We've also added great syntactic such as multi-line string literals, which include, you know, support for white space.

我们还添加很棒句法，比如多行字符串常量，它包括对 White space 支持。

They actually told me that what they do is they have silly string, plastic wrap, shrink wrap and they even make those thlip sounds with their voices and it's all integrated into making our awesome web sounds.

他们告诉我，他们使蠢字符串，塑料包装，收缩包装，他们甚至自己人声发出这些音效，这一切都被整合到我们超棒蛛网音效中。

Witht his parter we can specify the columns we want to drop, so in this case we set columns to an array with one string, genre now this method doesn't actually modify the original data set.

有他伙伴我们可以指定我们想要删除列，所以在这种情况下我们将列设置为一个带有一个字符串数组，现在这个方法实际上并没有修改原始数据集。

And indeed, LLMs seem to learn nested, hierarchical grammatical structures, even though they are exposed to only linear input, ie, strings of text.

事实上，虽然大型语言模型只接触线性输入内容，即文本字符串，但它们似乎学会嵌套层级语法结构。

We'll show you a string of four digits, you read them out loud then add one to each of the original digits.

我们将向您显示一个由四位数字组成字符串，您可以大声读出它们，然后给每位数字添加1。

You can access pretty much all the new language features— String, codable, all of them.

你可以访问几乎所有语言特性——字符串、编码、什么都行。

For example, mnemonic devices are common tools you can use to quickly retain strings of information.

例如，记忆符是常工具，可以快速保留字符串信息。

1982. This string is different from the actual number 1982. One is an integer and the other is a string.

这个字符串与实际数字不同1982.一个是整数，另一个是字符串。

So for most string-processing operations, for English, French, German, Spanish, and really any language using a Latin-derived script, you'll see about a three-and-a-half times performance improvement for String.

所以对大多数字符串处理工作来说，对于英语、法语、德语、西班牙语，特别是那些以拉丁文为基础语言，你会看到字符串性能大约提高3.5倍。

And this is also really important since we're now, strings are collections of characters.

这真很重要，因为字符串就是字符集合。

Okay? Now, with this we can define a string that spans multiple lines. For example, we can say Hi Jon here is our first email to you. Thank you, The Support Team. Like that.

好？现在，通过这个我们可以定义一个跨越字符串多行。例如，我们可以说Hi Jon这是我们给您第一封电子邮件。谢谢，支持团队。像那样。

So in Swift 4, we have vastly simplified this by removing all this impedance, and now strings are range-replaceable collections of characters.

所以在 Swift 4 里，我们极大地简化这个过程，去除阻碍，现在字符串可以大范围替换字符集。

Now similar to the upper method we have another method for converting a string into lower case. So let me show you.

现在类似于 upper 方法，我们有另一种将字符串转换为小写方法。所以让我告诉你。

Now, we want to get the number of characters in this string.

现在，我们要获取此字符串中字符数。

And we've always had the goal that string processing in Swift is first in class without compromising on Unicode correctness.

我们目标一直是让 Swift 里字符串处理成为第一等级，而不必受制于统一码正确性。

And if, when you were working with strings in Swift 3, you may have noticed some oddities like this just kind of leaving you wondering, what is going on?

你在 Swift 3 中处理字符串时候应该注意到过这样怪事，你会想这是怎么回事？

We get pint. Now here we also have default values for the start and end index. So if we don't supply the end index, Python will return all the characters to the end of the string.

我们得到品脱。现在我们也有默认值开始和结束索引。所以，如果我们不供应在结束索引时，Python会将所有字符返回到字符串末尾。

Take a look at the string on the far left.

看一下最左边字符串。

And all of the subjects saw the same strings of words.

所有受试者都看到相同字符串。

11.4 ). Similarly, a single piece of string can divide into two strings.

11.4）。同样，一根字符串可以分成两个字符串。