diff --git a/libs/numpy/example/ndarray.cpp b/libs/numpy/example/ndarray.cpp
index ec4dfade..1c1e7bf5 100644
--- a/libs/numpy/example/ndarray.cpp
+++ b/libs/numpy/example/ndarray.cpp
@@ -1,7 +1,7 @@
 /**
- *  @brief An example to show how to create ndarrays using arbitrary Python sequences
+ *  @brief An example to show how to create ndarrays using arbitrary Python sequences.
  *         The Python sequence could be any object whose __array__ method returns an array, or any (nested) sequence.
- *	  
+ *	   This example also shows how to create arrays using both unit and non-unit strides
  *        
  */
 
@@ -29,13 +29,32 @@ int main(int argc, char **argv)
   // You can also create an array by supplying data.First,create an integer array
   int data[] = {1,2,3,4} ;
   // Create a shape, and strides, needed by the function
-  p::tuple shape = p::make_tuple(2,2) ;
-  p::tuple strides = p::make_tuple(strides(data)) ; 
+  p::tuple shape = p::make_tuple(4) ;
+  p::tuple stride = p::make_tuple(4) ; 
   // The function also needs an owner, to keep track of the data array passed. Passing none is dangerous
-  p::object owner ;
+  p::object own ;
   // The from_data function takes the data array, datatype,shape,stride and owner as arguments
   // and returns an ndarray
-  np::ndarray data_ex1 = np::from_data(data,dt, shape,strides,owner);
+  np::ndarray data_ex = np::from_data(data,dt,shape,stride,own);
+  // Print the ndarray we created
+  std::cout << "Single dimensional array ::" << std::endl << p::extract < char const * > (p::str(data_ex)) << std::endl ; 
+  // Now lets make an 3x2 ndarray from a multi-dimensional array using non-unit strides
+  // First lets create a 3x4 array of 8-bit integers
+  uint8_t mul_data[][4] = {{1,2,3,4},{5,6,7,8},{1,3,5,7}};
+  // Now let's create an array of 3x2 elements, picking the first and third elements from each row
+  // For that, the shape will be 3x2
+  shape = p::make_tuple(3,2) ;
+  // The strides will be 4x2 i.e. 4 bytes to go to the next desired row, and 2 bytes to go to the next desired column
+  stride = p::make_tuple(4,2) ; 
+  // Get the numpy dtype for the built-in 8-bit integer data type
+  np::dtype dt1 = np::dtype::get_builtin<uint8_t>();
+  // First lets create and print out the ndarray as is
+  np::ndarray mul_data_ex = np::from_data(mul_data,dt1, p::make_tuple(3,4),p::make_tuple(4,1),p::object());
+  std::cout << "Original multi dimensional array :: " << std::endl << p::extract < char const * > (p::str(mul_data_ex)) << std::endl ; 
+  // Now create the new ndarray using the shape and strides
+  mul_data_ex = np::from_data(mul_data,dt1, shape,stride,p::object());
+  // Print out the array we created using non-unit strides
+  std::cout << "Selective multidimensional array :: "<<std::endl << p::extract < char const * > (p::str(mul_data_ex)) << std::endl ; 
 
 }