• Complex
  • Title
  • Author
  • Keyword
  • Abstract
  • Scholars
Search
High Impact Results & Cited Count Trend for Year Keyword Cloud and Partner Relationship

Query:

学者姓名:王金华

Refining:

Source

Submit Unfold

Co-Author

Submit Unfold

Language

Submit

Clean All

Export Sort by:
Default
  • Default
  • Title
  • Year
  • WOS Cited Count
  • Impact factor
  • Ascending
  • Descending
< Page ,Total 13 >
Effect of DME addition on turbulent flame structure in lean premixed CH4/DME/air mixtures EI SCIE
期刊论文 | 2021 , 294 | Fuel
Abstract&Keyword Cite

Abstract :

An experimental study was conducted on DME addition to lean premixed CH4/air Bunsen flame in order to investigate differential diffusion and turbulence effects on flame structure. Three DME volume fractions of 0, 20% and 50% were adopted in the presence of carefully controlled laminar burning velocity at a near-constant level to highlight the differential diffusion effects. By extracting the flame front from the OH-PLIF images, the flame front curvature, turbulent burning velocity and mean flame surface density were obtained and discussed. Results show that DME addition and turbulence will eventually make the curvature distribution more symmetrical. In addition with the turbulence intensity increasing, the DME addition seems to have minor effect on curvature. The turbulent burning velocity is decreased with DME addition, which is in agreement with earlier research results for Le > 1 mixtures. In this study, we prove that the mean flame surface density at different height can qualitatively represent the local consumption speed (ST,LC). DME addition only changes the ST,LC distribution structure of the flame, while turbulence not only changes the structure, but also increases the maximum ST,LC value. It is also found that the decrease of turbulent burning velocity (ST,GC), caused by DME addition at low turbulence intensity, is mainly manifested by an increase of the flame height. Moreover at thin reaction zone, the interaction between turbulence and differential diffusion effect promotes the change of ST,LC distribution. Therefore, the effect of differential diffusion on ST,GC is enhanced by turbulence as the diffusion layer is broadened. © 2021 Elsevier Ltd

Keyword :

Diffusion Turbulence Mixtures Flame research Combustion Velocity

Cite:

Copy from the list or Export to your reference management。

GB/T 7714 Lin, Wenjun , Wang, Jinhua , Mao, Runze et al. Effect of DME addition on turbulent flame structure in lean premixed CH4/DME/air mixtures [J]. | Fuel , 2021 , 294 .
MLA Lin, Wenjun et al. "Effect of DME addition on turbulent flame structure in lean premixed CH4/DME/air mixtures" . | Fuel 294 (2021) .
APA Lin, Wenjun , Wang, Jinhua , Mao, Runze , Zhang, Weijie , Xia, Hao , Zhang, Meng et al. Effect of DME addition on turbulent flame structure in lean premixed CH4/DME/air mixtures . | Fuel , 2021 , 294 .
Export to NoteExpress RIS BibTex
Propagation of Darrieus-Landau unstable laminar and turbulent expanding flames EI SCIE
期刊论文 | 2021 , 38 (2) , 2013-2021 | PROCEEDINGS OF THE COMBUSTION INSTITUTE
WoS CC Cited Count: 2
Abstract&Keyword Cite

Abstract :

The propagation of laminar and turbulent expanding flames subjected to Darrieus-Landau (DL), hydro-dynamic instability was experimentally studied by employing stoichiometric H-2/O-2/N-2 flames under quiescent and turbulent conditions performed in a newly developed medium-scale, fan-stirred combustion chamber. In quiescent environment, DL unstable laminar flame exhibits three-stage propagation, i.e. smooth expansion, transition acceleration, and self-similar acceleration. The self-similar acceleration is characterized by a power-law growth of acceleration exponent, alpha, with normalized Peclet number, which is different from the usually suggested self-similar propagation with a constant alpha. The imposed turbulence advances the onset of both transition acceleration and self-similar acceleration stages and promotes the strength of flame acceleration as additional wrinkles are invoked by turbulence eddies. A DL-turbulent interaction regime is confirmed to be the classical corrugated flamelets regime. Furthermore, the DL instability significantly facilitates the propagation of expanding flames in medium and even intense turbulence. The development of DL cells is not suppressed by turbulence eddies, and it needs to be considered in turbulent combustion. (C) 2020 The Combustion Institute. Published by Elsevier Inc. All rights reserved.

