Papers Published in the International
Journal of Sediment Research
Volume 38, No.5, 2023
Pages 629-780 (August
2023)

1.
Sand wave migration near the
southeastern corner of Martha's Vineyard, Massachusetts, USA
Vinícius Santos Pessanha, Peter Cheng Chu, Matthew Kenneth Gough, Peter
Traykovski, Mara Morgenstern Orescanin
2.
Study of gravitational
sedimentation of flexible, permeable circular and planktonic particle applying
the immersed boundary method
Rekha Panghal, Sudeshna Ghosh
3.
Analysis of the sediment sources of
flood driven erosion and deposition in the river channel of the Fu River Basin
Shanghong Zhang, Xujian Hu, Wei Miao, Zan Xu
4.
A framework approach to address the
trend and causes of flood stage change in a river reach downstream of a dam
influenced by tributaries
Zhaohua Sun, Shanshan An, Xinyue Zhou, Zhiqing Li, Lei Zou
5.
The Igarapé Weir decelerated
transport of contaminated sediment in the Paraopeba River after the failure of
the B1 tailings dam (Brumadinho)
Daniela Patrícia Salgado Terêncio, Fernando António Leal Pacheco, Renato
Farias do Valle Junior, Maytê Maria Abreu Pires de Melo Silva, Teresa Cristina
Tarlé Pissarra , Marília Carvalho de Melo, Carlos Alberto Valera , Luís Filipe
Sanches Fernandes
6.
Modeling uncertainties of reservoir
flushing simulations
Camila Bergmann Goulart, Tobias Bleninger, Hugo de Oliveira Fagundes,
Fernando Mainardi Fan
7.
Improving hydrodynamic modeling of
river networks by incorporating data assimilation using a particle filter
Chenhui Jiang, Dejun Zhu, Haobo Li, Xiaoqun Liu, Danxun Li
8.
Historical fluxes of metal and
metalloids in an aquatic ecosystem affected by land-use change and mining
activities in northwestern Mexico
Ochoa-Contreras Roberto, Jara-Marini Martín Enrique, Ruiz-Fernández Ana
Carolina, Sanchez-Cabeza Joan Albert, Meza-Figueroa Diana, Pérez-Bernal Libia
Hascibe
9.
Rapid magnetic susceptibility
measurement as a tracer to assess the erosion–deposition process using tillage
homogenization and simple proportional models: A case study in northern of
Morocco
Abdessalam Ouallali , Naima Bouhsane, Saidati Bouhlassa, Mohamed Moukhchane,
Shamsollah Ayoubi, Habiba Aassoumi
10. Diagenetic signatures in the
deltaic and fluvial-estuarine Messinian sandstone reservoirs in the Nile Delta
as a tool for high-resolution stratigraphic correlations
Mahmoud Leila, Andrea Moscariello, Dustin Sweet, Branimir ?egvi?
11. Experimental investigation of
sediment transport in partially ice-covered channels
Mina Rouzegar, Shawn P. Clark
1.
Sand wave migration near the
southeastern corner of Martha's Vineyard, Massachusetts, USA
Vinícius Santos Pessanha, Peter Cheng Chu, Matthew Kenneth Gough, Peter
Traykovski, Mara Morgenstern Orescanin
Pages 629-642
https://doi.org/10.1016/j.ijsrc.2023.04.006
Abstract: Sand waves of approximately 2 m in height were observed to
migrate nearly 40 m with counterclockwise rotation between two bathymetric
surveys performed three months apart near the southeastern corner of Martha's
Vineyard, Massachusetts. The region is characterized by strong tidal currents,
intermittent energetic surface wave events, and shallow water with local depth
ranging from 2 to 7 m. This study uses the process-based model, Delft3D, with a
three-dimensional approach to examine the sand wave dynamics by incorporating
surface waves, winds, currents, and bathymetric observations. The model
successfully simulates sand wave migration in comparisons to observations.
Model sensitivity analyses show that the sand wave migration reduces by 65%
with the absence of the surface waves. The modeled sand wave migration speed is
correlated with the tidal current Shields parameter, and sharp increases in
migration speed occur when the wave-driven Shields parameter increases in
response to energetic surface wave events. The combined effect of tides,
surface waves, and bathymetry is the origin of the rotational aspect of the
sand wave, using the Shields parameter as an indicator of tidal currents and
surface wave influence on sand wave dynamics.
2.
