Oct 2026· International Journal of Civil Engineering· 0 citations· 13 references
Abstract
A new approach uses soft computing to model an orifice-weir system inside open-source drainage software. As climate change alters urban runoff patterns, innovative nature-based engineering solutions like staggered detention ponds are increasingly necessary. Still, intricate hydraulics typically demand high-end simulation tools many working engineers lack access to. For this reason, a basic setup emerges through adjustments in SWMM 5, modifying a weir element with defined bottom entry spacing to reflect both orifice and overflow behaviour at once. Verified using experimental data from a hydraulic flume alongside hand-based calculations, the model lines up with expected mass balance behaviour. The experimental results match theoretical mass conservation principles, and empirical testing identifies an optimal discharge coefficient of 0.40 for the structure. Though flow and water level outputs stay close to observed values when inflow is high, lower inflows see the model fall short on predicting actual depths. One core constraint stands out, which the setup cannot capture, hydraulic jumps forming further down. Despite this, the approach offers engineers a practical way forward, fitting complex water control features into everyday drainage planning without demanding advanced tools. What matters most is practical forecasting for how much stormwater systems can be handled, built on straightforward methods.
The occurrence of flotation phenomena during trench backfilling remains a well-recognized threat to the successful installation of offshore pipelines, with direct implications for both safety and cost. This study developed and assessed a simplified model based on Kynch’s batch sedimentation theory to predict the buoy...
F. Cecinato, G. Della Vecchia, P. Eikhout et al.· Journal of Geotechnical and...· 0 citations
Wetting-induced collapse of loess can produce large differential movements beneath irrigation structures even under modest nominal foundation pressure. This study investigates the coupled response of a segmented reinforced-concrete chute and its loess-based model foundation in a single 1:50 physical model explicitly in...
G. Zhakapbayeva, S. Uderbayev, N. Saktaganova et al.· Engineer· 0 citations
Despite significant advances in laboratory testing of unsaturated soils, well-controlled boundary value data remain limited, while coupled hydro-mechanical constitutive models and numerical tools are increasingly used in practice. In this context, physical modelling provides an intermediate-scale approach to investigat...
F. Casini, J. J. Muñoz, S. Lourenço et al.· International Journal of Phy...· 0 citations
Emptying pressurised pipelines with undulating profiles can generate subatmospheric pressure conditions that compromise structural integrity, particularly when no air admission valve is considered. One-dimensional models for this transient event have so far relied on the Rigid Water Column (RWC) assumption, which negle...
Juan Pablo Medrano-Barboza, V. Fuertes-Miquel, Ó. Coronado-Hernández· Water· 0 citations
This study presents a geomechanical workflow of pre-job modeling, planning and execution of wireline microfrac test campaign, data interpretation for closure pressure interpretation and post-job Shmin calibration. Eight microfrac tests were successfully conducted in the Fiqa, Halul, Laffan, and Salb Shil formations s...
P. Chakrabarti, Gui-Fen Xi, Souvik Sen et al.· GOTECH· 0 citations
Conventional sand control design relies heavily on PSD and often defaults to gravel packing to mitigate hotspot and erosion risks in challenging formations. This paper evaluates whether AICV-enabled stand-alone screen completions can offer a more robust alternative where operational complexity allows. Using field dat...
A. Baqer, M. Roostaei, A. A. Uzcategui et al.· SPE Annual Technical Confere...· 0 citations
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