Keyword :

Darrieus-Landau instability Laminar and turbulent flames Flame propagation Acceleration exponent

Cite:

Copy from the list or Export to your reference management。

GB/T 7714 Cai, Xiao , Wang, Jinhua , Bian, Zhijian et al. Propagation of Darrieus-Landau unstable laminar and turbulent expanding flames [J]. | PROCEEDINGS OF THE COMBUSTION INSTITUTE , 2021 , 38 (2) : 2013-2021 .
MLA Cai, Xiao et al. "Propagation of Darrieus-Landau unstable laminar and turbulent expanding flames" . | PROCEEDINGS OF THE COMBUSTION INSTITUTE 38 . 2 (2021) : 2013-2021 .
APA Cai, Xiao , Wang, Jinhua , Bian, Zhijian , Zhao, Haoran , Li, Zhongshan , Huang, Zuohua . Propagation of Darrieus-Landau unstable laminar and turbulent expanding flames . | PROCEEDINGS OF THE COMBUSTION INSTITUTE , 2021 , 38 (2) , 2013-2021 .
Export to NoteExpress RIS BibTex
Flame structure, turbulent burning velocity and its unified scaling for lean syngas/air turbulent expanding flames EI SCIE
期刊论文 | 2021 , 46 (50) , 25699-25711 | INTERNATIONAL JOURNAL OF HYDROGEN ENERGY
WoS CC Cited Count: 1
Abstract&Keyword Cite

Abstract :

A systematic experimental study of lean premixed syngas/air turbulent expanding flames has been conducted under a wide range of turbulence intensities (0-3.54 m/s), initial pressures (0.5-5 bar), and hydrogen volumetric fractions up to 80% (20%, 50% and 80%). Flame structure and turbulent flame propagation dynamics were investigated. Results show that the flame becomes more refined and wrinkled with the increasing of both turbulence intensity and initial pressure, leading to a larger flame area and the associated turbulent burning velocity (ST). With hydrogen fraction increased, ST is also enhanced significantly, which is mainly due to the promotion of laminar burning velocity (SL) and diffusional-thermal instability. ST/SL is nearly kept constant with hydrogen fraction, which is a trade-off between strengthened diffusional-thermal instability and weakened turbulence stretch. A unified scaling of ST is obtained, indicating that turbulent Reynolds number (ReT) is a practical method to correlate ST when Lewis number is close to unity. Furthermore, at least in the interpretation domain, ST of spherical flames continually increases as the flame expands, which has been referred as flame acceleration phenomenon. It appears that only effective turbulence intensity itself is not able to reflect acceleration phenomenon completely. Turbulent expanding flames follow a self-similar propagation law and the quantitative ST dependence with flame expanding is ST R0:5 approximately. (c) 2021 Hydrogen Energy Publications LLC. Published by Elsevier Ltd. All rights reserved.

Keyword :

Unified scaling Turbulent expanding flames Turbulent burning velocity Syngas High hydrogen fraction

Cite:

Copy from the list or Export to your reference management。

GB/T 7714 Zhao, Haoran , Wang, Jinhua , Cai, Xiao et al. Flame structure, turbulent burning velocity and its unified scaling for lean syngas/air turbulent expanding flames [J]. | INTERNATIONAL JOURNAL OF HYDROGEN ENERGY , 2021 , 46 (50) : 25699-25711 .
MLA Zhao, Haoran et al. "Flame structure, turbulent burning velocity and its unified scaling for lean syngas/air turbulent expanding flames" . | INTERNATIONAL JOURNAL OF HYDROGEN ENERGY 46 . 50 (2021) : 25699-25711 .
APA Zhao, Haoran , Wang, Jinhua , Cai, Xiao , Dai, Hongchao , Bian, Zhijian , Huang, Zuohua . Flame structure, turbulent burning velocity and its unified scaling for lean syngas/air turbulent expanding flames . | INTERNATIONAL JOURNAL OF HYDROGEN ENERGY , 2021 , 46 (50) , 25699-25711 .
Export to NoteExpress RIS BibTex
Effect of DC Electric Field on Turbulent Flame Structure and Turbulent Burning Velocity SCIE
期刊论文 | 2021 | COMBUSTION SCIENCE AND TECHNOLOGY
Abstract&Keyword Cite

Abstract :

