Three-dimensional vegetation structure of Tillandsia latifolia on a coppice dune

被引:16
|
作者
Hesse, Ralf [1 ]
机构
[1] State Off Cultural Heritage, D-73728 Esslingen Am Neckar, Germany
关键词
Coppice dune; Peru; 3D recording; Tillandsia; Vegetation structure; ATACAMA DESERT; NORTHERN CHILE; PATTERNS; LOMAS; PERU; DEPOSITION;
D O I
10.1016/j.jaridenv.2014.05.001
中图分类号
Q14 [生态学(生物生态学)];
学科分类号
071012 ; 0713 ;
摘要
Coppice dunes covered by epiarenic Tillandsia fog vegetation occur in the Peruvian coastal desert. To analyse the three-dimensional vegetation structure on such a coppice dune, a photogrammetric structure-from-motion approach is applied. A photogrammetric plant height map was derived from a digital surface model and a digital terrain model created by this approach. This plant height map is analysed in conjunction with stand-scale vegetation patterns, regional wind direction derived from migrating dunes, near-surface wind direction derived from the orientation of sand ripples and ground observations. Tillandsia vegetation patterns are non-random. Banded and reticulate patterns occur at stand scale. At metre to sub-metre scale, groups of tall plants occur in clusters as well as in rows aligned with air movement. While self-organisation processes related to maximising fog moisture capture by the plants and to coppice dune growth appear to control the development of the banded to reticulate pattern, retaining an upright growing position (and hence continued exposure to fog moisture on decadal time scales) by minimising aeolian erosion at the base of these rootless plants appears to control the development of rows and clusters at metre to sub-metre scale. (C) 2014 Elsevier Ltd. All rights reserved.
引用
收藏
页码:23 / 30
页数:8
相关论文
共 50 条
  • [41] Electronic structure of three-dimensional graphyne
    Narita, N
    Nagai, S
    Suzuki, S
    Nakao, K
    PHYSICAL REVIEW B, 2000, 62 (16) : 11146 - 11151
  • [42] Three-dimensional structure of a purple lipoxygenase
    Skrzypczak-Jankun, E
    Bross, RA
    Carroll, RT
    Dunham, WR
    Funk, MO
    JOURNAL OF THE AMERICAN CHEMICAL SOCIETY, 2001, 123 (44) : 10814 - 10820
  • [43] Modeling the three-dimensional structure of CFTR
    Senderowitz H.
    Fischman S.
    Kalid O.
    Sela I.
    Shitrit A.
    Strajbl M.
    Marantz Y.
    PEDIATRIC PULMONOLOGY, 2007, : 219 - 219
  • [44] Revealing the three-dimensional structure of composites
    Sealy, Cordelia
    MATERIALS TODAY, 2006, 9 (04) : 10 - 10
  • [45] Three-dimensional genome structure and function
    Liu, Hao
    Tsai, Hsiangyu
    Yang, Maoquan
    Li, Guozhi
    Bian, Qian
    Ding, Gang
    Wu, Dandan
    Dai, Jiewen
    MEDCOMM, 2023, 4 (04):
  • [46] Three-dimensional structure of human γ-secretase
    Peilong Lu
    Xiao-chen Bai
    Dan Ma
    Tian Xie
    Chuangye Yan
    Linfeng Sun
    Guanghui Yang
    Yanyu Zhao
    Rui Zhou
    Sjors H. W. Scheres
    Yigong Shi
    Nature, 2014, 512 : 166 - 170
  • [47] On the structure of faces of three-dimensional polytopes
    Shtogrin, MI
    IZVESTIYA MATHEMATICS, 2005, 69 (04) : 847 - 864
  • [48] Three-dimensional structure of binase in solution
    Reibarkh, MY
    Nolde, DE
    Vasilieva, LI
    Bocharov, EV
    Shulga, AA
    Kirpichnikov, MP
    Arseniev, AS
    FEBS LETTERS, 1998, 431 (02): : 250 - 254
  • [49] The three-dimensional structure of our galaxy
    Perryman, MAC
    HIGHLIGHTS OF ASTRONOMY, VOL 12, 2002, 12 : 3 - 17
  • [50] The Three-Dimensional Structure of the Inner Heliosphere
    Riley, Pete
    TWELFTH INTERNATIONAL SOLAR WIND CONFERENCE, 2010, 1216 : 323 - 328