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影響都市公園陸生繁殖鳥群聚之探討

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୯ҥᆵ᡼εᏢғᄊᏢᆶᄽϯғނᏢࣴز܌

ᅺγፕЎ

Institute of Ecology and Evolutionary Biology College of Life Science

National Taiwan University Master thesis

ቹៜ೿ѱϦ༜ഌғᕷ෗ചဂᆫϐ௖૸

Study on terrestrial breeding bird community of urban parks

Ц✎◖

Yu-Wei Wang

ࡰᏤ௲௤Ǻ׵୻޹ റγ Adviser: Pei-Fan Lee, Ph.D.

ύ๮҇୯ 103 ԃ 7 Д July 2014

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Ūġ

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ठ ठᖴ

ҁፕЎૈ໩ճֹԋǴ२Ӄҗ૱ޑགᖴࡰᏤ௲௤׵୻޹റγǴ๏ϒך೭ঁ

ᐒ཮Ǵ٠ᕴӧᜢᗖޑਔং๏ϒךࡰᏤᆶࡌ᝼ǴΨவԴৣي΢Ꮲډ೚ӭ଺ࣴزᔈԖ ޑᄊࡋǴзᏢғಖيڙ੻ঘభǶӧፕЎޑঅ҅ᆶጓኗ΢Ǵा੝ձགᖴ࢒٫֗റγǵ

΍ے᝵റγϷ஭ฐӵറγǴΟՏԴৣගٮך೚ӭᝊ຦Ъ஑཰ཀـᆶࡰ௲Ǵ٬ҁЎ ፕޑϣ৒׳уޑֹ᏾ᆶዴჴǴӕਔΨ٬ךӆࡋᕇள೚ӭࣽᏢࣴز΢ޑࡘགྷޑ௴ว ᆶԏᛘǴӧԜ૱ЈޑགᖴǶ

ךᗋा੝ձགᖴࣴز૸ፕλಔޑԋ঩Ƕλ࢒Ꮲߏᕴࢂ኷ܭࡰᏤǵ໺܍ࣴز࿶

ᡍ٠ᇡ੿ӦࡰрୢᚒǴ٥ᑼǵЎฐکߪ܃΋ޔࢂவᚒҞ૸☣ǵፓࢗډፕЎቪբၸ ำύ΋ଆոΚޑუՔǴࢂ೭ٿԃٰനྕཪޑЍ࡭Ƕགᖴࡘ៼ǵଈԳǵKeven ӧനࡕ ፕЎፂڈޑਔයǴਔਔڅڅ๏ϒךᜢྣکගᒬǶӕਔΨाགᖴޜ໔ғᄊࣴزࢂޑ

܌ԖӕϘǴ೭ٿԃӧࣴز࠻ޑགྷрǴ٬ךόፕӧፐ཰ǵࣴز܈ғࢲ΢Ǵ೿ಕᕮ೚

ӭᆶа۳όӕޑ࿶ᐕǴԜғ೿ஒڙҔόᅰǴΨᡣךૈ୼໩ճֹԋךޑࣴزǶ ԜѦǴךᗋाགᖴڐշךፓࢗޑୖᆶޣǴ໳҅ӹǵᑵဃণǵቅηඦǴ׳੝ձ གᖴӧፓࢗکፕЎڐբਔคਔคڅ๏ϒЍ࡭ǵႴᓰکഉՔޑζܻ϶ಷࡏࡀǶךૈ

գॺᇥޑόӭǴՠҗ૱ག᝺Ԗգॺ੿ӳǶനࡕᗋाགᖴךޑݿݿǵ༰༰΋ޔаٰ

ჹךޑᜢЈکྣ៝ǴᡣךૈؒԖځдᓸΚޑރݩΠǴ஑Ј׫Ε೭ٿԃޑࣴزғࢲǶ ךஒ೭ҽ഻৹ᆶգॺϩ٦Ǽ

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ύ

ύЎᄔा

ࣁ௖૸ቹៜ೿ѱϦ༜ചᜪဂᆫޑख़ाӢηǴх֖Ϧ༜य़ᑈǵහ݅႖ᚆࡋǵݞ ࢬ႖ᚆࡋǵ෌ғࡰኧǵΓ೷ނᙟᇂКٯǵᐋ߷ᙟᇂКٯǵᆶϦ༜ύНᡏϐр౜Ǵ ҁࣴزܭ 2013 ԃ 3 Д~7 ДܭᆵчࣧӦ (ᆵчѱᆶཥчѱ) ೿ѱ୔ჹ 100 ঁय़ᑈε ܭ 1 Ϧഘޑ೿ѱϦ༜Ǵаӄ೽ीኧݤ຾ՉΟԛചᜪဂᆫፓࢗǶճҔኧՏεӦቹႽ ᆶӦ౛ၗૻس಍ኧϯӚঁϦ༜ޑय़ᑈǵහ݅႖ᚆࡋǵݞࢬ႖ᚆࡋǵNDVIǵΓ೷ނ ᙟᇂКٯǵᐋ߷ᙟᇂКٯᆶНᡏϐр౜Ƕаቶကጕ܄ኳࠠᆶ Akaike’s Information Criterion ϩ݋Ύঁख़ाӢηᆶഌғᕷ෗ചکځ१܄ӕфဂᆶ෈Ӧӕфဂޑചᅿᙦ

൤ࡋǵചᜪঁᡏஏࡋǵᆶചᜪӭኬ܄ޑᜢ߯Ƕ

ҁࣴز่݀ᡉҢϦ༜य़ᑈࢂቹៜചᜪᙦ൤ࡋکঁᡏஏࡋޑख़ाӢηǴၨεޑ Ϧ༜཮ԖၨӭޑചᅿǵᆶၨեޑঁᡏஏࡋǶНᡏϐр౜Ԗշܭቚуᕴഌғചᜪᙦ

൤ࡋᆶӭኬ܄Ǵӧᚇ१ചᆶቶѲചӕфဂύ੝ձܴᡉǶݞࢬ႖ᚆࡋᆶചᜪᙦ൤ࡋ ևॄ࣬ᜢǴ٠ӧӕфဂ໔ԖόӕޑਏᔈǶΓ೷ނᙟᇂКٯᆶᐋ߷ᙟᇂКٯٿޣჹ ᕴഌғചᜪᙦ൤ࡋԖॄय़ቹៜǶ හ݅႖ᚆࡋᆶ෌ғࡰኧჹᕴഌғᕷ෗ചᜪᙦ൤ࡋ

ؒԖቹៜǴՠٿޣჹᐋ݅ചᙦ൤ࡋᆶӭኬ܄Ԗ҅य़ਏᔈӸӧǶᕴٰ่ᇥǴϦ༜य़ ᑈǵНᡏϐр౜ᆶݞࢬ႖ᚆࡋࢂЬाቹៜϦ༜ചᜪဂᆫ่ᄬޑӢηǴЪόӕޑӕ фဂ໔ჹΎঁख़ाӢηޑϸᔈԖ܌όӕǶ܌аǴਥᏵҁࣴز่݀Ǵ೿ѱϦ༜ೕჄ ޣёଞჹόӕ࿶ᔼᆅ౛Ҟ኱௦ڗаΠБԄǺ(1) ቚуय़ᑈਔ໪ӕਔԵໆϦ༜ϣ೽ޑ Γ೷ނᆶᐋ߷ޑᙟᇂКٯࣣόەၸଯǴаᗉխჹചᜪဂᆫౢғॄय़ቹៜǶ(2) Եໆ හ݅ᆶݞࢬჹϦ༜ޑ࣬ჹՏ࿼ૈԖਏගϲόӕചᜪᜪဂޑӭኬ܄Ƕ(3) Ϧ༜ύቚ೛

НԣૈԖਏቚуചᜪᙦ൤ࡋǴᔈયΕѸा೛ࡼϐ΋Ƕ(4) ቚу೿ѱϦ༜ύޑឲᘀа ቚуឲᘀചр౜ޑᐒ཮Ƕ

ᜢᗖӷǺ ചᜪဂᆫǵ೿ѱϦ༜ǵӕфဂǵᆵчࣧӦ

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Abstract

Parks are biodiversity hotspots in urban landscape, and has considered as “shelter”

of creatures lived in urban. This research aims to understand the effect of the important factors on terrestrial breeding bird communities and its functional guilds in urban parks.

Bird community surveys of 100 parks larger than 1 ha in Taipei basin were conducted three times during March to July in 2013 using total counting. I used generalized linear models and Akaike’s Information Criterion to analyze the seven important factors: park area, the degree of isolation of habitat, the degree of isolation of river, vegetation index, artifact coverage, canopy coverage and the presence of water bodies with the bird species richness, bird density, and bird diversity of terrestrial breeding birds and its feeding guilds and habitat guilds.

Park area were main factor affected the species richness and density, and larger parks tended to support more species but lower density. Presences of water bodies were found to enhance species richness and diversity, especially in omnivores and generalists guilds. In addition, degree of isolation of river showed negative relations with total species richness and had different responses within habitat guilds. Both artifact coverage and canopy coverage had negative effects on total bird richness. Degree of isolation of habitat and vegetation index did not have significant impacts on total species richness, density, and diversity, but only had positive effect on woodland bird richness and diversity. In conclusion, park area park size, presence of water bodies, and degree of isolation of river affected bird community structure, and different functional guilds had different response to seven important factors.

Keywords: Bird community, Urban parks, Guild, Taipei Basin

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Ҟ Ҟᒵ

Contents

߻ق... 1

׷਑ᆶБݤ... 4

ࣴزጄൎ... 4

ኬ୔ᒧڗ... 4

ചᜪፓࢗ... 5

ᕉნᡂኧෳໆ... 5

ചᜪғᄊࡰ኱ीᆉ... 7

ኳࠠᒧ᏷ᆶ଑ᘜϩ݋... 8

ࣴز่݀... 9

ചᜪဂᆫಔԋ... 9

Ϧ༜ᕉნ... 10

ചᜪᙦ൤ኧ... 10

ചᜪঁᡏஏࡋ... 11

ചᜪӭኬ܄... 12

૸ፕ... 13

෈Ӧ৞ᔁӢηჹചᜪဂᆫϐቹៜ ... 13

෌೏ᙟᇂࡋჹചᜪဂᆫϐቹៜ ... 15

ϣ೽ޜ໔่ᄬჹചᜪဂᆫϐቹៜ ... 15

Ϧ༜ύНᡏϐр౜... 16

Ϧ༜ೕჄϐࡌ᝼... 17

ୖԵЎ᝘... 19

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კ კҞᒵ

List of Figures

Fig. 1 Satellite image of Taipei Basin in 2013 which is captured by Google Earth Pro ... 26 Fig. 2 Location of the selected 100 urban parks in this study in Taipei Basin. ... 27 Fig. 3 Results of hierarchy clustering of original feeding guilds according to average linkage with height of 3 before comparing. ... 28 Fig. 4 Results of hierarchy clustering of original habitat guilds according to average linkage with height of 3 before comparing. ... 29 Fig. 5 Boxplot of water and other six variables including park area, distance to forest, distance to rive, NDVI, artifact cover, and canopy cover. ... 30 ġ

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߄ ߄Ҟᒵ

List of Tables

Table 1 Definition of the seven selected variables in this study. ... 31 Table 2 Original resource matrix of feeding guilds in use of hierarchy clustering.. ... 32 Table 3 Original resource matrix of habitat guilds in use of hierarchy clustering.. ... 33 Table 4 Original data of seven selected variables of the one hundred urban parks in this study. ... 35 Table 5 Bird species observed in hundred urban parks. Included specie occurrence park number and its total number... ... 40 Table 6 Bird communities composition of 100 urban parks. Included number of species, bird density, and diversity index. Average and Standard deviation is at the bottom of the table.. ... 42 Table 7 Classification of food guilds of 24 bird species analyzed in the 100 urban parks in this study.... ... 45 Table 8 Classification of habitat guilds of 24 bird species analyzed in the 100 urban parks in this study. ... 46 Table 9 Spearman’s correlation matrix among variables included in analyses of the effects of park area, distance to forest, distance to river, NDVI, canopy cover, and artifact cover on breeding terrestrial bird communities in parks of Taipei Basin in 2013-2014. ... 47 Table 10 Descriptive statistics of seven variables of the 100 urban parks in this study.

Included maximum, minimum, average, standard deviation, and the presence of water. ... 48 Table 11 Results of regression analysis of species richness (number of species) to area, presence of water, distance to forest, distance to river, artifact cover, canopy cover, and NDVI... 49 Table 12 Model Selection for identifying factors that affected number of species of urban parks. Model with ΔAIC < 2 were selected as the best subset of models.

... 50

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Table 13 Relative importance for identifying factors that affected number of species of urban parks. Values are from 0 to 1. ... 51 Table 14 Results of regression analysis of bird density to area, presence of water, distance to forest, distance to river, artifact cover, canopy cover, and NDVI.

... 52 Table 15 Model Selection for identifying factors that affected bird density of urban parks. Model with ΔAIC < 2 were selected as the best subset of models. .... 53 Table 16 Relative importance for identifying factors that affected bird density of urban parks. Values are from 0 to 1. ... 55 Table 17 Results of regression analysis of bird diversity to area, presence of water, distance to forest, distance to river, artifact cover, canopy cover, and NDVI.

