mu00e4hfaden for vegetation mu00e4happarat

• 1. 判断平原区退耕还湿地块植被恢复方法、植被恢复方法及植被恢复效果评估体系 [P] . 中国专利： CN110915560A . 2020-03-27
• 2. 有非淹没植被河道植被区及非植被区流速横向分布预测方法 [P] . 中国专利： CN112053012A . 2020-12-08
• 3. schneidkopfeinrichtung for buschmu00e4herfahrzeug, lawn edge trimmers or similar, with a mu00e4hfadens verriegelungsmitteln perfected [P] . 德国专利： DE602004020110D1 . 2009-04-30

  机译： schneidkopfeinrichtung适用于buschm，草坪修剪机或类似产品，并具有完善的

• 4. mu00e4hfaden with improved composition for kantentrimmer, buschschneider or similar [P] . 德国专利： DE602006001522D1 . 2008-08-07

  机译： 具有改善的肯特勒，布施耐德或类似产品成分的m u00e4hfaden

• 5. mu00e4hfaden for bush and kantentrimmer [P] . AT230556T . 2003-01-15

  机译： m u00e4hfaden用于灌木丛和看台

• 1. Soil and Vegetation Spectral Coupling Difference (SVSCD) for Miner-als Extraction from Hyperion Data in Vegetation Covered Area [J] . CHEN Shengbo, HUANG Shuang, LIU Yanli, 中国地理科学（英文版） . 2018,第006期
• 2. Impact of Spin-up Forcing on Vegetation States Simulated by a Dynamic Global Vegetation Model Coupledwith a Land Surface Model [J] . LI Fang, ZENG Xiaodong, SONG Xiang, 大气科学进展（英文版） . 2011,第004期
• 3. Monitoring monthly soil moisture conditions in China with temperature vegetation dry ness indexes based on an enhanced vegetation index and normalized difference vegetation index [J] . Zhao Huichao, Li Yi, Chen Xinguo, Theoretical and applied climatology . 2021,第1a2期
• 4. Monitoring vegetation dynamics using the universal normalized vegetation index (UNVI): An optimized vegetation index-VIUPD [J] . Lifu Zhang, Na Qiao, Muhammad Hasan Ali Baig, Remote sensing letters . 2019,第7a9期
• 5. Monitoring vegetation dynamics using the universal normalized vegetation index (UNVI): An optimized vegetation index-VIUPD [J] . Lifu Zhang, Na Qiao, Muhammad Hasan Ali Baig, Remote sensing letters . 2019,第7a9期
• 6. Remote sensing of vegetation dynamics in agro-ecosystems using smap vegetation optical depth and optical vegetation indices [C] . M. Piles, G. Camps-Valls, D. Chaparro, International Geoscience and Remote Sensing Symposium . 2017
• 7. Electromagnetic Modeling of Vegetation Canopy for Retrieving Soil Moisture and Vegetation Optical Depth [D] . Park, Jeil. 2020
• 8. Using the Negative Soil Adjustment Factor of Soil Adjusted Vegetation Index (SAVI) to Resist Saturation Effects and Estimate Leaf Area Index (LAI) in Dense Vegetation Areas [O] . Zhijun Zhen, Shengbo Chen, Tiangang Yin, 2021
• 9. Ground-based spectroscopic measurements of low-Arctic vegetation, Toolik Vegetation Grid and Imnavait Vegetation Grid Toolik Lake, Alaska (2016) [O] . Beamish, Alison Leslie 2018

• 1. Research on the Optimal Vegetation Cover for Remote Sensing Assessment of Soil Erosion Risk Using the Temporal Matching Relationship between Rainfall and Vegetation [J] . Jianfeng Liu ,Xiwang Zhang . 地球科学和环境保护期刊（英文） . 2019,第2期
• 2. Effects of vegetation types on soil water dynamics during vegetation restoration in the Mu Us Sandy Land, northwestern China [J] . Yu Xiaona ,Huang Yongmei ,Li Engui . 干旱区科学：英文版 . 2017,第2期
• 3. Geographical Variants of the Siberian Alpine Vegetation for the ＂Circum-Boreal Vegetation Map＂ [J] . Galina N. Ogureeva . 生命科学（ISSN1934-7391） . 2013,第006期
• 4. 岩石坡面植被自然生态与植被生态恢复技术的思考--秦皇岛堰塞湖采石场迹地植被生态恢复技术实践 [C] . . 2008年全国工程绿化技术交流研讨会 . 2008
• 5. 城市背景下草地植被土壤水分变化特性研究--以扬州市区域性草地植被为例 [A] . 罗迪文 . 2021