[{"data":1,"prerenderedAt":427},["ShallowReactive",2],{"flora-2318-zh":3},{"release_id":4,"flora_id":5,"display_name":6,"scientific_name":7,"document":8},"thrive-v1-9d751b6f6d1787853e7f8e31",2318,"盐地碱蓬","Suaeda salsa",{"schema_version":9,"language":10,"id":5,"taxonomy":11,"display_name":6,"family_display":15,"genus_display":16,"description":17,"tolerance_evidence":141,"database_records":286,"sources":330},"flora-language-separated-v0.3","zh",{"original_scientific_name":7,"accepted_name":12,"family":13,"genus":14},"Suaeda salsa (L.) Pall.","Amaranthaceae","Suaeda","苋科（Amaranthaceae；旧分类文献亦作Chenopodiaceae）","碱蓬属",{"summary":18,"sections":19},"Suaeda salsa (L.) Pall.有明确记录的黄河三角洲潮间带和内陆盐土种群。200 mM NaCl砂培研究从营养生长延续至成熟种子；更高浓度的记录涉及不同发育阶段或短期处理，不构成更高的生长阈值。",[20,34,43,51,59,69,124,132],{"id":21,"title":22,"paragraphs":23},"s01","概述",[24],{"id":25,"text":26,"source_ids":27,"claim_type":33},"s01-p01","Suaeda salsa在黄河三角洲潮间带和内陆盐土均有种群。控制试验覆盖种子、幼苗、已建立植株及繁殖阶段；其中200 mM NaCl盆栽研究延续至成熟种子，较高浓度结果按阶段与端点分别解释。",[28,29,30,31,32],"S13","S01","S02","S03","S11","project_synthesis",{"id":35,"title":36,"paragraphs":37},"s02","名称与分类",[38],{"id":39,"text":40,"source_ids":41,"claim_type":42},"s02-p01","植物志与相关原始研究均使用Suaeda salsa (L.) Pall.；种子及幼苗数据也分别注明潮间带和内陆种源。",[28],"source_fact",{"id":44,"title":45,"paragraphs":46},"s03","形态与鉴别",[47],{"id":48,"text":49,"source_ids":50,"claim_type":42},"s03-p01","中国植物志描述其为20–80厘米高的一年生草本，茎直立、上部多分枝；叶线形半圆柱状，通常1–2.5厘米；植株可由绿色转为紫红色。枝上腋生花团排列成间断穗状。",[28],{"id":52,"title":53,"paragraphs":54},"s04","分布、生境与物候",[55],{"id":56,"text":57,"source_ids":58,"claim_type":42},"s04-p01","黄河三角洲有潮间带和内陆盐土种群。2021年现场研究报告潮间带样地土壤总盐11.92±1.59‰，潮上带3.84±1.63‰；2020年研究亦分别采集两类生境的本种植株及根土。",[29,30,31,32],{"id":60,"title":61,"paragraphs":62},"s05","自然生境中的盐分关联",[63],{"id":64,"text":65,"source_ids":66,"claim_type":33},"s05-p01","潮间带和内陆样地均有本种种群。原文报告的土壤总盐‰或g\u002Fkg是混合土壤指标，与NaCl营养液浓度分别保留；综述转引的\u003C5、15–20及>20 g\u002Fkg数据仍属二手野外概述。",[29,30,67,68,32],"S07","S09",{"id":70,"title":71,"paragraphs":72},"s06","耐盐研究",[73,78,83,87,92,97,101,105,111,115,119],{"id":74,"text":75,"source_ids":76,"claim_type":33},"s06-p01","Guo等（2020）将东营野生种子在砂盆中从播种起以200 mM纯NaCl营养液处理至成熟种子形成；逐步升盐后每日两次灌入相当于盆持水量3倍的处理液。研究在103–110日龄测量生殖阶段植株与胚珠淀粉、糖和光合指标，并观察到处理组种子较大。孔隙水浓度未直接测定。",[77],"S04",{"id":79,"text":80,"source_ids":81,"claim_type":33},"s06-p02","Guo等2019另以东营种源在砂盆中从播种开始接受200 mM纯NaCl营养液处理，营养生长终点为100日，随后观察花和种子。第100日，地上部干重较对照增加40.7%，鲜重、株高和一级分枝分别增加67.6%、13.3%和12.3%；研究还记录145日盛花及后续种子性状。干重的对照差异支持实际生物量增加，而非只凭末期存活判断。该方案与2019论文自身的砂培流程有关，不能把砂盆结果解释为野外根区浓度。",[82],"S05",{"id":84,"text":85,"source_ids":86,"claim_type":33},"s06-p03","Song等（2009）将黄河三角洲潮间带与内陆种源幼苗预培养55日，再逐步施加10–600 mM NaCl处理18日。