pneumatics

简明释义

[njʊˈmætɪks][nʊˈmætɪks]

n. [流]气体力学;充气轮胎(pneumatic 的复数形式)

英英释义

Pneumatics is a branch of technology that deals with the mechanical properties and behavior of gases, especially in the context of using compressed air to perform work.

气动学是一个技术领域,研究气体的机械特性和行为,尤其是在使用压缩空气进行工作的情况下。

单词用法

pneumatic conveying

气力输送;气动输送;气龄送;风送

pneumatic system

气压系统;空气糸统,通气系

同义词

air power

气动动力

The factory uses air power to operate its machinery.

工厂使用气动动力来操作其机械设备。

fluid dynamics

流体动力学

Fluid dynamics plays a crucial role in the design of pneumatic systems.

流体动力学在气动系统的设计中起着至关重要的作用。

compressed air systems

压缩空气系统

Compressed air systems are essential for many industrial applications.

压缩空气系统对许多工业应用至关重要。

反义词

hydraulics

液压

Hydraulics is often used in heavy machinery for lifting and moving.

液压系统常用于重型机械的提升和移动。

solids

固体

In construction, solids are preferred for stability and strength.

在建筑中,固体材料因其稳定性和强度而受到青睐。

例句

1.Pneumatics is used in vital and sensitive areas like cooling for spindle, pressurized air for spindle, linear glass scales etc.

在机床上气源被用在关键和敏感领域,例如主轴冷却,主轴和直线光栅尺等的气墙。

2.MDA encompasses the entire range of products available on the global market for electrical and mechanical power transmission, hydraulics and pneumatics.

家国际参展商将展示他们电力传输和控制领域的最新产品。

3.Compared with tool system driven by oil hydraulics or pneumatics, this kind of tool system has many advantages and has broad applications in ocean exploitation and shipping engineering.

该系统同电动、气动或油压工具相比,具有诸多独特的优势,在海洋开发、船舶工程等领域均有广阔的应用前景。

4.Nitrogen's properties benefit applications such as heat treating atmospheres, blanketing atmospheres, propellants, pneumatics, purging and pressurizing, and analytical carrier gases.

氮的性质使许多应用受益,如热处理气氛、覆盖气氛、推进剂、气体力学、净化和加压以及分解运载气体。

5.Until his retirement in 1977, Leonard Clippard continued to be a pioneer in miniature pneumatics.

直到他1977年退休,伦纳德Clippard仍然是气动先锋的一个缩影。

6.The techniques and methods studied in this paper can be referenced by enterprises to develop pneumatics automation manufacturing system.

论文所研究的技术和方法可以为企业开发气动自动化系统提供参考。

7.The factory uses pneumatics to power its assembly line machinery.

工厂使用气动技术来驱动其装配线机械。

8.The dentist's office utilizes pneumatics for dental chairs and suction devices.

牙医办公室利用气动技术来操作牙科椅和吸引装置。

9.The robotics lab incorporates pneumatics to create more flexible robotic arms.

机器人实验室结合气动技术来制造更灵活的机器人手臂。

10.Many construction sites rely on pneumatics for jackhammers and nail guns.

许多建筑工地依赖于气动技术来使用破碎锤和钉枪。

11.In the automotive industry, pneumatics is essential for operating tools and equipment.

