PELT TESTING
Pelt is a library for testing your algorithms and generate various data type for these algorithm of differents ways.
INSTALLATION AND IMPORTATION:
pip install pelt-testing
from pelt import PeltContents:
Basics
One of functionalities of Pelt, is evaluate your algorithm with differents types of tests. Among they are evaluate the type of data, the expected value, if two tests are same type, among others.
Help
This function provides a summary of all the methods that Pelt has.
Example:
Pelt.help()Output:
Test
This function represent a unit test, it's the more basic functionality in Pelt.
Params: test( function, expected value, optional text)
Pelt.test(10 + 5, 15)
Output: UNIT TEST [π 66275899.9337248]
Success Test
Expected Value: 15
Ouput: 15 π₯
Pelt.test(sum( 20,20 ), 40)
Output: UNIT TEST [π 66275899.9337248]
Success Test
Expected Value: 40
Ouput: 40 π₯
Pelt.test(sum( 25,10 ), 30)
Output: UNIT TEST [π 66275899.9337248]
Success Test
Expected Value: 30
Ouput: 35 π₯ Per default, test() add a example text for your unit test, but also you can add a own text.
Pelt.test(mult( 2,10 ), 20,"Multiplication")
Output: MULTIPLICATION [π 66275899.9337248]
Success Test
Expected Value: 20
Ouput: 20 π₯Describe
This function represent a group of unit tests, it prints a detailed feedback of this tests group Per default it add a example test, but also you can add a own text.
Params: describe( matrix, optional text)
Pelt.describe((
( sum(10,20),30 ),
( sum(20,20),40, "SUM OF NUMBERS" ),
( sum(25,25),55, "INCORRECT SUM OF NUMBERS" ),
),"SUMS")
Ouput: π SUMS π
UNIT TEST [π 61346599.9386544]
Success Test
Expected Value: 30
Ouput: 30 π₯
ββββββββ
SUM OF NUMBERS [π 62347999.937653]
Success Test
Expected Value: 40
Ouput: 40 π₯
ββββββββ
INCORRECT SUM OF NUMBERS [π 63402799.936598]
Failed Test
Expected value: 55
Ouput: 50 π₯
ββββββββWithout own text and with matrix:
Pelt.describe([
[ sum(5,5),10 ],
[ sum(13,12),25, "SUM OF NUMBERS" ]
])
Ouput: π TESTS GROUP π
UNIT TEST [π 81670499.918331]
Success Test
Expected Value: 10
Ouput: 10 π₯
ββββββββ
SUM OF NUMBERS [π 83254399.9167468]
Success Test
Expected Value: 25
Ouput: 25 π₯
ββββββββIs_equal
It compare the type and the value of the two tests introduced, something examples below.
Params: is_equal( test1, test2 )
Pelt.is_equal(10, 10)
Output: β ---TEST COMPARISON--- β
10 AND 10 ARE EQUAL π₯
10 :: <class 'int'>
10 :: <class 'int'>
Pelt.is_equal("Javascript","Java")
Ouput: β ---TEST COMPARISON--- β
Javascript AND Java NOT ARE EQUAL π₯
Javascript :: <class 'str'>
Java :: <class 'str'>
Pelt.is_equal(10,"10")
Output: β ---TEST COMPARISON--- β
10 AND 10 NOT ARE EQUAL π₯
10 :: <class 'int'>
10 :: <class 'str'>
Pelt.is_equal( [10,20,30],[10,20,"30"] )
Output: β ---TEST COMPARISON--- β
[10, 20, 30] AND [10, 20, '30'] NOT ARE EQUAL π₯
[10, 20, 30] :: <class 'list'>
[10, 20, '30'] :: <class 'list'>Not_is_equal
Contrary to is equal, this function evaluates if the two tests are not of the same type and value.
Params: not_is_equal( test1, test2 )
Pelt.not_is_equal([10,20,30],[10,20,"30"])
Ouput: β ---TEST COMPARISON--- β
[10, 20, 30] AND [10, 20, '30'] NOT ARE EQUAL π₯
[10, 20, 30] :: <class 'list'>
[10, 20, '30'] :: <class 'list'>
Pelt.not_is_equal(10,10)
Ouput: β ---TEST COMPARISON--- β
10 AND 10 ARE EQUAL π₯
10 :: <class 'int'>
10 :: <class 'int'>Is_equal_type
It compare only the data type between the two tests introduced, In this case the value of data not is important, something examples below.