... 56 Table 18 Model Selection for identifying factors that affected bird diversity of urban parks. Model with ΔAIC < 2 were selected as the best subset of models. .... 57 Table 19 Relative importance for identifying factors that affected bird diversity of urban parks. Values are from 0 to 1. ... 58

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߻

߻ق

೿ѱΓα՞ӄౚΓαޑКٯِೲӦԋߏǴѝा೿ѱΓα࡭ុᚹϲǴՔᒿԶٰ

ޑӦඳࠠᄊ༈Ѹቚу (Dearborn and Kark 2010)Ƕ೿ѱว৖ޑၸำ࿶த೷ԋԾฅ෈

Ӧ෧Ͽ (Czech et al. 2000)Ǵ೷ԋ೚ӭচғނᅿӢᕉნၸࡋᡂᎂԶεໆྐ๊

(Marzuluff 2001)Ƕՠ೿ѱว৖ύౢғޑઇ࿗෈Ӧ (fragmented habitats) ૈբࣁғނ ᗉᜤ܌ (shelter) ᆶғᄊ൴ၰ (corridor)Ǵ٠ၲډߥៈғނӭኬ܄ޑҞޑ (Gibb and Hochuli 2002)Ƕചᜪ৒ܰᢀჸکӭᡂ෈Ӧᒧ᏷੝܄ࢂࣴز೿ѱઇ࿗෈Ӧғނဂᆫޑ

౛གྷᜪဂ (Chace and Walsh 2006ǹOliver et al. 2011)Ƕ೿ѱઇ࿗෈Ӧޑചᜪဂᆫ཮

ڙډ೚ӭᕉნޜ໔੝܄ቹៜǴх֖෈Ӧय़ᑈ (fragment area) (Opdam et al. 1985ǹ Jokimäki 1999)ǵහ݅႖ᚆࡋ (fragment isolation) (Fernández-Juricic 2004)ǵݞࢬ႖ ᚆࡋ (Knopf 1985ǹRosenberg et al. 1997ǹလӂԃ฻ 2008)ǵ෌೏ᙟᇂࡋ (Zhou and Chou 2012ǹᙁ☰ԁ 2007)ǴаϷϣ೽ޜ໔่ᄬ (Sandström et al. 2006ǹᙁ☰ԁ 2007)

฻฻Ƕ

Ϧ༜ࢂ೿ѱύനЬा೿ѱઇ࿗෈ӦǴ٠೏ᆀբȨғނ৞ᔁ (islands)ȩǴӕਔ Ψࢂ೿ѱύޑғނӭኬ܄዗ᗺ (biodiversity hotspots)ǴӢԜԖ೚ӭаϦ༜ᆘӦࣁЬ ޑചᜪဂᆫӭኬ܄ࣴز (Jokimäki 1999ǹOliver et al. 2011ǹࢫ჏ᖃ 2005ǹᙁ☰ԁ 2007)ǶϦ༜य़ᑈӧ೚ӭࣴزύ೏ᇡࣁࢂϸᔈചᜪᙦ൤ࡋᆶӭኬ܄ޑؼӳࡰ኱

(Opdam et al. 1985ǹJokimäki 1999ǹZhou and Chu 2012)Ǵ٠ᆶചᜪᙦ൤ࡋӸӧ҅

ӛᜢ߯ (஭࣬܃ 2009ǹᎄ⽋ӵ฻ 2006)Ƕ ਥᏵނᅿय़ᑈ౛ፕ (species-area theory)Ǵ

྽ઇ࿗෈Ӧय़ᑈቚуǴځϣх֖׳ӭ෈Ӧᜪࠠޑёૈ܄ຫଯǴёٮғނճҔޑၗ

ྍᅿᜪᆶໆΨຫӭǴ٬ளᕉნૈ܍ၩ׳ӭޑނᅿᆶ׳εޑ௼ဂໆ (Connor and McCoy 1979ǹMacArthur and Wilson 1967ǹWilliams 1943)ǶԶහ݅႖ᚆࡋჹϦ༜

ചᜪဂᆫޑቹៜǴ߾཮ڙࣴزӦᗺǵࣴزۑ࿯ᆶࣴزჹຝቹៜԶԖ܌όӕǶ Fernández-Juricic (2004) ว౜හ݅႖ᚆࡋჹόӕചᅿϐ໔ޑਏᔈόӕǹΨԖࣴزᡉ Ң೿ѱϦ༜ചᜪဂᆫᆶහ݅႖ᚆࡋؒԖᡉ๱ޑᜢ߯ (Jokimäki 1999ǹᙁ☰ԁ

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2007ǹလӂԃ฻ 2008)Ƕ࣬ၨܭහ݅႖ᚆࡋǴݞࢬ႖ᚆࡋᆶϦ༜໔ޑᜢ߯߾ၨϿ೏

ࣴزǶݞࢬ႖ᚆࡋж߄Ϧ༜ډݞࢬޑݞᔭᕉნޑຯᚆǴԖЎ᝘ᇡࣁݞࢬޑݞᔭᕉ ნё଺ࣁ೚ӭചᜪޑ౽୏೯ၰǴӕਔځݞᔭᕉნޑڬൎ෌೏ૈගٮ೚ӭޑ෈Ӧၗ

ྍǴԶ֎Їചᜪр౜ (Knopf 1985ǹRosenberg et al. 1997)Ƕလӂԃ฻ (2008) ޑࣴ

ز่݀ߡว౜Ϧ༜ചᜪᙦ൤ࡋᆶݞࢬ႖ᚆࡋԖॄӛᜢ߯Ƕ෌ނᙟᇂࡋ೏ᇡࣁࢂቹ ៜϦ༜ചᜪဂᆫޑख़ाӢન (Zhou and Chou 2012ǹᙁ☰ԁ 2007)Ǵ٠ᡉҢჹചᜪ ဂᆫӭኬ܄Ԗ҅ӛਏᔈ (Цדဃ 2002ǹᙁ☰ԁ 2007)Ƕ΋૓ٰᇥǴ෌ނᙟᇂࡋё Ҕܭж߄Ϧ༜ϣޑғౢໆǶਥᏵғౢໆ౛ፕǴғౢΚၨଯޑᕉნૈ৒યၨӭޑނ ᅿ (Connell and Orias 1964)ǶԶ݅჏ᖃ (2005) ᇡࣁڰۓ෈Ӧय़ᑈਔऩ෌೏ᙟᇂࡋ ຫଯǴځϣ೽෌೏Սೱᐒ཮ຫεǴၨ৒ܰ׎ԋεय़ᑈޑ໣ύၗྍǴࡺჹചᜪဂᆫ Ԗ҅य़ਏᔈǶ

Ϧ༜ࣁᅈىۚ҇ᆶၯ࠼ޑ٬Ҕሡ؃܌຾Չޑޜ໔ೕჄǴ٬ளϦ༜ϣх֖ӭኬ ޑ෈Ӧᜪࠠ (ᐋ݅ǵНԣǵΓ೷ࡌނ฻)Ǵ೷൩Ϧ༜ፄᚇޑϣ೽ޜ໔่ᄬǶ೿ѱϦ

༜ϣ೽ޜ໔่ᄬаᐋ݅ᆶΓ೷ނࣁЬǴΞӢځϦ༜Ⴤ೛ϐҞޑόӕ٬ளځϣϐᐋ

݅ᆶΓ೷ނޑᙟᇂКٯԖ܌όӕǶ ځύǴᐋ߷ᙟᇂКٯ཮ቹៜϦ༜ޑചᜪဂᆫ (Jokimaki 1999ǹFernandez-Juricic 2000aǹᙁ☰ԁ 2007ǹSalvador and Montelongo 2013)Ƕ೿ѱϦ༜ᆘӦޑᐋ߷ᙟᇂࡋКϺฅහ݅ᕉნٰޑե (Erz 1966)ǴΞ೚ӭച ᅿޑғӸѸ໪һᒘᐋ݅܌ගٮޑ१ނᆶ෈ӦǶ Lancaster and Rees (1979) ว౜ᐋ݅

ᙟᇂКٯΠफ़Ǵ࣬ӕελϐ෈ӦϣചᜪޑނᅿᆶኧໆΨ཮ᒿϐΠफ़Ƕ Ϧ༜ύΓ೷

ނ (ࡌᑐނǵό೸Нᎎय़ᆶኴӦ݈฻) ޑр౜Ǵᗨόૈගٮചᜪ१ނၗྍǴࠅૈග ٮ׳ӭኬޑ෈ӦᜪࠠǶࢫ჏ᖃ (2005) ࣴز่݀ࡰрϦ༜ϣΓ೷ނКٯޑගϲ཮೷

ԋᕴചᜪӭኬ܄Πफ़Ǵՠଯࡋ፾ᔈΓ೷ᕉნޑऐڙ܄ނᅿޑኧໆ཮ᒿϐ΢ϲǶ Нࢂഌୱғᄊسύόё܈લЪ࿶தڙډज़ڋޑၗྍ (McCluney and Sabo 2009)ǶНޑёҔ܄࿶தҔٰႣෳނᅿᙦ൤ࡋǵғނޑኧໆ (Hawkins et al. 2003)Ǵ аϷόӕӕфဂޑӧޜ໔΢ޑϩѲ (Chown and Nicolson 2004ǹGrear and Schmitz

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Ĵġ

2005)Ƕ೿ѱว৖ၸำ٬ளϺฅ෌೏੃Ѩǵό೸НቫቚуᆶΓࣁ໒วԡࢉǴ೷ԋ೿

ѱғᄊسύᛙۓǵଳృޑНྍϐёҔ܄෧ϿǴ຾Զቹៜ೿ѱғᄊس୏ނဂᆫǶ Ҟ

߻௖૸Нჹܭ೿ѱ୏ނဂᆫޑቹៜޑ࣬ᜢࣴزߚதલЮǴՠςԖࣴزว౜Ϧ༜ύ Нᡏϐр౜ჹ೿ѱϦ༜ᆘӦചᜪဂᆫӸӧ҅य़ਏᔈ (ᙁ☰ԁ 2006ǹလӂԃ฻ 2008)Ƕ ӕфဂ (guilds) ޑۓကࢂ΋ဂόӕޑނᅿа࣬ӕޑБԄճҔ࣬՟ޑᕉნၗྍ

(Dayan 1991)Ƕ྽੝ۓޑᕉნၗྍᡂ୏ਔǴߡ཮ቹៜځ࣬ჹᔈӕфဂύޑނᅿ (Severinghaus 1981)ǶԶόӕޑӕфဂ໔཮ჹόӕޑᕉნၗྍౢғόӕޑϸᔈǶӢ Ԝ Ǵ ӕ ф ဂ ޑ ཷ ۺ ࿶ த բ ࣁ ғ ᄊ ຑ ۓ ᆶ ࿶ ᔼ ᆅ ౛ ޑ ୖ Ե ٩ Ᏽ (Hawkins and MacMahon 1989)Ƕ

֤ပܭᆵ᡼ᆵчࣧӦޑᆵч೿཮୔ (Taipei Metropolis) ᄒԿ 2011 ԃԖ߈ 700

࿤ޑΓα (ՉࡹଣЬीೀ 2011)ǶࣧӦӦ׎ޑज़ڋϐΠǴᆵч೿཮୔کځдεࠤѱ όӕǴଯࡋว৖ޑ೿ѱᆙᎃԾฅޑեੇܘහ݅Ƕӧଯࡋว৖ޑࠤѱύϩѲ೚ӭ೏

εኴᆶၰၡ႖໒ޑϦ༜Ǵࢂբࣁࣴز೿ѱઇ࿗෈Ӧചᜪဂᆫޑ๊٫׷਑Ƕၸѐჹ ܭ೿ѱϦ༜ചᜪဂᆫޑࣴزǴᗲϿ௖૸ᜢܭόӕӕфဂ໔ϸᔈޑৡ౦Ƕࡺҁࣴز ޑҞޑԖΟǺ(1) ௖૸य़ᑈǵ႖ᚆࡋ (හ݅႖ᚆࡋǵݞࢬ႖ᚆࡋ)ǵ෌ނᙟᇂࡋǵک ϣ೽ޜ໔่ᄬ (Γ೷ނᙟᇂКٯǵᐋ߷ᙟᇂКٯǵϦ༜ύНᡏϐр౜) ӅΎঁӢη ჹ೿ѱϦ༜ᕴഌғᕷ෗ചϐᙦ൤ࡋǵঁᡏஏࡋᆶӭኬ܄ϐቹៜǶႣයᕴചᜪဂᆫ ᆶϦ༜य़ᑈǵ෌ނᙟᇂࡋǵᐋ߷ᙟᇂКٯǵНᡏϐр౜և҅ӛᜢ߯ǹԶᆶ႖ᚆࡋǵ Γ೷ނᙟᇂКٯևॄӛᜢ߯Ƕ(2) ຾΋؁ᕕှΎঁӢηჹܭόӕޑഌғᕷ෗ചӕф ဂ (guilds) ޑቹៜǶനࡕǴ(3) ׆ఈૈࣁ೿ѱϦ༜ᆅ౛ޣǴගрૈᆢៈғނӭኬ܄

ޑೕჄБԄᆶࡌ᝼Ƕ

(13)

ĵġ

׷

׷਑ᆶБݤ

ࣴزጄൎ

ᆵчࣧӦੇܘեܭ 20 ϦЁޑय़ᑈऊ 24300 ϦഘǴՏܭѠ᡼ч೽ǴՋчഗᗺՏ

ೀᜢ෠ǴܿчفࣁࠄෝǴՋࠄفࣁ଑ᓪǹࣧӦڬൎξӦЫഊᕉᙅǴчॸεЂОξ ဂǴՋᎃ݅αѠӦǴܿࠄᜐࢂഓξξેξ᜾ЫഊӦ (Ўϯ೽ 2009)Ǵ୔ୱϣ΋Ӆ఼

ᇂᆵчѱᆶཥчѱٿঁޔᗄѱӅ 41 ঁՉࡹ୔ǶਥᏵύѧ਻ຝֽᆵчᢀෳઠܭ 1981~2010໔ޑ಍ीၗ਑ǴࣧӦϣ਻ংྕཪዊᔸǴԃ֡ྕ 23.0ɗǴനଯД֡ྕӧ 7 Дၲ 34.3ɗǴനեД֡ྕӧ 1 Дࣁ 19.1ɗǴԃѳ֡Вྣࣁ 1405.2 λਔǹЪӄԃԖ ߘǴԃѳ֡फ़Нໆ 2405.1 ϦᙶǴЬा໣ύܭ 5~9 ДǴ٠а 9 Дफ़ߘໆനଯၲ 360.5 ϦᙶǶ

