Relevant bibliographies by topics / Solid-fluid interaction

Contents

  1. Journal articles
  2. Dissertations / Theses
  3. Books
  4. Book chapters
  5. Conference papers
  6. Reports

Academic literature on the topic 'Solid-fluid interaction'

Author: Grafiati
Published: 4 June 2021
Last updated: 20 February 2023

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Journal articles on the topic "Solid-fluid interaction"

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Molki, Majid. "Fluid-Solid Interaction—a New Trend." Heat Transfer Engineering 29, no. 12 (December 2008): 975–76. http://dx.doi.org/10.1080/01457630802241042.

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Monk, Peter, and Virginia Selgas. "An inverse fluid--solid interaction problem." Inverse Problems & Imaging 3, no. 2 (2009): 173–98. http://dx.doi.org/10.3934/ipi.2009.3.173.

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Liu, Jinyuan, Mengdi Wang, Fan Feng, Annie Tang, Qiqin Le, and Bo Zhu. "Hydrophobic and Hydrophilic Solid-Fluid Interaction." ACM Transactions on Graphics 41, no. 6 (November 30, 2022): 1–15. http://dx.doi.org/10.1145/3550454.3555478.

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We propose a novel solid-fluid coupling method to capture the subtle hydrophobic and hydrophilic interactions between liquid, solid, and air at their multi-phase junctions. The key component of our approach is a Lagrangian model that tackles the coupling, evolution, and equilibrium of dynamic contact lines evolving on the interface between surface-tension fluid and deformable objects. This contact-line model captures an ensemble of small-scale geometric and physical processes, including dynamic waterfront tracking, local momentum transfer and force balance, and interfacial tension calculation. On top of this contact-line model, we further developed a mesh-based level set method to evolve the three-phase T-junction on a deformable solid surface. Our dynamic contact-line model, in conjunction with its monolithic coupling system, unifies the simulation of various hydrophobic and hydrophilic solid-fluid-interaction phenomena and enables a broad range of challenging small-scale elastocapillary phenomena that were previously difficult or impractical to solve, such as the elastocapillary origami and self-assembly, dynamic contact angles of drops, capillary adhesion, as well as wetting and splashing on vibrating surfaces.
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Altay, Gülay, and M. Cengiz Dökmeci. "Fluid–fluid and –solid interaction problems: Variational principles revisited." International Journal of Engineering Science 47, no. 1 (January 2009): 83–102. http://dx.doi.org/10.1016/j.ijengsci.2008.07.006.

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Liu, Tiegang, A. W. Chowdhury, and Boo Cheong Khoo. "The Modified Ghost Fluid Method Applied to Fluid-Elastic Structure Interaction." Advances in Applied Mathematics and Mechanics 3, no. 5 (October 2011): 611–32. http://dx.doi.org/10.4208/aamm.10-m1054.

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AbstractIn this work, the modified ghost fluid method is developed to deal with 2D compressible fluid interacting with elastic solid in an Euler-Lagrange coupled system. In applying the modified Ghost Fluid Method to treat the fluid-elastic solid coupling, the Navier equations for elastic solid are cast into a system similar to the Euler equations but in Lagrangian coordinates. Furthermore, to take into account the influence of material deformation and nonlinear wave interaction at the interface, an Euler-Lagrange Riemann problem is constructed and solved approximately along the normal direction of the interface to predict the interfacial status and then define the ghost fluid and ghost solid states. Numerical tests are presented to verify the resultant method.
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Yang, Youqing, Pengtao Sun, and Zhen Chen. "Combined MPM-DEM for Simulating the Interaction Between Solid Elements and Fluid Particles." Communications in Computational Physics 21, no. 5 (March 27, 2017): 1258–81. http://dx.doi.org/10.4208/cicp.oa-2016-0050.

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AbstractHow to effectively simulate the interaction between fluid and solid elements of different sizes remains to be challenging. The discrete element method (DEM) has been used to deal with the interactions between solid elements of various shapes and sizes, while the material point method (MPM) has been developed to handle the multiphase (solid-liquid-gas) interactions involving failure evolution. A combined MPM-DEM procedure is proposed to take advantage of both methods so that the interaction between solid elements and fluid particles in a container could be better simulated. In the proposed procedure, large solid elements are discretized by the DEM, while the fluid motion is computed using the MPM. The contact forces between solid elements and rigid walls are calculated using the DEM. The interaction between solid elements and fluid particles are calculated via an interfacial scheme within the MPM framework. With a focus on the boundary condition effect, the proposed procedure is illustrated by representative examples, which demonstrates its potential for a certain type of engineering problems.
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Chen, Mingqiang, Linsong Cheng, Renyi Cao, and Chaohui Lyu. "A Study to Investigate Fluid-Solid Interaction Effects on Fluid Flow in Micro Scales." Energies 11, no. 9 (August 22, 2018): 2197. http://dx.doi.org/10.3390/en11092197.

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Due to micro-nanopores in tight formation, fluid-solid interaction effects on fluid flow in porous media cannot be ignored. In this paper, a novel model which can characterize micro-fluid flow in micro scales is proposed. This novel model has a more definite physical meaning compared with other empirical models. And it is validated by micro tube experiments. In addition, the application range of the model is rigorously analyzed from a mathematical view, which indicates a wider application scope. Based on the novel model, the velocity profile, the average flow velocity and flow resistance in consideration of fluid-solid interaction are obtained. Furthermore, the novel model is incorporated into a representative pore scale network model to study fluid-solid interactions on fluid flow in porous media. Results show that due to fluid-solid interaction in micro scales, the change rules of the velocity profile, the average flow velocity and flow resistance generate obvious deviations from traditional Hagen-Poiseuille’s law. The smaller the radius and the lower the displacement pressure gradient (∇P), the more obvious the deviations will be. Moreover, the apparent permeability in consideration of fluid-solid interaction is no longer a constant, it increases with the increase of ∇P and non-linear flow appears at low ∇P. This study lays a good foundation for studying fluid flow in tight formation.
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Inoue, Yohei, Junji Tanaka, Ryo Kobayashi, Shuji Ogata, and Toshiyuki Gotoh. "Multiscale Numerical Simulation of Fluid-Solid Interaction." MATERIALS TRANSACTIONS 49, no. 11 (2008): 2550–58. http://dx.doi.org/10.2320/matertrans.mb200814.

