在《石油勘探與開發(fā)》《石油學(xué)報》《SPE Journal》《SPE Production and Operations》《Fuel》《Journal of Petroleum Science and Engineering》《Journal of Natural Gas Science and Engineering》等刊物發(fā)表論文75篇。
[1] Jia H*, Niu C C, Dai C L. Solid-Free Flexible Colloidal Completion Fluid with Variable Density for Gas Well Completion in HTHP Reservoirs: Experimental Study and Pilot Test[J]. SPE Journal,2021, SPE-208590-PA.
[2] Jia H*, Chen H, Zhao J Z, et al. Development of a highly elastic composite gel through novel polymer intercalation crosslinking method for wellbore temporary plugging in high-temperature reservoirs[J]. SPE Journal,2020,25(6):2853-2866.
[3] Jia H*, Yang X Y, Zhao J Z. Development of a novel in-situ generated foamed gel as temporary plugging agent used for well workover: affecting factors and working performance[J]. SPE Journal,2019,24(4):1757-1776.
[4] Jia H*,Hu Y X,Zhao S J, et al. The Feasibility for Potassium-Based Phosphate Brines To Serve as High-Density Solid-Free Well-Completion Fluids in High-Temperature/High-Pressure Formations[J]. SPE Journal,2019,24(5):2033-2046.
[5] Jia H*; Kang Z, Zhu J, et al. High density bromide-based nanocomposite gel for temporary plugging in fractured reservoirs with multi-pressure systems[J]. Journal of Petroleum Science and Engineering, 205(2021)108778.
[6] Jia H*, Niu C C, Yang X Y. High-strength nanocomposite gel for temporary plugging wellbore： from laboratory investigation to pilot test[J]. Journal of Petroleum Science and Engineering, 191(2020)107214.
[7] Jia H*, Xie D S, Kang Z. Secondary surface modified laponite-based nanocomposite hydrogel for gas shutoff in wellbore[J]. Journal of Petroleum Science and Engineering,191(2020)107116.
[8] Jia H*,Yang X Y, Li S X, et al. Nanocomposite Gel of High-Strength and Degradability for Temporary Plugging in Ultralow-Pressure Fracture Reservoirs[J].Colloids and Surfaces A: Physicochemical and Engineering Aspects,585(2020)124108.
[9] Jia H*, Niu C C, Hu Y X. The potential study of ultra-high density heteropolysate solid free brine as well completion fluid for deep reservoir development[J]. Journal of Natural Gas Science and Engineering,84(2020)103638.
[10] Jia H*, Chen H. The Potential of Using Cr3+/Salt-Tolerant Polymer Gel for Well Workover in Low-Temperature Reservoir: Laboratory Investigation and Pilot Test[J].SPE Production and Operations,2018,33(4)：569-582.
[11] Jia H*, Chen H. Using DSC technique to investigate the non-isothermal gelation kinetics of the multi-crosslinked Chromium acetate (Cr3+)-Polyethyleneimine (PEI)-Polymer gel sealant[J].Journal of Petroleum Science and Engineering,2018,165, 105-113.
[12] Jia H*, Deng L H. Non-equilibrium 3-D simulator applied to air injection EOR in light oil reservoirs[J].Journal of Petroleum Science and Engineering,2018,168,310-329.
[13] Jia H*, Chen H, Guo S S. Fluid loss control mechanism of using polymer gel pill based on multi-crosslinking during overbalanced well workover and completion[J]. Fuel,2017,210,207-216.
[14] Jia H*, Ren Q. Evidence of the Gelation Acceleration Mechanism of HPAM Gel with Ammonium Salt at Ultralow Temperature by SEM Study[J]. SPE Production and Operations,2016,31(3)： 238-246.
[15] Jia H*, Sheng J J. Numerical modeling on air injection in a light oil reservoir: Recovery mechanism and scheme optimization[J]. Fuel,2016,172, 70-80.
[16] 賈虎, 張瑞,黎棚武.電磁場?滲流場耦合作用下離子液體多孔介質(zhì)流動模型[J].力學(xué)學(xué)報, 2021, 53(8): 2214-2224.
[17] 張瑞,賈虎.基于多變量時間序列及向量自回歸機器學(xué)習(xí)模型的水驅(qū)油藏產(chǎn)量預(yù)測方法[J].石油勘探與開發(fā),2021,48(1): 175-184.
[18] 賈虎,鄧力琿.基于流線聚類人工智能方法的水驅(qū)油藏流場識別[J].石油勘探與開發(fā),2018,45(2)：312-319.
[19] 賈虎,陳昊,陳波.彈性液體膠塞修井防漏機理及應(yīng)用[J].石油學(xué)報,2018,39(3)：349-356.
[20] 賈虎,吳曉虎.考慮相態(tài)變化的凝析氣藏壓井液漏失機理與產(chǎn)能恢復(fù)[J].石油勘探與開發(fā),2017,(4)：622-629.
[21] 賈虎,趙金洲,楊懷軍,等.輕質(zhì)油藏空氣驅(qū)機理數(shù)值模擬[J].石油勘探與開發(fā),2014,41(2)：215-222.
●發(fā)明專利
[1] 水驅(qū)流場生產(chǎn)方法及裝置[P].ZL：2017110853042
[2] 低滲透油藏空氣驅(qū)數(shù)值模擬方法及裝置[P].ZL：201710401892.X
[3] 一種壓井液及其制備方法、應(yīng)用[P].ZL：201610972574.4
[4] 一種耐溫耐鹽高溫自交聯(lián)就地聚合堵水凝膠[P].ZL：201510004908.4
[5] 一種用于低溫油藏快速成膠的酚醛弱凝膠調(diào)驅(qū)劑[P].ZL：201510232844.3
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