honeycombing

简明释义

英[ˈhʌniˌkəʊmɪŋ]美['hʌniˌkoʊmɪŋ]

v. （使）成蜂窝状；侵蚀；腐蚀（honeycomb 的现在分词）

英英释义

单词用法

同义词

反义词

例句

1.Honeycombing is usually subpleural and is characterized by well-defined walls. It is a ct feature of established pulmonary fibrosis.

蜂窝常位于胸膜下，有清楚的壁为其特征，它是一种可确定为肺纤维化的CT征象。

2.Honeycombing is usually subpleural and is characterized by well-defined walls. It is a ct feature of established pulmonary fibrosis.

蜂窝常位于胸膜下，有清楚的壁为其特征，它是一种可确定为肺纤维化的CT征象。

3.The engineer discovered signs of honeycombing in the concrete structure, indicating potential weaknesses.

工程师在混凝土结构中发现了蜂窝状腐蚀的迹象，这表明可能存在弱点。

4.During the inspection, the team noted honeycombing in the drywall, which could lead to further damage if not addressed.

在检查过程中，团队注意到干墙中有蜂窝状腐蚀，如果不处理可能会导致进一步损坏。

5.The architect was concerned about honeycombing in the building's foundation due to water damage.

建筑师对由于水损害而导致的建筑基础中的蜂窝状腐蚀感到担忧。

6.They used a special camera to detect honeycombing in the old masonry walls.

他们使用特殊相机检测旧砖石墙中的蜂窝状腐蚀。

7.The report highlighted areas of honeycombing that required immediate repair.

报告强调了需要立即修复的蜂窝状腐蚀区域。

作文

In the realm of architecture and design, the term honeycombing refers to a structural technique that mimics the natural patterns found in honeycomb structures created by bees. This method is not only aesthetically pleasing but also offers significant advantages in terms of strength and efficiency. The hexagonal pattern of a honeycomb provides an excellent balance between weight and structural integrity, making it an ideal choice for various applications, from building materials to aerospace engineering. By incorporating honeycombing into designs, architects and engineers can create lightweight yet robust structures that are both functional and visually striking. The concept of honeycombing extends beyond physical structures; it can also be applied metaphorically to various fields, including data organization and workflow optimization. For instance, in software development, honeycombing can describe a method of structuring code or data in a way that allows for easy access and manipulation. This approach enhances efficiency and reduces the complexity of systems, leading to improved performance and easier maintenance. Moreover, honeycombing is evident in nature, where many organisms have evolved to utilize this efficient structure for survival. For example, certain plants and animals exhibit honeycombing in their cellular structures, allowing them to maximize resource use while minimizing material expenditure. This natural phenomenon inspires scientists and engineers alike, driving innovation and sustainability in various industries. In urban planning, the principles of honeycombing can be applied to create more efficient public spaces. By designing neighborhoods with interconnected pathways and communal areas that reflect the honeycomb's structure, planners can foster community interaction while optimizing land use. This approach not only enhances the livability of urban areas but also promotes environmental sustainability by reducing the need for extensive transportation networks. As we consider the future of construction and design, the integration of honeycombing principles will likely play a crucial role in addressing challenges such as climate change and resource scarcity. Innovative materials that incorporate honeycombing designs are being developed to reduce energy consumption and waste during the construction process. These advancements align with the growing emphasis on sustainable practices within the industry, paving the way for greener buildings that harmonize with their surroundings. In conclusion, the concept of honeycombing serves as a powerful tool across various disciplines, from architecture to software development and urban planning. Its ability to create efficient, strong, and sustainable structures makes it an invaluable resource for professionals seeking innovative solutions to contemporary challenges. As we continue to explore the potential of honeycombing, we can expect to see its influence grow, shaping the way we design and interact with our environments.

在建筑和设计领域，术语honeycombing指的是一种模仿蜜蜂所创造的蜂窝结构的自然模式的结构技术。这种方法不仅在美学上令人愉悦，而且在强度和效率方面提供了显著优势。蜂窝的六边形图案在重量和结构完整性之间提供了良好的平衡，使其成为各种应用的理想选择，从建筑材料到航空航天工程。通过将honeycombing融入设计中，建筑师和工程师可以创建轻巧而坚固的结构，这些结构既功能性强又视觉上引人注目。 honeycombing的概念超越了物理结构；它还可以隐喻性地应用于各个领域，包括数据组织和工作流程优化。例如，在软件开发中，honeycombing可以描述一种以便于访问和操作的方式构建代码或数据的方法。这种方法提高了效率，减少了系统的复杂性，从而改善了性能并简化了维护。 此外，honeycombing在自然界中也很明显，许多生物已经进化出这种高效的结构以求生存。例如，某些植物和动物在其细胞结构中表现出honeycombing，使它们能够最大限度地利用资源，同时最小化材料支出。这种自然现象激励着科学家和工程师，推动各个行业的创新和可持续发展。 在城市规划中，honeycombing的原则可以应用于创建更高效的公共空间。通过设计具有互联路径和反映蜂窝结构的公共区域的社区，规划者可以促进社区互动，同时优化土地使用。这种方法不仅提高了城市地区的宜居性，还通过减少对广泛交通网络的需求来促进环境可持续性。 当我们考虑建筑和设计的未来时，整合honeycombing原则可能在应对气候变化和资源稀缺等挑战中发挥关键作用。正在开发的创新材料融合了honeycombing设计，以减少建筑过程中的能源消耗和浪费。这些进展与行业内日益重视可持续实践的趋势相一致，为与周围环境和谐相处的绿色建筑铺平了道路。 总之，honeycombing的概念在建筑、软件开发和城市规划等各个学科中都作为一种强大的工具。它创造高效、坚固和可持续结构的能力使其成为专业人士寻求创新解决当代挑战的重要资源。随着我们继续探索honeycombing的潜力，我们可以预期看到其影响力不断增长，塑造我们设计和与环境互动的方式。