Table 2显示，两种群在600 mM下的地上部和根相对生长率仍为正值，但低于100–200 mM处理；潮间带根干重在600 mM下较低，内陆种群叶片含水量在400、600 mM下降。Song等（2011）的独立砂培试验中，600 mM处理22日后两种群地上部干重降低；该研究未以初末干重计算净生长，故不据此判断持续生长。",[67,68],{"id":88,"text":89,"source_ids":90,"claim_type":33},"s06-p04","Mori等的水培试验将萌发后幼苗置于含0–800 mol m−3 NaCl的营养液46日。总干重在50–200 mol m−3最高，超过200后下降，800 mol m−3时极低。对照营养液用含少量Na和Cl的自来水配制；该文报告mol m−3，其他研究则使用mM或土壤盐分指标。",[91],"S08",{"id":93,"text":94,"source_ids":95,"claim_type":33},"s06-p05","Guo等2021的摘要比较接种Sphingomonas prati或S. zeicaulis与未接种植株，并写作0‰和20‰ NaCl；在20‰下，S. prati接种组干重比未接种组高102.25%，摘要还列株高、根长、鲜重和生理端点。但摘要未报告植物阶段、培养介质、盐溶液基准或处理时长，且该差异包含接种效应，不能概括成未接种植株的一般耐盐水平，也不换算为mM。",[96],"S06",{"id":98,"text":99,"source_ids":100,"claim_type":33},"s06-p06","黄河三角洲一次现场调查比较绿色潮上带与紫红潮间带生态型。表层样地土壤总盐分别为3.84±1.63‰和11.92±1.59‰；论文同时比较地上、地下部生长表现。该‰值是混合土壤盐分、样地尺度且没有时间序列，既不是纯NaCl溶液，也没有与单株根系建立固定暴露关系；不与控制试验浓度互换。",[31],{"id":102,"text":103,"source_ids":104,"claim_type":33},"s06-p07","Song与Wang的综述转引Gu（1999）所述野外群落：低于5 g\u002Fkg干土处未记录本种，15–20 g\u002Fkg为所述适宜范围，超过20 g\u002Fkg可形成单优势群落。综述没有提供可识别的原始样地、采样时长或分析方法；这些土壤总盐描述属于二手生态信息，不是生长处理结果。",[32],{"id":106,"text":107,"source_ids":108,"claim_type":33},"s06-p08","数据库将多个独立研究的800、600、400、200 mM、‰和mg\u002FL字段并列。Song等2009在600 mM下仍测得正相对生长率；Mori等800 mol m−3处理则生长极差。相关字段分别回指研究、接种试验或生物质加工论文，不能拼成单一剂量曲线。",[109,110],"S10","S14",{"id":112,"text":113,"source_ids":114,"claim_type":33},"s06-p09","Song等（2008）对潮间带与内陆种源的棕色、黑色异型种子以0.6–35.1 ppt NaCl处理20日，并另用砂盆测20日出苗和苗期生长。棕色种子在两类种源的盐处理下萌发率均超过96%；35.1 ppt显著降低苗长，内陆种源受影响更大。萌发与短期苗期生长是不同端点。",[29],{"id":116,"text":117,"source_ids":118,"claim_type":33},"s06-p10","Liu等（2020）测量黄河三角洲潮间带和内陆盐土植株的根叶Cl−，并以两类种源幼苗开展0或300 mM NaCl的7日、35日处理。潮间带样地土壤总盐为12.35±1.91 g\u002Fkg，内陆为2.50±0.34 g\u002Fkg；野外潮间带植株根Cl−约为内陆种群的2.9倍。控制试验还测根叶Cl−、SsCLCc、Ssperoxidase64、SsCASP表达和根内皮层结构；基因与屏障作用为作者解释，尚非单因子功能证明。",[30],{"id":120,"text":121,"source_ids":122,"claim_type":33},"s06-p11","Guo等（2018）将黄河三角洲来源种子播于砂中，从播种起施0、200或400 mM NaCl至种子成熟，每处理12盆。研究测量花数、结实、种子产量和生殖器官离子；200 mM组繁殖表现最佳，400 mM的增益较弱。这项全生殖周期试验与Guo等（2019）的营养生长试验材料与端点不同。",[123],"S18",{"id":125,"title":126,"paragraphs":127},"s07","已报道的机制与生态适应",[128],{"id":129,"text":130,"source_ids":131,"claim_type":33},"s07-p01","研究记录了胚珠与种子形成、叶片和根系离子积累、Cl−运输及根部屏障相关基因表达。不同种群在根叶Cl−分配上有差异；基因表达与Casparian带的作用属于作者提出的解释，仍需功能实验检验。",[29,30,31,77,82,96,67,91,68],{"id":133,"title":134,"paragraphs":135},"s08","研究结论与资料缺口",[136],{"id":137,"text":138,"source_ids":139,"claim_type":33},"s08-p01","自然潮间带和内陆盐地种群均有来源支持；200 mM纯NaCl砂培资料延续至生殖阶段，是现有持续生长记录中覆盖阶段最完整的资料。短期幼苗试验最高至600 mM，Mori等报告800 mol m−3时生长很差，这些结果分别适用于各研究的阶段与时长。