Study of gravitational
sedimentation of flexible, permeable circular and planktonic particle applying
the immersed boundary method
Rekha Panghal, Sudeshna Ghosh
Pages 643-652
https://doi.org/10.1016/j.ijsrc.2023.05.004
Abstract: The gravitational settling of a flexible, permeable circular
and planktonic particle drenched in a fluid which is assumed to be Newtonian
and incompressible along with being viscous was studied. A mathematical
formulation and numerical simulations of the studied problem were done by
applying the Immersed Boundary Method (IBM) in a two-dimensional fluid domain.
Parametric studies were done for analyzing the impact of varying flexibilities
and permeabilities with reference to settling velocity (terminal velocity) and
shape deformation of the particle. The terminal velocity and permeability of
the particle are directly proportional. It was observed that for fixed
permeability, the terminal velocity increases when increasing the flexibility
of the particle.
3.
Analysis of the sediment sources of
flood driven erosion and deposition in the river channel of the Fu River Basin
Shanghong Zhang, Xujian Hu, Wei Miao, Zan Xu
Pages 653-661
https://doi.org/10.1016/j.ijsrc.2023.04.004
Abstract: Studying the characteristics of runoff and sediment processes
and revealing the sources of sediment provide key guidance for the scientific
formulation of relevant soil erosion protection measures and water conservancy
development plans. In the current study, the flow and sediment data of five
hydrological stations on the main stream of the Fu River Basin (FRB) from 2007
to 2018 were selected to identify flood events, explore the variation of
sediment transport along the FRB, and clarify the sediment sources. The results
found that the Jiangyou–Fujiangqiao section is the main source of sediment in
the FRB during the flood season. The runoff volume and sediment load during
flood events in the Jiangyou–Fujiangqiao section accounted for 35% and 145%
respectively of that of Xiaoheba station. These results combined with the
change of the sediment load before and after the 2008 Wenchuan Earthquake (May
12) show that the sediment in this section mainly comes from the Fu River
tributary–the Tongkou River watershed. The calculation results for the sediment
carrying capacity of the Fu River show that the main stream was in a state of
erosion in theory. However, according to the calculation results for the
interval sediment yield during flood events, the sediment load at the Xiaoheba
station was smaller than that at the Shehong station upstream. The analysis
indicates that this was not because of sediment deposition in the river
channel, but because of sand mining in the river channel and sediment interception
by water conservancy projects. If heavy rainfall occurs in the FRB, the
sediment accumulated upstream will move downstream with the resulting flood,
and the sediment yield in the FRB may further increase. These research
conclusions can provide reference information for improving the prediction and
management ability of soil and water loss in the FRB and scientific regulation
of the Three Gorges Reservoir.
4.
A framework approach to address the
trend and causes of flood stage change in a river reach downstream of a dam
influenced by tributaries
Zhaohua Sun, Shanshan An, Xinyue Zhou, Zhiqing Li, Lei Zou
Pages 662-672
https://doi.org/10.1016/j.ijsrc.2023.05.001
Abstract: The evaluation of the trend of flood stage changes in alluvial
rivers downstream of dams is important for flood management. However, the flood
stage associated with a given discharge generally is nonstationary in river
reaches with multiple tributaries. This is not only because of the dam-induced
shifting in the cross-sectional area and/or channel roughness but also because
of the backwater induced by high flows from the tributaries. To determine the
total trend of the flood stage and quantify the separate contributions of
hydrological and geomorphic effects, the current study proposed a framework
approach consisting of hydrological analysis and multiscenario numerical
modeling. By this means, the trend in the flood stage could be distinguished from
the stage oscillation driven by varying factors, including extreme hydrologic
events. The effects of chronic changes, including channel incision and flow
resistance increase, also were quantitatively separated. This framework was
applied to the Chenglingji–Datong (CD) reach downstream of the Three Gorges Dam
(TGD) in the Yangtze River, China. The results indicated that the effect of the
roughness increase counterbalanced the effect of channel incision when the flow
discharge was beyond the bankfull level. The backwater effect induced by
tributary inflow was the major cause of the flood stage rise in recent years.
The method presented in the current study provides a useful tool for managers
and engineers to obtain better insight into the driving mechanisms of flood
stage changes in river reaches that are downstream of dams. These findings
indicate that the flood stage may not decline or may even occasionally
increase, although the cross-sectional area was enlarged by channel incision.
Special attention should be given to the flood risk situation in the study
reach after the TGD began operation.
5.
