[{"data":1,"prerenderedAt":177},["ShallowReactive",2],{"flora-9-zh":3},{"release_id":4,"flora_id":5,"display_name":6,"scientific_name":6,"document":7},"thrive-v1-9d751b6f6d1787853e7f8e31",9,"Acacia auriculiformis",{"schema_version":8,"language":9,"id":5,"taxonomy":10,"display_name":6,"family_display":14,"genus_display":15,"description":16,"tolerance_evidence":99,"database_records":128,"sources":144},"flora-language-separated-v0.3","zh",{"original_scientific_name":6,"accepted_name":11,"family":12,"genus":13},"Acacia auriculiformis Benth.","Fabaceae","Acacia","豆科","金合欢属",{"summary":17,"sections":18},"Acacia auriculiformis见于潮滩、盐潟湖，也记录于洪泛地和林缘。温室盆栽试验显示，NaCl盐化土壤中种子出苗和幼苗生长随土壤盐度升高而下降；另有稀释海水灌溉研究，所用EC指标与土壤EC不同。",[19,31,40,48,61,69,81,89],{"id":20,"title":21,"paragraphs":22},"s01","概述",[23],{"id":24,"text":25,"source_ids":26,"claim_type":30},"s01-p01","Acacia auriculiformis 有潮滩、盐潟湖等沿海栖境描述，也有土壤盐化及稀释海水灌溉研究。不同研究的土壤EC与灌溉水EC不可互换，均不能代表每个种群。",[27,28,29],"S1","S3","S4","project_synthesis",{"id":32,"title":33,"paragraphs":34},"s02","名称与分类",[35],{"id":36,"text":37,"source_ids":38,"claim_type":39},"s02-p01","Acacia auriculiformis Benth.是种级分类单元。东南亚和太平洋沿岸资料记录其见于潮滩和盐潟湖；其他资料也记有栽培地、洪泛地和林缘。",[27],"source_fact",{"id":41,"title":42,"paragraphs":43},"s03","形态与鉴别",[44],{"id":45,"text":46,"source_ids":47,"claim_type":39},"s03-p01","中小乔木，成株主要以扁平、弯曲且具数条纵脉的叶状柄进行光合作用。黄色花组成穗状花序；成熟荚果弯曲至螺旋状，种子常有鲜色假种皮。",[27],{"id":49,"title":50,"paragraphs":51},"s04","分布、生境与物候",[52,56],{"id":53,"text":54,"source_ids":55,"claim_type":39},"s04-p01","PROSEA及区域栽培或植物志资料记载，本种分布区包括潮滩和盐潟湖；其他记录还见于洪泛地、林地和森林边缘。现有来源未提供本种盐沼种群的长期调查或自然根区盐度测量。",[27],{"id":57,"text":58,"source_ids":59,"claim_type":60},"s04-p02","现有来源没有给出可一致采用的开花或结果季节记录。",[],"evidence_gap",{"id":62,"title":63,"paragraphs":64},"s05","自然生境盐分关联",[65],{"id":66,"text":67,"source_ids":68,"claim_type":30},"s05-p01","区域资料同时记录沿海、洪泛地和林缘生境；沿海种群的根区盐度尚无逐种群测量。",[27],{"id":70,"title":71,"paragraphs":72},"s06","耐盐研究",[73,77],{"id":74,"text":75,"source_ids":76,"claim_type":39},"s06-p01","Patel等在盆栽土壤中加入NaCl，测定1:2土水悬液的EC（不是饱和糊状浸出液ECe）。出苗组处理范围为0.3–13.9 dS\u002Fm，每日记录30天；13.9 dS\u002Fm下仅8%出苗，未进入生长试验。另一组在0.3–12.1 dS\u002Fm下生长6个月，幼苗生长随土壤盐度升高显著下降。",[28],{"id":78,"text":79,"source_ids":80,"claim_type":39},"s06-p02","一年生幼苗接受ECw为4、8、12 dS\u002Fm的稀释天然海水灌溉，处理持续至第150天，并在第90和150天测定株高、叶面积、叶绿素及生物量相关指标。生长随灌溉水EC升高而下降；第150天，12 dS\u002Fm组叶面积比对照低68%，株高低39%。