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Hydraulic‐Mechanical Coupling‐Driven In Situ Stress Field Evolution in Injection‐Production Well Patterns With Artificial Fractures

Geofluids, Volume 2026, Issue 1, 2026.
Based on the theory of porous media elasticity and the mechanisms of hydraulic‐mechanical coupling, a fully coupled mathematical model for porous media deformation and fluid flow was established, incorporating a square inverted nine‐spot well pattern with artificial fractures. The finite element method was employed for numerical solution, and the model′
Changkun Cheng +8 more
wiley +1 more source

ANALYSIS AND DIAGNOSTIC OF PROPPANT FLOWBACK IN THE ORITO FIELD, COLOMBIA</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>CT&F Ciencia, Tecnología & Futuro</i>, 2000 </span><br><span class="r_content">Hydraulic fracturing is a conventional practice for production enhancement in low production and damaged wells. Proppant flowback has been a concern in hydraulic fracturing since proppant began to be used as fracture supporting material.</span><br><span class="r_sub"><i>A VARELA, N SAAVEDRA</i></span><br><small><a href="https://doaj.org/article/682aa5d7d4df4c1da9bce8bca41c4613" target="_blank" rel="nofollow" title="doaj.org/article/682aa5d7d4df4c1da9bce8bca41c4613">doaj</a> </small> <br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.1155/ijce/5409400" target="_blank" rel="nofollow">Prediction of Minimum Horizontal Stress Using Machine Learning for Unconventional Reservoir Applications</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>International Journal of Chemical Engineering, Volume 2026, Issue 1, 2026.</i></span><br><span class="r_content">This study presents a leakage‐aware machine learning framework for predicting minimum horizontal stress (σhmin) using structured geomechanical and fracture‐related parameters. A dataset comprising 21,499 records from approximately 200 horizontal wells in the Marcellus Shale was preprocessed using a strictly leakage‐controlled pipeline, including ...</span><br><span class="r_sub"><i>Ebenezer Leke Odekanle<span id="ma_3" style="display:none">, AbdulQoyum Adegoke Olowookere, Omolara Busayo Ajediti, Bambo Ayo Adeyanju, Sunday Adeola Ajagbe, Matthew O. Adigun, Arnab Biswas</span> <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_3')">+6 more</a></small></i></span><br><small><a href="https://onlinelibrary.wiley.com/doi/10.1155/ijce/5409400?mi=2or9o2m&af=R&AllField=proppant&ConceptID=15941&content=articlesChapters&target=default" target="_blank" rel="nofollow" title="wiley.com/doi/10.1155/ijce/5409400?mi=2or9o2m&af=R&AllField=proppant&ConceptID=15941&content=articlesChapters&target=default">wiley</a> </small> <div id="more_3" style="display:none"><a href="/sci_redir.php?doi=10.1155%2Fijce%2F5409400" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.1155/ijce/5409400'); alert('Copied the doi');">copy doi</a> <small>(10.1155/ijce/5409400)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_3')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.3390/en13215665" target="_blank" rel="nofollow">Numerical Investigation on Proppant–Water Mixture Transport in Slot under High Reynolds Number Conditions</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Energies</i>, 2020 </span><br><span class="r_content">Water hydraulic fracturing involves pumping low viscosity fluid and proppant mixture into the artificial fracture under a high pumping rate. In that high Reynolds number conditions (HRNCs, Re > 2000), the turbulence effect is one of the key factors ...