Effect of electric field on turbulent premixed flame structure and turbulent burning velocity is investigated through OH-PLIF technique. The ring-plate electrode configuration is used, which the ring electrode is high potential. Flame front structure and turbulent burning velocity are derived to estimate the effect of electric field on turbulent flame. Results show that electric field has similar effects compared with turbulence to some extent in this experiment, which could increase flame volume, turbulent burning velocity and decrease the flame surface density. But there are still substantial distinctions in detail. The perturbation induced by turbulence is the vortex, while that induced by electric field is the directional flow, and it can be verified through the PDF distribution of flame curvature with/without electric field. Effect of electric field is a local effect because it is dependent on the distribution of charged species. The research indicates electric field-assisted combustion is mitigated by the turbulence to some extent, and it may hinder the utilization of electric field at practical application for combustion enhancement, but other aspects need further researches. Two reasons are proposed to explain the mitigation of turbulence. Firstly, the response of turbulent burning velocity to the same perturbation decreases with turbulence intensity. Secondly, the wrinkled structure of turbulent flame mitigates the effect of electric field.

Keyword :

ionic wind turbulence intensity flame structure Electric field turbulent burning velocity

Cite:

Copy from the list or Export to your reference management。

GB/T 7714 Li, Yiming , Wang, Jinhua , Xia, Hao et al. Effect of DC Electric Field on Turbulent Flame Structure and Turbulent Burning Velocity [J]. | COMBUSTION SCIENCE AND TECHNOLOGY , 2021 .
MLA Li, Yiming et al. "Effect of DC Electric Field on Turbulent Flame Structure and Turbulent Burning Velocity" . | COMBUSTION SCIENCE AND TECHNOLOGY (2021) .
APA Li, Yiming , Wang, Jinhua , Xia, Hao , Ju, Rongyuan , Yu, Jinlu , Mu, Haibao et al. Effect of DC Electric Field on Turbulent Flame Structure and Turbulent Burning Velocity . | COMBUSTION SCIENCE AND TECHNOLOGY , 2021 .
Export to NoteExpress RIS BibTex
Effect of Ionic Wind Induced by DC Electric Field on Biogas/Air Turbulent Premixed Flame Structure SCIE
期刊论文 | 2021 | COMBUSTION SCIENCE AND TECHNOLOGY
Abstract&Keyword Cite

Abstract :

Effect of DC electric field on lean premixed biogas turbulent flame structure at low and medium turbulence intensity was studied experimentally using OH-PLIF. OH signal distribution, turbulent burning velocity and flame structure geometric parameters were derived. Results show that downward electric field could broaden the downstream burned gas and push the flame tip down. The flame base is closer to the burner rim in downward electric field for the modification of thermal diffusion and flow modification caused by ionic wind. The effect on flame tip height reduction is more obvious for biogas flame with a higher CO2 ratio. According to the flame structure analysis, the turbulent burning velocity of biogas is increased slightly due to the modification of flow field by ionic wind generated by downward electric field, and the increment decreases with the increase of turbulence intensity. In addition, there's a decrease in mean flame surface density and an increase in centerline flame brush thickness. The flame surface curvature PDF distribution is nearly not affected by the application of DC electric field. For turbulent flames, the effect of electric field is non-uniform and inconstant, which induces extra flow perturbation. This perturbation is different from turbulence, and the combined effects lead to the variation of flame structure.

Keyword :

DC electric field OH-PLIF Biogas turbulent premixed combustion ionic wind

Cite:

Copy from the list or Export to your reference management。

GB/T 7714 Xia, Hao , Wang, Jinhua , Ju, Rongyuan et al. Effect of Ionic Wind Induced by DC Electric Field on Biogas/Air Turbulent Premixed Flame Structure [J]. | COMBUSTION SCIENCE AND TECHNOLOGY , 2021 .
MLA Xia, Hao et al. "Effect of Ionic Wind Induced by DC Electric Field on Biogas/Air Turbulent Premixed Flame Structure" . | COMBUSTION SCIENCE AND TECHNOLOGY (2021) .
APA Xia, Hao , Wang, Jinhua , Ju, Rongyuan , Li, Yiming , Mu, Haibao , Huang, Zuohua . Effect of Ionic Wind Induced by DC Electric Field on Biogas/Air Turbulent Premixed Flame Structure . | COMBUSTION SCIENCE AND TECHNOLOGY , 2021 .
Export to NoteExpress RIS BibTex
氨燃烧研究进展 EI CSCD
期刊论文 | 2021 , 41 (12) , 4164-4181,中插15 | 中国电机工程学报
Abstract&Keyword Cite

