Bund flora in the traditional rice paddy terraces in some foothill landscapes of Guilan Province, N. Iran, towards conservation of phytodiversity in agroecosystems

Ajamian, M, Beygom Faghir, M, Bazdid Vahdati, F 2024, Floristic, life form and chorological studies of the Saqalaksar forest, Rasht, Northern Iran. Caspian Journal of Environmental Sciences, 22: 277-288.

Akhani, H, Djamali, M, Ghorbanalizadeh, A & Ramezani, E 2010, Plant biodiversity of Hyrcanian relict forests, N Iran: An overview of the flora, vegetation, palaeoecology and conservation. Pakistan Journal of Botany, 42: 231-248.

Ashrafzadeh, A, Roshandel, F, Khaledian, M, Vazifedoust, M & Rezaei, M 2016, Assessment of groundwater salinity risk using kriging methods: a case study in northern Iran. Agricultural Water Management, 178: 215-224.

Assadi, M, Maassoumi, AA, Khatamsaz, M & Mozaffarian, V 1988-2018, Flora of Iran, Vols. 1-147. Research Institute of Forests and Rangelands Publications, Tehran. [In Persian].

Bambaradeniya, CNB & Amerasinghe, FP 2004, Biodiversity associated with the rice field agroecosystem in Asian countries: A brief review. International Water Management Institute, 63: 1-24.

Bambaradeniya, CNB, Edirisinghe, JP, De Silva, DN, Gunatilleke, CVS, Ranawana, KB & Wijekoon, S 2004, Biodiversity associated with an irrigated rice agro-ecosystem in Sri Lanka. Biodiversity and Conservation, 13: 715-1753.

Bennett, EM, Baird, J, Baulch, H, Chaplin-Kramer, R, Fraser, E, Loring, P, Morrison, P, Parrott, L, Sherren, K, Winkler, KJ, Cimon-Morin, J, Fortin, M-J, Kurylyk, BL, Lundholm, J, Poulin, M, Rieb, JT, Gonzalez, A, Hickey, GM, Humphries, M & Lapen, D 2021, Ecosystem services and the resilience of agricultural landscapes, in DA Bohan & AJ Vanbergen (eds), Advances in ecological research. Academic Press Inc., Cambridge.

Bolōs, OD & Masclans, F 1955, La vegetación de los arrozales en la región mediterránea [The vegetation of rice fields in the Mediterranean region]. Collectanea Botanica, 4: 415-434 (In Spanish with English Abstract).

Burel, F 1996, Hedgerows and their role in agricultural landscapes. Critical Reviews in Plant Sciences, 15: 169-190.

Cardarelli, E & Bogliani, G 2014, Effects of grass management intensity on ground beetle assemblages in rice field banks. Agriculture, Ecosystems & Environment, 195: 120-126.

Chen, B, Qiu, Z, Usio, N & Nakamura, K 2018, Conservation and contingent valuation of farming landscape amenities by visitors: A case study of terraced paddy fields in Central Japan. Paddy Water Environment, 16: 561-570.

Chen, D, Wei, W & Chen, L 2021, Effects of terracing on soil properties in three key mountainous regions of China. Geography and Sustainability, 2: 195-206.

Chivenge, P, Angeles, O, Hadi, B, Acuin, C, Connor, M, Stuart, A, Puskur, R & Johnson-Beebout, S 2020, Ecosystem services in paddy rice systems. In L, Rusinamhodzi (ed), The role of ecosystem services in sustainable food systems, Academic Press, Cambridge.

Choi, G, Do, MS, Son, SJ & Nam, HK 2021, Effect of different management techniques on bird taxonomic groups on rice fields in the Republic of Korea. Scientific Reports, 11: 1-10.

Datta, A, Ullah, H & Ferdous, Z 2017, Water Management in Rice. In: BS, Chauhan, K, Jabran & G, Mahajan (eds, Rice Production Worldwide, Springer, Cham.

