在商业建筑应用中应用循环泵技术的创新

B. Vairamohan, M. Samotyj, Nick Pournaras, Brian Christopher Harrison
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引用次数: 1

摘要

随着政府法规推动电机和电机驱动系统的更高效率,新的电机技术,传感器和控制正在开发并引入主流市场。然而,由于对新兴技术的好处缺乏认识,这些新节能技术的采用率较低。这些“未知”技术之一是循环泵,主要用于中央供暖系统,在欧洲更为常见。欧洲每年大约销售1400万台循环泵,预计到2020年将增长到1700万台(增长率为1.4%)。安装的基础可能是大约1.4亿个或更多的循环泵。2005年,欧洲所有循环泵消耗的总能量约为50太瓦时,预计到2020年将高达55太瓦时。在美国,大约安装了3000万台循环泵,年销售量约为300万台。2013年,EPRI对选定的“新设计”循环泵进行了实验室测试。测试结果表明,所选择的泵(商业名称麦格纳3)使用至少41%的功率比等效的基线泵。永磁体电机以及使用微处理器为基础的控制器的反馈回路控制有助于降低该循环泵的总体功耗。微处理器不断学习系统要求和使用模式,并通过改变泵的性能曲线来调整泵的速度。实验室测试的缺点之一是,由于实验室测试条件有限,无法对泵的全部能力进行评估。因此,该泵的现场演示主要集中在评估其在实际情况下的附加特性和能力。本文介绍了该循环泵现场试验的结果,以及在各种运行模式下潜在的节能机会。除了节能的机会,循环泵也显示出显著的控制系统改进和先进的智能传感器适应。该技术还显示出在商业HVAC(集中供暖)以及其他热水应用中减少水和能源使用的潜力。
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Applying innovations in circulator pump technology for commercial building applications
As government regulations push for higher efficiency in motors and motor driven systems, newer motor technologies, sensors and controls are being developed and introduced into the mainstream marketplace. However, the adoption of these new energy saving technologies is lower because of a lack of awareness of the benefits of emerging technologies. One of these "unknown" technologies is the circulator pumps that are used principally for central heating systems and more common in Europe. There are approximately 14 million circulator pumps sold in Europe annually, which is expected to grow to 17 million (at a growth rate of 1.4%) by 2020. The installed base could be approximately 140 million or more circulator pumps. The total energy consumed by all the circulator pumps in Europe alone in 2005 was approximately 50 TWh, and is expected to rise as high as 55 TWh in 2020. In the U.S., there are approximately 30 million installations of circulator pumps with annual sales of approximately 3 million units. EPRI conducted laboratory tests on the selected "new design" circular pump in 2013. Test results show that the selected pump (commercial name Magna 3) use at least 41% less power than an equivalent baseline pump. The permanent magnet motor along with the feedback loop control using a microprocessor-based controller helps reduce the overall power consumption of this circulator pump. The microprocessor constantly learns the system requirements and usage pattern and adjusts the speed of the pump by changing the pump performance curve. One of the shortcomings of the laboratory tests was that the full capabilities of the pump could not be evaluated due to limited laboratory test conditions. The field demonstration of this pump, therefore, focused on evaluating its additional features and capabilities in a real-life situation. This paper presents the results from the field demonstration of this circulator pump testing and the potential energy savings opportunities under various operating modes. Apart from the energy savings opportunities, the circulator pump also shows significant control system improvements and advanced smart sensors adaptations. This technology also exhibits the potential to reduce both water and energy use in commercial HVAC (centralized heating) as well as other hot water applications.
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