ᆵчࣧӦϣޑ೿ѱೕჄᆶว৖ڙډ੝ਸӦ׎ޑቹៜǴࣧӦѳڶޑۭ೽ว৖ࣁ ଯࡋ໒วޑ೿཮୔ǴѤڬᕉᙅ๱ξӦЫഊ܌׎ԋޑభξғᄊس (Fig. 1)ǶԶ೿཮୔

ϣӚೀࣣණѲ೚ӭаϦ༜ࣁЬޑᆘӦǴλࠠϦ༜аᙁൂޑΓπ෌ਭམଛ؁ၰǹ1 Ϧ ഘа΢ޑεࠠϦ༜߾தԖᐋ݅ǵβЫᆶ൵܌Ǵ٠ଽԖНԣᆶࢲ୏ύЈ฻੝ਸ೛ࡼǶ ҁࣴزࣁᕕှᆵчࣧӦ೿ѱϦ༜ᆘӦޑചᜪဂᆫǴࡺᒧڗᆵчࣧӦϣੇܘեܭ 100 ϦЁаΠޑਡЈ೿཮୔բࣁࣴزጄൎǴځϣхࡴᆵчѱӄ୔ᆶཥчѱԤЗǵ݈ᐏǵ ύکǵ҉کǵཥ۫ǵཥಷǵᝳࢪǵΟख़ǵϖި฻Ӆ 21 ঁՉࡹ୔Ƕ

ኬ୔ᒧڗ

ਥᏵᎄ⽋ӵ฻ (2006) ࣴزൔ֋ࡰрǴ࣬ၨܭεࠠϦ༜Ǵय़ᑈλܭ 1 ϦഘаΠ ޑϦ༜ӢၗྍԖज़Ǵёـډޑᕴചᅿኧό཮ຬၸ 8 ᅿǴࡺҁࣴزᒧڗਡЈ೿཮୔

ϣय़ᑈεܭ 1 ϦഘޑϦ༜ᆘӦǴ٠௨ନᆵчѱπ୍ֽ (2013) ۓကϐᆶᎃٚǵᆕӝ Ϧ༜аѦ׎፦ৡ౦ၨεޑԾฅϦ༜ᆶݞᔭϦ༜Ӆ 100 ೀբࣁࣴزኬ୔ (Fig. 2)Ǵኬ

୔ѳ֡य़ᑈ 4.32 ± 5.21 ϦഘǶय़ᑈϟܭ 1 ϦഘԿ 10 ϦഘޣӅ 88 ೀǴѳ֡य़ᑈ 2.74

± 2.18Ϧഘǹय़ᑈεܭ 10 ϦഘޣӅ 12 ೀǴѳ֡य़ᑈ 16.17 ± 5.85 ϦഘǶځύय़ᑈ

(14)

Ķġ

നεޣࣁ࿤๮୔ߙԃϦ༜Ǵऊࣁ 26.08 Ϧഘǹय़ᑈനλޣࣁཥಷ୔ϖ៾Ϧ༜Ǵऊࣁ 1.02Ϧഘ (Table 4)Ƕ

ചᜪፓࢗ

ҁࣴزܭ 2013 ԃ 3~7 Дചᜪᕷ෗ۑය໔຾Չဂᆫӭኬ܄ፓࢗǴ΋ঁϦ༜ջࣁ

΋ঁኬ୔Ƕ؂ፓࢗ 100 ঁኬ୔ࣁ΋ԛख़ፄǴ؂ԛख़ፄज़ڋܭ 25~30 ঁπբϺϣֹ

ԋǴѳ֡؂Ϻፓࢗ 4~8 ঁኬ୔ǴӅख़ፄ 3 ԛǶፓࢗᒧۓනϺ܈഍Ϻ຾ՉǴࣁफ़ե

؂ԃ 4~5 ДఘߘۑޑቹៜǴࡺߚၶεߘϝ຾ՉചᜪᢀჸǴፓࢗӧВрࡕ 4 λਔϣ

ֹԋ (Graham and Blake 2001)Ƕ؂΋ঁኬ୔ࡪྣځϣ೽ޜ໔೛Ԗ 3~5 చၡጕǴ؂

΋ԛख़ፄࣣᒧۓόӕޑၡጕǴаӄ೽ीኧݤ (total count) ૶ᒵҞᔐ܈᠋ډޑചᅿᆶ ኧໆǴх֖ޜύ࡭ុ०ՉޑঁᡏǶ ҁࣴزइᒵϐചᅿځᏢӜᆶमЎ߫ӜୖԵԾ IUCN (2009)ǴύЎ߫Ӝᆶߥػᜪ٩Ᏽӧ TaiBNET ϦѲϐᆵ᡼ނᅿӜᒵࣁྗǶ

ҁࣴزୖԵᆩ᜻ (1977) ޑചᅿइᒵǵѠ᡼ചᜪᇞಃΒހ (2012) ჹചᅿӧ१

܄ᆶ෈ӦճҔޑඔॊᆶҁࣴزϐᢀჸ૶ᒵǴ᏾౛рࣴزނᅿϐ१܄ճҔંତ

(Table 2) Ϸ෈ӦճҔંତ (Table 3)Ƕ௦Ҕဂ໣ϩ݋ݤٰϩᜪࣴزኬᗺϐചᜪဂᆫ

ಔԋǴа຾΋؁ղᘐӚঁғᄊӕфဂޑ੝܄Ƕаചᜪр౜Տ࿼ᆶ१ނᜪձϐᢀჸ

૶ᒵᆶୖԵၗ਑բࣁ੝ቻॶ (character)ǴҔኻ୷ٚቺຯᚆ (Euclidean distance) ी ᆉӚചᅿޑ࣬౦ࡋંତ (Dissmimilarity matrix)Ǵӆа໘ቫဂ໣ݤ (Hierarchical clustering) ϐѳ֡ೱ่ݤ (averaged linkage)Ǵᕇளဂ໣ϩ݋ݤаຯᚆॶ 3 ࣁϩࣚϐ

่݀ (Fig 3 and Fig 4)Ƕ຾΋؁ᆶ஭࣬܃ (2009) ޑӕфဂϩᜪ߄բКၨǴаᕇள

നࡕϐ१܄ᆶ෈Ӧӕфဂϩᜪ߄ǶаϷᆶ߻ΓࣴزϐКၨǴҁࣴزஒഌғᕷ෗ച ٩ځ१܄ᆶ෈ӦޑճҔރݩϩձϩࣁϖᜪ१܄ӕфဂǺᙝ१ޣ (Insectivore, I)ǵ݀

१ޣ (Frugivore, F) ǵ ዼ१ޣ (Granivore, G)ǵᚇ१ޣ (Omnivore, O) ᆶځд (Others) ǹаϷѤᜪ෈ӦӕфဂǺቶѲࠠ (Generalist, Gn) ǵᐋ݅ࠠച (Woodland Bird, WB)ǵឲᘀࠠച (Shrub Bird, SB) ᆶځд (Others)Ƕ

ᕉნᡂኧෳໆ

(15)

ķġ

य़ᑈୖԵᆵчѱࡹ۬πำೀ (2013) ᆶཥчѱϦ༜೛ࡼᄤၡᐩᆢៈᆅ౛س಍

܌ϦѲϐၗ਑Ǵ٠ଛӝ 2013 ԃ SPOT ፁࢃှ݋ࡋࣁ 2m*2m ϐፁࢃቹႽᆶӦ౛ၗ

ૻس಍ (ArcGIS 10.1) ک Google Earth Pro уаᛤᇙኬ୔Տ࿼аीᆉኬ୔႖ᚆࡋǶ ҁࣴزஒ႖ᚆࡋ٩ྣނᅿёૈޑٰྍӦϩࣁٿঁᡂኧǺ(1) ኬ୔ᆶځڬൎੇܘ 100 ϦЁа΢ξ୔හ݅ޑനอຯᚆǴջࣁහ݅႖ᚆࡋǹ(2) ኬ୔ᆶځڬൎݞࢬݞᔭޑന อຯᚆǴջࣁݞࢬ႖ᚆࡋǶෳໆਔࣣаനอϐᜐჹᜐຯᚆ (edge-to edge distance) ࣁ

ྗ ( Opdam et al. 1984ǹOpdam et al. 1985 ) (Table 1)Ƕ

෌ނᙟᇂࡋ࿶தҔҔܭж߄΋Ӧ୔ғౢΚǶҁࣴز௦ҔፁࢃᇿགቹႽޑϩ݋

ඹжჴӦፓࢗǴԶ෌ဂᅱෳޑᇿག௖ෳמೌճҔ෌ނ֎ԏӀ᛼ϐआӀݢࢤ (RI) ᆶ ϸ৔߈आѦӀݢࢤ (IR) ޑ੝܄ǴᙖҗԜΒݢࢤၮᆉᅱෳ෌ނޑ่ᄬᡂϯǴ೭ᜪޑ ၮᆉࡰ኱಍ᆀࣁ෌ғࡰኧ (Vegetation Index, VI)ǶҞ߻ӧ෌ނᇿෳว৖΢Ǵനத೏

٬Ҕࣁ NDVI (தᄊϯৡ౦෌ғࡰኧ Normalized Difference Vegetation Index) (Goward et al., 1985ǹSalinas-Zavala et al., 2002)Ƕҁࣴزа 2013 ԃ SPOT ፁࢃቹႽǴ ճҔ Erdas imagine ๧ڗቹႽϐआӀࢤ (R) ᆶ߈आӀࢤ (IR) ޑӀ᛼ϸ৔ॶǴᏤр ᆵчࣧӦፓࢗጄൎϣޑ NDVI ॶǴӆଛӝ ArcGIS 10.1 ᘏڗр؂΋ঁፓࢗኬ୔ϣޑ ѳ֡ NDVI ॶǴբࣁኬ୔ϣ೽ޑ෌ނᙟᇂࡋࡰ኱ (Table 1)Ƕ

ीᆉԄǺ ൌூோିோ

ூோାோ

IRǺ߈आӀࢤ RǺआӀࢤ

ኬ୔ϣ೽ޑΓ೷ނᆶᐋ߷КٯஒӕਔቹៜΓᜪکചᜪޑճҔރݩǶ ҁࣴزа ૐྣკኧϯਔന΢ቫ܌ـϐࢂցҗΓ೷ނᙟᇂࣁ୷ྗǴඔᛤኬ୔ϣޑΓ೷ނᙟᇂ य़ᑈǴӕਔඔᛤᐋ߷ᙟᇂय़ᑈǴനࡕஒኬ୔૛ӦǵྛࢬᆶНԣޑᙟᇂय़ᑈѐନǴ аᕇளኬ୔ϣ೽ϐΓ೷ނᙟᇂय़ᑈᆶᐋ߷ᙟᇂय़ᑈǴനࡕஒځନаኬ୔ᕴय़ᑈа

ीᆉᙟᇂКٯ (Table 1)Ƕ

ीᆉԄǺ ܲ

or ܲ

PaǺΓ೷ނᙟᇂКٯ PcǺᐋ߷ᙟᇂКٯ

(16)

ĸġ

aǺΓ೷ނᙟᇂय़ᑈ cǺᐋ߷ᙟᇂय़ᑈ

AǺኬ୔ᕴय़ᑈ

ҁࣴزаϦ༜ύНᡏϐр౜ᆶցჴӦፓࢗ܌ᇆ໣ϐၗ਑ࣁЬǴԖНᡏϐр౜

૶ࣁ 1ǹคНᡏϐр౜૶ࣁ 0 (Table 1)Ƕ

җܭԾᡂኧ໔ޑ࣬ᜢ܄཮ቹៜϩ݋ޑ่݀ǴӢԜӧ಍ीϩ݋߻຾Չ࣬ᜢ

܄ᔠۓǶҁࣴز܌х֖ϐ೽ϩӢηӢڀഢΒϡᡂኧᆶߚதᄊϩթޑ੝܄Ǵࡺ௦Ҕ ථҜᅟୗ࣬ᜢ܄ (Spearman Rank Correlation) ϩ݋Ƕ

ചᜪғᄊࡰ኱ीᆉ

Οԛख़ፄޑፓࢗၗ਑ࣣа Microsoft Excel ࡌᔞᆶӝٳǴ٠ϩձीᆉӚঁኬ୔

ύᕴചᜪᆶঁձӕфဂޑаΠΟঁࡰ኱Ǻ1) ചᅿᙦ൤ࡋǵ2) ചᜪঁᡏஏࡋǵᆶ 3) ചᜪӭኬ܄Ƕ

1) ചᅿᙦ൤ࡋ (richness; number of species)

ചᅿᙦ൤ࡋࢂࡰࢌጄൎϣ܌ԖނᅿኧǴቶݱբࣁຑۓ΋Ӧ୔ғᄊރݩޑ

ࡰ኱Ƕҁࣴزஒ؂΋ঁኬ୔ᢀჸډޑചᜪᅿᜪуᕴբࣁ၀ኬ୔ചᅿᙦ൤ࡋǶ

ीᆉԄǺS = ࢌኬ୔ϣ܌Ԗ/੝ۓғᄊဂޑചᅿᕴک 2) ചᜪঁᡏஏࡋ (bird density)

