<p>This paper discusses a piping model that fundamentally differs from Sellmeijer’s model in relation to the structure of the formula used to calculate the critical hydraulic gradient at which backward erosion leads to dike failure. In this model, the laminar groundwater flow in the sand layer is schematized by characteristic discharges, which are estimated by Darcy’s Law. The laminar pipe flow and the incipient motion of the particles are described using equations of Hagen–Poiseuille, Darcy–Weisbach and Shields. The shear-stress concept of Grass is used to include the effects of the non-uniformity of the sand mixture on pipe erosion. Sellmeijer’s piping equations and the proposed piping model are compared using over 100 laboratory experime...
The prediction of backward erosion piping is important for safety assessment of dikes in the Netherl...
Backward erosion piping is a relevant failure mechanism for water–retaining structures that determin...
Backward erosion piping is an important failure mechanism for cohesive water retaining structures wh...
One of the failure mechanisms of a dike is piping. A water level difference between the two sides of...
Backward erosion piping is an internal erosion mechanism during which shallow pipes are formed in th...
Backward erosion piping is a type of internal erosion. It occurs beneath water structures as a resul...
The Shields–Darcy (SD) model by Hoffmans and Van Rijn (Citation2018) describes the resistance of hyd...
In the Netherlands, dikes are the most commonly used structures to retain water and provide safety a...
The process of backward erosion piping poses a threat to dams and dikes on foundations of nonplastic...
The earliest relation describing the risk of backward erosion piping, from Bligh in 1915, calculates...
Up to now, the phenomenon of backward erosion piping in uniform sands covered by a cohesive top laye...
The structural integrity of water retaining structures such as dikes and dams is threatened by inter...
The earliest relation describing the risk of backward erosion piping, from Bligh in 1915, calculates...
Currently, the most advanced prediction model for backward erosion piping is the two-dimensional Sel...
One of the failure mechanisms that can affect the safety of a dyke or another water-retaining struct...
The prediction of backward erosion piping is important for safety assessment of dikes in the Netherl...
Backward erosion piping is a relevant failure mechanism for water–retaining structures that determin...
Backward erosion piping is an important failure mechanism for cohesive water retaining structures wh...
One of the failure mechanisms of a dike is piping. A water level difference between the two sides of...
Backward erosion piping is an internal erosion mechanism during which shallow pipes are formed in th...
Backward erosion piping is a type of internal erosion. It occurs beneath water structures as a resul...
The Shields–Darcy (SD) model by Hoffmans and Van Rijn (Citation2018) describes the resistance of hyd...
In the Netherlands, dikes are the most commonly used structures to retain water and provide safety a...
The process of backward erosion piping poses a threat to dams and dikes on foundations of nonplastic...
The earliest relation describing the risk of backward erosion piping, from Bligh in 1915, calculates...
Up to now, the phenomenon of backward erosion piping in uniform sands covered by a cohesive top laye...
The structural integrity of water retaining structures such as dikes and dams is threatened by inter...
The earliest relation describing the risk of backward erosion piping, from Bligh in 1915, calculates...
Currently, the most advanced prediction model for backward erosion piping is the two-dimensional Sel...
One of the failure mechanisms that can affect the safety of a dyke or another water-retaining struct...
The prediction of backward erosion piping is important for safety assessment of dikes in the Netherl...
Backward erosion piping is a relevant failure mechanism for water–retaining structures that determin...
Backward erosion piping is an important failure mechanism for cohesive water retaining structures wh...