太阳能为公共卫生中心供电:系统思维视角

Rachita Misra , Huda Jaffer
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引用次数: 0

摘要

全世界每年约有30万妇女死于妊娠和分娩期间的并发症。据估计,有1990万儿童没有接种关键疫苗,这使他们面临患潜在致命疾病的严重风险。通过适当的管理和护理,这些风险和死亡是可以预防的。在资源匮乏的环境中获得医疗保健需要一种全面的方法,以加强基础设施、系统以及医疗和人力资源。在加强基础设施的范围内缺乏能源,这大大加剧了发展中国家面临的巨大医疗挑战。电力对获得医疗服务至关重要,与医疗中心、人力资源、设备、药品等一样重要。如果医疗机构没有能源,就无法实现全民健康覆盖。今天的医疗保健,不包括为世界上未得到满足的人口提供的潜在服务,导致了温室气体排放,相当于世界上污染第五严重的国家。此外,如果我们今天必须实现获得健康的目标,就不能通过传统的电气化模式来考虑,同时考虑到人民的健康和地球的边界。清洁能源,特别是太阳能,如果以分散的、基于需求的方式进行规划和部署,并考虑到当地的生存能力和条件,可以成为促进医疗保健进入资源不足环境的“银弹”。考虑到低资源环境和最后一英里的医疗保健要求,本文只考虑了离网太阳能系统,这可能是卫生中心变得有弹性并为缓解气候变化做出贡献的主要方式之一,而不考虑当前的电网和电网条件。在过去的十年里,有多个类似的太阳能公共卫生设施项目,全球各地都有经验教训。其中一个关键的经验教训是,在部署从长期角度维持的去中心化太阳能健康项目时,需要一个系统思维的视角。系统思维是一种方法,使人们能够将卫生系统视为一个整体,同时设计需求驱动的太阳能项目,以推动实现医疗保健目标。这可以通过分解太阳能发电的所有方面来实现,并确保在每个方面都充分了解需求,考虑关键利益相关者及其优先事项,并考虑能力和关系。此外,随着时间的推移,系统可以进行定制、扩展和维护。以下提供的建议和示例优先考虑医疗保健需求,同时为太阳能的设计和维持创造有利条件,以应对当前和未来的医疗保健挑战。虽然医疗保健系统需要多个级别的治疗性和预防性医疗保健,但以下考虑因素主要是最后一英里的公共卫生治疗基础设施。下面,从以下几个方面阐述了太阳能健康的一些最佳实践:1。评估2.技术设计3。财务和预算4。采购5.运营和维护6。能力建设
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Solar powering public health centers: A systems thinking lens

Around 300,000 women around the world die every year due to complications during pregnancy and childbirth. An estimated 19.9 million children do not receive critical vaccinations putting them at serious risk of potentially fatal diseases. These risks and deaths are preventable with appropriate management and care. Access to healthcare in low resource settings requires a comprehensive approach that strengthens infrastructure, systems, and medical and human resources. The lack of access to energy within infrastructure strengthening dramatically contributes to the immense healthcare challenge faced by developing countries. Electricity is essential for access to health services, as essential as the healthcare center, human resources, equipment, medicines etc. Universal Health Coverage cannot be achieved without energy access in healthcare facilities.

Healthcare today, without counting the potential services to the un-catered populations in the world, contributes to GHG emissions, equivalent to the 5th most polluting country in the world. Furthermore, if we must meet the goals of access to health today, it cannot be considered via traditional models of electrification, keeping both the health of the people andthe planetary boundaries in mind. Clean energy and particularly solar energy, if planned and deployed in a manner that is decentralized, need-based along with accounting for local capacities and conditions for sustenance - can become a ‘silver bullet’ in catalyzing healthcare access to under-resourced settings. Given low-resource settings and last mile healthcare requirements this article only takes into consideration off-grid solar systems, which could be one of the primary ways for health centers to become resilient and contribute to climate mitigation, irrespective of prevailing grid and on-grid conditions.

With multiple similar programs for solar powering public health facilities over the past decade there are learnings that emerge from across the globe. One of the key learnings is the need for a system thinking lens while deploying decentralized solar for health programs that sustain from a long-term perspective. Systems thinking is an approach that enables one to consider the health system as a whole, while designing demand driven solar powering programs for driving access to healthcare goals. This can be done by breaking down all aspects of solar powering and ensuring that within each aspect, the need is well-understood, the key stakeholders and their priorities are considered and capacities and relationships are accounted for. Moreover, systems are put in place for customization, expansion, and maintenance over time. The suggestions and examples provided below prioritize healthcare needs while driving enabling conditions for design and sustenance of solar for meeting current and future healthcare challenges. While healthcare systems require multiple levels of both curative and preventative healthcare, the considerations below are primarily for last mile public health curative infrastructure. Below, some best practices are elaborated across the following aspects for solar powering health:

1. Assessment

2. Technical Design

3. Financials and Budgeting

4. Procurement

5. Operations and Maintenance

6. Capacity Building

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