ࢌኬ୔аӄ೽ीኧݤ܌૶ᒵϐചᜪঁᡏኧҞǴ٠ନаޑፓࢗय़ᑈǴջࣁ ၀ኬ୔ޑചᜪঁᡏஏࡋǶऩाीᆉ੝ۓғᄊဂޑஏࡋǴ߾а܌૶ᒵ੝ۓғᄊ ဂϐചᜪঁᡏኧҞǴନаፓࢗय़ᑈǶ

ीᆉԄǺD= N/A

DǺൂՏय़ᑈΠޑചᜪଫኧ (ջঁᡏஏࡋ) NǺࢌኬ୔܌ᢀჸډޑചᜪଫኧ

AǺࢌኬ୔ޑፓࢗय़ᑈ 3) ӭኬ܄ࡰኧ (diversity index)

(17)

Ĺġ

ނᅿᙦ൤ࡋᆶஏࡋ٠ؒԖᒤݤϸᔈചᅿޑϩѲ௃׎ǴӢԜౢғځдຑ՗

ғނӭኬ܄ޑБݤǶғނݔ౦ࡋࢂёаӕਔϸᔈނᅿޑᙦ൤ࡋᆶ֡Ϭࡋޑࡰ

኱ϐ΋Ǵځύа Shannon’s diversity index (H') (Shannon and Weaver, 1949) ന ࣁ ቶݱ٬ҔǶShannon’s diversity index ኧॶຫε߄Ңނᅿᙦ൤ࡋᆶ֡Ϭࡋຫଯǹ

ኧॶຫλ߾ނᅿᙦ൤ࡋᆶ֡ϬࡋຫեǶ

ीᆉԄǺH'=െ σ௜ୀଵ݌ כ ސሺ݌ሻ H'ǺShannon’s diversity index SǺࢌ୔ୱޑނᅿኧᕴک

݌Ǻಃ i ঁނᅿঁᡏኧ՞ᕴঁᡏኧޑКٯ ኳ

ኳࠠᒧ᏷ᆶ଑ᘜϩ݋

ҁࣴز٬Ҕቶကጕ܄ኳࠠ (Generalized Linear Model) ٰϩ݋ചᅿᙦ൤ࡋǵച ᜪঁᡏஏࡋǵᆶചᅿӭኬ܄฻Οঁࡰ኱کΎঁှញᡂኧϩձࣁϦ༜य़ᑈ (A) ǵහ

݅႖ᚆࡋ (DF)ǵݞࢬ႖ᚆࡋȐDRȑǵ෌ғࡰኧ (N)ǵΓ೷ނᙟᇂКٯ (Af)ǵᐋ

߷ᙟᇂКٯ (C) ᆶНᡏϐр౜ (W) ໔ޑᜢ߯ǴӆஒှញᡂኧޑᒧΕᆶ௨ନϐ α ॶ೛ࣁ 0.05ǶவճҔ R ೬ᡏ MuMIn package ύ dredging ᑔᒧှញᡂኧޑ௨ӈಔӝǴ ਥᏵ AIC (Akaike’s information criterion) ᒧ᏷ ΔAIC λܭ 2 ޑኧঁന٫ኳࠠǴ٠٩

ྣ ΔAIC ᆶ Akaike weights (Wi) ޑೕ߾௨ׇǴԶ؂ঁှញᡂኧӧኳࠠύ࣬ჹख़ा

܄ (Relative importance) җ܌Ԗр౜၀ှញᡂኧϐኳࠠޑኳࠠ៾ख़ᕴک (Burnham and Anderson 2002)Ƕҁࣴزϐϩ݋֡а R Studio ᆶ R 3.0.3.಍ीำԄ຾Չ

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ĺġ

ࣴز่݀

ചᜪဂᆫಔԋ

ҁࣴزΟԛख़ፄፓࢗӅ૶ᒵډ 13948 ଫǴ54 ᅿചᜪǴхࡴ 35 ᅿഌғᕷ෗ചǵ 7ᅿНചǵ11 ᅿоংചᆶ 1 ᅿ᠈ύຽച (Table 5)ǶځύԖ 7 ᅿߥػᜪǺѠ᡼ᙔ᜹

(Urocissa caerulea) ǵΖঢ (Acridotheres cristatellus formosanus)ǵ໳㚁 (Oriolus chinensis)ǵε߷㖣 (Spilornis cheela hoya)ǵስᓐᇇᡳ (Accipiter trivirgatus formosae)ǵ

݊ഒᡳ (Accipiter virgatus fuscipectus) ᆶआ׀դമ (Lanius cristatus)ǶԶഌғᕷ෗

੮ചύǴځύ 11 ᅿӢр౜Ϧ༜ኧեܭϖԛ܈คޔௗճҔϦ༜ၗྍޑᢀჸइᒵԶ҂

યΕϩ݋ (Table 5)Ǻ໳㚁 (Oriolus chinensis)ǵᓐਜ਼ጕ (Alcippe brunnea)ǵᙇ౳ฝ

࣭ (Alcippe morrisonia) ǵ ໵ ܾ ᙔ 㒣 (Hypothymis azurea) ǵ Ԯ ᚊ (Bambusicola thoracicus)ǵѠ᡼๋ቖ㋴ (Myiophoneus insularis)ǵᆘႱ (Treron sieboldi)ǵύ׹ᚧ

(Cuculus saturatus saturates)ǵስᓐᇇᡳ (Accipiter trivirgatus formosae)ǵ݊ഒᡳ (Accipiter virgatus fuscipectus) ᆶε߷㖣 (Spilornis cheela hoya)ǶҁࣴزஒӧഁѦё

຾Չᕷ෗ϐЇ຾ᅿຎࣁᕷ෗ചǴࡺჴሞϩ݋ചᅿӅ 24 ᅿഌғᕷ෗ച (Table 5)Ƕ қᓐશࢂഌғᕷ෗ചύр౜ᓎ౗നଯᆶኧໆനӭޑചᅿǴԶआ቏໵㋱ǵഞഒǵ ᆘᙇ౳ǵ੧ᓍඬႱǵᐋ᜹ǵৎᐪᆶࢩᐪр౜ᓎ౗֡ӧ 80%а΢ǴࢂᆵчࣧӦ೿ѱ Ϧ༜ᆘӦޑதـഌғᕷ෗ചǴа΢ 8 ᅿޑኧໆ՞ᕴӝޑ 68% (Table 5)Ƕѳ֡؂ঁ

Ϧ༜р౜ 11.5 ± 2.8 ᅿചǴനӭр౜ 18 ᅿ (ύ҅इۺ୸)ǴനϿр౜ 5 ᅿ (εӕϦ

༜) (Table 6)Ƕѳ֡؂Ϧഘр౜ 14.9 ± 9.8 ଫǴനଯࣁ 60.3 ଫ/Ϧഘ (ԤЗϦ༜)Ǵന եࣁ 2.6 ଫ/Ϧഘ (Ӽநහ݅Ϧ༜) (Table 6)ǶϦ༜ѳ֡ഌғᕷ෗ചӭኬ܄ࣁ 1.93 ± 0.32Ǵനଯࣁ 2.47 (ᅽ݅Ϧ༜)Ǵനեࣁ 0.57 (ԤЗϦ༜) (Table 6)Ƕ

१܄ӕфဂаᚇ१ޣӕфဂϐނᅿനࣁᙦ൤Ӆ 9 ᅿǴ٠а⋜ചࣽکᎻࣽࣁЬ

ाϐಔԋ՞ځύϐ 7 ᅿ (Table 7)ǹԶᚇ१ޣӕфဂϐঁձނᅿύǴΞақᓐશϐ р౜ᓎࡋᆶኧໆനӭ (Table 7)Ƕዼ१ޣӕфဂࣣࣁႱᗷࣽചᜪǴаഁᗷϐኧໆന ӭǴՠа੧ᓍඬႱϐр౜ᓎࡋനଯ (Table 7)Ƕ݀१ޣӕфဂϐΟᅿചᜪύǴआ቏

(19)

IJıġ

໵㋱ᆶϖՅചϐр౜ᓎࡋ֡εܭ 60% (Table 7)ǹ٥ࢪ፵⋜ച໻ԖӧΎঁϦ༜Ԗр

౜इᒵ (Table 7)Ƕᙝ१ޣӕфဂх֖ኧໆനӭᆶԛϐޑނᅿ (ഞഒǵᆘᙇ౳) (Table 7)ǹନฝ࣭ࣽചᜪѦǴᙝ१ޣϐр౜ᓎࡋࣣଯܭ 50% (Table 7)Ƕ෈ӦӕфဂаቶѲ

ࠠചᜪӕфဂᅿᜪനӭǴ՞ 24 ᅿύޑ 13 ᅿǴх֖Ⴑᗷࣽǵ⋜ചࣣࣽឦቶѲࠠϐ ചᅿ (Table 8)ǹаឲᘀࠠചᜪനϿ໻ٿᅿǴϩձࣁλ៻቏ᆶξआᓐ฻ٿᅿฝ࣭ࣽ

ϐചᜪ (Table 8)Ƕᐋ݅ചӕфဂӅ 7 ᅿǴх֖Ѡ᡼੝ԖᅿϐѠ᡼ᙔ᜹ᆶϖՅചǹ ӕਔჹܭ೿ѱڀԖଯࡋ፾ᔈϐқᓐશᆶᆘᙇ౳ࣁᐋ݅ചӕфဂϐԋ঩ (Table 8)Ƕ ৎᐪکࢩᐪӧၸѐЎ᝘ᆶჴሞፓ่ࣣࢗ݀ឦܭޜύ೔१ϐചᜪǴࡺόឦቶѲࠠǵ ᐋ݅܈ឲᘀ฻Һ΋ӕфဂ (Table 8)Ƕ

Ϧ

Ϧ༜ᕉნ

Ӣη໔࣬ᜢ܄ᔠۓϐ่݀ᡉҢǴନ෌ނᙟᇂࡋϐ NDVI ᆶΓ೷ނᙟᇂКٯԖ

ၨଯޑॄ࣬ᜢ܄ ( |r| > 0.6)ǴځᎩӢη໔࣬ᜢ܄֡եܭ 0.5 (Table 9)ǹԶНᡏޑр౜

ᆶցǴᆶځдӢη໔ҭคᡉ๱࣬ᜢ (Fig 5)Ƕ Ϧ༜ѳ֡य़ᑈࣁ 4.35 ± 5.22 ϦഘǴന εࣁ 26.01 ϦഘǴനλࣁ 1.01 ϦഘǹϦ༜ᆶξ୔හ݅നอຯᚆѳ֡ 1359.6 ± 1427.9 ϦЁǴനᇻࣁ 4895.8 ϦЁǴന߈ࣁ 0 ϦЁǹჹݞࢬനอຯᚆѳ֡ࣁ 831.6 ± 636.6 ϦЁǴനᇻࣁ 2779.8 ϦЁǴന߈ࣁ 0 ϦЁǹ෌ނᙟᇂࡋϐ NDVIǴӄ೽Ϧ༜ޑѳ

֡ NDVI ॶࣁ -0.05 ± 0.13Ǵനଯࣁ 0.32Ǵനեࣁ -0.34 (Table 10)ǶΓ೷ނᙟᇂК ٯѳ֡ࣁ 28.1 ± 15.7%Ǵനଯࣁ 82%Ǵനեࣁ 0%ǹϦ༜ޑᐋ߷ᙟᇂКٯѳ֡ࣁ 44.3

± 21.8%Ǵനଯࣁ 99%Ǵനեࣁ 0% (Table 10)ǶԖНᡏр౜ޑϦ༜Ӆ 35 ঁǴ೭٤ Ϧ༜ޑѳ֡य़ᑈࣁ 7.16 ± 7.35 ϦഘǴനεࣁ 26.08 ϦഘǴനλࣁ 1.05 ϦഘǹԶؒ

ԖНᡏр౜ޑϦ༜य़ᑈѳ֡ࣁ 2.84 ± 2.59 ϦഘǴനεࣁ 11.00 ϦഘǴനλࣁ 1.02 Ϧഘ (Table 10)Ƕ

ചᜪᙦ൤ࡋ

ᕴഌғᕷ෗ചᅿኧᆶϦ༜य़ᑈکНᡏϐр౜և҅࣬ᜢǴ٠ᆶݞࢬ႖ᚆࡋǵΓ

೷ނᙟᇂКٯǵᐋ߷ᙟᇂКٯևॄ࣬ᜢ (Table 11)ǶѝԖٿঁኳࠠ ΔAIC λܭ 2 ޑ

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ኳࠠ೏ᒧࣁᕴഌғᕷ෗ചޑന٫ኳࠠ (Model TR1~TR2) (Table 12)ǶϦ༜य़ᑈǵᐋ

߷ᙟᇂКٯǵᆶНᡏϐр౜ࢂቹៜᕴഌғᕷ෗ചᜪᙦ൤ࡋനख़ाޑӢηǴځ࣬ჹ ख़ा܄ࣣࣁ 1.00 (Table 13)ǹԶΓ೷ނᙟᇂКٯᆶݞࢬ႖ᚆࡋԛϐǴ࣬ჹख़ा܄ϩ ձࣁ 0.98 ᆶ 0.82 (Table 13)Ƕ

Ϧ༜य़ᑈᆶᙝ१ޣǵዼ१ޣکᚇ१ޣނᅿኧࣣև҅࣬ᜢ (Table 11)ǴӕਔϦ༜

य़ᑈΨ೏ᒧΕࣁᙝ१ޣǵᚇ१ޣޑന٫ኳࠠ (Model IR1, Model OR1~OR3) (Table 12)ǴԖࡐଯޑ࣬ჹख़ा܄ 0.97 ᆶ 0.98 (Table 13)ǶНᡏϐр౜ᆶᚇ१ޣނᅿኧև