</span><br><span class="r_sub"><i>Tao Zhang<span id="ma_4" style="display:none">, Ruoyu Yang, Jianchun Guo, Jie Zeng</span> <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_4')">+3 more</a></small></i></span><br><small><a href="https://doaj.org/article/632e55ec0ded4e0abbf25adbf5dd2cd4" target="_blank" rel="nofollow" title="doaj.org/article/632e55ec0ded4e0abbf25adbf5dd2cd4">doaj</a> </small> <div id="more_4" style="display:none"><a href="/sci_redir.php?doi=10.3390%2Fen13215665" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.3390/en13215665'); alert('Copied the doi');">copy doi</a> <small>(10.3390/en13215665)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_4')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.1155/jge5/6694015" target="_blank" rel="nofollow">From Empirical Models to Physics‐Informed Neural Networks: The Evolution of Oil Production Forecasting</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Journal of GeoEnergy, Volume 2026, Issue 1, 2026.</i></span><br><span class="r_content">Production forecasting for oil and gas wells is a decisive element of field‐development planning because it directly guides recovery strategy design, production optimisation and risk management. Conventional methods, including empirical decline‐curve analysis (DCA) and full‐physics numerical simulation, are limited either by their inability to capture ...</span><br><span class="r_sub"><i>Shitan Yin<span id="ma_5" style="display:none">, Erlong Yang, Xianjun Wang, Chi Dong, Mehdi Ostadhassan</span> <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_5')">+4 more</a></small></i></span><br><small><a href="https://onlinelibrary.wiley.com/doi/10.1155/jge5/6694015?mi=2or9o2m&af=R&AllField=proppant&ConceptID=15941&content=articlesChapters&target=default" target="_blank" rel="nofollow" title="wiley.com/doi/10.1155/jge5/6694015?mi=2or9o2m&af=R&AllField=proppant&ConceptID=15941&content=articlesChapters&target=default">wiley</a> </small> <div id="more_5" style="display:none"><a href="/sci_redir.php?doi=10.1155%2Fjge5%2F6694015" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.1155/jge5/6694015'); alert('Copied the doi');">copy doi</a> <small>(10.1155/jge5/6694015)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_5')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.2113/2026/lithosphere_2025_140" target="_blank" rel="nofollow">Study on Proppant Transport among the Perforations within a Cluster and Accumulation in Inclined Wellbores Considering Turbulence Effect</a> <b><a href="https://pubs.geoscienceworld.org/gsa/lithosphere/article-pdf/doi/10.2113/2026/lithosphere_2025_140/723993/lithosphere_2025_140.pdf" target="_blank" rel="nofollow">[PDF]</a></b> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Lithosphere</i></span><br><span class="r_content">During hydraulic fracturing, the uniform distribution of proppant among perforations is crucial for enhancing reservoir permeability. However, problems such as uneven proppant distribution between perforations and accumulation-induced blockage often ...</span><br><span class="r_sub"><i>Fujia Zhang<span id="ma_6" style="display:none">, Heng Li, Shan Zhang, Haijun Ye</span> <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_6')">+3 more</a></small></i></span><br><small><a href="https://doaj.org/article/668c5a7e6a2e4930b736e5f0af04ac6f" target="_blank" rel="nofollow" title="doaj.org/article/668c5a7e6a2e4930b736e5f0af04ac6f">doaj</a> </small> <div id="more_6" style="display:none"><a href="/sci_redir.php?doi=10.2113%2F2026%2Flithosphere_2025_140" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.2113/2026/lithosphere_2025_140'); alert('Copied the doi');">copy doi</a> <small>(10.2113/2026/lithosphere_2025_140)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_6')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.1029/2025GL119699" target="_blank" rel="nofollow">An Approach to Sustainable Hydrogen Generation From Stimulated Iron‐Rich Ultramafic Rock</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Geophysical Research Letters, Volume 52, Issue 24, 28 December 2025.