Redondo-Gómez等（2008）对S. splendens种子进行900 mol m−3 NaCl萌发处理，其后幼苗生长试验最高为400 mol m−3；该论文研究的是S. splendens，未提供S. salsa结果。",[29,30,31,77,82,67,91,68,140],"S19",[142,156,167,179,192,205,218,231,244,258,272],{"id":143,"source_ids":144,"description":145},"M1",[77],{"evidence_type":146,"material":147,"salt_metric":148,"value_and_unit":149,"medium_and_exposure":150,"life_stage":151,"duration":152,"endpoint":153,"result":154,"limitations":155},"盐度相关证据","山东东营来源的Suaeda salsa野生种子；一年生植株","纯NaCl","200 mM NaCl","砂盆；NaCl溶于Hoagland营养液；逐步加盐后每日两次以三倍盆持水量的营养液灌溉，作者称砂中浓度相对稳定，未单独测孔隙水","播种、营养生长至成熟种子形成的完整生育周期","播种至成熟种子；论文在103–110 DAS报告生殖期测量","整株生长、生殖、种子数量与尺寸；叶\u002F花\u002F胚珠光合及碳水化合物指标","NaCl处理组较对照产生更大种子；论文引用Guo等（2018）此前关于单株种子数、种重及平均单粒质量增加的结果。2020年试验本身实测了200 mM下生殖期植株及胚珠淀粉、糖和叶片光合指标。","从播种到成熟种子的持续处理满足200 mM全周期证据；逐步加盐阶段浓度爬升，最终以含盐营养液反复灌溉，根区实际孔隙水浓度未直接测定。",{"id":157,"source_ids":158,"description":159},"M2",[82],{"evidence_type":146,"material":160,"salt_metric":148,"value_and_unit":149,"medium_and_exposure":161,"life_stage":162,"duration":163,"endpoint":164,"result":165,"limitations":166},"S. salsa植株；研究使用东营种源","砂盆，营养液处理；对照与200 mM处理从播种开始，盐处理按原方法持续灌施","营养生长末期及随后花\u002F种子发育阶段","营养生长终点100 DAS；作者在145 DAS记录盛花期，并分析种子成熟","100 DAS整株地上部鲜重和干重、株高、一级分枝；随后花、花粉和成熟种子测量","100 DAS时200 mM处理未抑制生长；地上部干重较对照增加40.7%，鲜重、株高、一级分枝分别增加67.6%、13.3%、12.3%。全文还观察到结实及种子性状。","地上部干重测量支持真实增量；不是仅以终点残存生物量判定。实验基质为砂盆，未报告野外根区阈值。",{"id":168,"source_ids":169,"description":170},"M3",[68],{"evidence_type":146,"material":171,"salt_metric":148,"value_and_unit":172,"medium_and_exposure":173,"life_stage":174,"duration":175,"endpoint":176,"result":177,"limitations":178},"来自潮间带及内陆盐土的S. salsa幼苗","1、200、600 mM NaCl","温室砂培，排水或水涝处理","幼苗","22天","水涝\u002F盐处理下的幼苗响应及离子分布；摘要未提供600 mM处理的具体净生长量","600 mM是该短期方案最高处理；原摘要不能确证其在该浓度下有持续净生长。","摘要报告NaCl浓度和处理时长，没有提供超过200 mM时的持续净生长数据；最高暴露或存活本身不能证明更高浓度下有持续生长。",{"id":180,"source_ids":181,"description":182},"M4",[67],{"evidence_type":183,"material":184,"salt_metric":185,"value_and_unit":186,"medium_and_exposure":187,"life_stage":174,"duration":188,"endpoint":189,"result":190,"limitations":191},"两种群幼苗的短期NaCl生长试验","黄河三角洲潮间带与内陆盐土种源的S. salsa幼苗；先预培养55日","纯NaCl浓度","10、100、200、400、600 mM NaCl","温室砂培，逐步加入NaCl处理液；每盆每周补加营养液","升盐处理18日","地上部和根干重、相对生长率、叶片含水量、分枝及离子积累","两种群在600 mM下仍有正的地上部和根相对生长率，但低于100–200 mM处理。潮间带种群根干重在600 mM下低于10 mM处理；内陆种群叶片含水量在400和600 mM下降。","短期幼苗温室砂培；不同种源的初始生物量与响应不同。600 mM结果是18日相对生长率，不等同长期全周期耐盐或野外根区阈值。",{"id":193,"source_ids":194,"description":195},"M5",[91],{"evidence_type":196,"material":197,"salt_metric":148,"value_and_unit":198,"medium_and_exposure":199,"life_stage":200,"duration":201,"endpoint":202,"result":203,"limitations":204},"水培NaCl生长曲线试验","水培试验使用萌发后幼苗；种群来源未报告。","2–800 mol m⁻³ NaCl（水培营养液中的原文浓度）；生长最高范围为50–200 mol m⁻³，超过200 mol m⁻³后下降。","营养液水培","营养生长植株","8个NaCl浓度处理46日；高于100 mol m−3的处理每两日逐步升盐。