Abstract :

NH3常温下的液化压力远远低于H2,可以作为氢能的优良载体,通过合成氨方法能实现可再生能源的全球输运.将NH3直接燃烧可以减少裂解为H2过程中的损耗.该文综述氨燃烧在国内外的发展前景以及NH3在内燃机、燃气轮机、锅炉以及多孔介质燃烧器中的应用,并总结氨燃烧的火焰传播特性、化学反应动力学、燃烧器的设计以及污染物的生成与控制.最后,针对NOx排放较高的问题,分别从化学反应动力学和低氮燃烧技术应用的角度提出氮氧化物的控制策略.

Keyword :

无碳燃料 氨燃烧 化学反应动力学 火焰传播特性 排放特性

Cite:

Copy from the list or Export to your reference management。

GB/T 7714 周上坤 , 杨文俊 , 谭厚章 et al. 氨燃烧研究进展 [J]. | 中国电机工程学报 , 2021 , 41 (12) : 4164-4181,中插15 .
MLA 周上坤 et al. "氨燃烧研究进展" . | 中国电机工程学报 41 . 12 (2021) : 4164-4181,中插15 .
APA 周上坤 , 杨文俊 , 谭厚章 , 王毅斌 , 王金华 , 王学斌 et al. 氨燃烧研究进展 . | 中国电机工程学报 , 2021 , 41 (12) , 4164-4181,中插15 .
Export to NoteExpress RIS BibTex
Development of a fan-stirred constant volume combustion chamber and turbulence measurement with PIV SCIE CSCD
期刊论文 | 2021 | FRONTIERS IN ENERGY
Abstract&Keyword Cite

Abstract :

A fan-stirred combustion chamber is developed for spherically expanding flames, with P and T up to 10 bar and 473 K, respectively. Turbulence characteristics are estimated using particle image velocimetry (PIV) at different initial pressures (P = 0.5-5 bar), fan frequencies (omega = 0-2000 r/min), and impeller diameters (D = 100 and 114 mm). The flame propagation of methanol/air is investigated at different turbulence intensities (u ' =0-1.77 m/s) and equivalence ratios (phi = 0.7-1.5). The results show that u ' is independent of P and proportional to omega, which can be up to 3.5 m/s at 2000 r/min. L-T is independent of P and performs a power regression with omega approximately. The turbulent field is homogeneous and isotropic in the central region of the chamber while the inertial subrange of spatial energy spectrum is more collapsed to -5/3 law at a high Re-T. Compared to laminar expanding flames, the morphology of turbulent expanding flames is wrinkled and the wrinkles will be finer with the growth of turbulence intensity, consistent with the decline of the Taylor scale and the Kolmogorov scale. The determined S-L in the present study is in good agreement with that of previous literature. The S-L and S-T of methanol/air have a non-monotonic trend with phi while peak S-T is shifted to the richer side compared to S-L. This indicates that the newly built turbulent combustion chamber is reliable for further experimental study.

Keyword :

turbulent expanding flames particle image velocimetry (PIV) methanol turbulence characteristics fan-stirred combustion chamber

Cite:

Copy from the list or Export to your reference management。

GB/T 7714 Zhao, Haoran , Wang, Jinhua , Cai, Xiao et al. Development of a fan-stirred constant volume combustion chamber and turbulence measurement with PIV [J]. | FRONTIERS IN ENERGY , 2021 .
MLA Zhao, Haoran et al. "Development of a fan-stirred constant volume combustion chamber and turbulence measurement with PIV" . | FRONTIERS IN ENERGY (2021) .
APA Zhao, Haoran , Wang, Jinhua , Cai, Xiao , Bian, Zhijian , Dai, Hongchao , Huang, Zuohua . Development of a fan-stirred constant volume combustion chamber and turbulence measurement with PIV . | FRONTIERS IN ENERGY , 2021 .
Export to NoteExpress RIS BibTex
Effect of Rotating Gliding Arc Plasma on Lean Blow-Off Limit and Flame Structure of Bluff Body and Swirl-Stabilized Premixed Flames EI SCIE
期刊论文 | 2021 , 49 (11) , 3554-3565 | IEEE TRANSACTIONS ON PLASMA SCIENCE
Abstract&Keyword Cite

Abstract :

