allowable pressure 基本释义：
allowable pressure 是指允许的压力，通常用于描述某种设备或系统在特定条件下可以承受的压力范围。
allowable pressure 的发音：
allowable pressure的发音为 [??l??m?bl ?pe???]。
allowable pressure 英语范文：
题目：讨论如何确保设备的正常运行并避免压力过高的问题。
Allowable pressure is an important factor in ensuring the proper operation of equipment. High pressure can cause damage to the equipment and result in safety issues. Therefore, it is crucial to monitor the pressure levels in the equipment and take appropriate measures to maintain them within the allowable range.
One way to do this is to install pressure sensors that can monitor the pressure levels in real-time and alert operators if the pressure exceeds the allowable limit. This will allow operators to take action quickly and prevent further damage to the equipment.
Another approach is to use pressure relief valves that automatically release excess pressure to prevent it from building up. These valves can be set to release at a specific pressure level, ensuring that the equipment remains within its allowable range at all times.
In conclusion, ensuring allowable pressure levels is essential for the proper operation of equipment and preventing potential safety issues. By using sensors and relief valves, operators can maintain the pressure within the allowable range and ensure the safety of the equipment and personnel.
allowable pressure的英语作文音标和基础释义：
allowable pressure的英语作文音标为 [??l??m?bl ?pe??? l] ，基础释义为允许的压力。在特定情况下，允许的压力范围对于设备的正常运行和避免压力过高的问题至关重要。可以通过安装压力传感器和压力释放装置来确保设备的正常运行并避免压力过高的问题。
allowable pressure
allowable pressure是一个常见的英语词汇，通常用于描述某种特定条件下可以承受的压力范围。
发音：['?l?m?bl, p?'z??l]
英语范文：
标题： Understanding Allowable Pressure in Engineering
Allowable pressure is an important concept in engineering. It refers to the maximum pressure that a component or system can withstand without failure. Understanding allowable pressure is crucial for ensuring the safety and reliability of engineering designs.
When designing a system, engineers must carefully consider the allowable pressure for each component and the overall system. This includes factors such as material properties, design specifications, and operating conditions. If the pressure exceeds the allowable limit, it can lead to structural failure, damage, or even safety hazards.
In a hydraulic system, for example, the allowable pressure refers to the maximum pressure that the pump, pipes, and valves can withstand. If the pressure is too high, it can cause leaks, damage to components, or even explosions. Therefore, it is essential to follow the specified pressure limits to ensure safe and reliable operation.
In addition to engineering systems, allowable pressure is also relevant to other areas such as construction and manufacturing. For instance, in building structures, the allowable compression and tension forces must be carefully considered to ensure the structural integrity of the building.
In conclusion, allowable pressure is an essential concept that must be taken into account when designing and operating systems and structures. Understanding and adhering to the specified pressure limits can help ensure safety and reliability in all aspects of life.
allowable pressure
Allowable pressure refers to the maximum pressure that a system or component can withstand without exceeding its design specifications or causing damage. It is important to ensure that the pressure within a system or component does not exceed its allowable pressure to avoid potential safety hazards or equipment failure.
In the context of air conditioning systems, for example, the allowable pressure refers to the maximum pressure that the compressor can withstand without exceeding its maximum operating pressure. If the compressor is subjected to excessive pressure, it may experience damage or failure, leading to system malfunction or shutdown. Therefore, it is necessary to monitor the system pressure and ensure that it does not exceed the allowable pressure.
In other contexts, such as hydraulic systems or fuel systems, allowable pressure may refer to the maximum pressure that a system can withstand without exceeding its design specifications or causing damage.
In writing an essay on allowable pressure, you could consider discussing the importance of ensuring that systems and components do not exceed their allowable pressures, as well as the various factors that can affect these pressures, such as component design, material selection, and operating conditions. You could also explore how monitoring and controlling pressures can help ensure system safety and reliability.
Here's an example essay in English:
"Allowable Pressure: The Key to Safety and Reliability"
In today's industrialized society, ensuring the safety and reliability of systems and components is of paramount importance. One such factor that must be carefully monitored is the allowable pressure within a system or component. Allowable pressure refers to the maximum pressure a system or component can withstand without exceeding its design specifications or causing damage.
Exceeding this allowable pressure can have catastrophic consequences, leading to equipment failure, safety hazards, and even personal injury or loss. Therefore, it is essential to ensure that all systems and components are operated within their allowable pressures at all times.
The design of a system, as well as its material selection and operating conditions, all play a role in determining its allowable pressure. For example, a component made from a stronger material will have a higher allowable pressure than one made from a weaker material. Additionally, operating conditions such as temperature and humidity can also affect the allowable pressure of a system or component.
To ensure safety and reliability, it is necessary to monitor the system pressure at all times and take appropriate action if it exceeds the allowable pressure. This may involve adjusting the system parameters, replacing damaged components, or taking other necessary measures to restore the system to its safe and reliable operating condition.
In conclusion, ensuring that systems and components do not exceed their allowable pressures is crucial for ensuring safety and reliability in today's complex industrial environments. By carefully monitoring pressures and taking appropriate action when necessary, we can minimize potential hazards and maintain system efficiency and longevity.
