X. Pang

发表

Influence of curing temperature on the hydration and strength development of Class G Portland cement

Lijun Sun, X. Pang, Min Chen, 2022, Cement and Concrete Research.

Measuring and modeling cement hydration kinetics at variable temperature conditions

J. P. Singh, W. Jimenez, X. Pang, 2020 .

An innovative test apparatus for oil well cement: In-situ measurement of chemical shrinkage and tensile strength

C. Meyer, X. Pang, G. Funkhouser, 2015 .

Mechanism of gas migration through microstructure of cemented annulus in deep-water environment

Zhiyuan Wang, Baojiang Sun, Yonghai Gao, 2020 .

The Role and Impact of Geofluids in Geohazards

Kuo-Hsin Yang, R. Uzuoka, C. Hung, 2019, Geofluids.

Influences of different admixtures on the properties of oil well cement systems at HPHT conditions

Yuhuan Bu, Huajie Liu, X. Pang, 2021 .

Long-term strength retrogression of silica-enriched oil well cement: A comprehensive multi-approach analysis

Lijun Sun, X. Pang, Jiankun Qin, 2021 .

Effect of Tartaric Acid on the Hydration of Oil Well Cement at Elevated Temperatures between 60 Oc and 89 Oc

S. Kawashima, Yuhuan Bu, Shenglai Guo, 2022, SSRN Electronic Journal.

Isothermal Calorimetry Study of the Effect of Citric Acid on Thehydration Kinetics of Magnesium Oxysulfate Cement

Huanyu Liu, Yanguang Yuan, Xiujiang Pang, 2023, SSRN Electronic Journal.

Use of Microencapsulated Phase-Change Materials To Regulate the Temperature of Oilwell Cement

V. Goel, W. Jimenez, X. Pang, 2016 .

Cement hydration kinetics study in the temperature range from 15 °C to 95 °C

Lijun Sun, Yuhuan Bu, Shenglai Guo, 2021 .

Various admixtures to mitigate the long-term strength retrogression of Portland cement cured under high pressure and high temperature conditions

A. Santra, X. Pang, G. Cheng, 2022, Journal of Rock Mechanics and Geotechnical Engineering.

A comparison study of Portland cement hydration kinetics as measured by chemical shrinkage and isothermal calorimetry

Christian Meyer, Robert Darbe, Dale P. Bentz, 2013 .

Silica sand enhanced cement mortar for cementing steam injection well up to 380 °C

Annan Zhou, Jiapei Du, Yuhuan Bu, 2021, Construction and Building Materials.

Modeling cement hydration by connecting a nucleation and growth mechanism with a diffusion mechanism. Part II: Portland cement paste hydration

C. Meyer, X. Pang, 2016 .

Characterizing gas bubble size distribution of laboratory foamed cement using X-ray micro-CT

J. P. Singh, W. Jimenez, X. Pang, 2018 .

Layered Double Hydroxides Nanosheets for Capturing Chloride Ions in Magnesium Oxychloride Cement

Yanguang Yuan, Xiujiang Pang, X. Pang, 2022, SSRN Electronic Journal.

Nanosilica-based Conformance Gels

B. R. Reddy, P. Boul, X. Pang, 2015 .

Innovation of Annular Sealants During the Past Decades and Their Direct Relationship with On/Offshore Wellbore Economics

Henry Arias, Javier Alexander Urdaneta, Xueyu Pang, 2016 .

Nanosilicas as Accelerators in Oilwell Cementing at Low Temperatures

Xueyu Pang, Walmy Cuello Jimenez, P. Boul, 2014 .

Comparison of three different deconvolution methods for analyzing nanoindentation test data of hydrated cement paste

Zhaoyang Ma, X. Pang, Jiankun Qin, 2023, Cement and Concrete Composites.

Highly dispersed and thermally stable PCE-LDH and its application as hardening accelerator for mortar

Huanyu Liu, Yanguang Yuan, Shaoxiang Li, 2022, Construction and Building Materials.

Optimize The Lime Content To Treat Recycled Mushroom Substrates In Concrete

X. Pang, R. Suri, Chiu Liu, 2006 .

Effect of various testing parameters on the experimental evaluation of oil well cement cured under simulated downhole conditions

Ning Li, X. Pang, Jiankun Qin, 2021 .