The effect of rotating gliding arc plasma on flame stabilization in a laboratory scale swirl-stabilized plasma-assisted combustor was experimentally investigated. The characteristics of a gliding arc plasma were studied using high-speed camera and simultaneous measurements of current and voltage waveforms. Effects of plasma on the extension of lean blow-off (LBO) limit and the swirl flames structures as well as OH radical distribution have been studied systematically. Results show that the discharge and combustion are coupled together effectively due to the dynamic processes of discharge. When the plasma is activated, the flame structures are drastically changed; oscillating flame and lifted flame convert to stable columnar flame tending to be attached to the plasma column. Besides, the plasma columns can promote OH formation and can produce much more energetic radicals due to the reactions between the discharge, methane and oxygen. The gliding arc plasma can stabilize the flame, provide an additional anchoring mechanism, and significantly extend the LBO limit. The plasma column can provide active radicals and continuous ignition to sustain the flame, and the thermal effect and kinetic effect may occupy the dominant role.

Keyword :

Voltage measurement Discharges (electric) plasma-assisted combustion Fuels Plasma measurements Furnaces bluff body and swirl burner Plasmas OH planer laser induced fluorescence (PLIF) Combustion rotating gliding arc (RGA) plasma discharge Blow-off

Cite:

Copy from the list or Export to your reference management。

GB/T 7714 Ju, Rong-Yuan , Wang, Jin-Hua , Xia, Hao et al. Effect of Rotating Gliding Arc Plasma on Lean Blow-Off Limit and Flame Structure of Bluff Body and Swirl-Stabilized Premixed Flames [J]. | IEEE TRANSACTIONS ON PLASMA SCIENCE , 2021 , 49 (11) : 3554-3565 .
MLA Ju, Rong-Yuan et al. "Effect of Rotating Gliding Arc Plasma on Lean Blow-Off Limit and Flame Structure of Bluff Body and Swirl-Stabilized Premixed Flames" . | IEEE TRANSACTIONS ON PLASMA SCIENCE 49 . 11 (2021) : 3554-3565 .
APA Ju, Rong-Yuan , Wang, Jin-Hua , Xia, Hao , Li, Yi-Ming , Mu, Hai-Bao , Zhang, Guan-Jun et al. Effect of Rotating Gliding Arc Plasma on Lean Blow-Off Limit and Flame Structure of Bluff Body and Swirl-Stabilized Premixed Flames . | IEEE TRANSACTIONS ON PLASMA SCIENCE , 2021 , 49 (11) , 3554-3565 .
Export to NoteExpress RIS BibTex
Effect of high hydrogen enrichment on the outer-shear-layer flame of confined lean premixed CH4/H-2/air swirl flames EI SCIE
期刊论文 | 2021 , 46 (34) , 17969-17981 | INTERNATIONAL JOURNAL OF HYDROGEN ENERGY
WoS CC Cited Count: 3
Abstract&Keyword Cite

Abstract :

In this study, we investigated the H-2-induced transition of confined swirl flames from the "V " to "M " shape. H-2-enriched lean premixed CH4/H-2/air flames with H-2 fractions up to 80% were conducted. The flame structure was obtained with Planar Laser-Induced Fluorescence (PLIF) of the OH radical. Flow fields were measured with Particle Image Velocimetry (PIV). It was observed that the flame tip in the outer shear layer gradually propagated upstream and finally anchored to the injector with the hydrogen fractions increase, yielding the transition from the "V " to "M " flame. We examined the flame structures and the flame flow dynamics during the transition. The shape transition was directly related to the evolution of the corner flame along the outer shear layer. With H2 addition, the outer recirculation zone first appeared downstream where the corner flame started to propagate upstream; then, the recirculation zone expanded upward to form a stable "M " flame gradually. The flow straining was observed to influence the stabilization of the outer shear layer flame significantly. This study can be useful for the understanding of recirculation-stabilized swirling flames with strong confinement. The flame structure and the flow characteristics of flames with a high H2 content are also valuable for model validation. (C) 2021 Hydrogen Energy Publications LLC. Published by Elsevier Ltd. All rights reserved.

