Future climate warming is expected to have a significant effect on the operation of Earth and
Ecological systems. A key concern in the future is water resource availability. In regions such …

The spatial‐temporal changes in terrestrial water storage (TWS) over the Tibetan Plateau
(TP) and six selected basins during 2003–2014 were analyzed by applying the Gravity …

Rivers originating in the Tibetan Plateau are crucial to the population in Asia. However,
research about quantifying seasonal catchment memory of these rivers is still limited. Here …

Glacier mass loss in the Himalayas has far-reaching implications for the alteration of
regional hydrologic regimes, an increased risk of glacial lake outburst, downstream water …

Glacial lakes, as an important component of the cryosphere in the southeastern Tibetan
Plateau (SETP) in response to climate change, pose significant threats to the downstream …

Qinghai Lake (QHL), the largest saline lake in China, is located in the Tibetan Plateau. The
lake plays an important role in regional water and nutrient cycles and the sustenance of …

Terrestrial water storage (TWS) changes are driven by internal climate variability, external
natural climate change, external human‐caused climate change, and human water …

Remote sensing technologies are integral to monitoring the mountain cryosphere in a
warming world. Satellite missions and field-based platforms have transformed …

Identifying the changes in terrestrial water storage is essential for a comprehensive
understanding of the regional hydrological mass balance under global climate change. This …

The coarse spatial resolution of the Gravity Recovery and Climate Experiment (GRACE)
data has limited its application in the management of local-scale water resources. To …