҅࣬ᜢǴݞࢬ႖ᚆࡋǵᐋ߷ᙟᇂКٯࣣᆶᚇ१ޣނᅿኧևॄ࣬ᜢ (Table 11)ǴΟޣ

ࣣ೏ᒧΕ ΔAIC λܭ 2 ޑന٫ኳࠠ (Model OR1~OR3) (Table 12)Ǵځ࣬ჹख़ा܄ϩ ձࣁ 1.00ǵ0.75 ᆶ 0.96 (Table 13)Ƕዼ१ޣނᅿኧӢኳࠠှញΚόى (R2=0.18) (Table 11)Ǵࡺ҂຾Չኳࠠᒧ᏷ǹԶ݀१ޣϐނᅿኧ໻ 3 ᅿǴചᅿኧёᡂϯϐ൯ࡋၸեǴ

ࡺ҂યΕϩ݋ (Table 11)Ƕ

Ϧ༜य़ᑈᆶቶѲചکᐋ݅ചࣣև҅࣬ᜢ (Table 11)ǴӕਔΨ೏ᒧΕٿޣ ΔAIC λܭ 2 ޑന٫ኳࠠύ (Model GR1~GR4 and Model trR1~trR2) (Table 12)Ǵځ࣬ჹख़

ा܄ϩձࣁ 1.00 ᆶ 0.86 (Table 13)Ƕݞࢬ႖ᚆࡋჹቶѲചǵᐋ݅ചϐނᅿኧޑਏᔈ όӕǴϩձࣁॄ࣬ᜢک҅࣬ᜢ (Table 11)Ƕݞࢬ႖ᚆࡋ೏ᒧΕቶѲചᆶᐋ݅ചϐന

٫ኳࠠύ (Model GR1~GR4 and Model trR1~trR2) (Table 12)Ǵ٠Ԗၨଯޑ࣬ჹख़ा

܄ 1.00 ᆶ 0.92 (Table 13)ǶНᡏϐр౜کᐋ߷ᙟᇂКٯᆶᆶቶѲചނᅿኧϩձև

҅࣬ᜢᆶॄ࣬ᜢ (Table 11)Ǵځ࣬ჹख़ा܄ϩձࣁ 0.97 ᆶ 1.00 (Table 13)Ƕ හ݅႖ ᚆࡋǵΓ೷ނᙟᇂКٯᆶᐋ݅ചނᅿᐋև҅࣬ᜢǴԶ෌ނᙟᇂࡋᆶᐋ݅ചނᅿኧ ևॄ࣬ᜢ (Table 11)Ǵ࣬ჹख़ा܄ࣣଯܭ 0.90 (Table 13)Ƕឲᘀചӕфဂ໻ 2 ᅿച ᜪǴࡺ҂ӈΕϩ݋Ƕ

ചᜪঁᡏஏࡋ

Ϧ༜य़ᑈᆶᕴഌғᕷ෗ചঁᡏஏࡋǵӕфဂঁᡏஏࡋ໔ࣣևॄ࣬ᜢ (Table 14)Ǵ ٠р౜ܭӄ೽ ΔAIC λܭ 2 ޑന٫ኳࠠύ (Table 15)Ǵځ࣬ჹख़ा܄ࣣࣁ 1.00 ܈

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0.99 (Table 16)Ƕݞࢬ႖ᚆࡋᆶᕴഌғᕷ෗ചঁᡏஏࡋǵӕфဂঁᡏஏࡋ໔ࣣևॄ

࣬ᜢǴ໻ᆶ݀१ޣӕфဂևόᡉ๱ (Table 14)Ǵ٠р౜ܭ݀१ޣӕфဂѦǴځдӄ

೽ ΔAIC λܭ 2 ޑޑന٫ኳࠠύ (Table 15)Ǵځ࣬ჹख़ा܄ϟܭ 0.76~0.95 ໔ (Table 16)Ƕᐋ߷ᙟᇂКٯᆶ݀१ޣکᐋ݅ചӕфဂϐঁᡏஏࡋև҅࣬ᜢǴᆶቶѲചঁᡏ ஏࡋևॄ࣬ᜢ (Table 14)Ǵ೏ᒧΕԜΟӕфဂޑന٫ኳࠠύ (Model FD1~FD7, Model GD1~GD7, and Model trD1~trD4) (Table 15)Ǵ࣬ჹख़ा܄ࣣεܭ 0.90 (Table 14)Ƕ හ݅႖ᚆࡋᆶ݀१ޣϐঁᡏஏࡋևॄ࣬ᜢ (Table 14)Ǵр౜ܭΎঁന٫ኳࠠ

ύ (Model FD1~FD7) (Table 15)Ǵځ࣬ჹख़ा܄ࣁ 0.94 (Table 16)Ƕዼ१ޣӕфဂ ӢኳࠠှញΚόى (R2=0.12) (Table 14)Ǵࡺ҂຾Չኳࠠᒧ᏷Ƕ

ചᜪӭኬ܄

Ϧ༜य़ᑈჹᕴഌғᕷ෗ചᜪӭኬ܄คᡉ๱ਏᔈ (Table 17)ǶНᡏϐр౜ᆶᕴഌ ғᕷ෗ചӭኬ܄ǵӕфဂӭኬ܄ࣣև҅࣬ᜢ (Table 17)Ǵ٠೏ᒧΕӄ೽ ΔAIC λܭ 2ޑޑന٫ኳࠠύ (Table 18)Ǵځ࣬ჹख़ा܄ࡰኧࣣεܭ 0.9 (Table 19)Ƕ Γ೷ނᙟ ᇂКٯᆶᕴഌғᕷ෗ചӭኬ܄ǵ෈Ӧӕфဂӭኬ܄ևॄ࣬ᜢ (Table 19)Ǵр౜ܭᕴ ഌғᕷ෗ചǵቶѲചǵᐋ݅ചϐӭኬ܄ന٫ኳࠠύ (Table 18)Ǵځ࣬ჹख़ा܄ࣣε ܭ 0.70 (Table 19)Ƕݞࢬ႖ᚆࡋᆶቶѲചӭኬ܄ևॄ࣬ᜢ (Table 17)Ǵ٠р౜ܭ 3

ঁന٫ኳ่ࠠ݀ (Model Gndi1~Gndi2) (Table 18)Ǵ࣬ჹख़ा܄ࣁ 0.95 (Table 19)Ƕ හ݅႖ᚆࡋᆶᐋ݅ചӭኬ܄ևॄ࣬ᜢ (Table 17)ǹԶ෌ނᙟᇂࡋᆶᐋ݅ചӭኬ܄և

҅࣬ᜢ (Table 17)Ƕٿޣ֡೏ᒧΕ 2 ঁന٫ኳࠠϣ (Model trdi1~Model trdi2) (Table 18)ǴЪ࣬ჹख़ा܄ࣣࣁ 1.00 (Table 19)Ƕ

(22)

IJĴġ

૸ፕ

ҁࣴز่݀ᡉҢϦ༜य़ᑈࢂቹៜചᜪᙦ൤ࡋکঁᡏஏࡋޑख़ाӢηǴၨεޑ Ϧ༜཮ԖၨӭޑചᅿǵᆶၨեޑঁᡏஏࡋǶНᡏϐр౜Ԗշܭቚуᕴഌғചᜪᙦ

൤ࡋᆶӭኬ܄Ǵӧᚇ१ചᆶቶѲചӕфဂύ੝ձܴᡉǶݞࢬ႖ᚆࡋᆶചᜪᙦ൤ࡋ ևॄ࣬ᜢǴ٠ӧӕфဂ໔ԖόӕޑਏᔈǶΓ೷ނᙟᇂКٯᆶᐋ߷ᙟᇂКٯٿޣჹ ᕴഌғചᜪᙦ൤ࡋԖॄय़ቹៜǶහ݅႖ᚆࡋᆶ NDVI ჹᕴഌғᕷ෗ചᜪᙦ൤ࡋؒ

ԖቹៜǴՠٿޣჹᐋ݅ചᙦ൤ࡋᆶӭኬ܄Ԗ҅य़ਏᔈӸӧǶ

෈Ӧ৞ᔁӢηჹചᜪဂᆫϐቹៜ

ҁࣴز่݀ᡉҢϦ༜य़ᑈࢂቹៜഌғᕷ෗ചᅿኧനख़ाޑӢનǶ ࡐӭහ݅ᆶ

೿ѱઇ࿗Ӧඳޑ࣬ᜢЎ᝘ࡰрઇ࿗෈Ӧޑय़ᑈࢂှញځނᅿᙦ൤ࡋᡂϯޑؼӳӢ η (Park and Lee 2000ǹ Oliver et al. 2011ǹ Zhou and Chu 2012)Ƕ ᆵчࣧӦ೿ѱ ᕉ ნ ύ ε य़ ᑈ Ϧ ༜ ૈ ၨ λ य़ ᑈ ޑ Ϧ ༜ Ѝ ࡭ ၨ ӭ ޑ ച ᅿ Ǵ ᆶ ނ ᅿ य़ ᑈ ౛ ፕ (species-area theory) ޑႣෳ่݀΋ठ (Williams 1943ǹMacArthur and Wilson 1967)Ǵ ΨᆶځдЎ᝘ޑࣴز่݀࣬಄ (Zhou and Chu 2012ǹOliver et al. 2011)Ƕ ࣬ӕޑ่

݀ΨᡉҢܭϦ༜य़ᑈჹόӕғᄊӕфဂޑਏᔈǴόፕࢂ१܄ӕфဂǴ܈ࢂ෈Ӧӕ фဂǴځചᅿኧ֡ᆶϦ༜य़ᑈԖࡐεޑᜢ߯Ƕ य़ᑈၨεޑϦ༜х֖ၨӭኬޑ෈Ӧ ᕉნᆶၗྍ (Triantis et al. 2005)Ǵ٠ૈफ़եᜐጔਏᔈ (edge effects) ܌೷ԋޑቹៜǴ

٬ளചᜪૈᆢ࡭ၨᛙۓޑ௼ဂ (Evans et al. 2009)Ƕ य़ᑈӧҁࣴزύჹചᜪӭኬ܄

ޑቹៜόᡉ๱Ƕғނӭኬ܄ࡰኧӕਔх֖ചᜪᙦ൤ࡋ (ջނᅿኧ) ᆶചᜪ֡Ϭࡋޑ ཀ఼ǴϦ༜य़ᑈჹചᜪᙦ൤ኧև҅࣬ᜢǴՠᆶചᜪӭኬ܄όᡉ๱Ǵ௢ෳቹៜചᜪ ӭኬ܄ևόᡉ๱ϐЬӢёૈࣁय़ᑈၨεਔᗨр౜ၨӭᅿϐഌғᕷ෗ചǴՠᒿय़ᑈ р౜ቚуϐཥр౜ނᅿϐኧໆᆶ೿ѱቶݱр౜ނᅿϐኧໆԖᝌਸޑৡຯ (ҁࣴز ύനӭϖᅿചϐኧໆᕴکࣁ 9466 ଫǹനϿϖᅿചϐኧໆᕴکࣁ 184 ଫ) (Table 5)Ƕ

ࡺय़ᑈεޑϦ༜ᗨԖၨӭޑނᅿǴՠނᅿ໔ޑኧໆዴԖᝌਸޑৡຯǶ ҁࣴزύय़ ᑈᆶചᜪঁᡏஏࡋᆶϦ༜य़ᑈևॄӛᜢ߯Ǵᆶ೚ӭࣴز่݀όӕ (Zhou and Chu

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2012ǹ஭࣬܃ 2009)Ƕ ਥᏵ MacArthur and Wilson (1967) ޑѳᑽ౛ፕǴ੝ۓᜪဂ ϐނᅿޑঁᡏኧໆ཮ᒿ৞ᔁय़ᑈ΢ϲԶቚуǴՠځൂՏय़ᑈঁᡏኧໆ཮ᆢ࡭όᡂǴ ځ౛ፕᆶҁࣴز่݀όӕǶ௢ෳ೿ѱϦ༜ޑϣ೽ᕉნឦܭό֡፦ϐΓ೷ᕉნǴځ

ၗྍໆ҂Ѹᆶय़ᑈቚуԖޔௗᜢ߯ǴࡺᆶԜ౛ፕό಄Ƕ MacArthur et al. (1972) ᇡ ࣁऩ΋ނᅿӕਔр౜ܭय़ᑈεᆶλϐ෈ӦǴ၀ނᅿӧय़ᑈλޑ෈Ӧύ཮Ԗၨଯޑ

ঁᡏஏࡋǴӢࣁय़ᑈλޑ෈ӦύނᅿኧၨϿǴ෧Ͽނᅿ໔ޑᝡݾ (lower interspecific competition)Ƕ ҁࣴزар౜ᓎࡋεܭ 80%ނᅿϐᕴঁᡏஏࡋᔠෳചᜪঁᡏஏࡋᆶ Ϧ༜य़ᑈ໔ޑᜢ߯ǴᡉҢय़ᑈᆶނᅿϐঁᡏஏࡋڀॄӛᜢ߯ǴЍ࡭Ԝ౛ፕϐፕॊǶ ՠ၀౛ፕឦ௼ဂቫભޑ૸ፕǴࢂցӧဂᆫቫભԖ࣬ӕޑ่݀ࡑ׳຾΋؁ޑዴᇡǶ

ҁࣴزϐහ݅႖ᚆࡋᆶഌғᕷ෗ചᙦ൤ࡋǵঁᡏஏࡋᆶചᜪӭኬ܄֡όᡉ๱Ǵ

໻੝ۓ१܄ӕфဂϐ݀१ޣചᜪᆶ෈Ӧӕфဂϐᐋ݅ࠠചᜪᆶځԖᡉ๱ॄ࣬ᜢǴ Ԝ่݀ᆶၸѐ೚ӭЎ᝘࣬಄ (Jokimaki 1999ǹWatson et al. 2005ǹ஭࣬܃ 2007)Ƕ

