Fix cargo doc links

src/evaluator.rs

@@ -9,13 +9,13 @@ use crate::TextOperator::{To, Of};
 use crate::FunctionIdentifier::*;
 use crate::lookup::{lookup_factorial, lookup_named_number};
 
-/// Evaluate an [`AstNode`](struct.AstNode.html) into a [`Number`](struct.Number.html)
+/// Evaluate an [`AstNode`] into a [`Number`]
 pub fn evaluate(ast: &AstNode) -> Result<Number, String> {
   let answer = evaluate_node(ast)?;
   Ok(answer)
 }
 
-/// Returns the factorial of a [`d128`](../decimal/struct.d128.html) up to `1000!` without doing any math
+/// Returns the factorial of a [`struct@d128`] up to `1000!` without doing any math
 /// 
 /// Factorials do not work with decimal numbers.
 /// 
@@ -24,7 +24,7 @@ pub fn factorial(input: d128) -> d128 {
   return lookup_factorial(input.into());
 }
 
-/// Returns the square root of a [`d128`](../decimal/struct.d128.html)
+/// Returns the square root of a [`struct@d128`]
 pub fn sqrt(input: d128) -> d128 {
   let mut n = d128!(1);
   let half = d128!(0.5);
@@ -34,7 +34,7 @@ pub fn sqrt(input: d128) -> d128 {
   return n
 }
 
-/// Returns the cube root of a [`d128`](../decimal/struct.d128.html)
+/// Returns the cube root of a [`struct@d128`]
 pub fn cbrt(input: d128) -> d128 {
   let mut n: d128 = input;
   // hope that 20 iterations makes it accurate enough
@@ -46,7 +46,7 @@ pub fn cbrt(input: d128) -> d128 {
   return n
 }
 
-/// Returns the sine of a [`d128`](../decimal/struct.d128.html)
+/// Returns the sine of a [`struct@d128`]
 pub fn sin(mut input: d128) -> d128 {
   let pi = d128!(3.141592653589793238462643383279503);
   let pi2 = d128!(6.283185307179586476925286766559006);
@@ -76,18 +76,18 @@ pub fn sin(mut input: d128) -> d128 {
   
 }
 
-/// Returns the cosine of a [`d128`](../decimal/struct.d128.html)
+/// Returns the cosine of a [`struct@d128`]
 pub fn cos(input: d128) -> d128 {
   let half_pi = d128!(1.570796326794896619231321691639751);
   return sin(half_pi - input);
 }
 
-/// Returns the tangent of a [`d128`](../decimal/struct.d128.html)
+/// Returns the tangent of a [`struct@d128`]
 pub fn tan(input: d128) -> d128 {
   return sin(input) / cos(input);
 }
 
-/// Evaluate an [`AstNode`](struct.AstNode.html) into a [`Number`](struct.Number.html)
+/// Evaluate an [`AstNode`] into a [`Number`]
 fn evaluate_node(ast_node: &AstNode) -> Result<Number, String> {
   let token = &ast_node.token;
   let children = &ast_node.children;

src/lexer.rs

@@ -18,7 +18,7 @@ pub const fn is_alphabetic_extended(input: &char) -> bool {
   }
 }
 
-/// Lex an input string and return a [`TokenVector`](../type.TokenVector.html)
+/// Lex an input string and return a [`TokenVector`]
 pub fn lex(input: &str, allow_trailing_operators: bool, default_degree: Unit) -> Result<TokenVector, String> {
 
   let mut input = input.replace(",", ""); // ignore commas

src/lib.rs

@@ -28,11 +28,11 @@ use crate::units::Unit;
 
 /// Units, and functions you can use with them
 pub mod units;
-/// Turns a string into a [`TokenVector`](type.TokenVector.html)
+/// Turns a string into a [`TokenVector`]
 pub mod lexer;
-/// Turns a [`TokenVector`](type.TokenVector.html) into an [`AstNode`](struct.AstNode.html)
+/// Turns a [`TokenVector`] into an [`AstNode`](parser::AstNode)
 pub mod parser;
-/// Turns an [`AstNode`](struct.AstNode.html) into a [`Number`](struct.Number.html)
+/// Turns an [`AstNode`](parser::AstNode) into a [`Number`]
 pub mod evaluator;
 mod lookup;
 
@@ -51,9 +51,9 @@ mod lookup;
 /// };
 /// ```
 pub struct Number {
-  /// The number part of a `Number` struct
+  /// The number part of a [`Number`] struct
   pub value: d128,
-  /// The unit of a `Number` struct. This can be `NoType`
+  /// The unit of a [`Number`] struct. This can be [`NoType`](units::UnitType::NoType)
   pub unit: Unit,
 }
 
@@ -67,7 +67,7 @@ impl Number {
 }
 
 #[derive(Clone, Debug)]
-/// Math operators like [`Multiply`](enum.Operator.html#variant.Multiply), parentheses, etc.
+/// Math operators like [`Multiply`](Operator::Multiply), parentheses, etc.
 pub enum Operator {
   Plus,
   Minus,
@@ -80,21 +80,21 @@ pub enum Operator {
 }
 
