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Heng Chen
Beijing Key Laboratory of Emission Surveillance and Control for Thermal Power Generation, North China Electric Power University, Beijing, 102206, China

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Journal article
Published: 19 August 2021 in Energy Conversion and Management
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In this paper, a novel scheme consisting of plasma gasifier, solid oxide fuel cells (SOFC), gas turbine (GT), and supercritical CO2 cycle has been developed for power and heat cogeneration. Fed by syngas converted from medical waste through plasma gasification, the new design is a SOFC-GT hybrid system benefiting from supercritical CO2 cycle to enhance its performance. Besides, the waste heat carried by the low-temperature exhaust gasses and CO2 stream is further exploited for providing domestic hot water to residents. The benefits of the suggested system were examined based on a 3 t/h plasma gasifier in the thermodynamic and economic aspects, and the effects of the main parameters were also investigated. It is found that the net power output of the studied system could reach up to 14.02 MW with a net waste-to-electricity efficiency of 59.30% and an exergy efficiency of 57.56%. The main source of irreversibility can be traced to three components, gasifier, cell stacks, and afterburner, accounting for 62.45% of the total exergy destruction. Only 3.77 years is required to recover the initial investment of the proposed system and a net present value of 109815.39 k$ can be attained by the waste-to-energy project during its 20-year lifespan.

ACS Style

Weike Peng; Heng Chen; Jun Liu; Xinyue Zhao; Gang Xu. Techno-economic assessment of a conceptual waste-to-energy CHP system combining plasma gasification, SOFC, gas turbine and supercritical CO2 cycle. Energy Conversion and Management 2021, 245, 114622 .

AMA Style

Weike Peng, Heng Chen, Jun Liu, Xinyue Zhao, Gang Xu. Techno-economic assessment of a conceptual waste-to-energy CHP system combining plasma gasification, SOFC, gas turbine and supercritical CO2 cycle. Energy Conversion and Management. 2021; 245 ():114622.

Chicago/Turabian Style

Weike Peng; Heng Chen; Jun Liu; Xinyue Zhao; Gang Xu. 2021. "Techno-economic assessment of a conceptual waste-to-energy CHP system combining plasma gasification, SOFC, gas turbine and supercritical CO2 cycle." Energy Conversion and Management 245, no. : 114622.

Journal article
Published: 09 August 2021 in Energy
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A modeling framework of a multi-energy system (MES) with coordinated supply of combined cooling, heating and power using solar energy is established in this research. A new operation strategy named following operation cost (FOC) is proposed to compare with traditional operational modes which are following electric load (FEL) and following thermal load (FTL). The results indicate that the strategy of FOC has the advantage in saving operation cost. The study analyzes the three operation strategies from three criteria including the operation cost (OC), the carbon dioxide emission (CDE), and the primary energy consumption ratio (PER) in each season to find the most suitable hybrid operation strategy in the MES. For the MES of this paper, we choose the FEL strategy in winter, the FOC strategy in summer, spring, and autumn. The hybrid operation strategy is selected to make the MES have higher PER, lower CDE, and lower OC. The hybrid operation strategy has better comprehensive performance than the single operation strategy. It provides a reference for the operation mode of other MESs.

ACS Style

Xin Zhao; Wenyu Zheng; Zhihua Hou; Heng Chen; Gang Xu; Wenyi Liu; Honggang Chen. Economic dispatch of multi-energy system considering seasonal variation based on hybrid operation strategy. Energy 2021, 238, 121733 .

AMA Style

Xin Zhao, Wenyu Zheng, Zhihua Hou, Heng Chen, Gang Xu, Wenyi Liu, Honggang Chen. Economic dispatch of multi-energy system considering seasonal variation based on hybrid operation strategy. Energy. 2021; 238 ():121733.

Chicago/Turabian Style

Xin Zhao; Wenyu Zheng; Zhihua Hou; Heng Chen; Gang Xu; Wenyi Liu; Honggang Chen. 2021. "Economic dispatch of multi-energy system considering seasonal variation based on hybrid operation strategy." Energy 238, no. : 121733.