ECw是灌溉水指标，不是土壤EC或NaCl浓度；研究未测根区盐度，因此这些结果不定义持续根区耐盐阈值。",[29],{"id":82,"title":83,"paragraphs":84},"s07","已报道机制与生态适应",[85],{"id":86,"text":87,"source_ids":88,"claim_type":30},"s07-p01","在盆土盐度升高时，幼苗组织中的脯氨酸、K、Na和N含量上升，P、Ca、Mg及Fe含量下降；这些变化与水分状态和生长下降同时出现。",[27,28,29],{"id":90,"title":91,"paragraphs":92},"s08","研究结论与资料缺口",[93],{"id":94,"text":95,"source_ids":96,"claim_type":30},"s08-p01","eHALOPH同时列出林地和沿海栖境；其栖境来源包括残存林研究及海水添加研究，并非对野生盐沼种群的直接核验。两项试验分别使用NaCl盐化土壤EC和稀释海水灌溉ECw，不能合并为单一盐度范围。",[27,97,28,29,98],"S2","S5",[100,114],{"id":101,"source_ids":102,"description":103},"M01",[28],{"evidence_type":104,"material":105,"salt_metric":106,"value_and_unit":107,"medium_and_exposure":108,"life_stage":109,"duration":110,"endpoint":111,"result":112,"limitations":113},"盆栽土壤盐度梯度下的幼苗出苗与生长试验","Acacia auriculiformis 幼苗，研究温室材料","加入NaCl；浓度未以mM报告","出苗试验土壤EC：0.3、3.9、6.0、7.9、10.0、12.1、13.9 dS\u002Fm；六个月生长组仅为0.3–12.1 dS\u002Fm（13.9 dS\u002Fm未进入生长试验）","NaCl加入盆土。土壤EC用1:2土壤：蒸馏水悬液测定；悬液振荡后静置过夜，再测上清液。该值不是饱和糊状浸出液ECe，也未换算为NaCl摩尔浓度。","幼苗出苗试验及建植后的幼苗生长；13.9 dS\u002Fm仅用于出苗","出苗每日记录30天；生长试验在第二叶确认建植后继续6个月","苗高、植株生长、水分及离子\u002F脯氨酸","13.9 dS\u002Fm土壤仅有8%种子出苗，之后未将这些幼苗纳入进一步试验。另一组在0.3–12.1 dS\u002Fm下生长6个月，幼苗生长随土壤盐度升高显著下降。eHALOPH的12.1 dS\u002Fm是已测试水平，不是最大耐受阈值。","13.9 dS\u002Fm只对应出苗观察，不是生长处理；生长试验仅覆盖0.3–12.1 dS\u002Fm并以幼苗终点为限。原文报告的是1:2土水比悬液EC，不是饱和糊状浸出液ECe；这些盆栽结果不确定全生命周期耐受或田间持续根区盐度，也不转换为NaCl mM。",{"id":115,"source_ids":116,"description":117},"M02",[29],{"evidence_type":118,"material":119,"salt_metric":120,"value_and_unit":121,"medium_and_exposure":122,"life_stage":123,"duration":124,"endpoint":125,"result":126,"limitations":127},"稀释天然海水灌溉150天的幼苗生长试验","一年生幼苗；原研究生物材料","混合海水盐","4、8、12 dS\u002Fm EC of diluted seawater","灌溉稀释天然海水（ECw）；根区盐度未测","幼苗","盐处理灌溉至150天，测90和150天端点","株高、叶面积、叶绿素、生物量相关指标","现有二手摘要报告，幼苗生长随海水EC升高而下降；灌溉至第150天时，12 dS\u002Fm组叶面积比对照低68%，株高低39%。","该研究以稀释海水灌溉并按ECw报告；ECw不是土壤EC或NaCl浓度。研究未报告根区盐度测量，因此不能据此界定持续根区耐盐阈值。",[129,136],{"name_original":130,"display_name":131,"record_id":132,"verification_level":133,"support_scope":134,"source_ids":135},"ehaloph","eHALOPH","12248","archived_synthesis","eHALOPH种级条目列最大盐度12.1 dS\u002Fm、最适0.3 dS\u002Fm，栖境包括林地和沿海，并注明有盐敏感性相反的报道。12.1 dS\u002Fm关联Patel et al. (2010)的NaCl盐化盆土幼苗研究；栖境栏另关联2015年Palau残存林和2021年海水添加研究，后两项未验证本种的野外盐沼。该记录可追溯EC试验和生态二手来源，但其最大值是已测试水平，不是NaCl摩尔浓度阈值。",[98],{"name_original":137,"display_name":138,"record_id":139,"verification_level":140,"support_scope":141,"source_ids":142},"floraveg","FloraVeg.EU","baseline row 9","local_original","FloraVeg本地名称查询候选行的match_type为unmatched，未匹配到该物种；EUNIS盐\u002F半咸水生境关联数为0。