在汽车工业中,气动技术对于操作工具和设备至关重要。

作文

In today's rapidly advancing technological landscape, the field of engineering has seen significant innovations, particularly in the area of automation and control systems. One of the most fascinating branches of engineering is pneumatics, which deals with the use of pressurized gas to produce mechanical motion. This technology has become increasingly important in various industries, including manufacturing, construction, and even healthcare. Understanding pneumatics not only enhances our knowledge of engineering principles but also opens up opportunities for innovation and efficiency improvements.At its core, pneumatics involves the use of compressed air or gas to create force and movement. The basic components of a pneumatics system include compressors, valves, actuators, and various fittings and tubes. Compressors are responsible for converting electrical energy into potential energy stored in the form of compressed air. This air is then directed through valves that control its flow and pressure, ultimately reaching the actuators, which convert the air pressure into mechanical work.One of the primary advantages of pneumatics is its ability to provide rapid and precise movements. For instance, in an automated assembly line, pneumatics can be used to power robotic arms that assemble products at incredible speeds. This not only increases production rates but also reduces the risk of human error, resulting in higher quality products. Furthermore, pneumatics systems are generally safer than their hydraulic counterparts, as they do not involve the use of potentially hazardous fluids.In addition to industrial applications, pneumatics has made significant contributions to the medical field. For example, pneumatics is used in various medical devices, such as ventilators and surgical tools. These devices rely on the controlled movement of air to function effectively, showcasing the versatility and importance of pneumatics in enhancing patient care and surgical precision.Moreover, the environmental impact of pneumatics technology cannot be overlooked. As industries strive to adopt more sustainable practices, pneumatics systems can be designed to be energy-efficient, utilizing less power while maintaining performance. Additionally, because compressed air can be generated using renewable energy sources, pneumatics systems have the potential to reduce carbon footprints in various applications.Despite its many benefits, there are challenges associated with pneumatics. For instance, maintaining optimal pressure levels and preventing air leaks are crucial for ensuring the efficiency of pneumatics systems. Engineers must continuously monitor and optimize these systems to maximize their performance and reliability. Furthermore, as technology advances, there is a growing need for professionals skilled in pneumatics to design, implement, and maintain these systems effectively.In conclusion, pneumatics is a vital aspect of modern engineering that plays a crucial role in various industries. Its ability to harness the power of compressed air for mechanical movement offers numerous advantages, including speed, precision, and safety. As we continue to innovate and seek more sustainable solutions, understanding and mastering pneumatics will be essential for future engineers and technologists. By embracing this technology, we can drive progress and improve efficiencies across many sectors, ultimately benefiting society as a whole.

在当今快速发展的技术环境中,工程领域见证了显著的创新,特别是在自动化和控制系统方面。工程学中最引人入胜的分支之一是气动技术,它涉及使用加压气体来产生机械运动。这项技术在制造、建筑甚至医疗等各个行业变得越来越重要。理解气动技术不仅增强了我们对工程原理的知识,还为创新和效率提升开辟了机会。气动技术的核心是利用压缩空气或气体产生力量和运动。气动技术系统的基本组件包括压缩机、阀门、执行器以及各种配件和管道。压缩机负责将电能转化为以压缩空气形式储存的潜能。这种空气随后通过阀门进行控制,阀门控制其流动和压力,最终到达执行器,执行器将气压转化为机械工作。气动技术的主要优势之一是能够提供快速而精确的运动。例如,在自动化装配线上,气动技术可以用于驱动机器人手臂,以惊人的速度组装产品。这不仅提高了生产率,还减少了人为错误的风险,从而生产出更高质量的产品。此外,气动技术系统通常比液压系统更安全,因为它们不涉及使用可能危险的液体。除了工业应用,气动技术还对医疗领域做出了重大贡献。例如,气动技术被用于各种医疗设备,如呼吸机和外科工具。这些设备依赖于空气的受控运动来有效运行,展示了气动技术在改善患者护理和外科精度方面的多样性和重要性。此外,气动技术技术对环境的影响也不容忽视。随着各行各业努力采用更可持续的实践,气动技术系统可以设计得更加节能,以更少的功率保持性能。此外,由于压缩空气可以使用可再生能源生成,气动技术系统有可能减少各类应用中的碳足迹。尽管有许多好处,但与气动技术相关的挑战也不可忽视。例如,维持最佳压力水平和防止空气泄漏对于确保气动技术系统的效率至关重要。工程师必须不断监测和优化这些系统,以最大化它们的性能和可靠性。此外,随着技术的发展,越来越需要熟练掌握气动技术的专业人士来有效设计、实施和维护这些系统。总之,气动技术是现代工程的重要组成部分,在各个行业中发挥着关键作用。它利用压缩空气进行机械运动的能力提供了许多优势,包括速度、精度和安全性。随着我们继续创新并寻求更可持续的解决方案,理解和掌握气动技术将对未来的工程师和技术人员至关重要。通过拥抱这项技术,我们可以推动进步,提高各个领域的效率,最终造福整个社会。