试验重复两次，每个容器移栽6株。","植株生长\u002F干物质量；原摘要描述增长响应","原文摘要称从2至200 mol m⁻³生长随盐增加而增加，50–200为最高生长范围，超过200后下降；800 mol m⁻³为高处理且生长极差，不可解释为正向持续生长。","试验以自来水配制营养液，自来水本身含少量Na和Cl；结果适用于所用水培材料与处理方案。800 mol m−3时总干重极低，不表示该处理下仍有正向持续生长。",{"id":206,"source_ids":207,"description":208},"M6",[31],{"evidence_type":146,"material":209,"salt_metric":210,"value_and_unit":211,"medium_and_exposure":212,"life_stage":213,"duration":214,"endpoint":215,"result":216,"limitations":217},"黄河三角洲野外自然生长的S. salsa绿色潮上带（supratidal）及紫红潮间带生态型","土壤混合可溶盐\u002F原文未细列组成","潮上带3.84±1.63‰，潮间带11.92±1.59‰（土壤总盐，原文单位；非溶液浓度）","黄河三角洲潮上带（supratidal）与潮间带现场表层样地土壤，原文Table 2","自然种群现场调查","单次采样；文中未给盐度时间序列","生境土壤盐分及本种地上\u002F地下部相对生长率比较","潮间带样地土壤总盐11.92±1.59‰，潮上带3.84±1.63‰；只是样地土壤盐分，不是单株根际固定阈值。","土壤混盐指标不得换算NaCl mM；样地尺度，不代表单株暴露或普适分布阈值。",{"id":219,"source_ids":220,"description":221},"M7",[96],{"evidence_type":146,"material":222,"salt_metric":223,"value_and_unit":224,"medium_and_exposure":225,"life_stage":226,"duration":227,"endpoint":228,"result":229,"limitations":230},"S. salsa植株接种Sphingomonas prati或S. zeicaulis","NaCl（原摘要）","0、20 ‰ NaCl（原摘要写法）","比较内生菌接种与未接种植株；摘要未提供培养介质或盐溶液配制方法。","植株生长试验","摘要未报告","株高、根长、鲜重、干重及生理指标","20‰条件下S. prati接种组相较未接种组干重增加102.25%，并报告鲜重等变化；此盐度写作‰，未转换为mM。","全文受限；‰的溶液基准\u002F配液和持续时间在摘要中不明，且接种效应不能等同未接种植物的一般耐盐阈值。",{"id":232,"source_ids":233,"description":234},"M8",[32],{"evidence_type":146,"material":235,"salt_metric":236,"value_and_unit":237,"medium_and_exposure":238,"life_stage":239,"duration":240,"endpoint":241,"result":242,"limitations":243},"综述所引S. salsa野外群落资料","自然土壤总盐；盐组分未作NaCl等同","\u003C5；15–20；>20 g总盐 kg⁻¹干土（综述二手引述）","宋与王（2015）综述转引Gu（1999）的自然盐土群落资料；原始样地和采样方法未报告。","自然种群\u002F群落","综述转引的长期生境描述；原始采样时长未说明","出现、最适生境和单优势群落的二手总结","Song与Wang综述引Gu（1999）称：低于5 g\u002Fkg干土处未记录本种，15–20 g\u002Fkg为所述适宜范围，超过20 g\u002Fkg可形成单优势群落。","该综述未说明原始样地、采样时长或分析方法；土壤总盐不能换算为NaCl溶液浓度，也不能用于推断控制试验中的植株生长。",{"id":245,"source_ids":246,"description":247},"M9",[29],{"evidence_type":248,"material":249,"salt_metric":250,"value_and_unit":251,"medium_and_exposure":252,"life_stage":253,"duration":254,"endpoint":255,"result":256,"limitations":257},"种子萌发、出苗与早期生长盐处理","黄河三角洲潮间带及内陆种源的S. salsa棕色\u002F黑色异型种子","NaCl；原文处理浓度单位ppt，保留原值","0.6、5.8、11.7、23.4、35.1 ppt NaCl","萌发：滤纸\u002F营养液、持续黑暗；出苗与幼苗：供盐河砂盆","种子萌发、出苗及20日龄幼苗","萌发和出苗\u002F生长分别20日","萌发率、出苗率、苗长、地上部干重和水分\u002F离子指标","棕色种子在两种群各盐度下20日萌发率均超过96%；黑色种子萌发较低。