Write a program that encodes English language phrases into pig Latin. Pig Latin is a form of coded language often used for amusement. Many variations exist in the methods used to form pig Latin phrases. For simplicity, use the following algorithm: To form a pig-Latin phrase from an English-language phrase, tokenize the phrase into words with function strtok. To translate each English word into a pig-Latin word, place the first letter of the English word at the end of the English word and add the letters "ay." Thus, the word "jump" becomes "umpjay," the word "the" becomes "hetay" and the word "computer" becomes "omputercay." Blanks between words remain as blanks. Assume that the English phrase consists of words separated by blanks, there are no punctuation marks and all words have two or more letters. Function printLatinword should display each word. [Hint: Each time a token is found in a call to strtok, pass the token pointer to function printLatinWord and print the pig-Latin word.

Short Answer

Expert verified
Tokenize the phrase using strtok, for each word move the first letter to the end and add 'ay', and use printLatinWord to output each Pig Latin word, keeping the spaces between words.

Step by step solution

01

- Splitting the Phrase into Tokens

Use the 'strtok' function to tokenize the English-language phrase. This function will split the phrase into individual words based on the delimiter specified, which is usually a space (' ') in the case of English phrases.
02

- Translate Each Word to Pig Latin

For each token obtained in Step 1, perform the algorithm to convert it to Pig Latin. Move the first character to the end of the word and append 'ay' to it. For example, 'computer' becomes 'omputercay'.
03

- Outputting the Pig Latin Word

Pass each translated Pig Latin word to the function 'printLatinWord' which will handle the printing of the word. Make sure to maintain spaces between translated words, so the output resembles a phrase.
04

- Repeating the Process

Use a loop to repeat Steps 1 through 3 for each word in the original English phrase until there are no more tokens left. This will ensure the entire phrase is translated into Pig Latin.

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

Tokenizing Strings
Tokenizing strings is a common method used to divide a string into its constituent parts, known as tokens. In C++, tokenizing is often accomplished using the strtok function. This function uses a delimiter, such as a space, to split the string into separate words or phrases.

For example, given the statement 'The quick brown fox', using a space as the delimiter, strtok would tokenize the sentence into 'The', 'quick', 'brown', and 'fox'. When encoding English language phrases into pig Latin, tokenizing is the first crucial step since it allows us to apply the pig Latin rules individually to each word. Correct tokenization ensures that the encoding process manages one word at a time, maintaining the integrity of the original phrase spacing in the encoded message.

It's important to handle cases where the string may contain multiple consecutive spaces or tabs, ensuring that empty tokens are not created. The strtok function addresses this by treating multiple consecutive delimiters as a single delimiter, which is ideal for our pig Latin encoder.
String Manipulation
Once strings are tokenized, the next step is string manipulation, which is a critical aspect of the pig Latin encoding algorithm. String manipulation in C++ often involves using a combination of functions and operators to modify and work with strings.

In pig Latin conversion, manipulation involves taking the first letter of each English word, moving it to the end of the word, and then appending the letters 'ay'. If we take the word 'computer', it is transformed into 'omputercay'. This process utilizes C++'s string capabilities, such as indexing to access specific characters, and string concatenation to append characters.

Handling Different String Lengths

It's essential to ensure that our pig Latin encoder can handle words of varying lengths without errors. This can involve checking if a word is at least two characters long, as per the exercise requirements, and then proceeding with the manipulation steps. Error checking is a vital part of robust string manipulation routines to prevent issues like index out of range errors.
C++ Function Use
Functions in C++ are building blocks that allow you to encapsulate reusable code segments which can be called multiple times throughout the program. In the pig Latin encoder, a function called printLatinWord is used to display each encoded word.

Utilizing functions helps in organizing code into logical blocks, making it easier to read and maintain. It allows for modular programming where each function performs a specific task, such as converting an English word to pig Latin and then printing it. Through function calls, we can pass the necessary arguments, in this case, the tokenized string, and receive the desired output without cluttering the main program logic.

The correct use of functions is fundamental to effective programming in C++. It helps avoid repetition and makes debugging simpler, as each function can be tested independently. When writing the pig Latin encoder, clean and well-documented functions like printLatinWord contribute to clear and maintainable code, and ultimately to a program that works effectively and efficiently.

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