iterated

简明释义

英[ˈɪtəreɪtɪd]美[ˈɪtəreɪtɪd]

重复

反复申明（iterate 的过去式和过去分词）

英英释义

单词用法

同义词

反义词

例句

1.A discrete iterated procedure, which can be processed conveniently by a computer, is discussed.

给出了适合于计算机处理的离散递归实现步骤。

2.The engineer rarely achieves the best solution the first time; a design may have to be iterated several times.

工程师很少能够上来就找到最佳的解决办法，一个设计往往要反复多次。

3.The new module is then iterated for each remaining section and relocations performed.

然后为每个剩余的区段迭代新的模块并执行重新定位。

4.The girl did not move though the policeman iterated his command hat she go.

警察多次命令这个女孩离开，但是她就不动。种竹成林。

5.And we used that to set up the iterated integral.

我们还用那个来建立累次积分。

6.This XPath expression must point to an array of elements that can be iterated over during the processing of the Fan Out primitive.

XPath表达式必须指向在处理扇出原语期间可以遍历的元素数组。

7.The array is then iterated through, and a DIV element is created for each item in the array.

随后遍历该数组，为数组中的各项创建一个DIV元素。

8.The algorithm was iterated 重复 multiple times to improve accuracy.

这个算法被重复了多次以提高准确性。

9.During the workshop, we iterated 反复练习 various techniques to master the skill.

在研讨会上，我们反复练习了各种技巧以掌握这项技能。

10.The design was iterated 迭代 based on user feedback to enhance usability.

该设计根据用户反馈进行了迭代以增强可用性。

11.The team iterated 不断改进 their project plan after each review.

团队在每次审查后不断改进他们的项目计划。

12.She iterated 重申 her point during the meeting to ensure everyone understood.

她在会议上重申了自己的观点，以确保每个人都理解。

作文

In the field of computer science and mathematics, the concept of iteration is crucial for problem-solving and algorithm development. When we say that a process has been iterated, we refer to the repetition of a particular procedure or set of instructions until a desired outcome is achieved. This method allows for refinement and improvement over successive cycles. For instance, in programming, a loop may be iterated multiple times to ensure that a function produces the correct result. Each time the loop runs, it can adjust its parameters based on the previous output, making the process more efficient. One classic example of an iterated process is the Fibonacci sequence, where each number is the sum of the two preceding ones. To generate this sequence, one must iterate through the numbers, continuously adding the last two until the desired length is reached. This iterated approach not only demonstrates the beauty of mathematics but also showcases how simple rules can lead to complex results.In the realm of design, iterated prototyping is a common practice. Designers create multiple versions of a product, testing each one to gather feedback. Based on this feedback, they make adjustments and iterate on the design. This cycle of creation, evaluation, and refinement ensures that the final product meets user needs effectively. By iterating on their designs, creators can avoid potential pitfalls and enhance functionality.Moreover, in scientific research, the process of hypothesis testing often involves iterated experimentation. Researchers propose a hypothesis and then conduct experiments to test its validity. Based on the results, they may refine their hypothesis and conduct further tests. This iterated approach helps ensure that scientific conclusions are robust and reliable. It reflects the iterative nature of knowledge acquisition, where each round of inquiry builds upon the last.In education, the idea of iterated learning is essential. Students often revisit concepts multiple times throughout their studies. Each time they engage with the material, they deepen their understanding and retention. This iterated learning process is vital for mastering complex subjects, as it allows students to build connections and integrate new information with prior knowledge.In conclusion, the term iterated encapsulates the essence of repetition and refinement across various disciplines. Whether in programming, design, research, or education, the ability to iterate is fundamental to achieving excellence. The process of iterating enables individuals and teams to learn from their experiences, adapt their strategies, and ultimately reach their goals more effectively. Understanding and applying the concept of iterated processes can lead to significant advancements in both personal and professional endeavors.

在计算机科学和数学领域，迭代的概念对于解决问题和算法开发至关重要。当我们说一个过程已经被迭代时，我们指的是重复特定程序或指令集，直到达到所需结果。这种方法允许在连续的周期中进行精炼和改进。例如，在编程中，一个循环可能会被迭代多次，以确保函数产生正确的结果。每次循环运行时，它可以根据先前的输出调整其参数，从而使过程更加高效。一个经典的迭代过程的例子是斐波那契数列，其中每个数字都是前两个数字的和。要生成这个序列，必须迭代这些数字，不断地将最后两个数字相加，直到达到所需的长度。这种迭代的方法不仅展示了数学的美丽，还展示了简单规则如何导致复杂结果。在设计领域，迭代原型制作是一种常见的实践。设计师创建多个版本的产品，测试每一个以收集反馈。根据这些反馈，他们进行调整并迭代设计。这种创造、评估和改进的循环确保最终产品有效地满足用户需求。通过迭代他们的设计，创作者可以避免潜在的陷阱并增强功能。此外，在科学研究中，假设测试的过程通常涉及迭代实验。研究人员提出假设，然后进行实验以测试其有效性。根据结果，他们可能会完善假设并进行进一步测试。这种迭代的方法有助于确保科学结论的稳健性和可靠性。它反映了知识获取的迭代性质，每一轮探究都建立在上一轮之上。在教育中，迭代学习的理念至关重要。学生们通常会多次重温概念。在每次接触材料时，他们都会加深理解和记忆。这种迭代学习过程对于掌握复杂学科至关重要，因为它允许学生建立联系并将新信息与先前知识整合。总之，术语迭代概括了各个学科中重复和精炼的本质。无论是在编程、设计、研究还是教育中，能够迭代是实现卓越的基础。迭代的过程使个人和团队能够从经验中学习，调整策略，并最终更有效地实现目标。理解和应用迭代过程的概念可以在个人和职业努力中带来显著的进步。