35.1 ppt时苗长明显下降，且内陆种源下降较大；棕色种苗地上部干重在23.4 ppt前未见不利变化。","种子颜色与母株生境影响响应；ppt按原文NaCl处理报告，不换算为mM；试验不能代表成株持续生长。",{"id":259,"source_ids":260,"description":261},"M10",[30],{"evidence_type":262,"material":263,"salt_metric":264,"value_and_unit":265,"medium_and_exposure":266,"life_stage":267,"duration":268,"endpoint":269,"result":270,"limitations":271},"现场根叶Cl−分配及控制盐处理","黄河三角洲潮间带与内陆种群的S. salsa植株\u002F幼苗","现场土壤总可溶盐和Cl−（水提）；控制处理为NaCl浓度","现场总盐12.35±1.91与2.50±0.34 g\u002Fkg干土；处理0或300 mM NaCl","现场测样地土壤和根叶Cl−；控制幼苗在河砂盆接受逐步加盐","野生植株及已建植幼苗","控制处理7日或35日；现场单次采样","根叶Cl−、相关基因表达与根内皮层结构","现场潮间带植株根Cl−约为内陆种群2.9倍；控制条件下300 mM NaCl提高根叶Cl−，并改变屏障相关基因表达及根组织观察结果。","现场样地与个体根区不作恒定配对；基因表达和Casparian带相关结果支持候选机制，尚未构成基因功能因果验证。",{"id":273,"source_ids":274,"description":275},"M11",[123],{"evidence_type":276,"material":277,"salt_metric":278,"value_and_unit":279,"medium_and_exposure":280,"life_stage":281,"duration":282,"endpoint":283,"result":284,"limitations":285},"全生殖周期NaCl处理试验","黄河三角洲来源的S. salsa种子与温室植株","NaCl营养液浓度","0、200、400 mM NaCl","砂培；种子播种后即开始NaCl处理并持续至成熟","萌发、营养生长、开花和种子成熟","从4月至种子成熟；约一个生长周期","花数、结实、单株种子数\u002F产量、种重及生殖器官离子","200 mM组繁殖表现最佳，花数、种子数与种子产量增加，花败育比例下降；400 mM下提升较弱。","单一黄河三角洲种源、温室自然光砂培；结果不等同野外根区阈值。",[287,294,301,309,316,323],{"name_original":288,"display_name":289,"record_id":290,"verification_level":291,"support_scope":292,"source_ids":293},"ehaloph","eHALOPH物种数据库","29141","authority_record","eHALOPH将800、200、600、340 mM、0.5%及35,100 mg\u002FL等值列于最大盐度字段，并列出200 mM和mg\u002FL适宜值；这些字段汇总不同单位和来源。Mori等（2006）测得50–200 mol m−3时生长最高、超过200后下降，800 mol m−3时生长极低；Guo等（2021）摘要给出的0与20‰没有支持340 mM换算，Tan等（2023）研究收获生物质转化而非活植株盐处理。35,100 mg\u002FL未对应可识别的原始数值；各数据库值不能拼为单一剂量曲线。",[110],{"name_original":295,"display_name":296,"record_id":297,"verification_level":298,"support_scope":299,"source_ids":300},"china_halophyte_catalog","中国盐生植物编目","CNHP_0975; CNHP_0976","archived_synthesis","目录记录海边盐碱滩和水边盐碱化沙地，最大盐度字段列800 mM。生境文字与自然盐地研究相符；该数值为二次汇总，未给可核的独立材料、介质、时长或生长端点。",[109],{"name_original":302,"display_name":303,"record_id":304,"verification_level":305,"support_scope":306,"source_ids":307},"biosalinedb","BioSaline数据库","species page id=126914","local_original","条目标注本种为肉质化真盐生植物及滨海植物；记录盐碱土、海滩和湖边生境，以及一年生习性、形态、花果期和资源利用。该记录提供定性生境与分类索引信息而非盐浓度，也不替代原始生境或处理研究。",[308],"S15",{"name_original":310,"display_name":311,"record_id":312,"verification_level":305,"support_scope":313,"source_ids":314},"sdnu_grhc","山东师范大学盐生植物资源库","GRHC_H_1919; GRHC_H_1847; GRHC_H_1697; GRHC_H_1685; GRHC_E_1406","五个精确名页面记录盐碱土、沙滩沙地及原始土壤含盐字段“0.4-0.6%”。记录文字重复且属于同一数据库资料链；未说明分母和测量方法，不据此换算溶液浓度或视为独立试验。",[315],"S16",{"name_original":317,"display_name":318,"record_id":319,"verification_level":298,"support_scope":320,"source_ids":321},"floraveg","FloraVeg.EU","baseline_row_2321","FloraVeg有本种条目，欧洲EUNIS盐或半咸水关系数为0；该记录未提供本种的盐生境关联。",[322],"S17",{"name_original":324,"display_name":325,"record_id":326,"verification_level":298,"support_scope":327,"source_ids":328},"preslia_regional_inventory","Preslia区域植物名录","supplement row 40","区域名录列类别Ia、halophyte_evidence=True及区域盐分指示值7。