Research article
Published: 30 May 2021 in Frontiers in Energy
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An advanced cogeneration system based on biomass direct combustion was developed and its feasibility was demonstrated. In place of the traditional single heat source (extraction steam), the extraction steam from the turbine, the cooling water from the plant condenser, and the low-pressure feedwater from the feedwater preheating system were collectively used for producing district heat in the new scheme. Hence, a remarkable energy-saving effect could be achieved, improving the overall efficiency of the cogeneration system. The thermodynamic and economic performance of the novel system was examined when taking a 35 MW biomass-fired cogeneration unit for case study. Once the biomass feed rate and net thermal production remain constant, an increment of 1.36 MW can be expected in the net electric production, because of the recommended upgrading. Consequently, the total system efficiency and effective electrical efficiency augmented by 1.23 and 1.50 percentage points. The inherent mechanism of performance enhancement was investigated from the energy and exergy aspects. The economic study indicates that the dynamic payback period of the retrofitting project is merely 1.20 years, with a net present value of 5796.0 k$. In conclusion, the proposed concept is validated to be advantageous and profitable.

ACS Style

Peiyuan Pan; Yunyun Wu; Heng Chen. Performance evaluation of an improved biomass-fired cogeneration system simultaneously using extraction steam, cooling water, and feedwater for heating. Frontiers in Energy 2021, 1 -15.

AMA Style

Peiyuan Pan, Yunyun Wu, Heng Chen. Performance evaluation of an improved biomass-fired cogeneration system simultaneously using extraction steam, cooling water, and feedwater for heating. Frontiers in Energy. 2021; ():1-15.

Chicago/Turabian Style

Peiyuan Pan; Yunyun Wu; Heng Chen. 2021. "Performance evaluation of an improved biomass-fired cogeneration system simultaneously using extraction steam, cooling water, and feedwater for heating." Frontiers in Energy , no. : 1-15.

Journal article
Published: 18 November 2020 in Entropy
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A novel compressed air energy storage (CAES) system has been developed, which is innovatively integrated with a coal-fired power plant based on its feedwater heating system. In the hybrid design, the compression heat of the CAES system is transferred to the feedwater of the coal power plant, and the compressed air before the expanders is heated by the feedwater taken from the coal power plant. Furthermore, the exhaust air of the expanders is employed to warm partial feedwater of the coal power plant. Via the suggested integration, the thermal energy storage equipment for a regular CAES system can be eliminated and the performance of the CAES system can be improved. Based on a 350 MW supercritical coal power plant, the proposed concept was thermodynamically evaluated, and the results indicate that the round-trip efficiency and exergy efficiency of the new CAES system can reach 64.08% and 70.01%, respectively. Besides, a sensitivity analysis was conducted to examine the effects of ambient temperature, air storage pressure, expander inlet temperature, and coal power load on the performance of the CAES system. The above work proves that the novel design is efficient under various conditions, providing important insights into the development of CAES technology.

ACS Style

Peiyuan Pan; Meiyan Zhang; Weike Peng; Heng Chen; Gang Xu; Tong Liu. Thermodynamic Evaluation and Sensitivity Analysis of a Novel Compressed Air Energy Storage System Incorporated with a Coal-Fired Power Plant. Entropy 2020, 22, 1316 .

AMA Style

Peiyuan Pan, Meiyan Zhang, Weike Peng, Heng Chen, Gang Xu, Tong Liu. Thermodynamic Evaluation and Sensitivity Analysis of a Novel Compressed Air Energy Storage System Incorporated with a Coal-Fired Power Plant. Entropy. 2020; 22 (11):1316.

Chicago/Turabian Style

Peiyuan Pan; Meiyan Zhang; Weike Peng; Heng Chen; Gang Xu; Tong Liu. 2020. "Thermodynamic Evaluation and Sensitivity Analysis of a Novel Compressed Air Energy Storage System Incorporated with a Coal-Fired Power Plant." Entropy 22, no. 11: 1316.

Journal article
Published: 22 August 2020 in Energies
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A novel design has been developed to improve the waste-to-energy process through the integration with a biomass-fired power plant. In the proposed scheme, the superheated steam generated by the waste-to-energy boiler is fed into the low-pressure turbine of the biomass power section for power production. Besides, the feedwater from the biomass power section is utilized to warm the combustion air of the waste-to-energy boiler, and the feedwater of the waste-to-energy boiler is offered by the biomass power section. Based on a 35-MW biomass-fired power plant and a 500-t/d waste-to-energy plant, the integrated design was thermodynamically and economically assessed. The results indicate that the net power generated from waste can be enhanced by 0.66 MW due to the proposed solution, and the waste-to-electricity efficiency increases from 20.49% to 22.12%. Moreover, the net present value of the waste-to-energy section is raised by 5.02 million USD, and the dynamic payback period is cut down by 2.81 years. Energy and exergy analyses were conducted to reveal the inherent mechanism of performance enhancement. Besides, a sensitivity investigation was undertaken to examine the performance of the new design under various conditions. The insights gained from this study may be of assistance to the advancement of waste-to-energy technology.