Dehshiri, MM 2021, Invasive alien species of Iran. In: T, Pullaiah & MR, Ielmini (eds), Invasive alien species: Observations and issues from around the world, John Wiley & Sons.

Eghbal, M, Givi, J, Torabi, H & Miransari, M 2012, Formation of soils with fragipan and plinthite in old beach deposits in the South of the Caspian Sea, Guilan Province, Iran. Applied Clay Science, 64: 44-52.

Everard, M 2018, Rice paddies. In: CM, Finlayson et al. (eds), The Wetland Book, Springer, Dordrecht.

FAO, 2019, The state of the world’s biodiversity for food and agriculture, viewed 17 May 2021, <http://www.fao.org/3/w8595t/w8595t05.htm.

FAOSTAT, 2019, FAOSTAT Online Database, viewed May 2, 2021, <http://www.fao.org/faostat/en/#data.

Fried, O, Kühn, I, Schrader, J, Nguyen, VS & Bergmeier, E 2017, Plant diversity and community composition of rice agroecosystems in Vietnam and the Philippines. Phytocoenologia, 47: 49-66.

Fried, O, Kühn, I, Schrader, J, Nguyen, VS & Bergmeier, E 2018, Plant diversity and composition of rice field bunds in Southeast Asia. Paddy and Water Environment, 16: 359-378.

Fukamachi, K, Oku, H & Miyake, A 2005, The relationships between the structure of paddy levees and the plant species diversity in cultural landscapes on the west side of Lake Biwa, Shiga, Japan. Landscape and Ecological Engineering, 1: 191-199.

García, PV& Benzal, AV 2009, Flórula y vegetación de “Els Ullals de Na Molins” (La Albufera. Valencia). Referencia de un estado intermedio de restauración de humedales [Flora and vegetation of “Els Ullals de Na Molins” (La Albufera. Valencia). Reference for an intermediate state of wetland restoration], Flora Montiberica, 42: 31-40 [In Spanish].

Haan, NL, Iuliano, BG, Gratton, C & Landis, DA, 2021, Designing agricultural landscapes for arthropod-based ecosystem services in North America. In: D, Bohan & A, Vanbergen (eds.), The future of agricultural landscapes, Part II, Academic Press, Massachusetts.

Halmy, MWA, Fawzy, M, Ahmed, DA, Saeed, NM & Awad, MA 2019, Monitoring and predicting the potential distribution of alien plant species in arid ecosystem using remotely-sensed data. Remote Sensing Applications: Society and Environment, 13: 69-84.

Irakiza, RW, Makokha, D, Malombe, IL, Bourgeois, TK, Chitiki, A & Rodenburg, J 2021, Composition of weed communities in seasonally flooded rice environments in East Africa is determined by altitude. South African Journal of Botany, 140: 143-152.

IUCN 2021, The IUCN Red List of threatened species. Version 2021-1, viewed 2 May 2021, <https://www.iucnredlist.org.

IUCN, 2019, Guidelines for using the IUCN red list categories and criteria. Version 14.

Kawano, N, Fukuzumi, S, Umemori, K, Ishikawa, S & Miyake, N 2008, Relationship between management regime and species diversity of the semi-natural grasslands in the Shiodzuka highlands, Shikoku, Western Japan. Hikobia, 15: 205-215. (In Japanese with English Abstract).

Kawano, N, Kawano, K, Ohsawa, M 2009, Floristic diversity and the richness of locally endangered plant species of seminatural grasslands under different management practices, southern Kyushu, Japan. Plant Ecology and Diversity, 2: 277-288.

Kim, SY, Kim, MS, Ryu, YM & An, SL 2019, A phytosociological study of spring-type rice field vegetation, Angye Plains, South Korea. Journal of Asia-Pacific Biodiversity, 12: 661-667.

Kizos, T & Vlachos, G 2012, The evolution of the agricultural landscape. In: T, Papayiannis & P, Howard (eds.), Reclaiming the Greek landscape, MED-INA, Athens.

