Memory Management in Python

Introduction

Python is a high-level programming language, which means it lets you write code that runs more quickly than other languages. It also has many features that make it very easy to learn, but there’s one aspect of Python memory management that can trip up even experienced developers: garbage collection. Garbage collection is what happens when your computer tries to free up unused space in the physical RAM (random access memory). If you don’t know what this means or why it matters, read on!

How does Python manage its memory?

In Python, memory is managed using a combination of reference counting and garbage collection. The Garbage Collector (GC) process scans the heap for objects that are no longer referenced by any other part of your program, then deallocates them. This process can take time, so Python makes sure it doesn’t occur too often.

Reference counting works like this: when you create an object in Python, it becomes empty and has no reference count until something else tries to use it later on; when another part of your code attempts to use that object later on (for example by calling its method), then the reference count goes up by one—and vice versa as well! When all references have been exhausted, which happens at some point after about 10 seconds or so if nothing else happens), then we’ve reached our maximum capacity for objects on our heap; henceforth only new ones will be created until those old ones are thrown away through garbage collection.

Memory Management in Python

Garbage Collector

The Python garbage collector is a function that determines when to free memory. It’s not perfect, but it’s still a great way to free up as much space as possible while keeping your program running smoothly.

The garbage collector runs in an idle loop, which means that it won’t do anything until you tell it what to do with the memory you have available (i.e., how do I get rid of my unused objects?). This can be done by calling collect() on any object or calling its __del__() method directly:


import sys def myfunc(): </p>
print("Hello World") print("I am using {}".format(myobj)) 
if __name__ == '__main__':
from collections import deque

# Create a list and add some elements into it # Note that this code will work only if no other python process has created any objects from collections import deque

# Create another list but don’t add anything else than those two items so far def main():

# Define two functions which are used inside each other print(“My first function”) print(“My second function”)

# Interrupt execution by pressing Ctrl+C import sys def myfunc():

print("Hello World") 
print("I am using {}".format(myobj)) if __name__ == '__main__': 
from collections import deque 

# Create another list but don’t add anything else than those two items so far def main():

# Interrupt execution by pressing Ctrl+C import sys

Types of Memory Storage

Python uses reference counting to manage memory. The idea behind this approach is that when you create a variable, the variable belongs to you and it will stay with you until it is no longer needed by anyone else. Every time you use that variable, it will increase its value in memory by one unit.

When there are no more references to your object’s data or methods, Python automatically frees up all of its allocated space by calling gc() on the runtime system (which means garbage collection). This process allows for faster performance as well as saves memory because unused objects do not need to be stored on disk anymore!

Memory management in Python is complicated.

Memory management in Python is complicated. The garbage collector manages memory, but it doesn’t do everything correctly. You can use the Python interpreter to create objects and store them in a variable, but when you want to delete an object from memory, there are several steps that need to be performed before the garbage collector can reclaim its space:

  • Call a method with the name ‘delete’ on your class instance
  • Call another method with the name ‘delete’ on your instance of that class

Conclusion

So, there you have it: the basics of memory management in Python. It’s not a simple topic, and it can be kind of confusing at first. But as long as you remember that memory management is an important part of how your program runs and that the way Python manages its memory is not necessarily optimal or efficient—but rather just works—you’ll be good to go.

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I’m hoping that this article has helped you understand about Memory Management in Python.

Memory Management in Python

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