ACS Style

Peiyuan Pan; Meiyan Zhang; Gang Xu; Heng Chen; Xiaona Song; Tong Liu. Thermodynamic and Economic Analyses of a New Waste-to-Energy System Incorporated with a Biomass-Fired Power Plant. Energies 2020, 13, 4345 .

AMA Style

Peiyuan Pan, Meiyan Zhang, Gang Xu, Heng Chen, Xiaona Song, Tong Liu. Thermodynamic and Economic Analyses of a New Waste-to-Energy System Incorporated with a Biomass-Fired Power Plant. Energies. 2020; 13 (17):4345.

Chicago/Turabian Style

Peiyuan Pan; Meiyan Zhang; Gang Xu; Heng Chen; Xiaona Song; Tong Liu. 2020. "Thermodynamic and Economic Analyses of a New Waste-to-Energy System Incorporated with a Biomass-Fired Power Plant." Energies 13, no. 17: 4345.

Journal article
Published: 01 February 2020 in Energy
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ACS Style

Heng Chen; Zhen Qi; Lihao Dai; Bin Li; Gang Xu; Yongping Yang. Performance evaluation of a new conceptual combustion air preheating system in a 1000 MW coal-fueled power plant. Energy 2020, 193, 1 .

AMA Style

Heng Chen, Zhen Qi, Lihao Dai, Bin Li, Gang Xu, Yongping Yang. Performance evaluation of a new conceptual combustion air preheating system in a 1000 MW coal-fueled power plant. Energy. 2020; 193 ():1.

Chicago/Turabian Style

Heng Chen; Zhen Qi; Lihao Dai; Bin Li; Gang Xu; Yongping Yang. 2020. "Performance evaluation of a new conceptual combustion air preheating system in a 1000 MW coal-fueled power plant." Energy 193, no. : 1.

Journal article
Published: 08 January 2020 in Energy
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An advanced waste-to-energy system integrated with a coal-fired power plant has been proposed to improve the energy utilization of municipal solid waste. In the new design, the energy gained from the waste-to-energy boiler is employed to heat the feedwater and partial cold reheat steam of the coal power plant, and the feedwater of the waste-to-energy boiler is provided by the heat regeneration system of the coal power plant. Consequently, the energy obtained from the waste incineration products is injected into the steam cycle of the coal power plant, and the waste-to-electricity efficiency can be significantly boosted. Based on a 500 t/day waste-to-energy plant and a 630 MW coal power plant, the proposed hybrid scheme was evaluated compared with the conventional separate one. The results show that the waste-to-electricity efficiency is promoted by 9.16% points with an additional net power output of 3.71 MW, attributed to the suggested integration. Furthermore, the energy-saving mechanism of the novel concept was revealed by energy and exergy analyses. Finally, the new design was economically examined, which indicates that the dynamic payback period of the proposed waste-to-energy plant is only 3.55 years, which is 5.87 years shorter than that of the conventional one.

ACS Style

Heng Chen; Meiyan Zhang; Kai Xue; Gang Xu; Yongping Yang; Zepeng Wang; Wenyi Liu; Tong Liu. An innovative waste-to-energy system integrated with a coal-fired power plant. Energy 2020, 194, 116893 .

AMA Style

Heng Chen, Meiyan Zhang, Kai Xue, Gang Xu, Yongping Yang, Zepeng Wang, Wenyi Liu, Tong Liu. An innovative waste-to-energy system integrated with a coal-fired power plant. Energy. 2020; 194 ():116893.

Chicago/Turabian Style

Heng Chen; Meiyan Zhang; Kai Xue; Gang Xu; Yongping Yang; Zepeng Wang; Wenyi Liu; Tong Liu. 2020. "An innovative waste-to-energy system integrated with a coal-fired power plant." Energy 194, no. : 116893.

