velocity range
简明释义
速度范围
英英释义
The range of speeds at which an object can move or operate, typically measured in units such as meters per second or miles per hour. | 一个物体可以移动或操作的速度范围,通常以米每秒或英里每小时等单位进行测量。 |
例句
1.For optimal performance, the engine should be tuned to operate efficiently within its velocity range.
为了获得最佳性能,发动机应调校以在其速度范围内高效运作。
2.The velocity range of the wind affects the flight stability of the aircraft.
风的速度范围会影响飞机的飞行稳定性。
3.The drone can operate within a velocity range of 5 to 20 meters per second.
这架无人机的速度范围是每秒5到20米。
4.The research focused on the velocity range of sound waves in different mediums.
研究集中在不同介质中声波的速度范围。
5.In the simulation, we tested the vehicle's performance across various velocity ranges.
在模拟中,我们测试了车辆在不同的速度范围内的表现。
作文
In the field of physics and engineering, understanding the concept of velocity range is crucial for various applications, particularly in the design and analysis of vehicles, projectiles, and even in fluid dynamics. The term velocity range refers to the spectrum of velocities that an object can attain during its motion. This can be influenced by numerous factors including the object's mass, the forces acting upon it, and the medium through which it moves.For instance, when engineers design a car, they must consider the velocity range that the vehicle will experience under different driving conditions. Factors such as acceleration, braking, and the terrain play significant roles in determining how fast the car can go. A well-designed sports car may have a velocity range that allows it to reach high speeds quickly, while an electric vehicle may have a different velocity range due to its unique powertrain characteristics.Moreover, the velocity range is not only limited to terrestrial vehicles. In aviation, aircraft are designed with specific velocity ranges in mind to ensure safety and efficiency. For example, commercial airliners have optimal cruising speeds that fall within a certain velocity range, allowing them to operate efficiently while minimizing fuel consumption. Pilots must be aware of these velocity ranges to maintain control during different phases of flight, such as takeoff, cruising, and landing.In the realm of projectiles, such as missiles or sports balls, the velocity range is equally important. Understanding the velocity range helps engineers optimize the design for maximum distance and accuracy. For instance, a football player needs to throw the ball within a specific velocity range to achieve the desired distance and trajectory. If the ball is thrown too slowly, it may not reach its target; if thrown too quickly, it may overshoot.Furthermore, in fluid dynamics, the velocity range of fluids affects their behavior and interaction with surfaces. Engineers must account for the velocity range of water flow when designing bridges or dams, as different velocities can lead to varying levels of erosion and structural stress. Understanding these principles is vital for creating safe and durable structures.In conclusion, the concept of velocity range is fundamental across multiple disciplines. Whether it's in automotive design, aviation, sports, or structural engineering, recognizing and optimizing the velocity range can lead to improved performance, safety, and efficiency. As technology advances, the ability to measure and analyze velocity ranges with precision will continue to enhance our understanding of motion and its applications in the real world.
在物理和工程领域,理解速度范围的概念对于各种应用至关重要,特别是在车辆、弹道以及流体动力学的设计和分析中。术语速度范围指的是一个物体在运动过程中能够达到的速度谱。这可以受到多种因素的影响,包括物体的质量、作用于其上的力量以及它所移动的介质。例如,当工程师设计一辆汽车时,他们必须考虑在不同驾驶条件下车辆将经历的速度范围。加速、制动和地形等因素在决定汽车能达到的最高速度方面起着重要作用。一辆设计良好的跑车可能具有一个允许其快速达到高速度的速度范围,而电动车由于其独特的动力系统特性,可能会有不同的速度范围。此外,速度范围不仅限于陆地车辆。在航空领域,飞机的设计也考虑到特定的速度范围以确保安全和效率。例如,商用客机有最佳巡航速度,这些速度落在某个特定的速度范围内,从而使其在最小化燃料消耗的同时高效运营。飞行员必须了解这些速度范围,以便在飞行的不同阶段(如起飞、巡航和着陆)保持控制。在弹道的领域,例如导弹或运动球,速度范围同样重要。理解速度范围有助于工程师优化设计,以实现最大距离和准确性。例如,足球运动员需要在特定的速度范围内投掷足球,以达到所需的距离和轨迹。如果足球投掷得太慢,可能无法到达目标;如果投掷得太快,可能会超出目标。此外,在流体动力学中,流体的速度范围会影响其行为及与表面的相互作用。工程师在设计桥梁或大坝时,必须考虑水流的速度范围,因为不同的速度可能导致不同程度的侵蚀和结构应力。理解这些原理对于创建安全且耐用的结构至关重要。总之,速度范围的概念在多个学科中都是基础性的。无论是在汽车设计、航空、体育还是结构工程中,识别和优化速度范围都能提高性能、安全性和效率。随着技术的进步,精确测量和分析速度范围的能力将继续增强我们对运动及其在现实世界中应用的理解。
相关单词