Enhanced Mechanical-Integrity Characterization of Oilwell Annular Sealants Under In-Situ Downhole Conditions

W. Jimenez, X. Pang, Robert Darbe, 2019, SPE Journal.

Enhanced Mechanical Integrity Characterization of Oilwell Annular Sealants Under In-Situ Downhole Conditions: A Path to Optimized Wellbore Economics

Robert Darbe, David L. Meadows, Xueyu Pang, 2017 .

Depressurization damage of oil well cement cured for 3 days at various pressures

C. Meyer, X. Pang, G. Funkhouser, 2015 .

Modeling the Effect of Curing Pressure on the Viscosity Evolution of Oilwell Cement

X. Pang, G. Funkhouser, P. A. Otieno, 2014 .

Hydration kinetics modeling of the effect of curing temperature and pressure on the heat evolution of oil well cement

W. Jimenez, X. Pang, B. J. Iverson, 2013 .

Modeling the Effect of Curing Temperature and Pressure on Cement Hydration Kinetics

Christian Meyer, Robert Darbe, Gary P. Funkhouser, 2013 .

Effects of Curing Temperature and Pressure on the Chemical, Physical, and Mechanical Properties of Portland Cement

X. Pang, 2011 .

Microscale Characterization of Field and Laboratory Foamed Cement by Use of X-Ray Microcomputed Tomography

J. P. Singh, R. Morgan, W. Jimenez, 2017 .

Modeling Cement Hydration Kinetics Using the Equivalent Age Concept | NIST

C. Meyer, D. Bentz, X. Pang, 2012 .

Controlling the hydration rate of alkali-activated slag by the slow release of NaOH

Jiapei Du, Yuhuan Bu, Shenglai Guo, 2023, Geoenergy Science and Engineering.

Thermo-Mechanical Properties of Annular Sealants—A Path to Optimized Wellbore Integrity and Economics

Gunnar Lende, Javier Alexander Urdaneta, Xueyu Pang, 2017 .

Influence of Nanomaterials in Oilwell Cement Hydration and Mechanical Properties

Ashok K. Santra, Xueyu Pang, P. Boul, 2012 .

Mechanical Properties of Low-Density Cement Under Shale Oil In-Situ Conversion Conditions

X. Pang, Xiande Shi, Jian Zhang, 2023, Social Science Research Network.

Research Advances in Oil Well Cement Subjected to High Temperature and High Pressure Curing Environment

Yuhuan Bu, X. Pang, Jiankun Qin, 2020 .

Experimental study of pure Class G cement hydration up to 150 °C and 50 MPa

X. Pang, Lijun Sun, Huajie Liu, 2023, Journal of Materials Research and Technology.

Hydration kinetics and strength retrogression mechanism of silica-cement systems in the temperature range of 110 °C–200 °C

S. Ghabezloo, Jinsheng Sun, X. Pang, 2023, Cement and Concrete Research.

Storable Liquid-Bead System as Lightweight Additives for Oilwell Cementing

Richard F. Vargo, X. Pang, G. Hundt, 2018 .

Effect of main functional groups of cement slurry additives on the stability of methane hydrate: Experiment and molecular dynamics simulation

Jiapei Du, Yuhuan Bu, Rui Ma, 2023, Geoenergy Science and Engineering.

Isothermal calorimetry study of the effect of chloride accelerators on the hydration kinetics of oil well cement

P. Boul, W. Jimenez, X. Pang, 2015 .

Influencing Factors of the Microstructure and Macroscopic Performance of Foamed Cement

J. P. Singh, W. Jimenez, X. Pang, 2016 .

Multiscale Characterization of Foamed Cement Using X-Ray Microcomputed Tomography

J. P. Singh, R. Morgan, W. Jimenez, 2016 .

Hydration kinetics of oil well cement in the temperature range between 5 and 30°C

X. Pang, Lijun Sun, H. Yan, 2022, Frontiers in Materials.

Modeling cement hydration by connecting a nucleation and growth mechanism with a diffusion mechanism. Part I: C3S hydration in dilute suspensions

C. Meyer, X. Pang, 2016 .

Dynamic retarder exchange as a trigger for Portland cement hydration

P. Boontheung, P. Boul, X. Pang, 2014 .

Synthesis of alite, belite and ferrite in both monophase and polyphase states and their hydration behavior

Jianqiang Wei, X. Pang, Jing Zeng, 2023, Journal of Materials Research and Technology.