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Liu, Q. Q., and V. P. Singh. "Fluid–Solid Interaction in Particle-Laden Flows." Journal of Engineering Mechanics 130, no. 12 (December 2004): 1476–85. http://dx.doi.org/10.1061/(asce)0733-9399(2004)130:12(1476).

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Elschner, Johannes, George C. Hsiao, and Andreas Rathsfeld. "An inverse problem for fluid-solid interaction." Inverse Problems & Imaging 2, no. 1 (2008): 83–120. http://dx.doi.org/10.3934/ipi.2008.2.83.

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Dissertations / Theses on the topic "Solid-fluid interaction"

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De, La Peña-Cortes Jesus Ernesto. "Development of fluid-solid interaction (FSI)." Thesis, University of Manchester, 2018. https://www.research.manchester.ac.uk/portal/en/theses/development-of-fluidsolid-interaction-fsi(b22b29e2-0349-44a9-ab18-eeb0717d18c8).html.

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This work extends a previously developed finite-volume overset-grid fluid flow solver to enable the characterisation of rigid-body-fluid interaction problems. To this end, several essential components have been developed and blended together. The inherent time-dependent nature of fluid-solid interaction problems is captured through the laminar transient incompressible Navier-Stokes equations for the fluid, and the Euler-Newton equations for rigid-body motion. First and second order accurate time discretisation schemes have been implemented for the former, whereas second and third order accurate time discretisation schemes have been made available for the latter. Without doubt the main advantage the overset-grid method offers regarding moving entities is the avoidance of the time consuming grid regeneration step, and the resulting grid distortion that can often cause numerical stability problems in the solution of the flow equations. Instead, body movement is achieved by the relative motion of a body fitted grid over a suitable background mesh. In this case, the governing equations of fluid flow are formulated using a Lagrangian, Eulerian, or hybrid flow description via the Arbitrary Lagrangian-Eulerian method. This entails the need to guarantee that mesh motion shall not disturb the flow field. With this in mind, the space conservation law has been hard-coded. The compliance of the space conservation law has the added benefit of preventing spurious mass sources from appearing due to mesh deformation. In this work, two-way fluid-solid interaction problems are solved via a partitioned approach. Coupling is achieved by implementing a Picard iteration algorithm. This allows for flexible degree of coupling specificationby the user. Furthermore, if strong coupling is desired, three variants of interface under-relaxation can be chosen to mitigate stability issues and to accelerate convergence. These include fixed, or two variants of Aitken’s adaptive under-relaxation factors. The software also allows to solve for one-way fluid-solid interaction problems in which the motion of the solid is prescribed. Verification of the core individual components of the software is carried out through the powerful method of manufactured solutions (MMS). This purely mathematically based exercise provides a picture of the order of accuracy of the implementation, and serves as a filter for coding errors which can be virtually impossible to detect by other means. Three instances of one-way fluid-solid interaction cases are compared with simulation results either from the literature, or from the OpenFOAM package. These include: flow within a piston cylinder assembly, flow induced by two oscillating cylinders, and flow induced by two rectangular plates exhibiting general planar motion. Three cases pertaining to the class of two-way fluid-interaction problems are presented. The flow generated by the free fall of a cylinder under the action of gravity is computed with the aid of an intermediate ‘motion tracking’ grid. The solution is compared with the one obtained using a vorticity based particle solver for validation purposes. Transverse vortex induced vibrations (VIV) of a circular cylinder immersed in a fluid, and subject to a stream are compared with experimental data. Finally, the fluttering motion of a rectangular plate under different scenarios is analysed.
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Hester, Eric William. "Modelling fluid-solid interactions." Thesis, The University of Sydney, 2021. https://hdl.handle.net/2123/25114.

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Fluid-solid interactions have wide-ranging implications for science, engineering, and the global climate. This thesis combines mathematical analysis, computational algorithms, and laboratory experiments to understand fluid-solid interactions, providing new insights on the influence of shape on iceberg melting, and mysterious boat drag in the dead-water effect. The discontinuous interfaces of fluid-solid interactions are challenging to simulate. We develop improved diffuse-domain methods that allow straightforward algorithms to simulate fluid-solid interactions. Diffuse-domain methods are simple to implement because they replace complicated boundary conditions with smooth source terms. But the smoothing induces a boundary layer of size ε between the fluid and solid. Previous diffuse-domain methods incurred errors of this size—corresponding to first order numerical accuracy. The first part of the thesis develops an asymptotic framework to derive second-order accurate diffuse-domain methods. In chapter 2, we exploit the signed distance function to simplify vector calculus around boundary layers in arbitrary smooth geometries. In chapter 3 we apply this machinery to optimise the volume-penalty method for fluid-solid interactions. In chapter 4 we then derive higher-order phase-field models for coupled melting, dissolution, and convection. We verify these corrections in extensive numerical benchmarks. We also explore techniques for fourth order convergence in ε using Richardson extrapolation, and spectral accuracy simulations via coordinate remapping. These improved methods provide powerful tools to simulate and understand real-world fluid-solid interactions. In chapter 5, we apply these methods to investigate how iceberg shape affects melting. Icebergs vary in shape and size, and iceberg melting determines their influence on the climate. Our laboratory experiments reveal previous models underestimate melting and ignore large differences between sides. The improved phase-field model reproduces experimental melt rates and explains observed patterns. Simulations show that non-uniform basal melt rates stem from upwelling during vortex generation. We outline the geophysical implications of our findings and discuss improvements to current melting parameterisations that account for iceberg geometry. Then in chapter 6, we use these techniques to examine the dead-water effect—extreme boat drag in density-stratified waters. Walfrid Ekman showed in 1904 that sub-surface internal waves cause dead water. Boats moving near the internal wave speed generate large internal waves which steal energy from the boat. We perform the first direct numerical simulation of dead water. In contrast to previous potential flow models, we find that vorticity generated throughout the domain plays an important role in the effect. The vorticity coalesces into large, previously unnoticed eddies. These robust eddies interfere with the boat-wave interaction, and may suggest new strategies to mitigate the effect.
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Obadia, Benjamin. "A multimaterial Eulerian approach for fluid-solid interaction." Thesis, Cranfield University, 2012. http://dspace.lib.cranfield.ac.uk/handle/1826/7270.