它是区域生态指标的旁证，不是新增独立现场种群或盐浓度；不能换算为NaCl浓度或跨区域的植物生理响应。",[329],"S12",[331,337,341,347,352,356,362,366,371,376,381,387,391,397,401,405,413,417,422],{"id":29,"citation_original":332,"url":333,"additional_urls":334,"source_kind":335,"verification_level":305,"checked_at":336},"Song, J., H. Fan, Y.Y. Zhao, Y.H. Jia, X.H. Du & B.S. Wang (2008). Effect of salinity on germination, seedling emergence, seedling growth and ion accumulation of a euhalophyte Suaeda salsa in an intertidal zone and on saline inland. Aquatic Botany 88(4):331–337.","https:\u002F\u002Fdoi.org\u002F10.1016\u002Fj.aquabot.2007.11.004",[],"primary_field","2026-10-04",{"id":30,"citation_original":338,"url":339,"additional_urls":340,"source_kind":335,"verification_level":305,"checked_at":336},"Liu et al. (2020). Chloride allocation in the euhalophyte Suaeda salsa from different habitats in field and controlled saline conditions. Aquatic Botany 167:103292.","https:\u002F\u002Fdoi.org\u002F10.1016\u002Fj.aquabot.2020.103292",[],{"id":31,"citation_original":342,"url":343,"additional_urls":344,"source_kind":335,"verification_level":345,"checked_at":346},"Song, Y., J. Liu, J. Wang & F. Liu (2021). Growth, Stoichiometry, and Palatability of Suaeda salsa From Different Habitats Are Demonstrated by Differentially Expressed Proteins and Their Enriched Pathways. Frontiers in Plant Science 12:733882.","https:\u002F\u002Fdoi.org\u002F10.3389\u002Ffpls.2021.733882",[],"full_text","2026-10-03",{"id":77,"citation_original":348,"url":349,"additional_urls":350,"source_kind":351,"verification_level":345,"checked_at":346},"Guo, J., M. Du, C. Lu & B. Wang (2020). NaCl improves reproduction by enhancing starch accumulation in the ovules of the euhalophyte Suaeda salsa. BMC Plant Biology 20:262.","https:\u002F\u002Fdoi.org\u002F10.1186\u002Fs12870-020-02468-3",[],"primary_experiment",{"id":82,"citation_original":353,"url":354,"additional_urls":355,"source_kind":351,"verification_level":345,"checked_at":346},"Guo, J., X. Dong, G. Han & B. Wang (2019). Salt-enhanced reproductive development of Suaeda salsa L. coincided with ion transporter gene upregulation in flowers and increased pollen K+ content. Frontiers in Plant Science 10:333.","https:\u002F\u002Fdoi.org\u002F10.3389\u002Ffpls.2019.00333",[],{"id":96,"citation_original":357,"url":358,"additional_urls":359,"source_kind":351,"verification_level":360,"checked_at":361},"Guo, J., Y. Chen, P. Lu, M. Liu, P. Sun & Z. Zhang (2021). Roles of endophytic bacteria in Suaeda