Understanding the Efficacy of Over-Parameterization in Neural Networks Understanding the Efficacy of Over-Parameterization in Neural Networks: Mechanisms, Theories, and Practical Implications Introduction Deep neural networks (DNNs) have become the cornerstone of modern artificial intelligence, driving advancements in computer vision, natural language processing, and myriad other domains. A key, albeit counter-intuitive, property of contemporary DNNs is their immense over-parameterization: these models often contain orders of magnitude more parameters than the number of training examples, yet they generalize remarkably well to unseen data. This phenomenon stands in stark contrast to classical statistical learning theory, which posits that models with excessive complexity relative to the available data are prone to overfitting and poor generalization. Intriguingly, empirical evidence shows that increasing the number of parameters in DNNs can lead ...
Cousin Primes in Python
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π Exploring Cousin Primes with Python
π― What Are Cousin Primes?
Cousin primes are pairs of prime numbers that differ by exactly 4. Examples include (3, 7), (7, 11), and (13, 17). These pairs are part of the broader study of prime gaps and distributions in number theory.
π‘ Our Goal
We’ll write a Python program that:
- Checks if a number is prime
- Scans numbers up to a given limit
- Finds and displays all cousin prime pairs
π» Python Code
def is_prime(n):
if n < 2:
return False
for i in range(2, int(n**0.5) + 1):
if n % i == 0:
return False
return True
def find_cousin_primes(limit=1000):
cousin_pairs = []
for p in range(2, limit - 4):
if is_prime(p) and is_prime(p + 4):
cousin_pairs.append((p, p + 4))
return cousin_pairs
# Run the function and print results
cousins = find_cousin_primes(1000)
print("Cousin Prime Pairs up to 1000:")
for pair in cousins:
print(pair)
Copy and Try it here!
π Sample Output
Output:
Cousin Prime Pairs up to 1000:
(3, 7)
(7, 11)
(13, 17)
(19, 23)
(37, 41)
(43, 47)
(67, 71)
(73, 77)
...
π Why It’s Interesting
Unlike twin primes (which differ by 2), cousin primes offer a slightly wider gap, yet still show intriguing patterns. Studying these pairs helps us understand how primes are spaced and whether certain gaps are more frequent.
π Final Thoughts
Try changing the limit and observe how cousin primes behave. Are they more frequent in certain ranges? Do they cluster? This simple script is a great way to explore prime behavior and prepare for deeper number theory investigations.
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