non-condensing turbine

简明释义

非凝汽式汽轮机

英英释义

A non-condensing turbine is a type of steam turbine that discharges steam at a pressure above atmospheric pressure, allowing the steam to be reused or exhausted directly into a heating system rather than being condensed back into water.

非凝结涡轮是一种蒸汽涡轮,排放的蒸汽压力高于大气压力,允许蒸汽被重复利用或直接排放到加热系统中,而不是冷凝回水。

例句

1.The power plant operates a non-condensing turbine for efficient energy conversion.

该发电厂使用非凝结涡轮机以提高能量转换效率。

2.The efficiency of a non-condensing turbine is often lower than that of a condensing turbine.

与凝结涡轮机相比,非凝结涡轮机的效率通常较低。

3.In many industrial applications, a non-condensing turbine is preferred due to its simplicity.

在许多工业应用中,由于其简单性,通常首选非凝结涡轮机

4.The non-condensing turbine can operate at lower pressures compared to condensing types.

与凝结型涡轮机相比,非凝结涡轮机可以在较低压力下运行。

5.We installed a non-condensing turbine to meet the steam requirements of our facility.

我们安装了一台非凝结涡轮机以满足我们设施的蒸汽需求。

作文

The world of power generation is vast and varied, encompassing numerous types of turbines that serve different purposes. Among these, the non-condensing turbine stands out as a crucial component in certain industrial applications. Unlike condensing turbines, which operate by converting steam into water and recovering heat from the condensation process, non-condensing turbines function without this heat recovery mechanism. This fundamental difference makes them particularly suitable for specific operational contexts where efficiency can be optimized in other ways.To understand the significance of non-condensing turbines, one must first delve into their design and operation. These turbines are typically used in applications where the exhaust steam does not need to be condensed back into water. Instead, they release steam directly into the atmosphere or into a secondary process. This means that non-condensing turbines are often employed in industries where steam is used for heating or where it can be vented without environmental concerns.One of the key advantages of using non-condensing turbines lies in their simplicity and lower initial cost. Since they do not require a condenser, the overall system design can be less complex, leading to savings in both construction and maintenance. Additionally, because they do not operate under vacuum conditions like their condensing counterparts, non-condensing turbines can be more robust and able to handle variations in steam quality without significant performance degradation.In terms of efficiency, while non-condensing turbines may not achieve the same thermal efficiency as condensing turbines, they have their own unique benefits. For instance, in applications where the primary goal is to generate mechanical power rather than to maximize energy recovery, non-condensing turbines can perform admirably. They are often found in combined heat and power (CHP) systems, where the focus is on generating electricity while simultaneously providing useful thermal energy.Moreover, the choice between a non-condensing turbine and a condensing turbine often depends on the specific requirements of the project. For example, in a sugar mill, a non-condensing turbine might be preferred because the steam produced can be used directly in the processing of sugar, thereby eliminating the need for additional equipment to condense the steam.However, it is essential to consider the environmental implications of using non-condensing turbines. Releasing steam directly into the atmosphere can lead to increased emissions if not managed properly. Therefore, industries utilizing these turbines must ensure compliance with environmental regulations and explore options for minimizing their ecological footprint.In conclusion, non-condensing turbines play a vital role in various industrial processes. Their straightforward design, cost-effectiveness, and suitability for specific applications make them an attractive option for many businesses. By understanding the operational principles and benefits of non-condensing turbines, engineers and decision-makers can make informed choices that align with their energy needs and environmental responsibilities.

发电的世界广阔而多样,包含了许多不同类型的涡轮机,服务于不同的目的。在这些涡轮机中,非凝结涡轮机作为某些工业应用中的关键组成部分脱颖而出。与通过将蒸汽转化为水并从凝结过程中回收热量的凝结涡轮机不同,非凝结涡轮机在没有这种热回收机制的情况下运作。这一根本区别使它们特别适合在其他方式中可以优化效率的特定操作环境。要理解非凝结涡轮机的重要性,首先必须深入了解它们的设计和操作。这些涡轮机通常用于不需要将排放蒸汽凝结回水的应用中。相反,它们将蒸汽直接释放到大气中或进入二次工艺中。这意味着非凝结涡轮机常常被应用于蒸汽用于加热或可以在没有环境顾虑的情况下排放的行业。使用非凝结涡轮机的一个关键优势在于它们的简单性和较低的初始成本。由于它们不需要冷凝器,整体系统设计可以更简单,从而节省建设和维护成本。此外,由于它们不像其凝结对应物那样在真空条件下运行,非凝结涡轮机可能更坚固,能够处理蒸汽质量的变化而不会显著影响性能。在效率方面,虽然非凝结涡轮机可能无法达到凝结涡轮机的同样热效率,但它们有自己独特的优点。例如,在主要目标是产生机械动力而不是最大化能量回收的应用中,非凝结涡轮机可以表现得很好。它们常常出现在联合热电(CHP)系统中,重点是发电的同时提供有用的热能。此外,选择非凝结涡轮机还是凝结涡轮机往往取决于项目的具体要求。例如,在糖厂中,可能更倾向于使用非凝结涡轮机,因为产生的蒸汽可以直接用于糖的加工,从而消除了需要额外设备去冷凝蒸汽的必要性。然而,使用非凝结涡轮机的环境影响必须考虑。直接将蒸汽释放到大气中如果管理不当可能导致排放增加。因此,利用这些涡轮机的行业必须确保遵守环境法规,并探索减少生态足迹的选项。总之,非凝结涡轮机在各种工业过程中发挥着重要作用。它们的简单设计、成本效益和适用于特定应用的能力使它们成为许多企业的吸引选择。通过理解非凝结涡轮机的操作原理和优点,工程师和决策者可以做出符合其能源需求和环境责任的明智选择。

相关单词

turbine

turbine详解:怎么读、什么意思、用法