The Scientific Applications are :
Data AnalysisSimulation and ModelingBusiness Applications:
Web DevelopmentData Management and AnalysisWhat is the Programming language?Data Analysis: Python, R, and MATLAB are used in research for statistical analysis, visualization, and modeling. Scientists use programming languages for data processing, analysis, calculations, insights, simulations, and modeling.
Web Development: HTML, CSS, and JavaScript are used to create websites and web apps. HTML provides structure, CSS styles, and JavaScript adds interaction.
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Which of the following is a positional argument?
a) ABOVE
b) MIN
c) AVERAGE
d) MAX
Problem: Prime Number Generator
Write a Python function that generates prime numbers up to a given limit. The function should take a single parameter limit, which represents the maximum value of the prime numbers to be generated. The function should return a list of all prime numbers up to the limit.
A prime number is a positive integer greater than 1 that has no positive divisors other than 1 and itself. For example, the first few prime numbers are 2, 3, 5, 7, 11, and so on.
Your task is to implement the generate_primes(limit) function that returns a list of all prime numbers up to the given limit.
Example usage:
"""
primes = generate_primes(20)
print(primes)
"""
Output:
"""
[2, 3, 5, 7, 11, 13, 17, 19]
"""
Note:
You can assume that the limit parameter will be a positive integer greater than 1.
Your implementation should use an efficient algorithm to generate prime numbers.
Rank the following functions from lowest to highest asymptotic growth rate.
To rank the functions from lowest to highest asymptotic growth rate, we need to compare their growth rates as the input size tends to infinity.
Here's the ranking from lowest to highest:
O(1): This represents constant time complexity. It means that the algorithm's runtime remains constant, regardless of the input size. It has the lowest growth rate.
O(log n): This represents logarithmic time complexity. It means that the algorithm's runtime grows logarithmically with the input size. Logarithmic growth is slower than linear growth but faster than polynomial growth.
O(n): This represents linear time complexity. It means that the algorithm's runtime grows linearly with the input size. As the input size increases, the runtime increases proportionally. Linear growth is slower than logarithmic growth but faster than polynomial growth.
O(n log n): This represents linearithmic time complexity. It means that the algorithm's runtime grows in proportion to n multiplied by the logarithm of n. Linearithmic growth is slower than linear growth but faster than polynomial growth.
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