基于过程的阔叶树(BTR)气候驱动木质化和树环形成模型。

IF 3.5 2区 农林科学 Q1 FORESTRY Tree physiology Pub Date : 2024-11-05 DOI:10.1093/treephys/tpae127
Binqing Zhao, Wenqi Song, Zecheng Chen, Qingzhu Zhang, Di Liu, Yuxin Bai, Zongshan Li, Hanjun Dong, Xiaohui Gao, Xingxing Li, Xiaochun Wang
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引用次数: 0

摘要

基于过程的木质部形成模型是了解树木径向生长过程及其影响因素的重要工具。虽然针叶树的木质部形成模型已经开发了很多,但还缺乏非针叶树的模型。在本研究中,我们提出了一个基于过程的模型,该模型专为阔叶树木质部形成和环生长而设计,我们称之为阔叶树环(BTR)模型。气候因素(包括昼长、气温、土壤湿度和水汽压差)驱动木质部细胞的日常生产(纤维和血管)和生长(增大、壁沉积)。该模型计算模拟区域的细胞总面积,以确定年环宽度。结果表明,BTR 模型基本上可以模拟 Fraxinus mandshurica(环状多孔)和 Betula platyphylla(弥漫多孔)的环状宽度年际变化以及血管和纤维细胞形成的年内变化。BTR 模型是了解不同树木如何形成木材以及气候变化如何影响这一过程的潜在工具。
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A process-based model of climate-driven xylogenesis and tree-ring formation in broad-leaved trees (BTR).

The process-based xylem formation model is an important tool for understanding the radial growth process of trees and its influencing factors. While numerous xylogenesis models for conifers have been developed, there is a lack of models available for non-coniferous trees. In this study, we present a process-based model designed for xylem formation and ring growth in broad-leaved trees, which we call the Broad-leaved Tree-Ring (BTR) model. Climate factors, including daylength, air temperature, soil moisture and vapor pressure deficit, drive daily xylem cell production (fibers and vessels) and growth (enlargement, wall deposition). The model calculates the total cell area in the simulated zone to determine the annual ring width. The results demonstrate that the BTR model can basically simulate inter-annual variation in ring width and intra-annual changes in vessel and fiber cell formation in Fraxinus mandshurica (ring-porous) and Betula platyphylla (diffuse-porous). The BTR model is a potential tool for understanding how different trees form wood and how climate change influences this process.

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来源期刊
Tree physiology
Tree physiology 农林科学-林学
CiteScore
7.10
自引率
7.50%
发文量
133
审稿时长
1 months
期刊介绍: Tree Physiology promotes research in a framework of hierarchically organized systems, measuring insight by the ability to link adjacent layers: thus, investigated tree physiology phenomenon should seek mechanistic explanation in finer-scale phenomena as well as seek significance in larger scale phenomena (Passioura 1979). A phenomenon not linked downscale is merely descriptive; an observation not linked upscale, might be trivial. Physiologists often refer qualitatively to processes at finer or coarser scale than the scale of their observation, and studies formally directed at three, or even two adjacent scales are rare. To emphasize the importance of relating mechanisms to coarser scale function, Tree Physiology will highlight papers doing so particularly well as feature papers.
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