Journal article
Published: 28 March 2019 in Entropy
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High back-pressure (HBP) heating technology has been identified as an effective approach to improve the efficiency of combined heat and power (CHP). In this study, the novel concept of a HBP heating system with energy cascade utilization is developed and its probability examined. In the reformative design, the extracted heating steam from the intermediate-pressure turbine (IPT) is first drawn to an additional turbine where its excess pressure can be converted into electricity, then steam with a lower pressure can be employed to heat the supply water. As a consequence, the exergy destruction in the supply water heating process can be reduced and the efficiency of the cogeneration unit raised. A detailed thermodynamic investigation was performed based on a typical coal-fired HBP–CHP unit incorporating the proposed configuration. The results show that the artificial thermal efficiency (ATE) promotion was as much as 2.01 percentage points, with an additional net power output of 8.4 MW compared to the reference unit. This was attributed to a 14.65 percentage-point increment in the exergy efficiency of the supply water heating process caused by the suggested retrofitting. The influences of the unit power output, unit heat output, supply water and return water temperatures and turbine back pressure on the thermal performance of the modified system are discussed as well. In addition, the economic performance of the new design is assessed, indicating that the proposed concept is financially feasible.

ACS Style

Heng Chen; Yunyun Wu; Jidong Xu; Gang Xu; Yongping Yang; Wenyi Liu; Gangye Shi. Thermodynamic and Economic Analyses of Reformative Design for High Back-Pressure Heating in Coal-Fueled Cogeneration Units. Entropy 2019, 21, 342 .

AMA Style

Heng Chen, Yunyun Wu, Jidong Xu, Gang Xu, Yongping Yang, Wenyi Liu, Gangye Shi. Thermodynamic and Economic Analyses of Reformative Design for High Back-Pressure Heating in Coal-Fueled Cogeneration Units. Entropy. 2019; 21 (4):342.

Chicago/Turabian Style

Heng Chen; Yunyun Wu; Jidong Xu; Gang Xu; Yongping Yang; Wenyi Liu; Gangye Shi. 2019. "Thermodynamic and Economic Analyses of Reformative Design for High Back-Pressure Heating in Coal-Fueled Cogeneration Units." Entropy 21, no. 4: 342.

Journal article
Published: 05 December 2018 in Energy
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In this study, a new concept of the combustion air preheating system integrated with a bypass flue (BPF) configuration was put forward and its feasibility was evaluated. In the proposed system, the primary air and secondary air are heated separately with cascade heat exchange and the hot and cold bypassing primary air mixing is avoided, which contributes to enhancing the air preheating and waste heat utilization. Thermodynamic analysis was performed based on a typical 600 MW coal-fired power unit incorporating the new concept. The results indicated that owing to the proposed design, the power generation efficiency promotion reaches 0.78% (absolute value) with a standard coal consumption rate reduction of 5.52 g/kWh as compared to the reference unit, which are 0.14% (absolute value) higher and 0.94 g/kWh larger than those caused by the regular BPF retrofitting, respectively. The energy utilization is more rational in the new design according to the energy and exergy analysis, and the exergy efficiency of the primary air heating process is improved from 75.75% (original design) or 79.62% (regular BPF design) to 84.46% due to the proposed concept. The volume and heat exchange area of the APH decline significantly as well in the modified system.

ACS Style

Heng Chen; Yunyun Wu; Zhen Qi; Qiao Chen; Gang Xu; Yongping Yang; Wenyi Liu. Improved combustion air preheating design using multiple heat sources incorporating bypass flue in large-scale coal-fired power unit. Energy 2018, 169, 527 -541.

AMA Style

Heng Chen, Yunyun Wu, Zhen Qi, Qiao Chen, Gang Xu, Yongping Yang, Wenyi Liu. Improved combustion air preheating design using multiple heat sources incorporating bypass flue in large-scale coal-fired power unit. Energy. 2018; 169 ():527-541.

Chicago/Turabian Style

Heng Chen; Yunyun Wu; Zhen Qi; Qiao Chen; Gang Xu; Yongping Yang; Wenyi Liu. 2018. "Improved combustion air preheating design using multiple heat sources incorporating bypass flue in large-scale coal-fired power unit." Energy 169, no. : 527-541.