೿ѱϦ༜໔ޑ႖ᚆำࡋᆶ৞ᔁޑ႖ᚆำࡋόӕǶҗܭ೿ѱຉၰதԖ೚ӭΓ೷෌ਭ (ӵՉၰᐋǵᏢਠ฻)Ǵёբࣁചᜪӧ೿ѱύ౽୏ޑၡ৩Ƕନߚࢂ०ՉૈΚၨৡ܈ჹ

෈ӦԖ੝ਸሡ؃ޑചᜪǴωܰᆶ႖ᚆࡋౢғॄӛᜢ߯(Opdam et al. 1985ǹWatson et al. 2005ǹ஭࣬܃ 2007)Ƕ Ξ௖૸႖ᚆࡋ໪ӕਔԵቾނᅿϐᎂΕٰྍǶ ೚ӭ೿ѱ Ϧ༜ചᜪૈޔௗճҔϦ༜аѦޑ೿ѱᕉნ (ӵݞᔭᕉნǵࡂᛞ฻)Ǵࡺჹܭ၀ᜪဂ ചᜪԶقǴහ݅෈Ӧ٠ߚځᅿྍǴࡺᆶ௱ජਏᔈ (Rescue effect) (Levins 1969) ஒ ᆘӦکහ݅ຎࣁ Source ک Sink ޑ࣬ϕᜢ߯όӕǹҭѳᑽ౛ፕύ৞ᔁނᅿҗεഌံ

кϐᜢ߯όӕ (MacArthur and Wilson 1967)Ƕ ӢԜǴҁࣴز໻݀१ޣᆶᐋ݅ചٿ ᜪǴჹܭᐋ݅Ԗଯࡋ٩Ӹޑނᅿωᆶහ݅႖ᚆࡋԖᡉ๱࣬ᜢǶ

ҁࣴزว౜ຯᚆݞࢬຫ߈ϐϦ༜ᆘӦڀԖၨӭޑചᅿکၨଯޑചᜪঁᡏஏࡋǴ

ૈගϲ᏾ᡏചᜪޑဂᆫރݩǶ ਥᏵғނ൴ၰ౛ፕ (corridor theory)Ǵݞࢬޑݞᔭᕉ ნёբࣁചᜪ౽୏೯ၰǴ೸ၸԜ೯ၰ٬ளόӕਔ໔ᆶՏ࿼ޑചᜪ௼ဂளа຾Չঁ

ᡏҬඤǴ຾Զගଯചᜪ௼ဂჹᕉნޑהڙΚ (Gillies and Clair 2008ǹRosenberg et al.

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1997)ǹԶݞࢬޑݞᔭᕉნૈගٮ࣬ၨܭݞࢬٿ਒ᕉნ׳ӭޑ෈ӦၗྍǴӢԶૈ֎

Їၨӭޑᕷ෗ചᜪ (Knopf 1985)Ƕ ࡺҁࣴز௢ෳᚆݞࢬᕉნၨ߈ޑϦ༜Ǵځϣނ ᅿᔈԖၨଯޑᐒ཮ᆶݞࢬᕉნ଺ҬඤǴ٬ளചᜪҗݞࢬᕉნᎂΕϦ༜ᆘӦǴ຾Զ ගϲϦ༜ޑചᜪᙦ൤ࡋᆶঁᡏஏࡋǶ ฅԶǴҭԖ೚ӭࣴز่݀ᡉҢݞࢬݞᔭᕉნ คݤբࣁғᄊ൴ၰ (Skagen et al. 1998ǹHannon and Schmiegelow 2002)Ǵٯӵݞࢬ ᆶڬᎁᕉნޑᜢ߯ஒ཮Ӹӧᜐጔਏᔈ (edge effect) (Baschak and Brown 1995)Ǵ٬ள ݞࢬݞᔭᆶ೿ѱϦ༜ᆘӦ໔ނᅿޑҬඤڙډߔᛖǶ ӢԜǴᆵчࣧӦݞᔭᕉნࢂց

ૈբࣁചᜪғނ൴ၰሡ຾΋؁ޑࣴزǶ

෌೏ᙟᇂࡋჹചᜪဂᆫϐቹៜ

෌ނᙟᇂࡋ (NDVI) ёж߄෈Ӧޑғౢໆࡰ኱Ƕ ೚ӭࣴزว౜෌ނᙟᇂࡋᆶ

೿ѱϦ༜ചᜪဂᆫԖ҅य़ޑቹៜ (ᙁ☰ԁ 2007ǹᎄ⽋ӵ 2006)Ƕ ҁࣴزᡉҢ෌೏

ᙟᇂࡋ (NDVI) ჹܭ᏾ᡏചᜪဂᆫޑቹៜਏ݀όᡉ๱Ǵ໻ᆶᐋ݅ചޑചᅿኧᆶӭ ኬ܄ևᡉ๱ᜢ߯Ƕ ஭࣬܃ (2009) ᇡࣁϦ༜ύϐғౢΚନ෌ނගٮѦǴࡐӭਔং

ᆶΓࣁࢲ୏ԖᜢǴٯӵᗯ१Չࣁ܈ၯ࠼ූᎩޑ१ނǴ٬ளଯࡋ፾ᔈ೿ѱޑചᜪԖ кىޑ१ނၗྍǶ Զҁࣴزύᐋ݅ചᙦ൤ࡋᆶ෌ނᙟᇂࡋԖ҅࣬ᜢǴёૈᆶᐋ݅

ച෈ӦၗྍޑቚуԖᜢǶ Ξࢫ჏ᖃ (2005) ࣴزύගډ NDVI Ҕܭж߄෌ނᙟᇂ ࡋӧଯϾሜ౗ޑ௃ݩΠǴж߄܄ό٫ǴёૈᜤаϩᒣΓπ૛Ҝǵឲᘀᆶᐋ݅ӧϦ

༜ύޑᙟᇂ௃ݩǴҭёૈࢂҁࣴز෌೏ᙟᇂࡋᆶചᜪဂᆫևόᡉ๱ϐচӢǶ ϣ೽ޜ໔่ᄬჹചᜪဂᆫϐቹៜ

೚ӭЎ᝘᛾ჴϦ༜ചᜪဂᆫ཮ڙډᐋ߷ᙟᇂКٯޑቹៜ (Jokimaki 1999ǹ Fernandez-Juricic 2000aǹᙁ☰ԁ 2007ǹSalvador and Montelongo 2013)Ƕ೚ӭചᅿ ޑғӸѸ໪һᒘᐋ݅܌ගٮޑ१ނᆶ෈ӦǴӢԜऩᐋ݅ᙟᇂКٯΠफ़Ǵ࣬ӕελ ϐ෈ӦϣചᜪޑނᅿᆶኧໆΨ཮ᒿϐΠफ़ (Lancaster and Rees 1979)Ƕ ਥᏵҁࣴز ϐ่݀Ǵᐋ߷ᙟᇂКٯᆶϦ༜ഌғᕷ෗ചᅿኧևॄӛᜢ߯ǴӕਔΨᆶᚇ१ޣᆶቶ Ѳചӕфဂևॄӛᜢ߯Ƕ ҁࣴز่݀ᡉҢ೿ѱϦ༜ӭኧചᅿϐғӸёૈሡाᐋ݅

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аѦޑ෈ӦǴଯࡋ٩ᒘᐋ݅ගٮၗྍϐ݀१ޣᆶᐋ݅ചǴϩձ໻՞ 12.5% (3 ᅿ) ᆶ 29.1% (7ᅿ) (Table 5)Ƕ ӢԜǴᐋ߷ᙟᇂࡋКٯቚуϸԶ೷ԋᕴചᅿᆶᚇ१ޣکቶ ѲചӕфဂചᅿΠफ़Ƕ ᐋ߷ᙟᇂКٯᆶചᜪஏࡋޑ่݀ᡉҢǴᐋ߷ᙟᇂКٯቚу

཮٬ள݀१ޣᆶᐋ݅ചӕфဂചᜪஏࡋቚуǴᡉҢᐋ݅ޑቚуᗨ཮٬ளചᜪނᅿ ኧΠफ़Ǵՠ੝ۓޑӕфဂӧኧໆ΢Ԗᡉ๱ޑගϲǶ௢ෳചᜪဂᆫޑᡂϯᆶϦ༜ϣ

೽ၗྍϩଛޑׯᡂԖᜢǶ

Ϧ༜ϣΓ೷ނޑр౜Ǵගٮ೿ѱചᜪନ෌೏Ѧޑќ΋ᅿ෈ӦᕉნǴՠΓ೷ނ ᆶ෌೏ᕉნόӕǴ٠คݤගٮചᜪ१ނၗྍǴՠϝёૈගٮ෈ӦၗྍǶ ҁࣴز่

݀ᡉҢϦ༜ϣ೽Γ೷ނᙟᇂКٯჹϦ༜ഌғᕷ෗ചᅿኧᆶചᜪӭኬ܄Ԗᡉ๱ቹៜǴ ԶჹചᜪঁᡏஏࡋؒԖቹៜǴᆶѠ᡼Ϧ༜ചᜪဂᆫࣴز่݀࣬಄ (ࢫ჏ᖃ 2005ǹ ᙁ☰ԁ 2007)Ƕ ਥᏵࢫ჏ᖃ (2005) ჹѠࠄѱϦ༜ᕉნჹചᜪဂᆫޑࣴزว౜Ǵ Ϧ༜ϣ೽ࡌᑐނय़ᑈǵό೸НӦय़य़ᑈޑቚу཮ᏤठȨߚऐڙᜪ (ᆶҁࣴزϐᐋ݅

ച࣬՟)ȩޑചᅿᙦ൤ࡋᆶӭኬ܄Πफ़Ǵ຾Զ೷ԋᕴചᅿኧΠफ़Ǵᆶҁࣴز่݀࣬

՟ǹԶΓ೷ނᙟᇂКٯޑቚуӕਔ٬ளȨΓࣁυᘋଯࡋऐڙ (ᆶҁࣴزϐቶѲച࣬

՟)ȩޑചᅿኧໆ΢ϲǴӢԜᏤठചᜪ֡ϬࡋΠफ़ǴԶᏤठᕴചᜪӭኬ܄Πफ़Ƕ Ϧ

Ϧ༜ύНᡏϐр౜

Нё೸ၸ೚ӭБԄቹៜചᜪဂᆫǴٯӵചᜪӢғ౛໯Нሡ؃Զᆫ໣ᔸӦ (Gereta et al. 2005)ǵചᜪһᒘଳృНྍࢱᐙаᆢ࡭ԳЛфૈ (Slessers 1970) ฻ޔௗ

ճҔБԄǶ ചᜪҭёૈ໔ௗڙډНޑቹៜǴٯӵᙝ१ചڙډН෈ܲᙝ฻१ނၗྍ

֎ЇԶᆫ໣ݞᔭᕉნ (Iwata et al. 2003)Ƕ ҁࣴز่݀ᡉҢϦ༜ύНᡏϐр౜ࢂቹ ៜϦ༜ചᜪᙦ൤ࡋᆶചᜪӭኬ܄ޑख़ाӢηǴᆶ߻Γࣴز࣬಄ (ᙁ☰ԁ 2007)Ƕ ਥ ᏵၗྍଷᇥǴϦ༜ύНᡏϐр౜཮ቚуϦ༜ӧ१ނϷ෈Ӧၗྍޑӭኬ܄Ǵஒ֎Ї

׳ӭኬޑചᜪр౜Ǵ٠ჹᕴഌғᕷ෗ചᅿኧǵঁᡏஏࡋᆶӭኬ܄ౢғ҅ӛޑቹៜǶ ՠᕴഌғᕷ෗ചঁᡏஏࡋᆶНᡏϐр౜߾คᡉ๱ᜢ߯Ǵ௢ෳНᡏᗨૈ֎Їചᜪճ ҔǴՠਏ݀໻ज़ܭНᡏڬൎǶ ӢࣁਥᏵҁΓჴሞᢀჸǴϦ༜НᡏڬൎዴჴԖၨӭ

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ޑചᜪࢲ୏ᆶചሳǹՠᛖܭҁࣴزаӄ೽ीኧݤࣁፓࢗБԄǴคݤаၗ਑ᡍ᛾Н ᡏჹചᜪঁᡏஏࡋޑቹៜǴࡺۘࡑ຾΋؁ࣴزǶ १܄ӕфဂ่݀ᡉҢǴНᡏᆶᚇ १ചϐചᅿኧϷӭኬ܄Ԗ҅ӛᜢ߯Ǵᆶځдᜪဂևόᡉ๱Ǵ໻೽ϩᆶႣය࣬಄Ƕ চ ᇡࣁНᡏё໔ௗගٮН෈ܲᙝբࣁᙝ१ചᆶᚇ१ചӕфဂചᜪϐ१ނٰྍǴ຾Զ

֎Ї׳ӭޑᙝ१ചᆶᚇ१ചǶ ೷ԋ่݀ᆶႣයϐৡຯޑځёૈচӢԖΒǺಃ΋Ǵ ᙝ१ޣӕфဂނᅿ 7 ᅿύନλ៻቏ᆶξआᓐѦǴځᎩ 5 ᅿϐр౜ᓎ౗ࣣεܭ 50%

(Table 5)Ƕ ᡉҢᙝ१ޣӕфဂചᜪނᅿදၹϩѲܭӄ೽ޑϦ༜ᆘӦǴځ೿ѱϣᙝ १ചǴԶᆵчࣧӦወӧϐёૈᎂΕϦ༜ᆘӦϐᙝ१ޣӭࣁฝ࣭ࣽϐឲᘀࠠചᜪǴ ځᎂΕஒڙज़ܭϦ༜ᆘӦύឲᘀ෈ӦޑલЮ܌ቹៜǹಃΒǴНᡏ٠คගٮН෈ܲ

