drillability

简明释义

英[ˌdrɪləˈbɪlɪti]美[drɪləˈbɪləti]

n. [矿业] 可钻性

英英释义

单词用法

同义词

反义词

例句

1.Related techniques and conditions are provided for drillability prediction to particular oil fields.

为实现特定区域油田的可钻性预测提供了技术和条件。

2.In this paper the predictability of drillability time series was analyzed using fractal method based on the study of drillability time series characters.

本文从研究可钻性时间序列特征出发，应用分形几何方法，分析了可钻性时序的可预测性。

3.The study of Rock drillability and blastibility is a basic topic in the fields of drilling and blasting, it has important practical meaning also.

岩石可钻性和可爆性研究是凿岩爆破领域的基础性课题，同时也具有重要的实际意义。

4.Drillability of the rocks in deep zones should be researched and effective bit fits for deep glutenite should be developed and introduced.

开展深层岩石可钻性研究，研制和引进适合深层砂砾岩体的高效钻头。

5.Practically it proves that the fractal method has higher precision to ascertain rock drillability grade.

经现场检验，分形法确定岩石可钻性级值具有较高的精度。

6.Nowadays, at home and abroad, there are few reports about how to predict rock drillability of wildcat well before drilling in new exploration area.

目前，国内外关于新探区野猫井的岩石可钻性钻前预测方面的研究很少。

7.Test shows that it's an effective model to predict the formation drillability, and its accuracy reaches as high as 90%.

通过实例验证，表明这是一种有效的确定可钻性的方法，其预测精度可以达到90 %以上。

8.The engineers assessed the drillability of the new material before starting the project.

工程师在项目开始前评估了新材料的可钻性。

9.High drillability can significantly reduce drilling time and costs.

高可钻性可以显著减少钻探时间和成本。

10.Understanding the drillability of rock formations is crucial for successful mining operations.

了解岩石层的可钻性对成功的采矿作业至关重要。

11.The team conducted tests to measure the drillability of various soil types.

团队进行了测试，以测量各种土壤类型的可钻性。

12.A material with low drillability may require specialized tools for effective drilling.

具有低可钻性的材料可能需要专业工具才能有效钻孔。

作文

In the field of engineering and manufacturing, the term drillability is often used to describe how easily a material can be drilled. This characteristic is crucial for various applications, including the production of machinery parts, construction materials, and many other components that require precise holes or openings. Understanding drillability is essential for engineers and machinists as it directly impacts the efficiency of the drilling process and the overall quality of the finished product. One of the primary factors that affect drillability is the material’s hardness. For instance, softer materials like aluminum and plastics are generally easier to drill compared to harder materials such as titanium or hardened steel. When working with hard materials, specialized tools and techniques may be necessary to achieve the desired results. Additionally, the type of drill bit used can significantly influence drillability. High-speed steel bits, carbide-tipped bits, and cobalt bits each have their advantages and are suited for different materials. Another important aspect to consider is the geometry of the drill bit itself. The design of the bit, including its point angle, flute design, and coating, can enhance or hinder drillability. For example, a drill bit with a sharper point angle may penetrate materials more effectively, while a well-designed flute can help remove chips and debris from the hole, thus improving the overall drilling performance. Moreover, the speed and feed rate during drilling operations also play a significant role in determining drillability. If the speed is too high for a particular material, it can lead to overheating and damage to both the drill bit and the workpiece. Conversely, if the feed rate is too slow, it may result in inefficient drilling and increased wear on the tool. Therefore, finding the right balance is crucial to optimizing the drilling process. In addition to these technical considerations, understanding the drillability of a material can also contribute to cost savings in manufacturing. By selecting materials that are easier to drill, companies can reduce machining time and extend the life of their tools, ultimately leading to lower production costs. Furthermore, this knowledge can aid in choosing the appropriate manufacturing methods and technologies, ensuring that projects are completed efficiently and within budget. In conclusion, drillability is a vital concept in the world of engineering and manufacturing. It encompasses various factors, including material hardness, drill bit design, and operational parameters, all of which contribute to the effectiveness of the drilling process. By gaining a deeper understanding of drillability, professionals in the field can improve their practices, enhance product quality, and achieve greater efficiency in their operations. As technology continues to evolve, staying informed about advancements in drilling techniques and materials will be essential for maintaining a competitive edge in the industry.

在工程和制造领域，术语drillability通常用于描述材料被钻孔的难易程度。这个特性对于各种应用至关重要，包括机械零件的生产、建筑材料以及许多其他需要精确孔或开口的组件。理解drillability对于工程师和机械师来说是必不可少的，因为它直接影响钻孔过程的效率和成品的整体质量。 影响drillability的主要因素之一是材料的硬度。例如，铝和塑料等较软的材料通常比钛或硬化钢等较硬的材料更容易钻孔。处理硬材料时，可能需要专用工具和技术以达到所需的结果。此外，使用的钻头类型也会显著影响drillability。高速钢钻头、碳化钨钻头和钴钻头各有其优点，适用于不同的材料。 另一个重要方面是钻头本身的几何形状。钻头的设计，包括其尖端角度、槽设计和涂层，可以增强或阻碍drillability。例如，尖端角度更锐利的钻头可能更有效地穿透材料，而设计良好的槽可以帮助清除孔中的切屑和碎屑，从而提高整体钻孔性能。 此外，钻孔操作中的速度和进给率也在确定drillability方面发挥着重要作用。如果速度对某种材料来说过高，可能会导致过热并损坏钻头和工件。相反，如果进给率过慢，可能会导致钻孔效率低下并增加工具磨损。因此，找到合适的平衡对于优化钻孔过程至关重要。 除了这些技术考虑外，了解材料的drillability还可以为制造带来成本节约。通过选择易于钻孔的材料，公司可以减少加工时间并延长工具的使用寿命，从而降低生产成本。此外，这一知识可以帮助选择适当的制造方法和技术，确保项目高效且在预算内完成。 总之，drillability是工程和制造领域中的一个重要概念。它涵盖了多个因素，包括材料硬度、钻头设计和操作参数，所有这些都对钻孔过程的有效性产生影响。通过深入理解drillability，该领域的专业人员可以改善他们的实践，提高产品质量，并在操作中实现更大的效率。随着技术的不断发展，保持对钻孔技术和材料进展的了解将对在行业中保持竞争优势至关重要。