Journal article
Published: 03 December 2018 in Applied Thermal Engineering
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Comprehensive and parametric analyses were conducted to investigate the thermal characteristic of the high back-pressure (HBP) heating process based on a 300 MW coal-fired combined heat and power (CHP) unit. The results indicated that the HBP design promoted the thermal efficiency of the unit by 5.97% (absolute value) and cut down the standard coal consumption rate by 23.52 g/(kW·h), attributing to the exhaust steam recovery efficiency of 57% and the unit generation power increase of 24.58 MW. On the grounds of the first and second laws of thermodynamics, the detailed energy-saving mechanism of the HBP heating concept was synthetically explored by the analyses of energy and exergy flows and graphical exergy, and the results showed that the HBP heating configuration improved the unit performance by reducing the exhaust steam energy loss and the extraction steam flow rate and raising the exergy efficiency of the heat exchange process. The impacts of the primary parameters (unit generation load, unit heating load, supply & return-water temperatures and turbine back-pressure) on the performance of the HBP-CHP unit were also examined and optimization suggestions were put forward. Besides, the heat and power coupling characteristic of the HBP-CHP unit was discussed.

ACS Style

Heng Chen; Yao Xiao; Gang Xu; Jidong Xu; Xianhuai Yao; Yongping Yang. Energy-saving mechanism and parametric analysis of the high back-pressure heating process in a 300 MW coal-fired combined heat and power unit. Applied Thermal Engineering 2018, 149, 829 -840.

AMA Style

Heng Chen, Yao Xiao, Gang Xu, Jidong Xu, Xianhuai Yao, Yongping Yang. Energy-saving mechanism and parametric analysis of the high back-pressure heating process in a 300 MW coal-fired combined heat and power unit. Applied Thermal Engineering. 2018; 149 ():829-840.

Chicago/Turabian Style

Heng Chen; Yao Xiao; Gang Xu; Jidong Xu; Xianhuai Yao; Yongping Yang. 2018. "Energy-saving mechanism and parametric analysis of the high back-pressure heating process in a 300 MW coal-fired combined heat and power unit." Applied Thermal Engineering 149, no. : 829-840.

Journal article
Published: 19 September 2018 in Energies
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A conceptual high-back pressure (HBP) heating system cooperating raw coal pre-drying for combined heat and power (CHP) was proposed to improve the performance of the HBP-CHP unit. In the new design, besides of heating the supply-water of the heating network, a portion of the exhaust steam from the turbine is employed to desiccate the raw coal prior to the coal pulverizer, which further recovers the waste heat of the exhaust steam and contributes to raising the overall efficiency of the unit. Thermodynamic and economic analyzes were conducted based on a typical 300 MW coal-fired HBP-CHP unit with the application of the modified configuration. The results showed that the power generation thermal efficiency promotion of the unit reaches 1.7% (absolute value) owing to suggested retrofitting, and meanwhile, the power generation standard coal consumption rate is diminished by 5.8 g/kWh. Due to the raw coal pre-drying, the energy loss of the exhaust flue gas of the boiler is reduced by 19.1% and the boiler efficiency increases from 92.7% to 95.4%. The impacts of the water content of the dried coal and the unit heating capacity on the energy-saving effect of the new concept were also examined.

ACS Style

Heng Chen; Zhen Qi; Qiao Chen; Yunyun Wu; Gang Xu; Yongping Yang. Modified High Back-Pressure Heating System Integrated with Raw Coal Pre-Drying in Combined Heat and Power Unit. Energies 2018, 11, 2487 .

AMA Style

Heng Chen, Zhen Qi, Qiao Chen, Yunyun Wu, Gang Xu, Yongping Yang. Modified High Back-Pressure Heating System Integrated with Raw Coal Pre-Drying in Combined Heat and Power Unit. Energies. 2018; 11 (9):2487.

Chicago/Turabian Style

Heng Chen; Zhen Qi; Qiao Chen; Yunyun Wu; Gang Xu; Yongping Yang. 2018. "Modified High Back-Pressure Heating System Integrated with Raw Coal Pre-Drying in Combined Heat and Power Unit." Energies 11, no. 9: 2487.

Journal article
Published: 11 June 2018 in Energies
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An improved heating system integrated with waste pressure utilization (WPU) for combined heat and power (CHP) cogeneration was proposed. The new heating system efficiently utilized the excess pressure of the extraction heating steam to drive the WPU turbine and generator for producing electricity, achieving higher energy efficiency and lower fuel consumption of the CHP unit. The results of the detailed thermodynamic analysis showed that applying the proposed concept in a typical 300 MW coal-fired CHP unit could reduce the standard coal consumption rate by 9.84 g/(kW·h), with a thermal efficiency improvement of 1.97% (absolute value). Compared to that of the original heating process, the energy efficiency of the proposed process decreased by 0.55% (absolute value), but its exergy efficiency increased dramatically by 17.97% (absolute value), which meant that the proposed configuration could make better use of the steam energy and contribute to the better performance of the CHP unit. As the unit generation load and supply and return-water temperatures declined and the unit heating load rose, the WPU system would generate more electricity and its energy-saving benefit would be enhanced. This work provides a promising approach to further advance the CHP technology and district heating systems.