salsa grown in coastal wetlands: Plant growth characteristics and salt tolerance mechanisms. Environmental Pollution 287:117641.","https:\u002F\u002Fdoi.org\u002F10.1016\u002Fj.envpol.2021.117641",[],"abstract","2026-09-30",{"id":67,"citation_original":363,"url":364,"additional_urls":365,"source_kind":351,"verification_level":305,"checked_at":336},"Song, J., M. Chen, G. Feng, Y.H. Jia, B.S. Wang & F.S. Zhang (2009). Effect of salinity on growth, ion accumulation and the roles of ions in osmotic adjustment of two populations of Suaeda salsa. Plant and Soil 314(1–2):133–141.","https:\u002F\u002Fdoi.org\u002F10.1007\u002Fs11104-008-9712-3",[],{"id":91,"citation_original":367,"url":368,"additional_urls":369,"source_kind":351,"verification_level":305,"checked_at":336},"Mori, S., M. Yoshiba & T. Tadano (2006). Growth response of Suaeda salsa (L.) Pall to graded NaCl concentrations and the role of chlorine in growth stimulation. Soil Science and Plant Nutrition 52(5):610–617.","https:\u002F\u002Fdoi.org\u002F10.1111\u002Fj.1747-0765.2006.00076.x",[370],"https:\u002F\u002Fwww.tandfonline.com\u002Fdoi\u002Fpdf\u002F10.1111\u002Fj.1747-0765.2006.00076.x",{"id":68,"citation_original":372,"url":373,"additional_urls":374,"source_kind":351,"verification_level":305,"checked_at":336},"Song, J., G. Shi, B. Gao, H. Fan & B. Wang (2011). Waterlogging and salinity effects on two Suaeda salsa populations. Physiologia Plantarum 141(4):343–351.","https:\u002F\u002Fdoi.org\u002F10.1111\u002Fj.1399-3054.2011.01445.x",[375],"https:\u002F\u002Fopenurl.ebsco.com\u002Fcontentitem\u002Fgcd%3A59161834",{"id":109,"citation_original":377,"url":378,"additional_urls":379,"source_kind":380,"verification_level":298,"checked_at":361},"China halophyte catalog 2025, Suaeda salsa entry (duplicate route in frozen input).","https:\u002F\u002Fwww.biodiversity-science.net\u002Ffileup\u002F1005-0094\u002FDATA\u002F2025030.zip",[],"database",{"id":32,"citation_original":382,"url":383,"additional_urls":384,"source_kind":385,"verification_level":386,"checked_at":361},"Song, J. & B. Wang (2015). Using euhalophytes to understand salt tolerance and to develop saline agriculture: Suaeda salsa as a promising model. Annals of Botany 115(3):541–553.","https:\u002F\u002Fdoi.org\u002F10.1093\u002Faob\u002Fmcu194",[],"review","search_excerpt",{"id":329,"citation_original":388,"url":389,"additional_urls":390,"source_kind":380,"verification_level":298,"checked_at":361},"Preslia regional inventory supplement, row 40: Suaeda salsa.","https:\u002F\u002Fwww.preslia.cz\u002Farticle\u002Fpdf?id=11553",[],{"id":28,"citation_original":392,"url":393,"additional_urls":394,"source_kind":395,"verification_level":305,"checked_at":396},"Flora of China Editorial Committee. 