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This thesis is devoted to understanding and modeling multimaterial interactions, and to develop accordingly a robust scheme taking into account the largest variety of those, with a particular interest in resolving solid/fluid configurations. This very general frame of studies can be tackled with numerous different approaches as several issues arise and need to be addressed before attempting any modelisation of these problems. A first questioning should be the frame of reference to be used for the materials considered. Eulerian shock-capturing schemes have advantages for modeling problems involving complex non-linear wave structures and large deformations. If originally reserved mostly to fluids components, recent work has focused on extending Eulerian schemes to other media such as solid dynamics, as long as the set of equations employed is written under a hyperbolic system of conservation laws. Another matter of interest when dealing with multiple immiscible materials it the necessity to include some means of tracking material boundaries within a numerical scheme. Interface tracking methods based on the use of level set functions are an attractive alternative for problems with sliding interfaces since it allows discontinuous velocity profiles at the material boundaries whilst employing fixed grids. However, its intrinsic lack of variables conservation needs to be circumvented by applying an appropriate fix near the interface, where cells might comprise multiple components. Another requirement is the ability to correctly predict the physical interaction at the interface between the materials. For that purpose, the Riemann problem corresponding to the interfacial conditions needs to be formulated and solved. This implies in turn the need of appropriate Riemann solvers; if they are largely available when the materials are identical (i.e. governed by the same set of equations), a specific Riemann solver will be developed to account for fluid/solid interaction. Eventually, these newly developed methods will be tested on a wide range of different multimaterial problems, involving several materials undergoing large deformations. The materials used, whether modelling fluid/fluid or solid/fluid interactions, will be tested using various initial conditions from both sides of the interface, to demonstrate the robustness of the solver and its flexibility. These testcases will be carried out in 1D, 2D and 3D frames, and compared to exact solutions or other numerical experiments conducted in previous studies.
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Khodabakhshi, Goodarz. "Computational modelling of fluid-porous solid interaction systems." Thesis, Loughborough University, 2007. https://dspace.lboro.ac.uk/2134/35182.

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Deformation of a porous medium due to the pressure applied by an interacting fluid passing through it is a phenomenon which occurs in a number of applications such as filtration and membrane separation processes. Mathematical modelling of these systems using porous medium theory has proved to be beneficial in the design of experiments and equipments as well as gaining better insight about multi-physics phenomenon such as combined fluid flow and solid deformation regimes. In the present work the interaction of fluid and porous solid medium has been studied.
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Pan, Kai Ph D. Massachusetts Institute of Technology. "Simulating fluid-solid interaction using smoothed particle hydrodynamics method." Thesis, Massachusetts Institute of Technology, 2017. http://hdl.handle.net/1721.1/109642.

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Thesis: Ph. D., Massachusetts Institute of Technology, Department of Civil and Environmental Engineering, 2017.
Cataloged from PDF version of thesis.
Includes bibliographical references (pages 97-102).
The fluid-solid interaction (FSI) is a challenging process for numerical models since it requires accounting for the interactions of deformable materials that are governed by different equations of state. It calls for the modeling of large deformation, geometrical discontinuity, material failure, including crack propagation, and the computation of flow induced loads on evolving fluid-solid interfaces. Using particle methods with no prescribed geometric linkages allows high deformations to be dealt with easily in cases where grid-based methods would introduce difficulties. Smoothed Particle Hydrodynamics (SPH) method is one of the oldest mesh-free methods, and it has gained popularity over the last decades to simulate initially fluids and more recently solids. This dissertation is focused on developing a general numerical modeling framework based on SPH to model the coupled problem, with application to wave impact on floating offshore structures, and the hydraulic fracturing of rocks induced by fluid pressure. An accurate estimate of forces exerted by waves on offshore structures is vital to assess potential risks to structural integrity. The dissertation first explores a weakly compressible SPH method to simulate the wave impact on rigid-body floating structures. Model predictions are validated against two sets of experimental data, namely the dam-break fluid impact on a fixed structure, and the wave induced motion of a floating cube. Following validation, this framework is applied to simulation of the mipact of large waves on an offshore structure. A new numerical technique is proposed for generating multi-modal and multi-directional sea waves with SPH. The waves are generated by moving the side boundaries of the fluid domain according to the sum of Fourier modes, each with its own direction, amplitude and wave frequency. By carefully selecting the amplitudes and the frequencies, the ensemble of wave modes can be chosen to satisfy a real sea wave spectrum. The method is used to simulate an extreme wave event, with generally good agreement between the simulated waves and the recorded real-life data. The second application is the modeling of hydro-fracture initiation and propagation in rocks. A new general SPH numerical coupling method is developed to model the interaction between fluids and solids, which includes non-linear deformation and dynamic fracture initiation and propagation. A Grady-Kipp damage model is employed to model the tensile failure of the solid and a Drucker-Prager plasticity model is used to predict material shear failures. These models are coupled together so that both shear and tensile failures can be simulated within the same scheme. Fluid and solid are treated as a single system for the entire domain, and are computed using the same stress representation within a uniform SPH framework. Two new stress coupling approaches are proposed to maintain the stress continuity at the fluid-solid interface, namely, a continuum approach and stress-boundary-condition approach. A corrected form of the density continuity equation is implemented to handle the density discontinuity of the two phases at the interface. The method is validated against analytic solutions for a hydrostatic problem and for a pressurized borehole in the presence of in-situ stresses. The simulation of hydro-fracture initiation and propagation in the presence of in-situ stresses is also presented. Good results demonstrate that SPH has the potential to accurately simulate the hydraulic-fracturing phenomenon in rocks.
by Kai Pan.
Ph. D.
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Mohd, Razip Wee Farhan. "Solid-fluid interaction in a pillar based phononic crystal." Thesis, Bourgogne Franche-Comté, 2017. http://www.theses.fr/2017UBFCD055.