ᙝբࣁചᜪ१ނၗྍǴԶ೷ԋᚇ१ޣചᅿᐋᆶӭኬ܄ቚуϐচӢࣁᚇ१ޣӕфဂ ᆶቶѲചӕфဂԖଯࡋޑ࣬՟܄ (Table 7) (Table 8)ǶӢࣁӧᚇ१ޣӕфဂചᜪ 9 ᅿύǴନқᓐશǵᐋ᜹ᆶѠ᡼ᙔ᜹ѦǴԖ 65%ឦܭቶѲࠠചᜪǴΞቶѲചϐނᅿ ኧᆶӭኬ܄ҭᆶНᡏϐр౜և҅ӛᜢ߯Ƕ Нᡏр౜ᆶ෈ӦӕфဂϐቶѲചނᅿኧ Ԗᡉ๱҅࣬ᜢǶ ቶѲചёճҔၨӭኬϯϐ෈ӦǴх֖ᐋ݅ǵΓ೷ނᆶ໒ᗡӦ฻Ǵ Զᐋ݅ചܰڙᐋ݅Զज़ڋځࢲ୏ጄൎǶ Զ Slessers (1970) ගډӧϦ༜ϣቚ೛Нԣ ёբࣁගٮചᜪёޔௗճҔޑНྍǴаճചᜪ຾Չ໯Нᆶࢱ੎฻ࢲ୏ǴࡺНᡏϐ р౜ᆶቶѲചചᜪဂᆫᔈԖ҅ӛᜢ߯Ǵᆶҁࣴز่݀࣬಄Ƕ

Ϧ

Ϧ༜ೕჄϐࡌ᝼

೿ѱғᄊᕉნޑ҉ុ࿶ᔼࢂ౜ж೿ѱว৖ޑБӛǴԶ೿ѱϦ༜ᆘӦբࣁ೿ѱ Ӧඳޑғނᗉᜤ܌ᆶғނ዗ᗺǴࢂߥៈ೿ѱғᄊޑख़ᗺǶ ࣁԜǴҁࣴزගр൳໨

Ϧ༜ೕჄϐࡌ᝼Ǻ

(1) Ϧ༜य़ᑈελࢂቹៜചᜪᙦ൤ࡋനЬाޑӢનǴࢂ೿ѱϦ༜ೕჄਔ໪ᓬ

ӃԵໆޑाҹǶՠय़ᑈӧ೿ѱύ۳۳ࢂڙज़ޑӢηǴӢԜϣ೽ޜ໔ೕჄ

࿶தωࢂૈԖਏޑගϲചᜪӭኬ܄ޑ࿶ᔼᆅ౛БԄǶ

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(2) හ݅႖ᚆࡋᆶݞࢬ႖ᚆࡋ܌ቹៜޑചᜪᜪဂόӕǴऩࣁቚу݀१ޣǵᐋ

݅ചӭኬ܄ەᒧ᏷ᎃ߈܈ᆶξ୔හ݅Ԗೱ่ϐՏ࿼Ƕ Զᎃ߈ݞࢬޑՏ࿼

շܭቚуϦ༜ϣᚇ१ചᆶቶѲചޑӭኬ܄Ƕ

(3) Ϧ༜ύНᡏޑр౜ૈԖਏቚуϦ༜ύޑചᜪᙦ൤ࡋᆶӭኬ܄Ƕନૈ֎Ї

߈НചճҔǴΨૈගٮഌғᕷ෗ചբࣁଳృНྍǴ҂ٰᔈયΕϦ༜೛ࡼ

ϐೕჄǶ

(4) Ϧ༜ϣ೽ޑΓ೷ނᆶᐋ߷ᙟᇂࡋࣣ཮ቹៜϦ༜ϣചᜪӭኬ܄ǶӢԜǴϦ

༜ϣ೽ޑᐋ݅ᆶΓ೷೛ࡼޑᙟᇂКٯࣣόەၸଯǴߡૈԖਏቚуചᜪᙦ

൤ࡋᆶӭኬ܄Ƕ

(5) ҁࣴزύឲᘀചᅿᜪኧໆࣣϿǴ໻р౜ܭᎃ߈ξسϐϦ༜ǴёૈᆶϦ༜

ϣ೽લЮឲᘀ่ᄬǴаϷ೿ѱઇ࿗෈Ӧ໔લЮೱុឲᘀԖᜢǶ Ϧ༜ϣቚ уឲᘀёૈԖշܭቚуឲᘀചӭኬ܄Ƕ

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ୖԵЎ᝘

ύѧ਻ຝֽǶ http://www.cwb.gov.tw/V7/index.htm

Ўϯ೽Ƕ 2009Ƕ ᆵ᡼εԭࣽӄਜǶhttp://taiwanpedia.culture.tw/web/content?ID=1431 ЦඵဃǶ 2002Ƕ ೿ѱϦ༜ғᄊޜ໔੝܄ϐࣴز─аѠࠄѱϦ༜ചᜪࣁٯǶ ୯ҥ

ԋфεᏢ೿ѱीჄسᅺγፕЎǶ

ՉࡹଣЬीೀǶ 2011Ƕ 99 ԃΓαϷՐӻදࢗ߃؁಍ी่݀ගाϩ݋Ƕ ՉࡹଣЬ

ीೀǶ

ࢫ჏ᖃǶ 2005Ƕ Ϧ༜ᕉნᆶചᜪဂᆫᜢ߯ϐࣴز─аѠࠄѱϦ༜ࣁٯǶ ୯ҥԋ фεᏢࡌᑐࣴز܌ᅺγፕЎǶ

ཥчѱϦ༜೛ࡼᄤၡᐩᆢៈᆅ౛س಍Ƕhttp://parkfacilities.ntpc.gov.tw/pntcpems/

஭࣬܃Ƕ 2009Ƕ ೿ѱ෈Ӧࠠ৞ᔁϐചᜪဂᆫಔԋǵӭኬ܄ǵᆶғ෗ࢲ୏Ƕ ୯ҥ ԋфεᏢғڮࣽᏢ܌ᅺγፕЎǶ

လӂԃǵ׵୻޹ǵߋࣹᄪǶ 2008Ƕ ઇ࿗෈Ӧϐय़ᑈǵېᚆࡋᆶ෈Ӧ౦፦ࡋჹ೿

ѱӦඳϐചᜪဂᆫಔԋϐቹៜ─аᆵчѱϦ༜ᆘӦࣁٯǶ ೿ѱᆶीฝǶڔ 35Ǻ 141-154Ƕ

ᙁ☰ԁǶ 2007Ƕ ᆵчѱ೿ѱϦ༜ޜ໔่ᄬᆶചᜪӭኬ܄ϐ࣬ᜢ܄Ƕ دҥύ୯Ў ϯεᏢඳᢀᏢسࣴز܌ᅺγፕЎǶ

ᆩ᜻Ƕ 1977Ƕ Ѡ᡼ചᜪғᄊ႖ᚆϐࣴزǶ دҥܿੇεᏢғނᏢࣴز܌ᅺγፕЎǶ ᆵчѱࡹ۬π୍ֽϦ༜ၡᐩπำᆅ౛ೀǶ 2013Ƕ Ϧ༜ᆅ౛࣬ᜢೕۓǶ ᆵчѱࡹ

۬π୍ֽǶ http://pkl.taipei.gov.tw/

ᆵ᡼ނᅿӜᒵ (TaiBNET)Ƕ http://taibnet.sinica.edu.tw/

Ѡ᡼ചᜪᇞಃΒހǶ 2012Ƕ http://taibif.tw/download/avifauna/flipviewerxpress.html ᎄ٥൫Ƕ 2003Ƕ ೿ѱϦ༜ᆘӦೱௗࡋᆶചᜪဂᆫᜢ߯ϐࣴزǶ ୯ҥѠ᡼εᏢ༜

᛬Ꮲࣴز܌ᅺγፕЎǶ

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ijıġ

ᎄ⽋ӵǵ׵୻޹Ƕ 2006Ƕ ҉ុᆵчࠤޑғᄊࡰ߄─Ϧ༜ᆘӦޑചᜪǶ ӄౚᡂᎂ ೯ૻᚇᇞǶ ය 49Ǻ20-22Ƕ

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Fig. 1 Satellite image of Taipei Basin in 2013 which is captured by Google Earth Pro.

Part circling by the red line is the Taipei metropolis. All city are surrounded by the mountain forest.

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Fig. 2 Location of the selected 100 urban parks in this study in Taipei Basin. Red area is the 100 sites in this study. Green area, mountain forest, refers to nature habitat. Blue area, Danshui river riparian zone, refers to river. Orange area is the surveyed area included the whole Taipei city and the 9 districts of Xinbei city.

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Fig. 3 Results of hierarchy clustering of original feeding guilds according to average linkage with height of 3 before comparing.

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Fig. 4 Results of hierarchy clustering of original habitat guilds according to average linkage with height of 3 before comparing.

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Fig. 5 Boxplot of water and other six variables including park area, distance to forest, distance to rive, NDVI, artifact cover, and canopy cover.

Distance. to forest Distance. to river

Park area

Canopy cover Artifact cover

NDVI

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Table 1 Definition of the seven selected variables in this study.

Variables Definition

Area Total area of park

(A) (ha)

Distance to forest Minimum distance from park boundary to border of 100m contour line

(DF) (m)

Distance to river Minimum distance from park boundary to border of main river

(DR) (m)

NDVI Average of the NDVI of the park

(N) (between -1 and 1)

Canopy cover Coverage of the canopy in the park

(C) (%)

Artifact cover Coverage of the impermeable layer in the park

(Af) (%)

Presence of water Presence of water

(W) (Presence:1ǹAbsence:0)

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Table 2 Original resource matrix of feeding guilds in use of hierarchy clustering.

Species Food type

Insect Fruit Seed Others

Ѡ᡼ᙔ᜹ Urocissa caerulea 1 1

഻᜹ Pica pica 1 1

ᐋ᜹ Dendrocitta formosae 1 1

λ៻቏ Pomatorhinus ruficollis 1

ξआᓐ Stachyris ruficeps 1

ᆘᙇ౳ Zosterops japonicas 1 1

ഞഒ Passer montanus 1

ϖՅച Megalaima nuchalis 1

ৎᐪ Hirundo rustica 1

ࢩᐪ Hirundo tahitica 1

қᓐશ Pycnonotus sinensis 1 1

आ቏໵㋱ Hypsipetes leucocephalus 1

εڔ׀ Dicrurus macrocercus 1

Ζঢ Acridotheres cristatellus 1 1 1

ߎङႱ Streptopelia orientails 1

੧ᓍඬႱ Streptopelia chinensis 1

आႱ Streptopelia tranquebarica 1

ৎΖঢ Acridotheres tristis 1 1 1

қ׀Ζঢ Acridotheres javanicus 1 1 1

໵ሦ⋜ച Gracupica nigricollis 1 1 1 1

٥ࢪ፵⋜ച Aplonis panayensis 1

໵߷ഞᡴ Gorsachiusmelanolophus 1 1

ഁᗷ Columba livia 1

᜹⹢ Copsychus saularis 1 1 1

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ĴĴġ

Table 3 Original resource matrix of habitat guilds in use of hierarchy clustering.

Species Habitat type

Tree Shrub Grass Water Ground Artifact Air

໵߷ഞᡴ Gorsachiusmelanolophus 1 1 1

ഁᗷ Columba livia 1 1 1

੧ᓍඬႱ Streptopelia chinensis 1 1 1

ߎङႱ Streptopelia orientails 1 1 1

आႱ Streptopelia tranquebarica 1 1 1

ϖՅച Megalaima nuchalis 1

ৎᐪ Hirundo rustica 1 1

ࢩᐪ Hirundo tahitica 1 1

εڔ׀ Dicrurus macrocercus 1 1

ᐋ᜹ Dendrocitta formosae 1

഻᜹ Pica pica 1 1

Ѡ᡼ᙔ᜹ Urocissa caerulea 1

λ៻቏ Pomatorhinus ruficollis 1

ξआᓐ Stachyris ruficeps 1

आ቏໵㋱ Hypsipetes leucocephalus 1

қᓐશ Pycnonotus sinensis 1 1

Ζঢ Acridotheres cristatellus 1 1 1

ৎΖঢ Acridotheres tristis 1 1 1

٥ࢪ፵⋜ച Aplonis panayensis 1 1

໵ሦ⋜ച Gracupica nigricollis 1 1 1

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Ĵĵġ

Table 3 (Continued)

Species Habitat type

Tree Shrub Grass Water Ground Artifact Air

қ׀Ζঢ Acridotheres javanicus 1 1 1

ᆘᙇ౳ Zosterops japonicas 1

ഞഒ Passer montanus 1 1 1 1

᜹⹢ Copsychus saularis 1 1 1 1

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ĴĶġ

Table 4 Original data of seven selected variables of the one hundred urban parks in this study.

