Saskpower尚德电站燃烧后二氧化碳捕集改造:第二代捕集设备的资本和运营成本降低

C. Bruce, S. Giannaris, B. Jacobs, Dominika Janowczyk, Wayuta Srisang
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引用次数: 4

摘要

SaskPower在边界大坝3号机组上的综合碳捕集与封存示范项目开创了全球全面碳捕集设施的道路。通过这项工作,从设施的设计、建造和运营中吸取了许多教训。这些经验教训产生了新的优化、操作方法和设施的整体学习,以及它在电力公用事业中作为发电机的作用。萨斯喀彻温省及其省级公用事业公司SaskPower再次面临一项重要决定。该公用事业公司需要提供基本负荷电力,而这些电力在当地只能从煤炭或天然气中获得。加拿大的法规正在关闭没有碳捕获的燃煤发电的窗口,尽管利用和封存二氧化碳来提高石油采收率(EOR)有很大的收入机会,但低油价已经软化了对二氧化碳的需求。用碳捕集与封存(CCS)技术改造煤炭的经济效益受到了当地空前低迷的天然气价格的进一步挑战。国际CCS知识中心(知识中心)目前正在与SaskPower进行可行性研究,以确定是否可以为305兆瓦的尚德发电站进行燃烧后碳捕获改造的商业案例。这项研究包括增加一个90%的碳捕获设施,每年的名义产能为200万吨。本文包括对该研究的公共和非机密部分的解释,以突出对二氧化碳捕获成本的总体影响,以及与边界大坝3号机组系统(BD3)的主要设计修改的影响进行对比。
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Post Combustion CO2 Capture Retrofit of Saskpower's Shand Power Station: Capital and Operating Cost Reduction of a 2nd Generation Capture Facility
SaskPower’s Integrated Carbon Capture and Storage Demonstration Project on Boundary Dam’s Unit 3 pioneered the way for full-scale carbon capture facilities around the world. With such an undertaking, many lessons were learned through the design, construction and operations of the facility. These lessons have resulted in novel optimizations, operating methods and overall learnings for the facility and its role as a power generator in the power utility. Saskatchewan and its provincial utility, SaskPower, again find themselves on the cusp of an important decision. The utility has a need to provide base-load power which regionally is only available from coal or natural gas. Regulations in Canada are closing the window on coal-fired power generation without carbon capture, and while there is a significant revenue opportunity to utilize and sequester CO2 for Enhanced Oil Recovery (EOR) operations, low oil prices have softened the demand for the CO2. The economics of retrofitting coal with Carbon Capture and Storage (CCS) are further challenged by locally all-time low natural gas prices. The International CCS Knowledge Centre (Knowledge Centre) is currently executing a feasibility study with SaskPower to determine if a business case can be made for a post combustion carbon capture retrofit of the 305MW Shand Power Station. The study included the addition of a 90% carbon capture facility that will have a nominal annual capacity of 2 million tonnes per year. This paper includes interpretation of the public and non-confidential portion of this study to highlight both the overall impact on the cost of CO2 capture, as well as contrasting the impact of the major design modifications with the Boundary Dam Unit 3 system (BD3).
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