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Les cristaux phononiques (CP) sont des structures constituées de motifs élémentaires périodisés qui sont conçus et dimensionnés de manière à obtenir une propagation d’ondes acoustiques ou élastiques très différente de la propagation naturelle dans un matériau non structuré. C’est un moyen très efficace pour façonner la propagation des ondes acoustiques grâce notamment à la présence de bandes interdites liées à la périodicité des motifs élémentaires ou liées à leurs résonances intrinsèques. Ces mécanismes de contrôle de la propagation d’ondes constituent un énorme potentiel technologique dans diverses applications (filtre, multiplexeur, guide d’onde, résonateur et capteur). De nombreux travaux ont permis le développement de dispositifs à ondes acoustiques de surface (SAW) intégrant des CP pour le contrôle d’ondes à haute fréquence. Néanmoins, de tels dispositifs devant fonctionner en présence d’un liquide en contact avec le CP présentent des difficultés de conception liées à l’affaiblissement des ondes à l’interface solide-fluide à cause de la radiation vers le fluide des ondes à composantes hors plan. Dans le cas particulier d’un usage au titre d’un capteur, les performances d’un tel dispositif sont souvent insuffisantes.L’objectif de l’étude menée dans le cadre de cette thèse est de remédier à ce problème en utilisant les résonances localisées de cristaux phononiques constitués de piliers pour concevoir des dispositifs opérationnels en milieu liquide.Dans un premier temps, des outils numériques basés sur la méthode des éléments finis ont été développés et validés pour la modélisation de cellules élémentaires d’un CP à base de piliers. Cela nous a permis de démontrer que la présence de résonances localisées de piliers judicieusement dimensionnés permet de ralentir la vitesse de l’onde Scholte-Stoneley à l’interface solide-fluide. Les modèles de dispositifs à base de CP ont été implémentés et utilisés pour valider les résultats retenus du modèle unitaire, dans un deuxième temps. Quant à la partie expérimentale, elle nous a permis de valider la persistance en milieu liquide des bandes interdites à résonances localisées qui est attribuée au fait qu’à la résonance des piliers, l’énergie reste confinée dans ces derniers empêchant ainsi sa radiation dans le fluide. Ces résultats nous ont permis de concevoir des guides d’ondes persistantes en milieu liquide par l’intégration au sein du CP de défauts géométriques sous forme d’une chaine de piliers ayant des dimensions différentes du reste des piliers du CP.L’étude théorique a montré que les ondes guidées que l'on peut engendrer en utilisant les deux types de bandes interdites (Bragg et résonances localisées) ont des propriétés proches d’une onde de surface de Rayleigh. Les résultats obtenus dans ce travail ont permis d’élucider et d'expliciter les mécanismes à l’origine de la persistance des modes propagatifs dans les CP à résonances localisées. Cela devrait permettre d'ouvrir un champ d’investigation visant à développer des capteurs SAW phononiques pour des applications en micro-fluidique, notamment des dispositifs de type lab-on-chip
Phononic crystal(PC) can be defined as an artificial structure built from periodical unit cell which could achieve interesting acoustic and elastic propagation thanks to the presence of phononic bandgap(PnBg) related to the periodicity and its intrinsic resonance of the unit cell. These mechanisms to control the wave’s propagation illustrate a huge potential that could led to several promising applications (filtering, waveguiding, resonator and sensor). Many works proposed the integration of surface acoustic wave(SAW) with PC with the purpose to manipulate the wave’s propagation at high frequency(UHF-VHF range). Nevertheless, the presence of liquid on the surface of such device induces an attenuation of the wave at the interface of solid-fluid due to the out-of-plane displacement which radiate into the fluid. For the development of such device as a sensor, its performance is usually degraded and not sufficient compared to the current state of art. The objective of this thesis is to provide a solution to the above problem through the utilization of locally-resonant mechanism in PC composed of an array of pillars to design a device which could operate in the liquid environment. First, we developed a theoretical model based on Finite Element Method (FEM) simulation for a unit cell of pillar-based structure embedded with a liquid medium. We demonstrated that local resonances of pillars with optimized dimension could decrease the phase velocity of Scholte-Stoneley wave, to produce a slow wave at the solid/fluid interface. For the experimental part, we showed the conservation of locally-resonant bandgap when the fabricated device is loaded with liquid. This conservation is attributed to the local resonance of pillars that confine the energy inside the pillar to prevent radiation of energy into the fluid. The obtained results allow us to design a waveguide persistent under liquid medium by the integration of geometrical defect in the PC in the form of a chain of pillars with a different dimension compared to the rest. Furthermore, the theoretical studies indicated also that the waveguide induced in the both type of band gap(Bragg and locally-resonant) has a close appearance as a Rayleigh SAW. The results from this study could elucidate the mechanism of the persistence of the propagation mode of locally-resonant PC. This could open a new perspective for a further investigation to develop SAW phononic especially in the in a microfluidic and lab on chip application
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Gobal, Koorosh. "High-Fidelity Multidisciplinary Sensitivity Analysis for Coupled Fluid-Solid Interaction Design." Wright State University / OhioLINK, 2016. http://rave.ohiolink.edu/etdc/view?acc_num=wright1483614152174005.

