Math function

abs() | ceil() | customizable_round_multiply() | customizable_round_division() | exp() | fac() | floor() | int() | int_to_string() | is_float() | is_int() | log() | max() | md5() | min() | pow() | random() | round() | sha1() | sha256() | sqrt() | sin() | cos() | tan() | asin() | acos() | atan() | atan2()

abs(num) - absolute value (converts a number to its positive equivalent).

Example: abs(-256) returns 256

ceil(num) - rounds a number up to the nearest integer.

Example: ceil(25.66) returns 26

customizable_round_division(a,b,count) - divides two numbers and rounds the result to a specified number of decimal places (count), where a is the dividend and b is the divisor.

customizable_round_multiply(a,b,count) - multiplies two numbers and rounds the result to a specified number of decimal places (count), where a and b are the factors.

exp(num) - raising Euler’s number
e to the power of the parameter.
Example: exp(2) returns approximately 7.38905609893065

fac(num) - factorial of a number (takes one parameter).

Example: fac(5) returns 120

floor(num) - returns the integer part of a number (rounds down).

Example: floor(25.66) returns 25

int(num) - converts a floating-point number to an integer by truncating the decimal part.

Example: int(1.8) returns 1

int_to_string(number, delimiter) - converts a number to a string with the specified delimiter.

is_float(txt) - checks whether a string is a number (including decimals).

is_int(txt) - checks whether a string is a number.
Example: is_int("5") returns True, while is_int("text") returns False

log(num, base) - calculates the logarithm of a number taking two parameters: the number and the base (default is
e).
Example: log(E) returns 1 (where E is Euler’s number), log(100, 10) returns 2

max(a, b, c) - finds the maximum number among the listed values accepting an unlimited number of parameters (each must be a number).
Example: max(4, 2, 9, 6) returns 9

md5(text) - generates an MD5 hash from a string.

Example: hash = md5("Hello world") returns 3e25960a79dbc69b674cd4ec67a72c62

min(a, b, c) - finds the minimum number among the listed values accepting an unlimited number of parameters (each must be a number).
Example: min(4, 2, 9, 6) returns 2

pow(num, st) - raises a number to a power taking two parameters: the base number and the exponent.

Example: pow(5, 2) returns 25

pyt(a, b) - Calculates the square root of the sum of the squares of two values accepting two parameters: a and b.

Example: pyt(5, 2) returns 5.385164807134504

random(low, high) - generates a random number. The function takes two parameters: the lower bound and the upper bound.

Example: random(-10, 10)

round(num) - performs mathematical rounding of a number.
Example: round(1.8).

You can also round to a specific number of decimal places.

Example: round(1.8888888, 2) returns 1.89.

sha1(text) - generates a SHA-1 hash from a string.

Example: hash = sha1("Hello world") returns 7b502c3a1f48c8609ae212cdfb639dee39673f5e

sha256(text) - generates a SHA-256 hash from a string.

Example: hash = sha256("Hello world") returns 64ec88ca00b268e5ba1a35678a1b5316d212f4f366b2477232534a8aeca37f3c

sqrt(num) - calculates the square root of a number taking one parameter: the number.

Example: sqrt(25) returns 5

sin() cos() tan() asin() acos() atan() atan2() - trigonometric functions (remember to consider their domains).

Mathematical functions can be performed not only in the "Calculator" field but also directly in the "Message" field by writing expressions in the following format: #{2+2}, #{random(0,100)}, and etc.

Let’s try this function! It’s really simple: just enter it, specify the parameters, and get the result — just like in math!

Here is the result:

Example of using int_to_string():

Code for the "Message" field:

abs(#{A}) = #{a1} 
ceil(#{X}) = #{b1} 
customizable_round_multiply(#{X}, #{Y}, 2) = #{c1}
customizable_round_division(#{X}, #{Y}, 3) = #{d1} 
exp(4) = #{e1}
fac(#{C}) = #{f1}
floor(#{X}) = #{g1}        
floor(#{Y}) = #{floor(#{Y})}
int(#{X}) = #{h1}            
int(#{Y}) = #{int(#{Y})}
is_float("#{text}") = #{i1}      
is_float("#{X}") = #{is_float("#{X}")}    
is_int("#{text}") = #{j1}         
is_int("#{C}") = #{is_int("#{C}")}
is_int("#{X}") = #{is_int("#{X}")}
log(#{C}) = #{k1}
max(#{X}, #{Y}, #{C}) = #{l1} 
md5("#{text}") = #{m1} 
min(#{X}, #{Y}, #{C}) = #{n1}
pow(#{C},#{C}) = #{o1} 
pyt(5,2) = #{o2}
random(0, #{C}) = #{p1} 
round(#{Y}) = #{r1}
sha1("#{text}") = #{s1}
sha256("#{text}") = #{t1}
sqrt(#{C}) = #{u1} 
sin(#{X}) = #{v1}
cos(#{X}) = #{w1}
tan(#{X}) = #{x1} 
asin(#{L}) = #{y1} 
acos(#{L}) = #{a2} 
atan(#{X}) = #{b2} 
atan2(#{X},#{Y}) = #{c2}

Code for the "Calculator" field:

/*setting universal numbers for calculations*/
X=1.275
Y=5.822
A=-2.352
C=5
L=0.5
text="Hello, World!"
/*calculation*/
a1=abs(A) 
b1=ceil(X) 
c1=customizable_round_multiply(X,Y,2) 
d1=customizable_round_division(X,Y,3) 
e1=exp(4) 
f1=fac(C) 
g1=floor(X) 
h1=int(X) 
i1=is_float(text) 
j1=is_int(text) 
k1=log(C) 
l1=max(X,Y,C) 
m1=md5(text) 
n1=min(X,Y,C) 
o1=pow(C,C) 
o2=pyt(5,2)
p1=random(0,C) 
r1=round(Y) 
s1=sha1(text) 
t1=sha256(text) 
u1=sqrt(C) 
v1=sin(X) 
w1=cos(X) 
x1=tan(X) 
y1=asin(L) 
a2=acos(L) 
b2=atan(X) 
c2=atan2(X,Y)

Working with coordinates

distance()

distance(lat1, lon1, lat2, lon2)- calculates the distance between two coordinates in kilometers

lat1, lat2 - latitude of the starting and ending points

lon1, lon2 - longitude of the starting and ending points

Example: distance(52.2296756, 21.0122287, 52.406374, 16.9251681)

Result: 278.5459739738798