Koyanagi, TF, Yamada S, Yonezawa, K, Kitagawa, Y & Ichikawa, K 2014, Plant species richness and composition under different disturbance regimes in marginal grasslands of a Japanese terraced paddy field landscape. Applied Vegetation Science, 17: 636-644.

Kumalasari, NR & Bergmeier, E 2014, Effects of surrounding crop and semi-natural vegetation on the plant diversity of paddy fields. Agriculture & Food Security, 3: 1-8.

Léonard, J 1989, Contribution a l’etude de la flore et de la vegetation des deserts d’Iran [Contribution to the study of flora and vegetation of deserts of Iran). Vol. 9, Jardin Botanique National de Belgique, Meise.

Litza, K, Alignier, A, Closset-Kopp, D, Ernoult, A, Mony, C, Osthaus, M, Staley, J, Van Den Berge, S, Vanneste, T & Diekmann, M, 2022, Hedgerows as a habitat for forest plant species in the agricultural landscape of Europe. Agriculture, Ecosystems and Environment, 326: 107809.

Matsumura, T & Takeda, Y 2010, Relationship between species richness and spatial and temporal distance from seed source in semi-natural grassland. Applied Vegetation Science, 13: 336-345.

Matsumura, T, Uchida, K & Sawada, Y 2014, Conditions and conservation for biodiversity of the semi-natural grassland vegetation on rice paddy levees. Vegetation Science, 31: 193-218. (In Japanese with English Abstract).

Memariani, F 2020, The Khorassan-Kopet Dagh Mountains, In: J, Noroozi (ed), Plant Biogeography and Vegetation of High Mountains of Central and South-West Asia, Springer, Cham.

Miyashita, T, Yamanaka, M & Tsutsui, MH 2014, Distribution and abundance of organisms in paddy-dominated landscapes with implications for wildlife-friendly farming. In: N, Usio & T, Miyashita (eds.), Social-ecological restoration in paddy-dominated landscape, Springer, Tokyo.

Miyawaki, A 1960, Pflanzensoziologische untersuchungen über reisfeld-vegetation auf den Japanischen Inseln mit vergleichender betrachtung mitteleuropas [Plant-sociological studies of rice field vegetation on the Japanese Islands with a comparative view of Central Europe], Vegetatio Acta Geobot, 9: 345-402 (In German with English Abstract).

Montoya, D, Gaba, S, de Mazancourt, C, Bretagnolle, V, Loreau, M 2020, Reconciling biodiversity conservation, food production and farmers’ demand in agricultural landscapes. Ecological Modelling, 416: 108889.

Mori, Y, Sasaki, M, Morioka, E & Tsujimoto, K 2019, When do rice terraces become rice terraces? Paddy Water Environment, 17: 323-330.

Mueller, L, Eulenstein, F, Mirschel, W, Schindler, U, Sychev, VG, Rukhovich, OV & Dronin, NM 2021, Optimizing agricultural landscapes: Measures towards prosperity and sustainability. In: L, Mueller et al. (eds.), Exploring and optimizing agricultural landscapes, innovations in landscape research, Springer, Cham.

Naqinezhad, A, De Lombaerde, E, Gholizadeh, H, Wasof, S, Perring, MP, Meeussen, C, De Frenne, P & Verheyen, K 2022, The combined effects of climate and canopy cover changes on understory plants of the Hyrcanian forest biodiversity hotspot in Northern Iran. Global Change Biology, 28: 1103-1118.

Nemoto, M & Otsuka, H 2014, influence of farming system on the floristic composition of paddy landscapes: a case study in a rural hilly zone in Zhejiang province, China. Landscape and Ecological Engineering, 10: 173-180.

Nowak, A, Nowak, S & Nobis, M 2015, First insights into weed communities of rice agrocoenoses in Southern Thailand. Phytocoenologia, 45: 157-174.

Nowak, A, Nowak, S & Nobis, M 2016, Spring weed communities of rice agrocoenoses in Central Nepal. Acta Botanica Croatica, 75: 99-108.