ACS Style

Heng Chen; Jidong Xu; Yao Xiao; Zhen Qi; Gang Xu; Yongping Yang. An Improved Heating System with Waste Pressure Utilization in a Combined Heat and Power Unit. Energies 2018, 11, 1515 .

AMA Style

Heng Chen, Jidong Xu, Yao Xiao, Zhen Qi, Gang Xu, Yongping Yang. An Improved Heating System with Waste Pressure Utilization in a Combined Heat and Power Unit. Energies. 2018; 11 (6):1515.

Chicago/Turabian Style

Heng Chen; Jidong Xu; Yao Xiao; Zhen Qi; Gang Xu; Yongping Yang. 2018. "An Improved Heating System with Waste Pressure Utilization in a Combined Heat and Power Unit." Energies 11, no. 6: 1515.

Research article
Published: 07 April 2017 in Energy & Fuels
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To understand deposit formation in the flue gas cooler, which is used to recover the exhaust heat from a 300 MW coal-fired boiler in China, a mineralogical study was carried out. Several deposit samples on the surface of the flue gas cooler were collected. Then, the samples were examined by X-ray fluorescence (XRF), X-ray powder diffraction (XRD), X-ray photoelectron spectroscopy (XPS), scanning electron microscopy (SEM), and energy-dispersive spectrometry (EDS). Mineralogical analysis showed that the deposits could be divided into three layers. The high concentrations of O, Si, and Al in the outer layer were indicative of the formation of ash particles in the flue gas, and the high contents of Fe, O, Cl, and S in the inner layer were indicative of the formation of iron corrosion products, in comparison to the interlayer. In addition, the relatively higher contents of F and N in outer layer and interlayer were interpreted as the formation of ammonium fluoroborate (NH4BF4) and its intermediates [NH4F, HBF4, (NH4)2SiF6, and H3BO3], which were further proven by XRD and XPS analyses. The inner layer defined as the corrosion layer was caused by condensed acid on the surface of the flue gas cooler when the heating surface temperature was below the HF dew point. The formation of NH4BF4 was due to the enrichment of fluorine and boron in the coal as well as the escape of ammonia from selective catalytic reduction (SCR).

ACS Style

Haidong Ma; Yungang Wang; Qinxin Zhao; Heng Chen. Study on Deposits Containing Rich Fluorine, Boron, and Ammonium on the Heating Surface of a Flue Gas Cooler in a 300 MW Coal-Fired Boiler. Energy & Fuels 2017, 31, 4742 -4747.

AMA Style

Haidong Ma, Yungang Wang, Qinxin Zhao, Heng Chen. Study on Deposits Containing Rich Fluorine, Boron, and Ammonium on the Heating Surface of a Flue Gas Cooler in a 300 MW Coal-Fired Boiler. Energy & Fuels. 2017; 31 (5):4742-4747.

Chicago/Turabian Style

Haidong Ma; Yungang Wang; Qinxin Zhao; Heng Chen. 2017. "Study on Deposits Containing Rich Fluorine, Boron, and Ammonium on the Heating Surface of a Flue Gas Cooler in a 300 MW Coal-Fired Boiler." Energy & Fuels 31, no. 5: 4742-4747.

Research article
Published: 03 April 2017 in Energy & Fuels
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ACS Style

Heng Chen; Jian Jiao; Peiyuan Pan; Qinxin Zhao; Yungang Wang. Deposit Formation of the Low-Pressure Economizer in a Coal-Fired Thermal Power Plant. Energy & Fuels 2017, 31, 4791 -4798.

AMA Style

Heng Chen, Jian Jiao, Peiyuan Pan, Qinxin Zhao, Yungang Wang. Deposit Formation of the Low-Pressure Economizer in a Coal-Fired Thermal Power Plant. Energy & Fuels. 2017; 31 (5):4791-4798.

Chicago/Turabian Style

Heng Chen; Jian Jiao; Peiyuan Pan; Qinxin Zhao; Yungang Wang. 2017. "Deposit Formation of the Low-Pressure Economizer in a Coal-Fired Thermal Power Plant." Energy & Fuels 31, no. 5: 4791-4798.