Due to their particular physiology and life history traits, bryophytes are critical in regulating biogeochemical cycles and functions in alpine ecosystem. Hence, it is crucial to investigate their nutrient utilization strategies in comparison with vascular plants and understand their responses to the variation of growing season caused by climate change. Firstly, this study testified whether or not bryophytes can absorb nitrogen (N) directly from soil through spiking three chemical forms of 15N stable isotope tracer. Secondly, with stronger ability of carbohydrates assimilation and photosynthesis, it is supposed that N utilization efficiency of vascular plants is significantly higher than that of bryophytes. However, the recovery of soil N b...
Without any root contact with the soil, epiphytic bryophytes must experience and explore poor, patch...
Human alteration of the global nitrogen (N) cycle has had major impacts on naturally N-limited ecosy...
Background: Most terrestrial vascular plants can assimilate soil obtained NO3- in their root and sho...
Mosses are one of the most diverse and widespread groups of plants and often form the dominant veget...
Mosses are one of the most diverse and widespread groups of plants and often form the dominant veget...
The fern Dicranopteris dichotoma is an important pioneer species of the understory in Masson pine (P...
The fern Dicranopteris dichotoma is an important pioneer species of the understory in Masson pine (P...
Feather mosses utilize various sources of nitrogen (N): they absorb N deposited on leaf tissue, they...
N-15 labeled ammonium, glycine or glutamic acid was injected into subarctic heath soil in situ, with...
Plant nitrogen (N) uptake preference is a key factor affecting plant nutrient acquisition, vegetatio...
Nitrogen and carbon contents of fine roots were studied for 92 alpine plant species in the Northwest...
The fern Dicranopteris dichotoma is an important pioneer species of the understory in Masson pine (P...
Dominant plant species may coexist and maintain high productivity in alpine wetland through availabl...
To understand the dynamics of added nitrogen (N) in alpine meadow and the role of alpine plants and ...
In order to follow the uptake and allocation of N in different plant functional types and microbes i...
Without any root contact with the soil, epiphytic bryophytes must experience and explore poor, patch...
Human alteration of the global nitrogen (N) cycle has had major impacts on naturally N-limited ecosy...
Background: Most terrestrial vascular plants can assimilate soil obtained NO3- in their root and sho...
Mosses are one of the most diverse and widespread groups of plants and often form the dominant veget...
Mosses are one of the most diverse and widespread groups of plants and often form the dominant veget...
The fern Dicranopteris dichotoma is an important pioneer species of the understory in Masson pine (P...
The fern Dicranopteris dichotoma is an important pioneer species of the understory in Masson pine (P...
Feather mosses utilize various sources of nitrogen (N): they absorb N deposited on leaf tissue, they...
N-15 labeled ammonium, glycine or glutamic acid was injected into subarctic heath soil in situ, with...
Plant nitrogen (N) uptake preference is a key factor affecting plant nutrient acquisition, vegetatio...
Nitrogen and carbon contents of fine roots were studied for 92 alpine plant species in the Northwest...
The fern Dicranopteris dichotoma is an important pioneer species of the understory in Masson pine (P...
Dominant plant species may coexist and maintain high productivity in alpine wetland through availabl...
To understand the dynamics of added nitrogen (N) in alpine meadow and the role of alpine plants and ...
In order to follow the uptake and allocation of N in different plant functional types and microbes i...
Without any root contact with the soil, epiphytic bryophytes must experience and explore poor, patch...
Human alteration of the global nitrogen (N) cycle has had major impacts on naturally N-limited ecosy...
Background: Most terrestrial vascular plants can assimilate soil obtained NO3- in their root and sho...