The Igarapé Weir decelerated
transport of contaminated sediment in the Paraopeba River after the failure of
the B1 tailings dam (Brumadinho)
Daniela Patrícia Salgado Terêncio, Fernando António Leal Pacheco, Renato
Farias do Valle Junior, Maytê Maria Abreu Pires de Melo Silva, Teresa Cristina
Tarlé Pissarra , Marília Carvalho de Melo, Carlos Alberto Valera , Luís Filipe
Sanches Fernandes
Pages 673-697
https://doi.org/10.1016/j.ijsrc.2023.06.004
Abstract: The B1 dam of Córrego do Feij?o Mine, owned by Vale, S.A.
mining company and located on the Ferro-Carv?o stream, collapsed and injected
2.8 Mm3 of clayey, silty, and sandy iron- and manganese-rich
tailings into the Paraopeba River (Minas Gerais state, Brazil). The accident
occurred on 25 January 2019 and the tailings have been co-transported with
coarser natural sediment since then, being partly trapped in the Igarapé Weir
reservoir located on the Paraopeba River nearly 45 km downstream the injection
point. The general purpose of the current study was to model suspended sediment
transport in the vicinity of the Igarapé Weir aiming to assess the concomitant
barrier effect imposed by this structure. Specifically, the spatial
distributions of suspended clay, silt, and very fine-grained sand fractions
(CSS) of sediment were mapped around the Igarapé Weir under low-flow (16 m3/s)
and high-flow (5 to 10,000 years return period stream discharge; 699–2,699 m3/s)
regimes, using RiverFlow2D as the modelling tool. The concentrations of the
various grain materials in the upstream and downstream sectors were quantified
linking the barrier effect to concentration reductions in the direction of
stream flow. It was also a study goal to calculate differences of iron and
manganese concentrations in the sediment + tailings mixtures along the
Paraopeba River. The study results showed reductions in the CSS between 6.6%
and 18%, from upstream to downstream of the Igarapé Weir, related with
backwater effects, free and submerged hydraulic jumps, bank sedimentation in
periods of high flow, and streambed sedimentation controlled by channel
sinuosity and tailings density. These reductions were accompanied by drops in
the concentrations of iron and manganese present in the clay and silt
fractions, which varied between 6% and 42% under low flows and between 16% and
44% under high flows. Bank sedimentation was viewed as a potential threat to
the riparian vegetation in the long-term. Dredging is the potentially most
effective mitigation measure to help lead the Paraopeba River to a pre-rupture
condition. The retention of sediment + tailings transported in suspension is
less effective than the trapping of bedload sediment + tailings behind the
Igarapé weir. The efficacy of sediment trapping is expected to be larger for
natural sediment because it is much coarser than the tailings. In that context,
the simulations revealed for the low-flow period that 33.6% of the sediment
deposition comprised suspended transport of natural sediment (thus, was
comprised 66.4% of bedload transport), this proportion rose to 86.9% for
mixtures of natural sediment + tailings, a result that did not differ much for
the high-flow periods.
6.
Modeling uncertainties of reservoir
flushing simulations
Camila Bergmann Goulart, Tobias Bleninger, Hugo de Oliveira Fagundes,
Fernando Mainardi Fan
Pages 698-710
https://doi.org/10.1016/j.ijsrc.2023.04.005
Abstract: Every dam or barrage construction affects the watercourse and
the retention of sediment that previously was carried by the river, which can
lead to siltation of the reservoir and obstruction of water intakes over time,
reducing their capacities. However, the information available regarding the
effect of sediment and drawdown parameters, sediment management at reservoirs,
as well as different equational approaches, is scarce. The current research
aims to evaluate the effect of parameters associated with numerical modeling of
sediment management in reservoirs considering scenarios with different
drawdowns, transport equations, sediment size distributions, and thickness of
the initial sediment layer. The case study of the Aimorés Hydropower Plant (HPP)
is used, applying the Delft3D-FLOW model for two-dimensional modeling. All
parameters influenced the volume of mobilized sediment, among which the initial
layer thickness was the parameter that resulted in the greatest changes in
simulated results. In general, the results show that the uncertainties in the
input parameters outweigh the uncertainties between the techniques, which found
large variations in results when evaluating the use of different transport
equations. These results indicate the importance of proper estimation of model
parameters for predicting effects with accuracy and the need for such studies
before planning and management operations are evaluated to avoid environmental
harm and energy waste.
7.
