Reverting pointless changes

Author: MrKOSMOS

docs/cos.md

@@ -10,7 +10,7 @@ COS(numericExpression)
 ## Description
 
 Returns the cosine value of the given argument.
-Argument must be a numeric expression in radians units. Returned value type is [float](types.md#float).
+Argument must be a numeric expression in radians units. Returned value type is [float](types.md#Float).
 
 ## Examples
 
@@ -30,4 +30,4 @@ PRINT "Cosine value of a is "; COS(a)
 * [SIN](sin.md) and [ASN](asn.md)
 * [TAN](tan.md) and [ATN](atn.md)
 * [ACS](acs.md)
-*  Faster library option for lower accuracy trigonometry for games: [FCOS](library/fsin.bas.md#cosine-function)
+*  Faster library option for lower accuracy trigonometry for games: [FCOS](library/fsin.bas.md)

docs/function.md

@@ -58,7 +58,7 @@ END FUNCTION
 However, not using types explicitly might have a negative impact on performance.
 Better redefine it using data types. Factorial is usually defined on unsigned integers and also returns an unsigned
 integer. Also, keep in mind that factorial numbers tends to _grow up very quickly_ (e.g. Factorial of 10 is 3628800),
-so `ULong` [type](types.md#integral) (32 bits unsigned) seems to be the most suitable for this function.
+so `ULong` [type](types.md#Integral) (32 bits unsigned) seems to be the most suitable for this function.
 
 This version is faster (just the 1st line is changed):
 

docs/in.md

@@ -11,7 +11,7 @@ IN <port number>
 ## Description
 
 Returns the byte value read in the given port.
-Argument must be a numeric expression. Returned value type is [Ubyte](types.md#integral).
+Argument must be a numeric expression. Returned value type is [Ubyte](types.md#Integral).
 
 ## Examples
 

docs/sgn.md

@@ -12,7 +12,7 @@ Returns the sign of a numeric expression as follows:
 * 0 if the number is zero
 * 1 if the number is positive
 
-The returned value type is [byte](types.md#integral).
+The returned value type is [byte](types.md#Integral).
 
 ## Examples
 

docs/sin.md

@@ -9,7 +9,7 @@ SIN(numericExpression)
 ## Description
 
 Returns the sine value of the given argument.
-Argument must be a numeric expression in radians units. Returned value type is [float](types.md#float).
+Argument must be a numeric expression in radians units. Returned value type is [float](types.md#Float).
 
 ## Examples
 

docs/sqr.md

@@ -10,7 +10,7 @@ SQR(numericExpression)
 ## Description
 
 Returns the square root value of the given argument.
-Argument must be a numeric expression, and is returned as type [float](types.md#float).
+Argument must be a numeric expression, and is returned as type [float](types.md#Float).
 
 ## Examples
 

docs/str.md

@@ -10,7 +10,7 @@ STR(<numeric value>)
 ## Description
 
 Converts the given numeric value to a String. It's the opposite of [VAL](val.md)
-Returned value type is [String](types.md#integral).
+Returned value type is [String](types.md#Integral).
 
 ## Examples
 

docs/tan.md

@@ -11,7 +11,7 @@ TAN(numericExpression)
 ## Description
 
 Returns the tangent value of the given argument.
-Argument must be a numeric expression in radians units. Returned value type is [float](types.md#float).
+Argument must be a numeric expression in radians units. Returned value type is [float](types.md#Float).
 
 ## Examples
 
@@ -31,4 +31,4 @@ PRINT "Tangent value of a is "; TAN(a)
 * [SIN](sin.md) and [ASN](asn.md)
 * [COS](cos.md) and [ACS](acs.md)
 * [ATN](atn.md)
-* Faster library option for lower accuracy trigonometry for games: [FTAN](library/fsin.bas.md#tangent-function)
+* Faster library option for lower accuracy trigonometry for games: [FTAN](library/fsin.bas.md)

docs/usr.md

@@ -19,7 +19,7 @@ value (uInteger) returned by the function.
 If used with a string argument, it will return the UDG (User Defined Graphic) memory address of the first character of the string.
 For example, for the `\A` UDG, `USR "a"` will return the address of it. This function is case insensitive.
 
-Returned value type is [UInteger](types.md#integral).
+Returned value type is [UInteger](types.md#Integral).
 
 ## Examples
 

docs/zxb.md

@@ -159,7 +159,7 @@ messages (for example, to call ZX BASIC compiler from within an
 <abbr title="Integrated Development Environment">IDE</abbr>).
 
 * **--array-base**
-<br />Unlike original Sinclair BASIC, array indexes starts from 0, not from 1 (see [DIM](dim.md#array-declaration)).
+<br />Unlike original Sinclair BASIC, array indexes starts from 0, not from 1 (see [DIM](dim.md#Array-Declaration)).
 You can change this behavior. For example setting `--array-base=1` will make array indexes start from 1
 (like in Sinclair BASIC). This option (array-base=1) is active when `--sinclair` compatibility flag is specified.
 
@@ -211,9 +211,9 @@ This option is really useful and you should enable it for large programs.
 
 * **--strict**
 <br /> Requires all variables (and parameters and functions!) to have an explicit type declared
-(e.g. [Uinteger](types.md#integral)). Otherwise, forgetting a type will cause an error and the program won't compile.
+(e.g. [Uinteger](types.md#Integral)). Otherwise, forgetting a type will cause an error and the program won't compile.
 This is very useful to avoid forgetting type declarations. When the type is explicitly declared the compiler can make
 better assumptions and further error checking and optimizations.
 
-This is all you need to know to use the compiler. Proceed to the [ZX BASIC](index.md#language-reference) page for a 
+This is all you need to know to use the compiler. Proceed to the [ZX BASIC](index.md#Language-Reference) page for a 
 language reference.