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Behera, Narayana. "On the solutions of fluid flow and solid deformation interaction problems /." The Ohio State University, 1992. http://rave.ohiolink.edu/etdc/view?acc_num=osu1487777901658103.

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Hajishafiee, Alireza. "Finite-volume CFD modelling of fluid-solid interaction in EHL contacts." Thesis, Imperial College London, 2013. http://hdl.handle.net/10044/1/32100.

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Classically in an elastohydrodynamic (EHD) problem, the Reynolds equation is the most widely used PDE to describe the behaviour of lubricants in high-pressure non-conforming contacts, and elastic deformation is usually calculated using the Hertzian theory of elastic contacts. This thesis outlines the development of a new method for modelling of fluid-solid interactions in elastohydrodynamic lubrication (EHL) contact based on Finite Volume (FV) techniques. A Computational Fluid Dynamics (CFD) approach to solve the Navier-Stokes equations is implemented to model lubrication in roller bearings using the open-source package OpenFOAM. This has first been applied to simulate full film hydrodynamic lubrication (HL), enabling an accurate description of the flow within the entire domain surrounding the contact region. The rheology is assumed to be non-Newtonian and shear-thinning. The phenomenon of cavitation is modelled by implementing a homogenous equilibrium cavitation model, which maintains specified lubricant saturation pressure in cavitating region. The current fluid solver involves the solution of the full momentum and energy equations, and satisfying continuity. The aim is firstly to demonstrate the range of applicability and the limitations of traditional formulations of the Reynolds equation and secondly to highlight areas where Navier-Stokes based approaches are necessary for accurate solution of lubrication problems. Subsequently, a finite volume solid solver is fully coupled with the fluid solver in a forward iterative manner to take into account elastic deflection effects using Navier-Lamé equation. The advantage of using a single numerical tool enables an internal transfer of information at the fluid-solid interface through one common data structure. The stability of the model, in the presence of high contact pressures, is enhanced by incorporation of multigrid method, implicit coupling and improved mesh adaption and motion techniques. The developed model has been applied to a series of lubricated metal on metal smooth line contact with slide to roll ratios ranging from 0 to 2 and is stable for a wide range of industrial operating conditions (pressures up to 4 GPa). The model is further improved to account for time-dependent transient behaviour of an EHL rough contact. The results for a travelling ridge, dent and sinusoidal wave through EHL conjunction are presented.
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Franci, Alessandro. "Unified Lagrangian formulation for fluid and solid mechanics, fluid-structure interaction and coupled thermal problems using the PFEM." Doctoral thesis, Universitat Politècnica de Catalunya, 2015. http://hdl.handle.net/10803/291562.

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The objective of this thesis is the derivation and implementation of a unified Finite Element formulation for the solution of uid and solid mechanics, Fluid-Structure Interaction (FSI) and coupled thermal problems. The unified procedure is based on a stabilized velocity-pressure Lagrangian formulation. Each time step increment is solved using a two-step Gauss-Seidel scheme: first the linear momentum equations are solved for the velocity increments, next the continuity equation is solved for the pressure in the updated configuration. The Particle Finite Element Method (PFEM) is used for the fluid domains, while the Finite Element Method (FEM) is employed for the solid ones. As a consequence, the domain is remeshed only in the parts occupied by the fluid. Linear shape functions are used for both the velocity and the pressure fields. In order to deal with the incompressibility of the materials, the formulation has been stabilized using an updated version of the Finite Calculus (FIC) method. The procedure has been derived for quasi-incompressible Newtonian fluids. In this work, the FIC stabilization procedure has been extended also to the analysis of quasi-incompressible hypoelastic solids. Specific attention has been given to the study of free surface flow problems. In particular, the mass preservation feature of the PFEM-FIC stabilized procedure has been deeply studied with the help of several numerical examples. Furthermore, the conditioning of the problem has been analyzed in detail describing the effect of the bulk modulus on the numerical scheme. A strategy based on the use of a pseudo bulk modulus for improving the conditioning of the linear system is also presented. The unified formulation has been validated by comparing its numerical results to experimental tests and other numerical solutions for fluid and solid mechanics, and FSI problems. The convergence of the scheme has been also analyzed for most of the problems presented. The unified formulation has been coupled with the heat tranfer problem using a staggered scheme. A simple algorithm for simulating phase change problems is also described. The numerical solution of several FSI problems involving the temperature is given. The thermal coupled scheme has been used successfully for the solution of an industrial problem. The objective of study was to analyze the damage of a nuclear power plant pressure vessel induced by a high viscous fluid at high temperature, the corium. The numerical study of this industrial problem has been included in the thesis.
El objectivo de la presente tesis es la derivación e implementación de una formulación unificada con elementos finitos para la solución de problemas de mecánica de fluidos y de sólidos, interacción fluido-estructura (Fluid-Structure Interaction (FSI)) y con acoplamiento térmico. El método unificado està basado en una formulación Lagrangiana estabilizada y las variables incognitas son las velocidades y la presión. Cada paso de tiempo se soluciona a través de un esquema de dos pasos de tipo Gauss-Seidel. Primero se resuelven las ecuaciones de momento lineal por los incrementos de velocidad, luego se calculan las presiones en la configuración actualizada usando la ecuación de continuidad. Para los dominios fluidos se utiliza el método de elementos finitos de partículas (Particle Finite Element Method (PFEM)) mientras que los sólidos se solucionan con el método de elementos finitos (Finite Element Method (FEM)). Por lo tanto, se ramalla sólo las partes del dominio ocupadas por el fluido. Los campos de velocidad y presión se interpolan con funciones de forma lineales. Para poder analizar materiales incompresibles, la formulación ha sido estabilizada con una nueva versión del método Finite Calculus (FIC). La técnica de estabilización ha sido derivada para fluidos Newtonianos casi-incompresibles. En este trabajo, la estabilización con FIC se usa también para el análisis de sólidos hipoelásticos casi-incompresibles. En la tesis se dedica particular atención al estudio de flujo con superficie libre. En particular, se analiza en profundidad el tema de las pérdidas de masa y se muestra con varios ejemplos numéricos la capacidad del método de garantizar la conservación de masa en problemas de flujos en supeficie libre. Además se estudia con detalle el condicionamiento del esquema numérico analizando particularmente el efecto del módulo de compresibilidad. Se presenta también una estrategia basada en el uso de un pseudo módulo de compresibilidad para mejorar el condicionamiento del problema. La formulación unificada ha sido validada comparando sus resultados numéricos con pruebas de laboratorio y resultados numéricos de otras formulaciones. En la mayoría de los ejemplos también se ha estudiado la convergencia del método. En la tesis también se describe una estrategia segregada para el acoplamiento de la formulación unificada con el problema de transmisión de calor. Además se presenta una simple estrategia para simular el cambio de fase. El esquema acoplado ha sido utilizado para resolver varios problemas de FSI donde se incluye la temperatura y su efecto. El esquema acoplado con el problema térmico ha sido utilizado con éxito para resolver un problema industrial. El objetivo del estudio era la simulación del daño y la fusión de la vasija de un reactor nuclear provocados por el contacto con un fluido altamente viscoso y a gran temperatura. En la tesis se describe con detalle el estudio numérico realizado para esta aplicación industrial
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Books on the topic "Solid-fluid interaction"