Params: is_equal_type( test1, test2 )
Pelt.is_equal_type(10,5)
Output: β ---TEST TYPE COMPARISON--- β
10 AND 5 ARE THE SAME TYPE π₯
10 :: <class 'int'>
5 :: <class 'int'>
Pelt.is_equal_type("10",10)
Output: β ---TEST TYPE COMPARISON--- β
10 AND 10 NOT ARE THE SAME TYPE π₯
10 :: <class 'str'>
10 :: <class 'int'>
Pelt.is_equal_type("JS","Javascript")
Output: β ---TEST TYPE COMPARISON--- β
JS AND Javascript ARE THE SAME TYPE π₯
JS :: <class 'str'>
Javascript :: <class 'str'>Not_is_equal_type
Contrary to is equal type, this function evaluates if the two tests are not of the same type, the data value not is important.
Params: not_is_equal_type( test1, test2 )
Pelt.not_is_equal_type(10, 10)
Output: β ---TEST TYPE COMPARISON--- β
10 AND 10 ARE THE SAME TYPE π₯
10 :: <class 'int'>
10 :: <class 'int'>
Pelt.not_is_equal_type((1,4,5), [10,"GO"])
Output: β ---TEST TYPE COMPARISON--- β
(1, 4, 5) AND [10, 'GO'] NOT ARE THE SAME TYPE π₯
(1, 4, 5) :: <class 'tuple'>
[10, 'GO'] :: <class 'list'>Is_type
It evaluate the type of value of your data or your test.
Params: is_type( value )
Pelt.is_type( (1,4,5) )
Output: β---VALUE TYPE--- β
(1, 4, 5) β 'tuple'
Pelt.is_type( sum(10,20) )
Output: β---VALUE TYPE--- β
30 β 'int'
Pelt.is_type( {"5",4,5} )
Output: β---VALUE TYPE--- β
{'5', 4, 5} β 'set'Is_none
It evaluate if your test is none or not.
Params: is_none( test )
Pelt.is_none( sum(10,20) )
Output: β---TEST NONE--- β
NOT IS NONE π₯
Pelt.is_none( None )
Output: β---TEST NONE--- β
IS NONE π₯Generators
Pelt also offers various types of test data generators for you to test your algorithms and evaluate the result with the data that can be found in Pelt. This will prevent you from generating data manually and repetitively.
Gt_int
This method generates a random number between 0 and 300, this method can take a number as a parameter. If you pass a number as a parameter, this method will return you an array of numbers with the length of the parameter you added.
Params: gt_int( number ), per default it is 1
> print( Pelt.gt_int() )
Output: 254
> print( Pelt.gt_int(5) )
Output: [162, 13, 16, 15, 106]
> number_list = Pelt.gt_int(10)
Output: [242, 275, 211, 105, 58, 40, 201, 281, 28, 38]Now we are going to use it in our software:
def sum(a,b):
return a + b, ( a,b )
print( sum( Pelt.gt_int(),Pelt.gt_int() ))
Output: (78, (61, 17)) => result: 78, a: 61, b: 17
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def div(a,b):
return a / b, ( a,b )
print( div( Pelt.gt_int(),Pelt.gt_int() ))
Output: (2.456896551724138, (285, 116)) => result: 2.456896551724138, a: 285, b: 116
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def duplicate_list(list):
duplicate = []
for i in list:
duplicate.append( i * 2)
return duplicate, list
print( duplicate_list( Pelt.gt_int(5) ))
Output: ([416, 226, 362, 296, 512], [208, 113, 181, 148, 256])
γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°
>> More Advance
def duplicate_list(list):
duplicate = [ i * 2 for i in list]
return duplicate, list
print( duplicate_list( Pelt.gt_int(12) ))
Output: ([396, 154, 354, 530, 224, 480, 192, 196, 180, 452, 120, 24], [198, 77, 177, 265, 112, 240, 96, 98, 90, 226, 60, 12])
γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°
number_list = Pelt.gt_int(4)
print( list( map( lambda x: x * 2, number_list )), number_list )
Output: [330, 142, 180, 564] [165, 71, 90, 282]Gt_str
It has a similar behavior to gt_int, basically its difference It is that this function generates a string randomly and gt_int an integer.