Keyword :

Flame-flow dynamics Swirl flames Strongly confined flames Lean premixed combustion Highly hydrogen-enriched flames

Cite:

Copy from the list or Export to your reference management。

GB/T 7714 Mao, Runze , Wang, Jinhua , Zhang, Weijie et al. Effect of high hydrogen enrichment on the outer-shear-layer flame of confined lean premixed CH4/H-2/air swirl flames [J]. | INTERNATIONAL JOURNAL OF HYDROGEN ENERGY , 2021 , 46 (34) : 17969-17981 .
MLA Mao, Runze et al. "Effect of high hydrogen enrichment on the outer-shear-layer flame of confined lean premixed CH4/H-2/air swirl flames" . | INTERNATIONAL JOURNAL OF HYDROGEN ENERGY 46 . 34 (2021) : 17969-17981 .
APA Mao, Runze , Wang, Jinhua , Zhang, Weijie , An, Zhenhua , Lin, Wenjun , Zhang, Meng et al. Effect of high hydrogen enrichment on the outer-shear-layer flame of confined lean premixed CH4/H-2/air swirl flames . | INTERNATIONAL JOURNAL OF HYDROGEN ENERGY , 2021 , 46 (34) , 17969-17981 .
Export to NoteExpress RIS BibTex
Effect of differential diffusion on turbulent lean premixed hydrogen enriched flames through structure analysis EI SCIE Scopus
期刊论文 | 2020 , 45 (18) , 10920-10931 | International Journal of Hydrogen Energy | IF: 5.816
WoS CC Cited Count: 8 SCOPUS Cited Count: 9
Abstract&Keyword Cite

Abstract :

This study presents the flame structure influenced by the differential diffusion effects and evaluates the structural modifications induced by the turbulence, thus to understand the coupling effects of the diffusively unstable flame fronts and the turbulence distortion. Lean premixed CH4/H2/air flames were conducted using a piloted Bunsen burner. Three hydrogen fractions of 0, 30% and 60% were adopted and the laminar flame speed was kept constant. The turbulence was generated with a single-layer perforated plate, which was combined with different bulk velocities to obtain varied turbulence intensities. Quasi-laminar flames without the plate were also performed. Explicit flame morphology was obtained using the OH-PLIF. The curvature, flame surface density and turbulent burning velocity were measured. Results show that the preferential transport of hydrogen produces negatively curved cusps flanked with positively curved bulges, which are featured by skewed curvature pdfs and consistent with the typical structure caused by the Darrieus-Landau instability. Prevalent bulge-cusp like wrinkles remain with relatively weak turbulence. However, stronger turbulence can break the bulges to be finer, and induce random positively curved cusps, therefore to destroy the bulge-cusp structures. Evident positive curvatures are generated in this process modifying the skewed curvature pdfs to be more symmetric, while the negative curvatures are not affected seriously. From low to high turbulence intensities, the hydrogen addition always strengthens the flame wrinkling. The augmentation of flame surface density and turbulent burning velocity with hydrogen is even more obvious at higher turbulence intensity. It is suggested that the differential diffusion can persist and even be strengthened with strong turbulence. © 2020 Hydrogen Energy Publications LLC

Keyword :

Hydrogen Combustion Perforated plates Velocity Morphology Diffusion Turbulence Flame research

Cite:

Copy from the list or Export to your reference management。

GB/T 7714 Zhang, Weijie , Wang, Jinhua , Lin, Wenjun et al. Effect of differential diffusion on turbulent lean premixed hydrogen enriched flames through structure analysis [J]. | International Journal of Hydrogen Energy , 2020 , 45 (18) : 10920-10931 .
MLA Zhang, Weijie et al. "Effect of differential diffusion on turbulent lean premixed hydrogen enriched flames through structure analysis" . | International Journal of Hydrogen Energy 45 . 18 (2020) : 10920-10931 .
APA Zhang, Weijie , Wang, Jinhua , Lin, Wenjun , Mao, Runze , Xia, Hao , Zhang, Meng et al. Effect of differential diffusion on turbulent lean premixed hydrogen enriched flames through structure analysis . | International Journal of Hydrogen Energy , 2020 , 45 (18) , 10920-10931 .
Export to NoteExpress RIS BibTex
10| 20| 50 per page
< Page ,Total 13 >

Export

Results:

Selected

to

Format:
FAQ| About| Online/Total:1017/98215177
Address:XI'AN JIAOTONG UNIVERSITY LIBRARY(No.28, Xianning West Road, Xi'an, Shaanxi Post Code:710049) Contact Us:029-82667865
Copyright:XI'AN JIAOTONG UNIVERSITY LIBRARY Technical Support:Beijing Aegean Software Co., Ltd.