Nowak, S, Nowak, A & Nobis, M 2013, Weed communities of rice fields in the central Pamir Alai Mountains (Tajikistan, Middle Asia). Phytocoenologia, 43: 101-126.

Piccoli, F & Gerdol, R 1981, Rice-field weed communities in Ferrara Province (Northern Italy). Aquatic Botany, 10: 317-328.

Pitkänen, TP, Kumpulainen, J, Lehtinen, J, Sihvonen, M & Käyhkö, N 2016, Landscape history improves detection of marginal habitats on semi-natural grasslands. The Science of the Total Environment, 539: 359-369.

Pungar, D, Bunce, RGH, Raet, J, Kaart, T & Sepp, K 2021, A survey of habitats on agricultural land in Estonia II. Detailed interpretation of the habitats’ landscape ecology and how this relates to alien plant species. Global Ecology and Conservation, 27: e01568.

Rai, PK & Singh, JS 2020, Invasive alien plant species: Their impact on environment, ecosystem services and human health. Ecological Indicators, 111: 106020.

Rao, AN, Wani, SP, Ramesha, MS & Ladha, JK 2017, Rice production systems. In: BS, Chauhan, K, Jabran & G, Mahajan (eds.), Rice production worldwide, Springer, Switzerland.

Raunkiaer, C 1934, The life form of plants and statistical plant geography. Clarendon Press, Oxford.

Rechinger, KH (ed.) 1963-2010, Flora Iranica, Vols. 1-167, Akad. Druck- and Verlagsanstalt, Graz.

Shimura, J, Coates, D & Mulongoy, JK 2010, The role of international organizations in controlling invasive species and preserving biodiversity. Revue Scientifique et Technique, 29: 405-410.

Takhtajan, A 1986, Floristic regions of the World, University of California Press, Berkeley.

Turki, Z & Sheded, M 2002, Some observations on the weed flora of rice fields in the Nile Delta, Egypt. Feddes Repertorium, 113: 394-403.

Uematsu, Y & Ushimaru, A 2013, Topography- and management-mediated resource gradients maintain rare and common plant diversity around paddy terraces. Ecological Applications, 23: 1357-1366.

Vanbergen, AJ, Aizen, MA, Cordeau, S, Garibaldi, LA, Garratt, MPD, KovácsHostyánszki, A, Lecuyer, L, Ngo, HT, Potts, SG, Settele, J, Skrimizea, E & Young, JC 2020, Transformation of agricultural landscapes in the Anthropocene: Nature’s contributions to people, agriculture and food security. Advances in Ecological Research, 63: 193-253.

Waide, RB, Willig, MR, Steiner, CF, Mittelbach, G, Gough, I, Dodson, SI, Juday, GI & Parmenter, R 1999, The relationship between productivity and species richness. Annual Review of Ecology and Systematics, 30: 257-300.

Yamamoto, S and Kusumoto Y 2008, An Application of Rural Landscape Information System for Assessment of Alien Plant Species in Paddy Landscape in Japan, International seminar on management of major emerging plant pests in agriculture in the Asia and pacific region. Food and Fertilizer Technology Center, Taipei, pp. 1-7.

Zeb, SA, Khan, SM & Ahmad, Z 2021, Phytogeographic elements and vegetation along the River Panjkora-classification and ordination studies from the Hindu Kush Mountains Range. The Botanical Review, 25: 1-25.

Zhailybayeva, TM, Iskakovich, SK, Duisengalievna, MA, Kunsalievna, MB, Nurakhmetovna, AR, Aigul, B 2024, Flora of the gorges Merke, Sandyk, Shaisandyk in the western part of Kyrgyz Alatau, a natural border between Kyrgyzstan and Kazakhstan. Caspian Journal of Environmental Sciences, 22: 59-69.

Zohary, M 1973, Geobotanical foundations of the Middle East, Fischer, Stuttgart.