dendritic

简明释义

英[ˌdenˈdrɪtɪk]美[ˌdenˈdrɪtɪk]

adj. 树枝状的；树状的

英英释义

单词用法

同义词

反义词

例句

1.Omar Ali and his colleagues at Harvard University have found a way to teach the dendritic cells to identify cancer.

OmarAli和哈佛大学的同事找到了一种让树状细胞识别肿瘤的方法。

2.These compounds activate dendritic cells to produce proinflammatory cytokines, which in turn trigger cytotoxic mechanisms leading to cancer death.

这些化合物能够启动树状突细胞产生致炎因子从而依次来引发可导致癌细胞死亡的细胞毒作用。

3.Objective: to induce and differentiate into dendritic cells from leukemic cells of patients with chronic myeloid leukemia.

目的：将慢性髓性白血病患者的白血病细胞体外诱导分化成为树突状细胞。

4.Ojective To study the function of CD40 molecules expressed on peripheral monocytes and dendritic cells.

目的探讨CD40分子在树突状细胞和外周血单核细胞表达的意义。

5.Objective To study the degree of infiltration of dendritic cells in lung cancer in relation to prognosis.

目的研究肺癌组织中肿瘤浸润树突状细胞的浸润程度对预后的影响。

6.Objective To observe the morphology of mouse thymic dendritic cells (TDC).

目的观察小鼠胸腺树突状细胞(TDC)的形态。

7.The hippocampi from the dim-light group had significantly fewer dendritic spines than those from the dark night group.

在昏暗光条件下的海马比起黑暗环境下的海马减少了重要的树突棘。

8.The neuron has a complex structure with many dendritic 树突状 branches that receive signals from other neurons.

这个神经元有一个复杂的结构，许多dendritic 树突状 分支接收来自其他神经元的信号。

9.In the study of geology, dendritic 树枝状 drainage patterns indicate the presence of a river system.

在地质学研究中，dendritic 树枝状 排水模式表明存在一个河流系统。

10.The dendritic 树突状 structure of the crystal was fascinating to the mineralogist.

矿物学家对这种晶体的dendritic 树突状 结构感到着迷。

11.Researchers are investigating how dendritic 树突状 cells in the immune system respond to infections.

研究人员正在调查免疫系统中的dendritic 树突状 细胞如何对感染作出反应。

12.The artist used a dendritic 树枝状 pattern in her painting to symbolize growth and connection.

这位艺术家在她的画作中使用了dendritic 树枝状 图案来象征成长和联系。

作文

The natural world is filled with intricate patterns and structures that often inspire scientific research and artistic expression. One such pattern is the dendritic (树状的) structure, which can be observed in various forms across different disciplines. From the branching of trees to the neural networks in our brains, dendritic (树状的) formations are not only aesthetically pleasing but also serve crucial functions in biology, geology, and even technology. In biology, dendritic (树状的) structures are vital for the functioning of many organisms. For instance, neurons in the human brain have dendritic (树状的) branches that receive signals from other neurons. This complex network allows for the transmission of information throughout the nervous system, enabling us to think, feel, and react to our environment. The health of these dendritic (树状的) connections is critical; damage to them can lead to neurological disorders such as Alzheimer's disease or multiple sclerosis. Beyond biology, dendritic (树状的) patterns can also be found in geology. The formation of river systems often exhibits dendritic (树状的) characteristics, where water flows through a network of tributaries resembling the branches of a tree. This dendritic (树状的) design is efficient for drainage and helps shape the landscape over time. Geologists study these patterns to understand erosion and sediment deposition, which are essential for predicting natural disasters like floods. In technology, the concept of dendritic (树状的) structures has been applied to the development of computer networks and algorithms. The branching pathways of dendritic (树状的) networks allow for efficient data transfer and communication between devices. Researchers are exploring how these biological principles can enhance the design of artificial intelligence systems, making them more adaptable and efficient. Art and architecture also draw inspiration from dendritic (树状的) forms. Artists often replicate these natural patterns in their work, creating visually stunning pieces that resonate with viewers on a subconscious level. Similarly, architects may incorporate dendritic (树状的) designs in their buildings, allowing for better airflow and natural light, while also providing a unique aesthetic appeal. The versatility of dendritic (树状的) structures highlights the interconnectedness of various fields of study. By examining these patterns, we can gain insights into the underlying principles that govern both natural and artificial systems. The study of dendritic (树状的) formations encourages interdisciplinary collaboration, bridging gaps between biology, geology, technology, and art. In conclusion, the dendritic (树状的) structure is a fascinating example of how nature's designs can inform and inspire human innovation. Whether in the realm of science, technology, or art, understanding the significance of dendritic (树状的) patterns can lead to advancements that benefit society as a whole. As we continue to explore these complex structures, we uncover the beauty and functionality inherent in the world around us, reminding us of the delicate balance between form and function.

自然界充满了复杂的模式和结构，这些模式和结构常常激发科学研究和艺术表现。其中一个模式是dendritic（树状的）结构，它可以在不同学科中以各种形式观察到。从树木的分支到我们大脑中的神经网络，dendritic（树状的）形态不仅在美学上令人愉悦，而且在生物学、地质学甚至技术中也发挥着至关重要的功能。 在生物学中，dendritic（树状的）结构对许多生物体的正常功能至关重要。例如，人类大脑中的神经元具有dendritic（树状的）分支，用于接收其他神经元的信号。这种复杂的网络允许信息在整个神经系统中传递，使我们能够思考、感受和对环境做出反应。这些dendritic（树状的）连接的健康至关重要；对它们的损伤可能导致阿尔茨海默病或多发性硬化等神经系统疾病。 除了生物学，dendritic（树状的）模式还可以在地质学中找到。河流系统的形成通常表现出dendritic（树状的）特征，水通过一系列支流流动，类似于树的分支。这种dendritic（树状的）设计对于排水效率很高，并帮助随着时间的推移塑造地貌。地质学家研究这些模式，以了解侵蚀和沉积，这是预测洪水等自然灾害的关键。 在技术领域，dendritic（树状的）结构的概念已被应用于计算机网络和算法的开发。dendritic（树状的）网络的分支路径允许设备之间高效的数据传输和通信。研究人员正在探索这些生物学原理如何增强人工智能系统的设计，使其更具适应性和效率。 艺术和建筑也从dendritic（树状的）形式中汲取灵感。艺术家们常常在他们的作品中复制这些自然模式，创造出视觉上令人惊叹的作品，与观众在潜意识层面产生共鸣。同样，建筑师可能在他们的建筑中融入dendritic（树状的）设计，允许更好的气流和自然光，同时提供独特的美学吸引力。 dendritic（树状的）结构的多样性突显了各个研究领域之间的相互关联。通过研究这些模式，我们可以获得对支配自然和人工系统的基本原则的洞察。对dendritic（树状的）形态的研究鼓励跨学科合作，弥合生物学、地质学、技术和艺术之间的鸿沟。 总之，dendritic（树状的）结构是一个迷人的例子，展示了自然设计如何启发和推动人类创新。无论是在科学、技术还是艺术领域，理解dendritic（树状的）模式的重要性都可以导致有利于整个社会的进步。随着我们继续探索这些复杂的结构，我们揭示了我们周围世界固有的美和功能，提醒我们形式与功能之间的微妙平衡。