海上混合发电

Izleena Md. Iqbar, Fauzy Othman, Hasmi Taib, M. Hamdan, F. Adam, Michael Beyer
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引用次数: 0

摘要

在2019冠状病毒病大流行和全球向清洁能源转型的强劲推动下,2020年的商业环境充满挑战,马来西亚国家石油公司宣布了到2050年实现净零碳排放的目标。马来西亚国家石油公司的可持续发展之旅已经开始了二十多年,在可再生能源的强有力的管理层支持下,作为马来西亚国家石油公司技术议程的一部分,其研究机构PETRONAS research Sdn。有限公司(PRSB)一直致力于在马来西亚的海上石油和天然气平台上使用可再生能源。石油和天然气行业长期以来一直依赖涡轮发电机进行海上发电。这些涡轮燃烧机械作为微电网运行,现有的电源管理系统(PMS)作为微电网控制器。他们通常使用燃气或柴油作为燃气燃料,以确保可靠的发电,而这些发电机的维护成本预计会很高。此外,它们的能源效率低,因此,通常是超大的,以确保可靠地满足需求。通常,发电负荷由两台涡轮发电机承担,另一台作为备用。这导致了高运营支出(OPEX),并为这种传统系统的海上发电带来了高水平能源成本(LCOE)。LCOE是发电技术的衡量标准,它衡量的是由资本支出(CAPEX)和运营成本(OPEX)组成的折现生命周期成本,除以年能源生产[2]、[2]、[5]的折现生命周期成本。此外,这些涡轮发电机在有气体疏散管道的平台上运行,将耗尽原本可以出售的宝贵燃料气体。这将对总销售收入产生影响。尽管如此,燃料气体的燃烧将导致二氧化碳(CO2)的排放,因此要缴纳碳税。为了缓解这一问题,PRSB开发了一种海上混合发电概念,以利用和优化风力涡轮机系统,用于马来西亚等风力弱地区的海上发电。在这个概念中,一个燃气涡轮发电机被一个适应低风速区域的海上风力涡轮机所取代。这将降低维护成本和碳暴露。同时,燃料气将转为销售气。反过来,这将提高可再生能源解决方案的经济性,从而使海上可再生能源发电在石油和天然气平台上变得可行。前瞻性的努力包括在马来西亚等风力弱的地区推动风能利用的极限。在这里,整体解决方案的考虑因素不仅包括可以适应弱风地区的风力涡轮机发电机类型,并且尽可能具有最低的维护要求,还包括寻找尖端的基础技术。预计LCOE将低于传统发电。为了确保优化的混合动力概念,需要仔细选择和适应风力涡轮机系统及其子结构,以实现经济有效的解决方案[3],b[2]。进行了概念工程和前端工程设计,开发了海上混合动力发电系统。本文将展示混合动力概念,分享选择合适的风力机的注意事项,并阐述导致基础类型选择和优化的决策,无论是固定底部还是浮式基础。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Hybrid Offshore Power Generation
Amid 2020 challenging business environments due to COVID-19 pandemic and strong global push towards transition to cleaner energy, PETRONAS has declared its' aspiration to achieve net zero carbon emissions by 2050. PETRONAS sustainability journey has begun for more than two decades and with strong management support towards renewable and as part of PETRONAS's technology agenda, its' research arm, PETRONAS Research Sdn. Bhd. (PRSB) has been working on ways to use renewable energy sources for offshore oil and gas platforms in Malaysia. Oil and Gas industry has long relied on turbine generators for offshore power generation. These turbo-fired machineries are operating as microgrid with existing power management system (PMS) as microgrid controllers. They normally use either gas or diesel as fuel gas to ensure reliable power generation where high maintence cost is expected to operate these generators. Also, they have low energy efficiency and hence, usually oversized to ensure meeting the demand reliably. Typically, the power generation load is being taken by two units of turbine generators with another unit as spare. This has resulted in high operational expenditure (OPEX) and contributes to high levelized cost of energy (LCOE) for offshore power generation for such conventional system. LCOE is the yardstick for power generation technology, and it measures discounted lifecycle cost consisting of both capital expenditure (CAPEX) and OPEX, divided by discounted lifecycle of annual energy production [2], [4], [5]. Also, these turbine generators operating at platforms that have gas evacuation pipelines will use up precious fuel gas which can otherwise be sold. This will have impact on the total sales gas revenue. Not withstanding, the burning of the fuel gas will result in the emissions of carbon dioxide (CO2) and hence is exposed to carbon tax. To mitigate this issue, PRSB has developed an offshore hybrid power generation concept to leverage and optimize wind turbine system for offshore power generation in weak wind area such as Malaysia. In this concept, one gas turbine generator is replaced by an offshore wind turbine adapted to low wind speed region. This will lower the maintenance cost and carbon exposure. Also, the fuel gas will be diverted to sales gas. This in turn will improve the economics of the renewable solution thereby making offshore renewable power generation feasible for oil and gas platforms. Forward thinking efforts include pushing the limits of harnessing wind energy in weak wind area such as Malaysia. In here, considerations of a total solution include not only the type of wind turbine generator that can be adapted to weak wind area and having the lowest maintenance requirements as possible, but also looking into cutting edge foundation technologies. The LCOE is expected to be lower than conventional power generation. To ensure optimized hybrid concept, careful selection and adaptations of wind turbine system and its' substructure are required to achieve a cost-effective solution [3], [2]. Conceptual engineering and front-end engineering design were conducted which resulted in the development of the hybrid offshore power generation system. In this paper, the hybrid concept will be shown, the considerations for selection of a suitable wind turbine will be shared and the decisions leading the to the selection and optimization of the foundation type, either fixed bottom or floating are elaborated.
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