地理多样化服务的碳感知数据复制

Zichen Xu, Nan Deng, Christopher Stewart, Xiaorui Wang
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引用次数: 31

摘要

互联网服务将数据复制到世界各地不同地理位置的站点,通常是通过一致的散列。总的来说,这些站点跨越多个电力部门,独立控制每个站点的碳排放。从高碳站点提供数据会增加服务的碳足迹,但很难将数据放在低排放率的站点上,而不复制到太多站点。我们提出了CADRE,一种具有碳意识的数据复制方法。CADRE预测每个站点的排放率,并将数据复制到组合在一起以产生低碳足迹的站点。它在线做出复制决策,即在创建数据时做出复制决策,从而避免由于响应不断变化的释放率而频繁移动数据而造成的释放。CADRE使用多项选择秘书算法将大足迹物体复制到低排放地点。它使用足迹-复制曲线对每个对象的碳足迹进行建模,这是一个将复制因子映射到预期碳足迹的图表。CADRE还实现了可用性目标,尊重存储容量限制,并在站点之间平衡数据。与一致性哈希相比,我们的方法减少了70%的碳足迹。它还支持并增强了最先进的绿色负载平衡,将碳足迹额外减少了21%。
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CADRE: Carbon-Aware Data Replication for Geo-Diverse Services
Internet services replicate data to geo-diverse sites around the world, often via consistent hashing. Collectively, these sites span multiple power authorities that independently control carbon emissions at each site. Serving data from a carbon-heavy site increases the service's carbon footprint, but it is hard to place data at sites that will have low emission rates without replicating to too many sites. We present CADRE, a carbon-aware data replication approach. CADRE forecasts emission rates at each site and replicates data to sites that combine together to yield low carbon footprints. It makes replication decisions online, i.e., When data is created, and thus avoids emissions caused by moving data frequently in response to changing emission rates. CADRE uses the multiple-choice secretary algorithm to replicate objects with large footprints to low emission sites. It models carbon footprints for each object using the footprint-replication curve, a graph that maps replication factors to expected carbon footprints. CADRE also achieves availability goals, respects storage capacity limits and balances data across sites. Compared to consistent hashing, our approach reduces carbon footprints by 70%. It also supports and enhances the state-of-the-art green load balancing, reducing the carbon footprint by an additional 21%.
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