1

Kovačević, Ahmed. Screw compressors: Three dimensional computational fluid dynamics and solid fluid interaction. Berlin: Springer, 2007.

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Wang, Xiaodong Sheldon. Fundamentals of fluid-solid interactions: Analytical and computational approaches. Amsterdam: Elsevier, 2008.

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Franci, Alessandro. Unified Lagrangian Formulation for Fluid and Solid Mechanics, Fluid-Structure Interaction and Coupled Thermal Problems Using the PFEM. Cham: Springer International Publishing, 2017. http://dx.doi.org/10.1007/978-3-319-45662-1.

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Chargin, Mladen. A finite element procedure for calculating fluid-structure interaction using MSC/NASTRAN. Moffett Field, Calif: NASA Ames Research Center, 1990.

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Crawley, Edward F. The Middeck O-gravity Dynamics Experiment: Summary report. Hampton, Va: Langley Research Center, 1993.

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Aharonov, Einat. Solid-fluid interactions in porous media: Processes that form rocks. [Woods Hole, Mass: Massachusetts Institute of Technology, Woods Hole Oceanographic Institution, Joint Program in Oceanography/Applied Ocean Science and Engineering, 1996.

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Aharonov, Einat. Solid-fluid interactions in porous media: Processes that form rocks. [Woods Hole, Mass: Massachusetts Institute of Technology, Woods Hole Oceanographic Institution, Joint Program in Oceanography/Applied Ocean Science and Engineering, 1996.

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Layton, Anita T., and Sarah D. Olson. Biological fluid dynamics: Modeling, computations, and applications : AMS Special Session, Biological Fluid Dynamics : Modeling, Computations, and Applications : October 13, 2012, Tulane University, New Orleans, Louisiana. Providence, Rhode Island: American Mathematical Society, 2014.

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Fluid-Solid Interaction Dynamics. Elsevier, 2019. http://dx.doi.org/10.1016/c2018-0-05102-6.

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undifferentiated, Ian Smith, Ahmed Kovacevic, and Nikola Stosic. Screw Compressors: Three Dimensional Computational Fluid Dynamics and Solid Fluid Interaction. Springer, 2006.

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Book chapters on the topic "Solid-fluid interaction"

1

Gao, S., and T. G. Liu. "Modified Ghost Fluid Method for the Fluid Elastic-Perfectly Plastic Solid Interaction." In 30th International Symposium on Shock Waves 2, 1245–49. Cham: Springer International Publishing, 2017. http://dx.doi.org/10.1007/978-3-319-44866-4_79.

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Dušek, Jan, Wei Zhou, and Marcin Chrust. "Solid-Fluid Interaction in Path Instabilities of Sedimenting Flat Objects." In Fluid-Structure-Sound Interactions and Control, 57–62. Singapore: Springer Singapore, 2021. http://dx.doi.org/10.1007/978-981-33-4960-5_9.

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Dimaki, Andrey V., and Evgeny V. Shilko. "Theoretical Study of Physico-mechanical Response of Permeable Fluid-Saturated Materials Under Complex Loading Based on the Hybrid Cellular Automaton Method." In Springer Tracts in Mechanical Engineering, 485–501. Cham: Springer International Publishing, 2020. http://dx.doi.org/10.1007/978-3-030-60124-9_21.

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AbstractWe give a brief description of the results obtained by Prof. Sergey G. Psakhie and his colleagues in the field of theoretical studies of mechanical response, including fracture, of permeable fluid-saturated materials. Such materials represent complex systems of interacting solid and liquid phases. Mechanical response of such a medium is determined by processes taking place in each phase as well as their interaction. This raised a need of developing a new theoretical approach of simulation of such media—the method of hybrid cellular automaton that allowed describing stress-strain fields in solid skeleton, transfer of a fluid in crack-pore volume and influence of fluid pressure on the stress state of the solid phase. The new method allowed theoretical estimation of strength of liquid-filled permeable geomaterials under complex loading conditions. Governing parameters controlling strength of samples under uniaxial loading and shear in confined conditions were identified.
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Martin, Katharina, Dennis Daub, Burkard Esser, Ali Gülhan, and Stefanie Reese. "Numerical Modelling of Fluid-Structure Interaction for Thermal Buckling in Hypersonic Flow." In Notes on Numerical Fluid Mechanics and Multidisciplinary Design, 341–55. Cham: Springer International Publishing, 2020. http://dx.doi.org/10.1007/978-3-030-53847-7_22.

