Bin Yu

Dr. Bin Yu


Research Focus & Metrics

Academic Career Length

19Years (2008-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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19 September 2012 in Natural Hazards
Verified
Journal Article
Closed access
PDF file
BYBin Yu
Bin Yu
YMYu Ma
Yu Ma
YWYufu Wu
Yufu Wu


24 August 2017 in Landslides
Verified
Journal Article
Closed access
PDF file
BYBin Yu
Bin Yu
WYWei Yi
Wei Yi
HZHuaibao Zhao
Huaibao Zhao

23 March 2022 in CATENA
Verified
Journal Article
Closed access
BYBin Yu
Bin Yu
CYChenyuan Yang
Chenyuan Yang
MYMa Yu
Ma Yu

31 December 2008 in Natural Hazards
Verified
Journal Article
Closed access
PDF file
BYBin Yu
Bin Yu
KDKeith Dalbey
Keith Dalbey
AWAmy Webb
Amy Webb
MBMarcus Bursik
Marcus Bursik
APAbani Patra
Abani Patra
CNCamil Nichita
Camil Nichita

17 July 2018 in Water
Verified
Journal Article
Open access
PDF file
TTheo Van Asch
Theo Van Asch
BYBin Yu
Bin Yu
WHWei Hu
Wei Hu
Many studies which try to analyze conditions for debris flow development ignore the type of initiation. Therefore, this paper deals with the following questions: What type of hydro-mechanical triggering mechanisms for debris flows can we distinguish in upstream channels of debris flow prone gullies? Which are the main parameters controlling the type and temporal sequence of these triggering processes, and what is their influence on the meteorological thresholds for debris flow initiation? A series of laboratory experiments were carried out in a flume 8 m long and with a width of 0.3 m to detect the conditions for different types of triggering mechanisms. The flume experiments show a sequence of hydrological processes triggering debris flows, namely erosion and transport by intensive overland flow and by infiltrating water causing failure of channel bed material. On the basis of these experiments, an integrated hydro-mechanical model was developed, which describes Hortonian and saturation overland flow, maximum sediment transport, through flow and failure of bed material. The model was calibrated and validated using process indicator values measured during the experiments in the flume. Virtual model simulations carried out in a schematic hypothetical source area of a catchment show that slope angle and hydraulic conductivity of the bed material determine the type and sequence of these triggering processes. It was also clearly demonstrated that the type of hydrological triggering process and the influencing geometrical and hydro-mechanical parameters may have a great influence on rainfall intensity-duration threshold curves for the start of debris flows.