Park ID Area Distance to forest Distance to river

NDVI Artifact cover Canopy cover Presence of water

(ha) (m) (m) (%) (%)

ΒΒΖइۺϦ༜ 8.08 4360.9 1112.2 -0.08 0.22 0.33 1

ΖΒΟइۺϦ༜ 10.80 1026.2 1153.4 -0.16 0.36 0.29 1

ΖቺϦ༜ 2.81 2825.4 683.8 -0.1 0.39 0.46 0

Ο҇Ϧ༜ 1.12 2713.2 16 -0.06 0.23 0.41 0

Ο஭Ϧ༜ 1.06 3404.8 1152.6 -0.11 0.29 0.29 0

εϦᚊϦ༜ 2.29 0 794.5 0.32 0.02 0.13 0

εӕϦ༜ 1.25 3537.5 1087.7 -0.21 0.47 0.70 0

εӼහ݅Ϧ༜ 25.56 1732.4 1440.8 0.06 0.15 0.27 1

ε෫Ϧ༜ 14.60 0 1597.9 -0.14 0.21 0.13 1

εᙦϦ༜ 1.20 1567.3 860.9 -0.16 0.52 0.28 0

ύѳϦ༜ 2.01 3208.6 1523.6 -0.23 0.41 0.27 1

ύ҅इۺ୸ 23.85 3129.3 1736.5 -0.11 0.46 0.19 1

ύࣴϦ༜ 1.47 0 1385.8 0.01 0.18 0.54 0

ύமϦ༜ 5.55 13.8 2075.2 0.11 0.19 0.65 0

ύᑫϦ༜ 3.14 0 1899.4 0.11 0.21 0.61 0

ϏስϦ༜ 1.06 0 1301.8 0.15 0.02 0.51 1

ϖ៾Ϧ༜ 1.02 290.3 1556.9 -0.06 0.31 0.58 0

Ϻ҆Ϧ༜ 3.47 356.4 469.9 0.2 0.07 0.62 1

ϺکϦ༜ 1.31 122.4 724.7 0.02 0.19 0.61 1

ϼѳၮ୏Ϧ༜ 1.50 170.8 201.6 -0.27 0.2 0.13 0

(45)

Ĵķġ

Table 4 (Continued).

Park ID Area Distance to forest Distance to river

NDVI Artifact cover Canopy cover Presence of water

(ha) (m) (m) (%) (%)

Е࢐Ϧ༜ 4.07 0 308.9 0.12 0.1 0.63 1

Н࿟ᢀඳϦ༜ 10.50 0 1106.3 0.17 0.02 0.92 0

чӼϦ༜ 1.12 198.6 29.2 0.13 0.11 0.71 0

ч׫Ϧ༜ 3.35 0 1850.4 0.02 0.09 0.47 1

ѠεᎈД෫ 2.67 1142.8 1206.2 -0.09 0 0.28 1

ᆵч෌ނ༜ 9.89 3814.6 803.7 -0.04 0.18 0.61 1

ѤᆢϦ༜ 1.95 3122.3 669.6 -0.11 0.39 0.54 0

ѱ҇ቶ൑ 3.27 909 1674.7 -0.15 0.48 0.22 1

҇ғϦ༜ 1.43 3191.3 1079.1 -0.05 0.25 0.44 0

҇៾Ϧ༜ 1.52 2879 834.3 -0.04 0.4 0.49 0

ҏԋϦ༜ 4.53 447.4 1071.9 0.03 0.39 0.61 0

ҏࢨϦ༜ 1.96 3389.1 121.5 -0.06 0.27 0.17 0

ҡจϦ༜ 1.09 779.6 965 -0.08 0.27 0.62 0

ҥၭϦ༜ 1.34 511.7 492.9 0.02 0.28 0.44 0

ӜξϦ༜ 1.31 296.2 53.5 -0.01 0.28 0.41 1

ӼٖϦ༜ 1.10 540.6 740.2 -0.08 0.3 0.31 0

Ӽநහ݅Ϧ༜ 7.38 184.3 1474.1 -0.22 0.14 0.69 0

ԤЗϦ༜ 1.99 494.7 75.2 0.12 0.23 0.20 0

ԾமϦ༜ 1.60 324 1786.7 0.06 0.21 0.86 0

Կ๓Ϧ༜ 3.01 121.2 0 0.1 0.15 0.53 1

(46)

Ĵĸġ

Table 4 (Continued).

Park ID Area Distance to forest Distance to river

NDVI Artifact cover Canopy cover Presence of water

(ha) (m) (m) (%) (%)

דԋϦ༜ 1.43 343.6 249.5 -0.02 0.23 0.48 1

کѳϦ༜ 2.73 3846.2 1215.4 -0.18 0.42 0.29 0

۸၈Ϧ༜ 1.42 698.2 260.6 0.03 0.17 0.61 1

܍ቺϦ༜ 1.06 385.4 645.3 -0.27 0.48 0.37 0

ܴНϦ༜ 1.30 762.6 37.4 -0.11 0.33 0.40 0

ܴቺϦ༜ 2.38 246 1628.9 -0.06 0.31 0.65 0

ܿ๮Ϧ༜ 1.46 163.8 956.9 -0.05 0.43 0.95 0

݈ᐏ҇ғϦ༜ 1.07 1688.9 983.1 -0.28 0.56 0.30 0

݅හϦ༜ 4.30 4224.6 1671.6 -0.01 0.17 0.20 0

ދᅧϦ༜ 1.92 3456.3 260 -0.06 0.26 0.52 0

ޗηϦ༜ 1.12 1873.8 271.6 -0.32 0.23 0.50 1

޲ξϦ༜ 10.51 230.9 48.8 0.17 0.09 0.81 0

ߙԃϦ༜ 26.08 3608 65.7 0.01 0.16 0.38 1

߻ෝϦ༜ 3.88 431.9 325.8 0.04 0.22 0.59 0

ࠄෝϦ༜ 15.60 157.6 983.3 0.05 0.2 0.33 1

ࡌԋϦ༜ 1.48 2624.8 1019.5 -0.2 0.45 0.62 0

ࡕξ୶Ϧ༜ 7.20 287.6 936.1 0.16 0.05 0.36 0

ࡘ፣Ϧ༜ 1.05 4005.9 1017.5 -0.13 0.33 0.38 0

ऍடϦ༜ 6.00 936.4 21.9 0.01 0.41 0.19 0

ऍೌϦ༜ 7.90 774.4 94.5 -0.16 0.34 0.08 1

(47)

ĴĹġ

Table 4 (Continued).

Park ID Area Distance to forest Distance to river

NDVI Artifact cover Canopy cover Presence of water

(ha) (m) (m) (%) (%)

च፾Ϧ༜ 1.62 30.1 1590.1 0.11 0.15 0.68 1

ख़໚Ϧ༜ 1.37 4602.9 308.6 -0.34 0.32 0.41 0

ख़ቼϦ༜ 1.21 1591.3 995.3 -0.19 0.59 0.58 0

ॣ኷Ϧ༜ 3.11 3162.4 158.3 -0.11 0.3 0.18 0

চഁϦ༜ 1.10 669.6 924.9 0.04 0.21 0.76 0

ੌԀၮ୏Ϧ༜ 4.12 2881.7 273.6 0.01 0.23 0.23 0

ੌࢪᒃ҇Ϧ༜ 3.20 2403.5 221.3 -0.05 0.27 0.15 0

ੇӀϦ༜ 1.23 1535.5 44.2 -0.28 0.26 0.22 0

੮ϦϦ༜ 1.56 684.7 313.6 -0.13 0.34 0.30 0

ଭϦϦ༜ 1.34 250.3 500.3 -0.11 0.4 0.34 0

୯Рइۺᓔ 13.37 1170.2 1460 -0.11 0.48 0.18 1

୯ӀϦ༜ 1.95 3192.5 392 -0.09 0.38 0.67 0

ஜடϦ༜ 1.13 1062.2 536.4 -0.1 0.41 0.46 1

మқϦ༜ 3.90 163.7 2223.8 0.16 0.2 0.60 0

ൺᑫϦ༜ 2.64 48 2324.9 -0.16 0.33 0.53 1

ඳ๮Ϧ༜ 1.68 266 606.6 -0.14 0.38 0.20 0

๋໚໚ӀϦ༜ 1.58 101.2 1258.2 0.01 0.55 0.57 0

๮ύϦ༜ 1.07 3598.8 12 -0.25 0.47 0.39 0

๮ԢಷལϦ༜ 2.65 2307 1284.2 -0.19 0.26 0.33 0

໒ϡϦ༜ 1.37 2345.1 30.3 -0.12 0.32 0.20 0

(48)

Ĵĺġ

Table 4 (Continued).

Park ID Area Distance to forest Distance to river

NDVI Artifact cover Canopy cover Presence of water

(ha) (m) (m) (%) (%)

໣፣ᕉߥϦ༜ 3.69 3400 311.8 -0.26 0.14 0.32 1

༝ξϦ༜ 11.00 670.8 111.2 -0.09 0.58 0.11 0

ཥғϦ༜ 15.90 818.7 157.9 -0.06 0.27 0.27 1

ཥ݈࿤ڳϦ༜ 7.70 2151.2 1094.2 -0.21 0.39 0.11 1

ཥಷߙԃϦ༜ 8.96 0 2779.8 0.29 0.01 0.99 0

ྛчϦ༜ 3.11 1398.3 293.3 -0.12 0.43 0.51 1

ྛԀϦ༜ 1.72 977.8 659.6 -0.05 0.4 0.70 0

࿤ቼϦ༜ 1.72 618.1 12.1 0.03 0.17 0.49 0

჏ᕞϦ༜ 7.05 0 1420.3 0.08 0.18 0.94 0

ᄪࢃϦ༜ 6.63 1765.3 991.8 -0.02 0.12 0.35 1

ᅸ෫Ϧ༜ 16.30 149.3 1222.9 -0.06 0.04 0.39 1

ᅽ݅Ϧ༜ 1.50 206.5 344.5 -0.06 0.16 0.43 0

ᆹ⅏Ϧ༜ 1.18 4895.8 476.9 -0.33 0.82 0.77 0

ቆ዇Ϧ༜ 1.07 0 112.6 0.1 0.13 0.77 0

ቶᅽϦ༜ 1.34 427.7 1402.8 -0.2 0.74 0.53 0

ᑫໜϦ༜ 1.46 70.2 1541.9 -0.05 0.21 0.62 1

ᒸکၮ୏Ϧ༜ 8.77 181.7 1583.2 -0.02 0.51 0.32 0

ᓐ߻ၮ୏Ϧ༜ 3.57 4143.7 1003.1 -0.19 0.19 0.29 1

ᚈྛϦ༜ 1.65 212.9 33 -0.05 0.12 0.26 1

ើ໡Ϧ༜ 1.62 254 343.1 0.05 0.19 0.78 0

(49)

ĵıġ

Table 5 Bird species observed in hundred urban parks. Included specie occurrence park number and its total number.

Species

Category Occurrence

Total number ύЎ߫Ӝ Scientific name park number

εқᡴ Ardea alba W 1 2

εڔ׀ Dicrurus macrocercus* B 51 153

ε߷㖣 Spilornis cheela B 6 8

λқᡴ Egretta garzetta W 17 144

λ៻቏ Pomatorhinus ruficollis* B 8 22

ξआᓐ Stachyris ruficeps* B 7 32

ύ׹ᚧ Cuculus saturatus saturates B 1 1

ϖՅച Megalaima nuchalis* B 61 319

Ζঢ Acridotheres cristatellus* B 9 29

Ѡ᡼๋ቖ㋴ Myiophoneus insularis B 4 5

Ѡ᡼ᙔ᜹ Urocissa caerulea* B 11 46

қ׀Ζঢ Acridotheres javanicus* B 46 191

қဎઙᚊ Amaurornis phoenicurus W 3 5

қဎ㋴ Turdus pallidus M 13 59

қᓐશ Pycnonotus sinensis* B 100 1903

Ԫ㒛ᓦ Motacilla cinerea M 3 5

Ԯᚊ Bambusicola thoracicus B 2 2

هဎ㋴ Turdus chrysolaus M 3 9

٥ࢪ፵⋜ച Aplonis panayensis* B 7 434

ڹᡴ Nycticorax nycticorax W 15 100

݊ഒᡳ Accipiter virgatus B 1 1

߁㋴ Zoothera dauma M 1 1

ߎङႱ Streptopelia orientails* B 44 105

ࢩᐪ Hirundo tahitica* B 94 186

आ׀դമ Lanius cristatus M 12 15

आ߷Нᚊ Gallinula chloropus W 7 70

आႱ Streptopelia tranquebarica* B 13 55

आ቏໵㋱ Hypsipetes leucocephalus * B 88 837

ৎΖঢ Acridotheres tristis* B 57 309

ৎᐪ Hirundo rustica* B 94 540

੧ᓍඬႱ Streptopelia chinensis* B 89 466

ഁᗷ Columba livia* B 55 1791

ഞഒ Passer montanus* B 87 2505

഻᜹ Pica pica* B 59 215

(50)

ĵIJġ

Table 5 (Continued).

Species

Category Occurrence

Total number ύЎ߫Ӝ Scientific name park number

อવᐋ៩ Cettia diphone M 2 2

ඬᗺ㋴ Turdus naumanni M 1 1

໳׀⹢ Phoenicurus auroreus M 3 3

໳࣭࢛៩ Phylloscopus inornatus M 1 1

໳ᓐᡴ Bubulcus ibis W 10 35

໳㒛ᓦ Motacilla flava M 2 3

໳㚁 Oriolus chinensis B 4 13

໵ܾᙔ㒣 Hypothymis azurea B 2 10

໵߷ഞᡴ Gorsachiusmelanolophus* B 35 86

໵ሦ⋜ച Gracupica nigricollis* B 19 55

໵㋴ Turdus merula M 1 1

ᆘႱ Treron sieboldi B 1 1

ᆘᓐᓥ Anas platyrhynchos I 1 2

ᆘᙇ౳ Zosterops japonicas* B 99 2430

ᆧച Alcedo atthis O 7 9

ᇇᡴ Ardea cinerea W 1 1

ስᓐᇇᡳ Accipiter trivirgatus B 4 4

ᐋ᜹ Dendrocitta formosae* B 81 605

ᓐਜ਼ጕ Alcippe brunnea B 1 1

ᙇ౳ฝ࣭ Alcippe morrisonia B 2 16

᜹⹢ Copsychus saularis* B 40 104

*24 species that take into analysis in this study.

*Category: W-wading birds; I-introduced species; B-terrestrial breeding birds;

M-migratory; O-others

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