Subalpine Coniferous Forests of Central Honshu, Japan

Franklin, Jerry F.; Maeda, Taku; Ohsumi, Y.; Matsui, M.; Yagi, H.; Hawk, Glenn M.

doi:10.2307/1942487

Cited by 119 publications

(89 citation statements)

References 10 publications

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“…There are three undergrowth types characterized by the dominant plant, they are moss, herb, and dwarf-bamboo: Sasa and Sasamorpha, and forests with moss undergrowth always have many conifer seedlings and young individuals, whereas those with dwarf-bamboo have few young individuals on the forest floor (Franklin et al 1979).…”

Section: Introductionmentioning

confidence: 99%

Effect of bryophytes on survival of conifer seedlings in subalpine forests of central Japan

Nakamura

1992

Ecological Research

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Bryophytes form the major seedbed for coniferous trees in the subalpine forests of central Japan. Field experiments were conducted on the floor of a closed stand dominated by Tsuga on Mt Fuji to examine the seedling survival of Abies veitchii and Tsuga diversifolia in seven substrate types in relation to the morphological characteristics of the seeds and seedlings. Neither Abies nor Tsuga seedlings could survive on dwarf-bamboo litter beyond 2 years after the seed rain. Abies seedlings survived not only in all types of bryophyte communities but also in larch litter. In contrast, the survival of Tsuga seedlings was restricted to communities of smaller-statured bryophytes found on logs. The seeds and 1st year seedlings of A.veitchii were larger than those of T. diversifolia. Abies seedlings produced hypocotyls taller than any bryophyte community and radicles which were long enough to penetrate into the moist humus layer, whereas Tsuga seedling radicles presumably penetrate into humus only in bryophyte communities forming a thin mat on logs. The effect of bryophytes on survival of tree seedlings therefore depends on the relationships between the morphology of seeds and seedlings and the structure of bryophyte communities.

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Section: Introductionmentioning

confidence: 99%

Effect of bryophytes on survival of conifer seedlings in subalpine forests of central Japan

Nakamura

1992

Ecological Research

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“…Bamboo plays an important role for the giant panda itself and its habitat protection Qin, 1987, 1993;Taylor et al, 1995;Wu et al, 2005b), forest regeneration, and forest structure and function maintenance (Franklin et al, 1979;Narukawa and Yamamoto, 2002). However, cold temperature often limits plant growth in most of the dwarf bamboo habitats, leading to poor soil nutrient availability in spring .…”

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confidence: 99%

Effect of Stem Density on Leaf Nutrient Dynamics and Nutrient Use Efficiency of Dwarf Bamboo

Yang

Wang

et al. 2009

Pedosphere

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“…Bamboos are typical understory tree-grasses in Japanese, Chilean, and Chinese temperate and subalpine forests where they achieve a high degree of dominance (Franklin et al, 1979;Taylor and Qin, 1988;Veblen, 1982). Many mammals and birds rely on this special niche as sites for foraging and nesting, in which the most famous are giant panda (Ailuropoda melanoleuca), red panda (Ailurus fulgens), and golden pheasant (Chrysolophus pictu) (Gong et al, 2006;Reid et al, 1991;Reid et al, 2004;Schaller et al, 1985).…”

Section: Introductionmentioning

confidence: 99%

Understory Bamboo Discrimination Using a Winter Image

Wang¹,

Skidmore²,

Toxopeus³

et al. 2009

photogramm eng remote sensing

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In this study, a new approach is presented that combines forest phenology and Landsat vegetation indices to estimate evergreen understory bamboo coverage in a mixed temperate forest. It was found that vegetation indices, especially the normalized difference vegetation index (NDVI) derived from leaf-off (winter) IntroductionUnderstory plants are important elements of forest structure and composition, providing habitat and forage for wildlife, and contributing to flora diversity (McKenzie and Halpern, 1999;Rettie et al., 1997). Bamboos are typical understory tree-grasses in Japanese, Chilean, and Chinese temperate and subalpine forests where they achieve a high degree of dominance (Franklin et al., 1979;Taylor and Qin, 1988;Veblen, 1982). Many mammals and birds rely on this special niche as sites for foraging and nesting, in which the most famous are giant panda (Ailuropoda melanoleuca), red panda (Ailurus fulgens), and golden pheasant (Chrysolophus pictu) (Gong et al., 2006;Reid et al., 1991;Reid et al., 2004;Schaller et al., 1985). Knowledge of understory bamboo presence/absence and its abundance would enable wildlife managers to identify areas of suitable habitat for dependent animals and birds Understory Bamboo DiscriminationUsing a Winter Image Tiejun Wang, Andrew K. Skidmore, Albertus G. Toxopeus, and Xuehua Liu (Borkowski and Furubayashi, 1998;Diaz et al., 2005;Liu et al., 2005;Reid et al., 2004;Warner, 2002). However, our understanding of understory bamboo spatial distribution at local and national levels is limited, as previous studies focused on ground surveys executed over small and intensively study sites. In addition, the complexity of bamboo distribution, influenced by human activities (clear cutting and fire), as well as periodical mass flowering and die-off (Reid et al., 1989), makes the up-scaling to large areas through conventional point-based environmental modeling extremely difficult. A few studies have been conducted at large landscape level. For example, the panda habitat assessment in the Wolong Nature Reserve of Sichuan (Liu et al., 2001) and the Qinling Mountains of Shaanxi (Loucks et al., 2003) in China assumed that the distribution of understory bamboo has a constant spatial cover. In these studies the authors noted that the unsuitable habitat would be underestimated, because critical information affecting panda habitat, such as bamboo distribution, was not available for the entire region. Remote sensing may be suitable for mapping forest understory across large areas. For example, Morain (1986) conducted a primary investigation on understory bamboo assessment in a Chinese panda reserve using 35 mm color infrared air photographs (scale 1:12 000) acquired in April (leaf-off season). He reported that three types of understory bamboo status (mixed with deciduous trees, mixed with coniferous trees, and mainly deciduous vegetation without bamboo) may be visually distinguished. By utilizing summer TM image and an unsupervised classification approach, Stenback and Congalton (1990) de...

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Subalpine Coniferous Forests of Central Honshu, Japan

Cited by 119 publications

References 10 publications

Effect of bryophytes on survival of conifer seedlings in subalpine forests of central Japan

Effect of bryophytes on survival of conifer seedlings in subalpine forests of central Japan

Effect of Stem Density on Leaf Nutrient Dynamics and Nutrient Use Efficiency of Dwarf Bamboo

Understory Bamboo Discrimination Using a Winter Image

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