</i></span><br><span class="r_content">Abstract Iron‐rich rocks undergoing oxidation in the presence of water are promising sources of geologic hydrogen (H2). Yet, such reactions are often considered self‐limiting due to passivation and reduced permeability if volume expansion occurs. This study investigates hydrogen generation during a flow‐through experiment on fractured iron‐rich cores ...</span><br><span class="r_sub"><i>Henry Galvis Silva<span id="ma_7" style="display:none">, Abubakar Isah, Ainash Shabdirova, Fabian Carrascal, Esuru Rita Okoroafor</span> <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_7')">+4 more</a></small></i></span><br><small><a href="https://onlinelibrary.wiley.com/doi/10.1029/2025GL119699?mi=2or9o2m&af=R&AllField=proppant&ConceptID=15941&content=articlesChapters&target=default" target="_blank" rel="nofollow" title="wiley.com/doi/10.1029/2025GL119699?mi=2or9o2m&af=R&AllField=proppant&ConceptID=15941&content=articlesChapters&target=default">wiley</a> </small> <div id="more_7" style="display:none"><a href="/sci_redir.php?doi=10.1029%2F2025GL119699" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.1029/2025GL119699'); alert('Copied the doi');">copy doi</a> <small>(10.1029/2025GL119699)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_7')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.1016/j.jrmge.2023.11.008" target="_blank" rel="nofollow">Evaluating the stability and volumetric flowback rate of proppant packs in hydraulic fractures using the lattice Boltzmann-discrete element coupling method</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Journal of Rock Mechanics and Geotechnical Engineering</i></span><br><span class="r_content">The stability and mobility of proppant packs in hydraulic fractures during hydrocarbon production are numerically investigated by the lattice Boltzmann-discrete element coupling method (LB-DEM). This study starts with a preliminary proppant settling test,</span><br><span class="r_sub"><i>Duo Wang<span id="ma_8" style="display:none">, Sanbai Li, Rui Wang, Binhui Li, Zhejun Pan</span> <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_8')">+4 more</a></small></i></span><br><small><a href="https://doaj.org/article/946ba65ecc2f4ab3b8f8e864af0f1121" target="_blank" rel="nofollow" title="doaj.org/article/946ba65ecc2f4ab3b8f8e864af0f1121">doaj</a> </small> <div id="more_8" style="display:none"><a href="/sci_redir.php?doi=10.1016%2Fj.jrmge.2023.11.008" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.1016/j.jrmge.2023.11.008'); alert('Copied the doi');">copy doi</a> <small>(10.1016/j.jrmge.2023.11.008)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_8')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="https://doi.org/10.1002/ese3.70294" target="_blank" rel="nofollow">UFM‐Based Simulation of Competitive Multi‐Fracture Propagation in Horizontal Wells</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Energy Science &Engineering, Volume 13, Issue 12, Page 6069-6083, December 2025.</i></span><br><span class="r_content">Simulation schematic of Competitive Multi‐Fracture Propagation in Horizontal Wells. ABSTRACT Multi‐stage hydraulic fracturing in horizontal wells is vital for stimulating unconventional reservoirs, yet uneven fracture propagation often restricts the effective communication volume of the reservoir.</span><br><span class="r_sub"><i>Xiaojia Xue<span id="ma_9" style="display:none">, Minghui Li, Yanjun Zhang, Shumin Shan, Jinqi Chu, Guopeng Huang, Guangbo Lu, Fujian Zhou</span> <small><a href="#" style="color:#808080;" onClick="return toggle_div(this, 'ma_9')">+7 more</a></small></i></span><br><small><a href="https://onlinelibrary.wiley.com/doi/10.1002/ese3.70294?mi=2or9o2m&af=R&AllField=proppant&ConceptID=15941&content=articlesChapters&target=default" target="_blank" rel="nofollow" title="wiley.com/doi/10.1002/ese3.70294?mi=2or9o2m&af=R&AllField=proppant&ConceptID=15941&content=articlesChapters&target=default">wiley</a> </small> <div id="more_9" style="display:none"><a href="/sci_redir.php?doi=10.1002%2Fese3.70294" target="_blank" rel="nofollow">openaccessbutton.org (pdf)</a><br><a href="javascript:navigator.clipboard.writeText('10.1002/ese3.70294'); alert('Copied the doi');">copy doi</a> <small>(10.1002/ese3.70294)</small><br></div><small><a href="#" onClick="return toggle_div(this, 'more_9')">+1 more source</a></small><br></div><div class="r"><p class="r_title"><a href="http://www.syjxzz.com.cn/thesisDetails#10.16082/j.cnki.issn.1001-4578.2018.08.015" target="_blank" rel="nofollow">Experimental Study on Settlement and Migration Law of Proppant in Annulus near Packer</a> </p><span class="r_subtitle"><img src="/img/openaccess.ico" alt="open access: yes" title="open access: yes" width="16" height="16"><i>Shiyou jixie</i>, 2018 </span><br><span class="r_content">To address the packer releasing failure problem during horizontal well fracturing using packer deployed by coiled tubing, a dual perforation tunnel horizontal well jetting fracturing simulation device was designed, and was used to conduct experimental ...</span><br><span class="r_sub"><i>Tian Shouceng, Sheng Mao, Liu Xixiong</i></span><br><small><a href="https://doaj.org/article/a6f76ed03e3548edb1e7a38f72d95176" target="_blank" rel="nofollow" title="doaj.org/article/a6f76ed03e3548edb1e7a38f72d95176">doaj</a> </small> <br></div><div class="r"><div style="margin-bottom:2px;overflow:hidden"><div style="display: inline-block; float: left; font-size: small; padding-right: 16px; margin-top: -1px; padding-bottom: 1px;"><a href="/q-6._clean_water/" class="suggestion"onclick="show_loader();"><b>6. clean water</b></a><br/><a href="/q-hydraulic_fracturing/" class="suggestion"onclick="show_loader();"><b>hydraulic fracturing</b></a><br/><a href="/q-numerical_simulation/" class="suggestion"onclick="show_loader();"><b>numerical simulation</b></a><br/></div><div style="display: inline-block; float: left; font-size: small; padding-right: 16px; margin-top: -1px; padding-bottom: 1px;"><a href="/q-geology/" class="suggestion"onclick="show_loader();"><b>geology</b></a><br/><a href="/q-proppant_transport/" class="suggestion"onclick="show_loader();"><b>proppant transport</b></a><br/><a href="/q-proppant_flowback/" class="suggestion"onclick="show_loader();"><b>proppant flowback</b></a><br/></div><div style="display: inline-block; float: left; font-size: small; padding-right: 16px; margin-top: -1px; padding-bottom: 1px;"><a href="/q-horizontal_well/" class="suggestion"onclick="show_loader();"><b>horizontal well</b></a><br/><a href="/q-7._clean_energy/" class="suggestion"onclick="show_loader();"><b>7. clean energy</b></a><br/></div></div></div><div class="pagenav"><a href="/q-proppant/p-5/" rel="nofollow"><b>previous</b></a> <a href="/q-proppant/p-4/" rel="nofollow">4</a> <a href="/q-proppant/p-5/" rel="nofollow">5</a> <b>6</b> <a href="/q-proppant/p-7/" rel="nofollow">7</a> <a href="/q-proppant/p-8/" rel="nofollow">8</a> <a href="/q-proppant/p-7/" id="next" rel="nofollow"><b>next</b></a> </div><br></div> </div> <script>document.getElementById('loadingGif').style.display='none';</script><div style="width: 100%; height: 40px; bottom: 0px; background-color: #f5f5f5;"><div style="padding-left: 15px; padding-top: 10px"> <a href="/" rel="nofollow">Home</a> - <a href="/page-about/" rel="nofollow">About</a> - <a href="/page-disclaimer/" rel="nofollow">Disclaimer</a> - <a href="/page-privacy/" rel="nofollow">Privacy</a> </div></div> <link rel="stylesheet" href="//ajax.googleapis.com/ajax/libs/jqueryui/1.11.4/themes/smoothness/jquery-ui.min.css"/> <script> (function(ss,ex){ window.ldfdr=window.ldfdr||function(){(ldfdr._q=ldfdr._q||[]).push([].slice.call(arguments));}; (function(d,s){ fs=d.getElementsByTagName(s)[0]; function ce(src){ var cs=d.createElement(s); cs.src=src; cs.async=1; fs.parentNode.insertBefore(cs,fs); }; ce('https://sc.lfeeder.com/lftracker_v1_'+ss+(ex?'_'+ex:'')+'.js'); })(document,'script'); })('JMvZ8gvrWA9a2pOd'); </script> </body> </html>