Improving hydrodynamic modeling of
river networks by incorporating data assimilation using a particle filter
Chenhui Jiang, Dejun Zhu, Haobo Li, Xiaoqun Liu, Danxun Li
Pages 711-723
https://doi.org/10.1016/j.ijsrc.2023.06.001
Abstract: Numerical modeling is a well-recognized method for studying
the hydrodynamic processes in river networks. Multi-source measurements also
offer abundant information on the patterns and mechanisms within the processes.
Therefore, improving hydrodynamic modeling of river networks through the use of
data assimilation techniques has become a hot research topic in recent years.
The particle filter (PF) is a commonly used data assimilation method and has
been proven to be applicable to various nonlinear and non-Gaussian models. In
the current study, an improved numerical hydrodynamic model for large-scale
river networks is established by incorporating the advanced PF algorithm.
Furthermore, the PF method based on the Gaussian likelihood function (GLF) and
the method based on the Cauchy likelihood function (CLF) are compared for a
complex river network scenario. The feasibility of the PF-based methods was
evaluated through application to the Yangtze-Dongting River-lake Network (YDRN)
by assimilating water stage data collected at six hydrometric stations during
the entire hydrodynamic process in 2003. Additionally, the parameters used in
the likelihood function, which affect the assimilation performance, also were
explored in the current study. The study results found that the accuracy of the
model-derived water stage data was improved when the PF-based methods are
utilized, with improvement not only at the data assimilation (calibration)
sites but also at three hydrometric stations not used in the data assimilation
(i.e., verification sites). The highest average Nash-Sutcliffe Efficiency
result for the six assimilation sites were 0.98 while the lowest summed
root-mean-square-error result was 1.801 m. The comparison results also
indicated that the CLF-based PF outperformed the GLF-based PF when
high-accuracy observed data are available. Specifically, the CLF can
effectively resolve the filtering failure problem and the dispersion problem of
PFs, and further improve the accuracy of the filtering results for a river
network scenario. In summary, the CLF-based PF method along with high-accuracy
observation data shows promise to provide reliable reference and technical
support for hydrodynamic modeling of large-scale river networks.
8.
Historical fluxes of metal and
metalloids in an aquatic ecosystem affected by land-use change and mining
activities in northwestern Mexico
Ochoa-Contreras Roberto, Jara-Marini Martín Enrique, Ruiz-Fernández Ana
Carolina, Sanchez-Cabeza Joan Albert, Meza-Figueroa Diana, Pérez-Bernal Libia
Hascibe
Pages 724-738
https://doi.org/10.1016/j.ijsrc.2023.05.003
Abstract: Freshwater reservoirs are essential owing because of their
ecological, economic, and social importance. They are particularly vulnerable
to contamination, as of metal and metalloids, derived from anthropogenic
activities like mining. The temporal variations in trace element concentrations
(arsenic (As), mercury (Hg), chromium (Cr), copper (Cu), nickel (Ni), lead
(Pb), and zinc (Zn)), enrichment, fluxes, and possible sources were evaluated
by studying two sediment cores from the La Angostura (ANG) Reservoir (northwest
Mexico), using 210Pb geochronology. The enrichment factors showed from null to
minor enrichment for most elements, but moderate to severe enrichment of
mercury (Hg). Most trace element concentrations had a detrital origin, and
notable Hg concentration increases since the past decade were associated with
severe drought periods, likely resulting from wildfires. The observed sediment
concentrations of As and Hg can cause adverse effects on biota in the ecosystem
since they are above the probable effect level (PEL). Development of strategies
for metal attenuation in this reservoir is recommended and metals should be
controlled until specific ecotoxicological studies are performed.
9.
Rapid magnetic susceptibility
measurement as a tracer to assess the erosion–deposition process using tillage
homogenization and simple proportional models: A case study in northern of
Morocco
Abdessalam Ouallali , Naima Bouhsane, Saidati Bouhlassa, Mohamed Moukhchane,
Shamsollah Ayoubi, Habiba Aassoumi
Pages 739-753
https://doi.org/10.1016/j.ijsrc.2023.06.002
Abstract: Soil erosion is a significant threat in the Rif region in
northern Morocco. Hence, accurate cartography of the phenomenon, magnitude, and
extent of erosion in the area needs a simple, rapid, and economical method such
as magnetic susceptibility (MS). The current study aims to: (i) determine the
factors influencing the variation of soil MS, (ii) exploit MS to estimate soil
loss using two approaches in different homogenous units characterized by the
same climatic conditions with different edaphic characteristics (land use,
slope, and lithology), and (iii) highlight the potential for using MS as a
cheap and rapid tracer of a long term erosion and deposition processes.