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Abstract Experiments have shown that a high-enthalpy flow field might lead under certain mechanical constraints to buckling effects and plastic deformation. The panel buckling into the flow changes the flow field causing locally increased heating which in turn affects the panel deformation. The temperature increase due to aerothermal heating in the hypersonic flow causes the metallic panel to buckle into the flow. To investigate these phenomena numerically, a thermomechanical simulation of a fluid-structure interaction (FSI) model for thermal buckling is presented. The FSI simulation is set up in a staggered scheme and split into a thermal solid, a mechanical solid and a fluid computation. The structural solver Abaqus and the fluid solver TAU from the German Aerospace Center (DLR) are coupled within the FSI code ifls developed at the Institute of Aircraft Design and Lightweight Structures (IFL) at TU Braunschweig. The FSI setup focuses on the choice of an equilibrium iteration method, the time integration and the data transfer between grids. To model the complex material behaviour of the structure, a viscoplastic material model with linear isotropic hardening and thermal expansion including material parameters, which are nonlinearly dependent on temperature, is used.
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Cao, Zhenglin, Jun Li, Konghui Guo, and Qun Zhang. "Simulation Research on Strong Fluid–Solid Interaction of Hydraulic Engine Mount." In Lecture Notes in Electrical Engineering, 1235–47. Berlin, Heidelberg: Springer Berlin Heidelberg, 2012. http://dx.doi.org/10.1007/978-3-642-33738-3_26.

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Jiao, Shaoni, Yaqing Zheng, and Gui Lin. "The Fluid-Solid Interaction Analysis of WDPSS-8 Based on ANSYS." In Informatics in Control, Automation and Robotics, 795–802. Berlin, Heidelberg: Springer Berlin Heidelberg, 2011. http://dx.doi.org/10.1007/978-3-642-25992-0_106.

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van Brummelen, E. H., and R. de Borst. "Conservation under Incompatibility for Fluid-Solid-Interaction Problems: the NPCL Method." In IUTAM Symposium on Discretization Methods for Evolving Discontinuities, 413–32. Dordrecht: Springer Netherlands, 2007. http://dx.doi.org/10.1007/978-1-4020-6530-9_24.

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Götze, Karoline. "Maximal L p -regularity for a 2D Fluid-Solid Interaction Problem." In Spectral Theory, Mathematical System Theory, Evolution Equations, Differential and Difference Equations, 373–84. Basel: Springer Basel, 2012. http://dx.doi.org/10.1007/978-3-0348-0297-0_19.

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De Bari, Benjamin, and James A. Dixon. "Circular Causality and Function in Self-Organized Systems with Solid-Fluid Interactions." In Recent Advances in Mechanics and Fluid-Structure Interaction with Applications, 249–64. Cham: Springer International Publishing, 2022. http://dx.doi.org/10.1007/978-3-031-14324-3_11.

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Mojra, Afsaneh, M. Tafazzoli-Shadpour, and E. Y. Tafti. "Computational Analysis of Asymmetric Arterial Stenosis with Applications of Fluid-Solid Interaction." In 3rd Kuala Lumpur International Conference on Biomedical Engineering 2006, 567–71. Berlin, Heidelberg: Springer Berlin Heidelberg, 2007. http://dx.doi.org/10.1007/978-3-540-68017-8_142.

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Conference papers on the topic "Solid-fluid interaction"

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Kojima, Tomohisa, Kazuaki Inaba, and Kosuke Takahashi. "Wave Propagation Across Solid-Fluid Interface With Fluid-Structure Interaction." In ASME 2015 Pressure Vessels and Piping Conference. American Society of Mechanical Engineers, 2015. http://dx.doi.org/10.1115/pvp2015-45752.

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This paper reports on investigations conducted with a view towards developing a theoretical model for wave propagation across solid-fluid interfaces with fluid-structure interaction. Although many studies have been conducted, the mechanism of wave propagation close to the solid-fluid interface remains unclear. Consequently, our aim is to clarify the mechanism of wave propagation across the solid-fluid interface with fluid-structure interaction and develop a theoretical model to explain this phenomenon. In experiments conducted to develop the theory, a free-falling steel projectile is used to impact the top of a solid buffer placed immediately above the surface of water within a polycarbonate tube. The stress waves created as a result of the impact of the projectile propagated through the buffer and reached the interface of the buffer and water (fluid) in the tube. Two different buffers (polycarbonate and aluminum) were used to examine the interaction effects. The results of the experiments indicated that the amplitude of the interface pressure increased in accordance with the characteristic impedance of the solid medium. This cannot be explained by the classical theory of wave reflection and transmission. Thus, it is clear that on the solid-fluid interface with fluid-structure interaction, classical theories alone cannot precisely predict the generated pressure.
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Feng, Xiaobing, Juan Zhang, Dengming Zhu, Min Shi, and Zhaoqi Wang. "Depth Camera Based Fluid Reconstruction and its Solid-fluid Interaction." In CASA '19: Computer Animation and Social Agents. New York, NY, USA: ACM, 2019. http://dx.doi.org/10.1145/3328756.3328761.

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Cerqueira, S., F. Feyel, and G. Avalon. "A first step to Fluid-Structure interaction inside Solid Propellant Rocket Motors." In FLUID STRUCTURE INTERACTION 2009. Southampton, UK: WIT Press, 2009. http://dx.doi.org/10.2495/fsi090141.

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ROACH, R., K. GRAMOLL, M. WEAVER, and G. FLANDRO. "Fluid-structure interaction of solid rocket motor inhibitors." In 28th Joint Propulsion Conference and Exhibit. Reston, Virigina: American Institute of Aeronautics and Astronautics, 1992. http://dx.doi.org/10.2514/6.1992-3677.