2003. Suaeda salsa (L.) Pall. Flora of China 5:389–394.","https:\u002F\u002Fwww.iplant.cn\u002Ffrps\u002Fpdf\u002F25%282%29\u002F120.pdf",[],"authoritative_flora","2026-10-02",{"id":110,"citation_original":398,"url":399,"additional_urls":400,"source_kind":380,"verification_level":291,"checked_at":396},"ehaloph species\u002Fdatabase record 29141: Suaeda salsa","https:\u002F\u002Fehaloph.uc.pt\u002Fshowplant\u002F29141",[],{"id":308,"citation_original":402,"url":403,"additional_urls":404,"source_kind":380,"verification_level":305,"checked_at":346},"biosalinedb species\u002Fdatabase record species page id=126914: Suaeda salsa","https:\u002F\u002Fdb.cngb.org\u002Fbiosaline\u002Fcoastal_plants\u002F?id=126914&lvl=species",[],{"id":315,"citation_original":406,"url":407,"additional_urls":408,"source_kind":380,"verification_level":305,"checked_at":346},"sdnu_grhc species\u002Fdatabase record 多个重复历史路由: Suaeda salsa","http:\u002F\u002Fwww.grhc.sdnu.edu.cn\u002Finfo\u002F1066\u002F1919.htm",[409,410,411,412],"http:\u002F\u002Fwww.grhc.sdnu.edu.cn\u002Finfo\u002F1067\u002F1847.htm","http:\u002F\u002Fwww.grhc.sdnu.edu.cn\u002Finfo\u002F1064\u002F1697.htm","http:\u002F\u002Fwww.grhc.sdnu.edu.cn\u002Finfo\u002F1063\u002F1685.htm","http:\u002F\u002Fwww.grhc.sdnu.edu.cn\u002Finfo\u002F1009\u002F1406.htm",{"id":322,"citation_original":414,"url":415,"additional_urls":416,"source_kind":380,"verification_level":298,"checked_at":361},"floraveg species\u002Fdatabase record baseline_row_2321: Suaeda salsa","https:\u002F\u002Ffloraveg.eu\u002F",[],{"id":123,"citation_original":418,"url":419,"additional_urls":420,"source_kind":351,"verification_level":305,"checked_at":336},"Guo, J., Y. Li, G. Han, J. Song & B. Wang (2018). NaCl markedly improved the reproductive capacity of the euhalophyte Suaeda salsa. Functional Plant Biology 45(3):350–361.","https:\u002F\u002Fdoi.org\u002F10.1071\u002FFP17181",[421],"https:\u002F\u002Fpubmed.ncbi.nlm.nih.gov\u002F32290958\u002F",{"id":140,"citation_original":423,"url":424,"additional_urls":425,"source_kind":351,"verification_level":345,"checked_at":346},"Redondo-Gómez, S., E. Mateos-Naranjo, J. Cambrollé, T. Luque, M.E. Figueroa & A.J. Davy (2008). Carry-over of Differential Salt Tolerance in Plants Grown from Dimorphic Seeds of Suaeda splendens. Annals of Botany 102:103–112.","https:\u002F\u002Fdoi.org\u002F10.1093\u002Faob\u002Fmcn069",[426],"https:\u002F\u002Facademic.oup.com\u002Faob\u002Farticle-abstract\u002F102\u002F1\u002F103\u002F173590",1792838229475]