Mass-specific magnetic susceptibility at low (χlf) and high (χhf)
frequencies were measured for 182 soil samples collected in the study area. A
tillage homogenization (T-H) model and a simple proportional model (SPM) were
applied on an undisturbed soil profile to predict the eroded soil depths for
given cores. The results confirm that χlf is influenced by land use,
slope, and soil type. Pedogenesis is the main factor affecting soil MS
enhancement, indicated by homogenous magnetic mineralogy with a dominance of
super-paramagnetic (SP) and stable single domain (SSD) magnetic grains. The
study results show that higher soil losses have occurred in almost all the soil
samples when applying the T-H model compared to application of the SPM. The SPM
underestimates erosion due to its ignorance of the MS of the plow layers after
erosion. The current study implies the high efficacy of magnetic susceptibility
as the quick, easily measurable, simple, and cost-effective approach that can
be used as an alternative technique for evaluating soil redistribution.
10. Diagenetic signatures in the
deltaic and fluvial-estuarine Messinian sandstone reservoirs in the Nile Delta
as a tool for high-resolution stratigraphic correlations
Mahmoud Leila, Andrea Moscariello, Dustin Sweet, Branimir ?egvi?
Pages 754-768
https://doi.org/10.1016/j.ijsrc.2023.05.002
Abstract: The current study utilizes a range of diagenetic fingerprints
to differentiate between sandstone facies deposited in the Nile Delta before
and during the Messinian salinity crisis (MSC), which is normally a challenging
task considering the complex bio- and lithostratigraphic subdivisions of
Messinian rock units. Subaerial exposure of the pre-MSC (Qawasim deltaic
sandstone), during drawdown of the Mediterranean Sea at the time of the MSC,
triggered pervasive dissolution of unstable rock fragments, kaolinization of
feldspar, and meteoric dolomitization of carbonate. This was followed by
mesogenetic calcite cementation and kaolinite transformation into dickite in
deeply buried Qawasim sandstone. Comparatively, the Abu Madi estuarine facies,
deposited during transgression after drawdown related to the MSC, is
characterized by eogenetic iron (Fe)-calcite, glauconite, and pyrite (averages
of 14.5%, 6%, and 2%, respectively). This facies transition is marked by
abundance of mature glauconite (with potassium oxide (K2O) at about
8%) whose content abates upward from the transgression surface. Moreover, the
compositional variability of the Abu Madi sandstone gave rise to multiple
diagenetic trajectories that resulted in chlorite formation presumably
following smectite and kaolinite. Listed diagenetic variations in the studied
Messinian sandstone resulted from a complex interplay between rocks’
compositional, depositional, and burial attributes, ultimately serving as a
basis for high-resolution stratigraphic correlation in continental and marginal
marine settings with poor biostratigraphic controls.
11. Experimental investigation of
sediment transport in partially ice-covered channels
Mina Rouzegar, Shawn P. Clark
Pages 769-779
https://doi.org/10.1016/j.ijsrc.2023.06.003
Abstract: It is important to understand the effects of ice cover on
sediment transport in cold climates, where sub-freezing temperatures affect
water bodies for a significant part of the year. The literature contains many
studies on sediment transport in open channel flow, and several studies on
sediment transport in completely ice-covered flow. There has been little or no
research on sediment transport in partially ice-covered channels. In the
current study, laboratory experiments were done in a rectangular flume to
quantify the impact of border ice presence on the sediment transport rate. The
effects of ice cover extent and changing flow strengths on sediment transport
distribution also were investigated, and the results were compared to those for
fully ice-covered and open channel flow. The ice coverage ratios considered
were 0 (representing the open water condition), 0.25, 0.50, 0.67, and 1
(representing fully ice-covered flow). The partial ice cover was found to
impact the sediment transport distribution within the channel. The effect of
ice coverage extent on sediment transport distribution was more significant at
lower flow strengths and became negligible at higher flow strengths. The
conventional equations for sediment transport in open channel flow and fully
ice-covered flow that relate the dimensionless bedload transport rate to the
flow strength were found to be applicable to estimate the total
cross-section-averaged bedload transport for partially ice-covered flow when
modified appropriately. Empirical coefficients for these equations were
determined using the experimental data.