该区域基线仅覆盖欧洲，不能据此否定本种在其他地区的分布。",[143],"S6",[145,152,158,163,167,172],{"id":27,"citation_original":146,"url":147,"additional_urls":148,"source_kind":149,"verification_level":150,"checked_at":151},"PROSEA, Acacia auriculiformis species account","https:\u002F\u002Fplantuse.plantnet.org\u002Fen\u002FAcacia_auriculiformis_(PROSEA)",[],"authoritative_flora","authority_record","2026-10-02",{"id":97,"citation_original":153,"url":154,"additional_urls":155,"source_kind":156,"verification_level":133,"checked_at":157},"Patel, Jadeja & Pandey. 2010. Effect of salinization of soil on growth, water status and nutrient accumulation in seedlings of Acacia auriculiformis (Fabaceae). Journal of Plant Nutrition 33:914–932. DOI:10.1080\u002F01904161003669939","https:\u002F\u002Fdoi.org\u002F10.1080\u002F01904161003669939",[],"primary_experiment","2026-09-29",{"id":28,"citation_original":159,"url":160,"additional_urls":161,"source_kind":156,"verification_level":140,"checked_at":162},"同 Patel et al. 2010原始研究","https:\u002F\u002Fwww.researchgate.net\u002Fpublication\u002F202870325_Effect_of_salinization_of_soil_on_growth_water_status_and_nutrient_accumulation_in_seedlings_of_Acacia_auriculiformis_Fabaceae",[],"2026-10-04",{"id":29,"citation_original":164,"url":165,"additional_urls":166,"source_kind":156,"verification_level":133,"checked_at":157},"Rahman, M.M., Rahman, M.A., Miah, M.G., Saha, S.R., Karim, M.A. & Mostofa, M.G. (2017). Mechanistic Insight into Salt Tolerance of Acacia auriculiformis: The Importance of Ion Selectivity, Osmoprotection, Tissue Tolerance, and Na+ Exclusion. Frontiers in Plant Science 8:155. DOI:10.3389\u002Ffpls.2017.00155.","https:\u002F\u002Fpmc.ncbi.nlm.nih.gov\u002Farticles\u002FPMC5378810\u002F",[],{"id":98,"citation_original":168,"url":169,"additional_urls":170,"source_kind":171,"verification_level":133,"checked_at":157},"eHALOPH species record 12248","https:\u002F\u002Fehaloph.uc.pt\u002Fshowplant\u002F12248",[],"database",{"id":143,"citation_original":173,"url":174,"additional_urls":175,"source_kind":171,"verification_level":140,"checked_at":151},"FloraVeg.EU \u002F Chytrý et al. (2020), EUNIS-ESy characteristic-species combinations, version 2021-06-01. DOI:10.5281\u002Fzenodo.4812736.","https:\u002F\u002Ffiles.ibot.cas.cz\u002Fcevs\u002Fdownloads\u002Ffloraveg\u002FCharacteristic-species-combinations-EUNIS-habitats-2021-06-01.xlsx",[176],"https:\u002F\u002Fdoi.org\u002F10.5281\u002Fzenodo.4812736",1792838174821]