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Yu, P., K. S. Yeo, X. Y. Wang, and S. J. Ang. "A singular value decomposition based generalized finite difference method for fluid solid interaction problems." In FLUID STRUCTURE INTERACTION 2009. Southampton, UK: WIT Press, 2009. http://dx.doi.org/10.2495/fsi090031.

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Kim, Kyung Sung. "A new particle interaction method for fluid-solid particles." In 2020 International Conference on Electronics, Information, and Communication (ICEIC). IEEE, 2020. http://dx.doi.org/10.1109/iceic49074.2020.9051110.

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Wee, M. F. Mohd Razip, Kim S. Siow, Ahmad Rifqi Md Zain, Mahmoud Addouche, and Abdelkrim Khelif. "Solid-fluid interaction in a pillar-based phononic crystal." In 2016 IEEE International Conference on Semiconductor Electronics (ICSE). IEEE, 2016. http://dx.doi.org/10.1109/smelec.2016.7573587.

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Temis, Joury M., Alexey V. Selivanov, and Ivan J. Dzeva. "Finger Seal Design Based on Fluid-Solid Interaction Model." In ASME Turbo Expo 2013: Turbine Technical Conference and Exposition. American Society of Mechanical Engineers, 2013. http://dx.doi.org/10.1115/gt2013-95701.

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Multidisciplinary mathematical simulation technique is developed for static and dynamic analyses of a high-efficient finger seal. It comprises gas flow simulation and stress-deformed analysis of compliant fingers based on simplified models and seal performance evaluation by two-way fluid-solid interaction coupling. Computation time for developed fast models is significantly less than for time-consuming traditional numerical 3D approaches meanwhile the accuracy of the simplified models is sufficient for preliminary investigation of finger seal design features. The developed models allow to introduce the simple iterative algorithm to solve the inverse problem of mathematical simulation and to design the finger seal, satisfying the specified requirements for the radial displacements of the fingers. Initial dynamic analysis is performed on the basis of equivalent one-mass model allowing to estimate finger response to the rotor deflections.
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Malavasi, S., E. Zappa, and A. Cigada. "Fluid structure around a tilted rectangular cylinder near a solid wall and induced loading." In FLUID STRUCTURE INTERACTION/MOVING BOUNDARIES 2007. Southampton, UK: WIT Press, 2007. http://dx.doi.org/10.2495/fsi070191.

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Yu, Yue, Mengmeng Hu, Fengxia Li, and Yiming Zhao. "Physics-Based Fluid-Solid Interaction of Ocean Simulation Using SPH." In 2016 International Conference on Virtual Reality and Visualization (ICVRV). IEEE, 2016. http://dx.doi.org/10.1109/icvrv.2016.60.

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Reports on the topic "Solid-fluid interaction"

1

Johnson, G., K. R. Rajagopal, and M. Massoudi. A review of interaction mechanisms in fluid-solid flows. Office of Scientific and Technical Information (OSTI), September 1990. http://dx.doi.org/10.2172/6443951.

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Schunk, Peter Randall, David R. Noble, Thomas A. Baer, Rekha Ranjana Rao, Patrick K. Notz, and Edward Dean Wilkes. Large deformation solid-fluid interaction via a level set approach. Office of Scientific and Technical Information (OSTI), December 2003. http://dx.doi.org/10.2172/918218.

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Kingston, A. W., O. H. Ardakani, G. Scheffer, M. Nightingale, C. Hubert, and B. Meyer. The subsurface sulfur system following hydraulic stimulation of unconventional hydrocarbon reservoirs: assessing anthropogenic influences on microbial sulfate reduction in the deep subsurface, Alberta. Natural Resources Canada/CMSS/Information Management, 2022. http://dx.doi.org/10.4095/330712.

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Hydraulic fracturing is a reservoir stimulation technique that involves the injection of high-pressure fluids to enhance recovery from unconventional hydrocarbon reservoirs. Often this involves the injection of surface waters (along with additives such as biocides) into formational fluids significantly different isotopic and geochemical compositions facilitating geochemical fingerprinting of these fluid sources. In some instances, the produced fluids experience an increase in hydrogen sulfide (H2S) concentration over the course of production resulting in an increased risk to health and safety, the environment, and infrastructure due to the toxic and corrosive nature of H2S. However, questions remain as to the origin and processes leading to H2S formation following hydraulic fracturing. In this study, we analyzed a series of produced waters following hydraulic fracturing of a horizontal well completed in the Montney Formation, Western Canada to evaluate variations in geochemical and microbiological composition over time and characterize potential sulfur species involved in the production of H2S. Initially, sulfur isotope ratios (d34S, VCDT) of dissolved sulfate in produced water had a baseline value of 27per mil similar to the d34S value of 25per mil for solid anhydrite derived from core material. Subsequently, d34S values of sulfate in produced fluids sequentially increased to 35per mil coincident with the appearance of sulfides in produced waters with a d34SH2S value of 18per mil. Oxygen isotope values of dissolved sulfate exhibited a synchronous increase from 13.2per mil to 15.8per mil VSMOW suggesting sulfate reduction commenced in the subsurface following hydraulic fracturing. Formation temperatures are <100°C precluding thermochemical sulfate reduction as a potential mechanism for H2S production. We suggest that microbial reduction of anhydrite-derived sulfate within the formation is likely responsible for the increase in H2S within produced waters despite the use of biocides within the hydraulic fracturing fluids. Initial assessments of microbial communities indicate a shift in community diversity over time and interactions between in situ communities and those introduced during the hydraulic fracturing process. This study indicates that biocides may not be fully effective in inhibiting microbial sulfate reduction and highlights the role anthropogenic influences such as hydraulic fracturing can have on the generation of H2S in the subsurface.
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