Params: gt_str( number ), per default it is 1
> print( Pelt.gt_str() )
Output: injected
> print( Pelt.gt_str(4) )
Output: ['Lorem', 'qwertyuytr', 'p', 'occaecat']
γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°
def inject_py(string):
return "{}py ".format( string )
print( inject_py(Pelt.gt_str()) )
Output: nullapy
γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°
def duplicate_string(string):
return list( map(lambda x: x * 2,string) )
print( duplicate_string(Pelt.gt_str(4)) )
Output: ['IpsumIpsum', 'consecteturconsectetur', 'fugiatfugiat', 'injectedinjected']Gt_mix
As its name implies, mix returns a number or a string randomly. If you pass a number as a parameter, it can return an list with numbers and strings.
Params: gt_mix( number ), per default it is 1
> print( Pelt.gt_mix() )
Output: 248
> print( Pelt.gt_mix(5) )
Output: ['since', 'standard', 267, 285, 'Excepteur']Remember, you can combine generators with tests:
# As the tests have return a print built in, it is not necessary to put them in your function
def type_data(data):
return Pelt.is_type(data)
type_data( Pelt.gt_mix() )
Output: β---VALUE TYPE--- β
Latin β 'str'
γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°γ°
def equal_values(value1,value2):
return Pelt.is_equal_type(value1,value2)
equal_values( Pelt.gt_mix(),Pelt.gt_mix() )
Output: β---TEST TYPE COMPARISON--- β
PowerUp AND 169 NOT ARE THE SAME TYPE π₯
PowerUp :: <class 'str'>
169 :: <class 'int'>Gt_dict
This generator return a random dictionary with random keys and values, per deafult not return nested dictionaries, but you can custom the dictionarys combining the others generators.
Params: gt_dict( number ), per default it is 1
> print( Pelt.gt_dict() )
Output: {'looks': 155}
# You can also create a custom dictionary, depending on your need.
multy_dict = {
Pelt.gt_str(): Pelt.gt_mix(5)
}
> print(multy_dict)
Output: {'looks': ['words', 5, 115, 102, 'PowerUp']}
multy_dict = {
Pelt.gt_int(): Pelt.gt_dict(4),
Pelt.gt_str(): Pelt.gt_str(5)
}
> print(multy_dict)
Output: {22: {296: 'dolor', 'qwertyuytr': 298, 75: 'standard', 'words': 'p'},
'Ors': ['PowerUp', 'Finibus', 'injected', 'fugiat', 'therefore']}Gt_set
This generator return a random set, it has a similar behavior that the others, some examples below:
Params: gt_set( number ), per default it is 1
> print( Pelt.gt_set(5) )
Output: {136, 200, 'Cors-c', 277, 120}
def joiner(value):
example = {"example",1,2}
return value.union(example)
print( joiner(Pelt.gt_set(4)) )
Output: {1, 2, 'ghorlayck', 'example', 201, 283, 'injected'}Snap
After learning the functionality of the generators, surely you would have liked that said test data could have it in a separate flow to test and to better predict the result of your algorithms. Now we are going to unleash all the power that Pelt can offer, with the snap functions we can archive test data and test it later with a much more predictable result, allowing you to use the tests in a more efficient way.
NOTE: SNAPS ONLY RECEIVE A GENERATORS
Snap_take
This function creates a file with the generated data that you passed to the function, you must pass it the name you want for your file, if you passed it the name of an existing file it will overwrite the data.
Params: Pelt.snap_take( "file name", ( Generators, Generators, ... ) ) => Require a matrix
Pelt.snap_take("Data", (
Pelt.gt_int(5), Pelt.gt_str(4)
))
def duplicate(numbers):
return list(map( lambda x: x *2, numbers))
data = Pelt.gt_int(5)
Pelt.snap_take("Data",(
duplicate(data), data
))
Snap_rm
This function creates a file with the generated data that you passed to the function, you must pass it the name you want for your file, if you passed it the name of an existing file it will overwrite the data.
Params: Pelt.snap_rm( "file name" )
Pelt.snap_rm("Data")It removes a file generate with these name.
Snap_rm_all
This function remove all files generated with snap.
Params: Pelt.snap_rm_all()
Pelt.snap_rm_all()
