Here is the code snippet that demonstrates the implementation of the Throttle function:

function throttle(func, delay) {
  let wait = false;

  return (...args) => {
    if (wait) {
        return;
    }

    func(...args);
    wait = true;
    setTimeout(() => {
      wait = false;
    }, delay);
  }
}

Within this excerpt, the throttle function will invoke the supplied function func, modify a wait variable to true, and subsequently initiate a timer that will revert the wait parameter after the specified delay has elapsed. If the throttle function is called again during this period, it will either invoke the provided function or simply return if the wait parameter remains true.

The Throttle functionality finds applicability in scenarios such as executing a function to modify the layout of a webpage during scrolling. In the absence of a throttle function, the update function would be invoked repeatedly as the user scrolls through the page, potentially leading to significant performance degradation. By employing the throttle function, execution can be restricted to once every specified number of milliseconds (e.g., X milliseconds), thereby enhancing the webpage's responsiveness and efficiency.

The subsequent snippet illustrates how the throttle function can be utilized:

// Define the function responsible for layout modification
function updateLayout() {
  // Implement layout updates...
}

// Instantiate a throttled variant of the function
const throttledUpdateLayout = throttle(updateLayout, 250);

// Register a listener for window scroll events, invoking the throttled function
window.addEventListener("scroll", throttledUpdateLayout);

By crafting the throttleUpdatedLayout function and designating a delay of 250 milliseconds, it can be ensured that the updateLayout function will be executed at most once within each 250-millisecond interval during window scrolling. Should the event be triggered prior to the completion of the delay, no action will be taken. This mechanism fosters a more streamlined and responsive user experience, mitigating the risk of overloading the system with redundant function calls.

Below is a code snippet illustrating the implementation of the debounce function in JavaScript:

function debounce(func, delay) {
  let timeout;
  return function() {
    const context = this;
    const args = arguments;
    clearTimeout(timeout);
    timeout = setTimeout(() => func.apply(context, args), delay);
  };
}

In this JavaScript excerpt, the debounce function yields a novel function that invokes the original function subsequent to a predetermined delay. Should the function be invoked anew, the timeout will be annulled, thereby deferring the function's invocation.

This mechanism proves invaluable when dealing with functions that modify the layout of a webpage in response to window resizing. Absent the Debounce function, the layout-modifying function would be summoned repeatedly in rapid succession as the user alters the window's dimensions, potentially leading to performance degradation. By employing the Debounce function, the frequency of layout updates can be judiciously controlled, thereby augmenting the page's responsiveness and efficiency.

The following snippet delineates how the Debounce function can be applied to this specific context:

// Define the function responsible for layout modification
function updateLayout() {
  // Implement layout updates...
}

// Instantiate a debounced variant of the function
const debouncedUpdateLayout = debounce(updateLayout, 250);

// Register a listener for window resize events, invoking the debounced function
window.addEventListener("resize", debouncedUpdateLayout);

In this illustration, the updateLayout function will be summoned at most once within each 250-millisecond interval during window resizing. This functionality guarantees that the layout is refreshed solely 250ms subsequent to the cessation of the user's resizing activity, thereby optimizing the webpage's efficiency and responsiveness.

// 1. Create nested loop to compare each element with the next element
// 2. Compare each element with next one and if next element is smaller then previous one, swap them
// 3. Repeat step 2 until the end of loop

const kaySort = (arr) => {
    for (let i = 0; i < arr.length; i++)
        {
        for (let j = 0; j < arr.length; j++)
            {
                if (arr[j+1] < arr[j]) {
                    let tmpSwap = arr[j];
                    arr[j] = arr[j+1];
                    arr[j+1] = tmpSwap;
                }
            }
        }
return arr;
}

console.log(kaySort([30,125,15,50]));