Integrated Community Energy and Harvesting Systems (ICE-Harvest)

综合社区能源和收获系统（ICE-收获）是一个合作研究项目，提供了一个创新的机制，以社区为基础的热能和电能的使用和生产，大大减少温室气体排放（GHG）的整合。问题是传统的天然气发电厂会产生“废”热;由于热量产生和热量需求之间的距离，燃料中高达60-70%的能量被“损失”或“浪费”。拟议中的ICE-收获系统将在社区层面整合电力和供热，以便社区能够获得天然气发电厂产生的热量，减少我们家中需要燃烧的额外天然气量。由于安大略对热量的需求如此之大（产生的二氧化碳排放量约为电力的4倍），因此有很大的机会大幅减少化石燃料的消耗，从而有可能每年减少560万吨二氧化碳的碳足迹。ICE-收获系统在密集的混合使用区域附近以小规模（250 kWe-2 MWe）发电，以满足当地的高峰需求（全天，季节和全年都在变化），同时收获很大一部分“废”热能，以供应当地的微型热力网络。ICE-Harvest是不同的，更适合安大略和其他需要优先考虑热量管理的寒冷地区，因此有能力更好地管理我们的能源需求，同时减少化石燃料的消耗。它通过需求管理技术的新组合-热泵和吸收式制冷机-来管理对电能和热能的动态需求，并采用短期和季节性热储存，如地热和相变方法。本文提出的研究将创建独特的设计工具，使我们能够规划潜在站点的能源系统集成。这些工具将使用已经资助的麦克马斯特冰收获研究系统进行验证和演示;该设施不仅在加拿大而且在全球都是独一无二的。

Integrated Community Energy and Harvesting System (ICE-Harvest) is a cooperative research project that provides an innovative mechanism for community based integration of thermal and electrical energy use and production that significantly reduces greenhouse gas emissions (GHG). The problem is that traditional natural gas power plants produce "waste" heat; up to 60-70% of the energy in the fuel is "lost" or "wasted" due to the distance between heat generation and thermal demand. The proposed ICE-Harvest system will instead integrate electricity and heat production at the community level, so that communities will have access to this heat produced by natural gas power plants, decreasing the amount of extra natural gas required to be burned in our homes for heat. As the demand for heat in Ontario is so large (producing approximately 4 times the CO2 emissions of electricity), there is a great opportunity to significantly reduce fossil fuel consumption, thus potentially reducing our carbon footprint by 5.6 million tonnes of CO2 per year. The ICE-Harvest system generates electricity at a small-scale (250 kWe-2 MWe) near intensified, mixed-used areas in order to meet local peak demands (which change throughout the day, season, and year) while harvesting a significant portion of the "waste" thermal energy to supply local micro-thermal networks. ICE-Harvest is different and more appropriate for Ontario and other cold regions that need to prioritize heat management, and thus has the capability to better manage our energy needs while simultaneously reducing fossil fuel consumption. It does this through a novel combination of demand management technologies - heat pumps and absorption chillers to manage the dynamic demand for both electrical and thermal energy with both short-term and seasonal thermal storage, such as geothermal and phase change approaches. The research proposed herein will create unique design tools that will enable us to plan energy system integration for potential sites. The tools will be validated and demonstrated using the already funded McMaster ICE-Harvest Research System; a facility that is unique not only in Canada but globally.