A network of 12 tree-ring width chronologies of Himalayan cedar (Cedrus deodara) from the western Himalayan region, India, has been used to reconstruct mean spring (March-May) temperature variations back to A.D. 1600. The most conspicuous feature of the temperature reconstruction is the long-term cooling trend since the late 17th century that ended early in the 20th century. The warmest 30-yr mean for the 20th century was recorded during 1945-1974. However, this warming, in the context of the past four centuries is well within the range of natural variability, since warmer springs of greater magnitude occurred in the later part of the 17th century (1662-1691)
Tree-ring samples from purple cone spruce (Picea purpurea) were collected at four sites on the easte...
Himalayan cedar (Cedrus deodara (D. Don) G. Don) due to its long age and wide ecological amplitude i...
September March mean temperature has been reconstructed to A.D. 1680 for the Kaiduhe River watershed...
A network of 12 tree-ring width chronologies of Himalayan cedar (Cedrus deodara) from the western Hi...
The Himalayan region plays a very important role in influencing the regional and extra-regional ...
Ring-width chronologies of Himalayan cedar (Cedrus deodara (D. Don.) G. Don.), Himalayan pine (Pinus...
We report the first millennium-long reconstruction of mean summer (May-June-July-August) temperature...
The Himalayan region has already witnessed profound climate changes detectable in the cryosphere and...
We describe the development of a tree-ring chronology network in Nepal that is suitable for reconstr...
Tree-ring-width data of Himalayan cedar [Cedrus deodara (Roxb.) G. Don] from 11 homogeneous moisture...
To study climate variability/change, the tree-ring width index chronologies of two species (Cedrus d...
Growth rings of conifer trees in the Himalayas have been shown to be potential tools for the reconst...
A 458-year-long regional tree-ring-width index chronology of Himalayan cedar (Cedrus deodara D. Don)...
The present study is the first attempt to develop an annual (August-July) precipitation series back ...
Observational records and reconstructions from tree rings reflect premonsoon (March to May) temperat...
Tree-ring samples from purple cone spruce (Picea purpurea) were collected at four sites on the easte...
Himalayan cedar (Cedrus deodara (D. Don) G. Don) due to its long age and wide ecological amplitude i...
September March mean temperature has been reconstructed to A.D. 1680 for the Kaiduhe River watershed...
A network of 12 tree-ring width chronologies of Himalayan cedar (Cedrus deodara) from the western Hi...
The Himalayan region plays a very important role in influencing the regional and extra-regional ...
Ring-width chronologies of Himalayan cedar (Cedrus deodara (D. Don.) G. Don.), Himalayan pine (Pinus...
We report the first millennium-long reconstruction of mean summer (May-June-July-August) temperature...
The Himalayan region has already witnessed profound climate changes detectable in the cryosphere and...
We describe the development of a tree-ring chronology network in Nepal that is suitable for reconstr...
Tree-ring-width data of Himalayan cedar [Cedrus deodara (Roxb.) G. Don] from 11 homogeneous moisture...
To study climate variability/change, the tree-ring width index chronologies of two species (Cedrus d...
Growth rings of conifer trees in the Himalayas have been shown to be potential tools for the reconst...
A 458-year-long regional tree-ring-width index chronology of Himalayan cedar (Cedrus deodara D. Don)...
The present study is the first attempt to develop an annual (August-July) precipitation series back ...
Observational records and reconstructions from tree rings reflect premonsoon (March to May) temperat...
Tree-ring samples from purple cone spruce (Picea purpurea) were collected at four sites on the easte...
Himalayan cedar (Cedrus deodara (D. Don) G. Don) due to its long age and wide ecological amplitude i...
September March mean temperature has been reconstructed to A.D. 1680 for the Kaiduhe River watershed...