.3135t^-0.926	0.9997^**

Study on water-holding capacity of litters from typical artificial forests in reclaimed regions of the opencast coal mine in Shanxi Province

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