 #[derive(Clone, Debug)]
-/// Unary operators like [`Percent`](enum.UnaryOperator.html#variant.Percent) and [`Factorial`](enum.UnaryOperator.html#variant.Factorial).
+/// Unary operators like [`Percent`](UnaryOperator::Percent) and [`Factorial`](UnaryOperator::Factorial).
 pub enum UnaryOperator {
   Percent,
   Factorial,
 }
 
 #[derive(Clone, Debug)]
-/// A Text operator like [`To`](enum.TextOperator.html#variant.To) or [`From`](enum.TextOperator.html#variant.From).
+/// A Text operator like [`To`](TextOperator::To) or [`Of`](TextOperator::Of).
 pub enum TextOperator {
   To,
   Of,
 }
 
 #[derive(Clone, Debug)]
-/// A named number like [`Million`](enum.NamedNumber.html#variant.Million).
+/// A named number like [`Million`](NamedNumber::Million).
 pub enum NamedNumber {
   Hundred,
   Thousand,
@@ -123,14 +123,14 @@ pub enum NamedNumber {
 }
 
 #[derive(Clone, Debug)]
-/// A constants like [`Pi`](enum.Constant.html#variant.Pi) or [`E`](enum.Constant.html#variant.E).
+/// A constants like [`Pi`](Constant::Pi) or [`E`](Constant::E).
 pub enum Constant {
   Pi,
   E,
 }
 
 #[derive(Clone, Debug)]
-/// Functions identifiers like [`Sqrt`](enum.FunctionIdentifier.html#variant.Sqrt), [`Sin`](enum.FunctionIdentifier.html#variant.Sin), [`Round`](enum.FunctionIdentifier.html#variant.Round), etc.
+/// Functions identifiers like [`Sqrt`](FunctionIdentifier::Sqrt), [`Sin`](FunctionIdentifier::Sin), [`Round`](FunctionIdentifier::Round), etc.
 pub enum FunctionIdentifier {
   Sqrt,
   Cbrt,
@@ -150,13 +150,13 @@ pub enum FunctionIdentifier {
 }
 
 #[derive(Clone, Debug)]
-/// A temporary enum used by the [`lexer`](lexer/index.html) to later determine what [`Token`](enum.Token.html) it is.
+/// A temporary enum used by the [`lexer`] to later determine what [`Token`] it is.
 /// 
 /// For example, when a symbol like `%` is found, the lexer turns it into a
-/// the [`PercentChar`](enum.LexerKeyword.html#variant.PercentChar) variant
+/// the [`PercentChar`](LexerKeyword::PercentChar) variant
-/// and then later it checks the surrounding [`Token`](enum.Token.html)s and,
+/// and then later it checks the surrounding [`Token`]s and,
-/// dependingon them, turns it into a [`Percent`](enum.UnaryOperator.html) or
+/// dependingon them, turns it into a [`Percent`](UnaryOperator::Percent) or
-/// [`Modulo`](enum.Operator.html) [`Token`](enum.Token.html).
+/// [`Modulo`](Operator::Modulo) [`Token`].
 pub enum LexerKeyword {
   Per,
   PercentChar,
@@ -170,9 +170,9 @@ pub enum LexerKeyword {
 }
 
 #[derive(Clone, Debug)]
-/// A token like a [`Number`](enum.Token.html#variant.Number), [`Operator`](enum.Token.html#variant.Operator), [`Unit`](enum.Token.html#variant.Unit) etc.
+/// A token like a [`Number`](Token::Number), [`Operator`](Token::Operator), [`Unit`](Token::Unit) etc.
 /// 
-/// Strings can be divided up into these tokens by the [`lexer`](lexer/index.html), and then put into the [`parser`](parser/index.html).
+/// Strings can be divided up into these tokens by the [`lexer`], and then put into the [`parser`].
 pub enum Token {
   Operator(Operator),
   UnaryOperator(UnaryOperator),
@@ -192,10 +192,10 @@ pub enum Token {
   Unit(units::Unit),
 }
 
-/// A vector of [`Token`](enum.Token.html)
+/// A vector of [`Token`]
 pub type TokenVector = Vec<Token>;
 
-/// Evaluates a string into a resulting [`Number`]().
+/// Evaluates a string into a resulting [`Number`].
 /// 
 /// Example:
 /// ```rust

src/lookup.rs

@@ -2,7 +2,7 @@ use crate::NamedNumber::*;
 use crate::NamedNumber;
 use decimal_fixes_mirror::d128;
 
-/// Returns the number of a [`NamedNumber`](decimal/struct.d128.html) [`to`](../enum.NamedNumber.html) as a [`d128`](decimal/struct.d128.html)
+/// Returns the corresponding [`d128`] of a [`NamedNumber`]
 pub fn lookup_named_number(named_number: &NamedNumber) -> d128 {
   return match named_number {
     Hundred           => d128!(100),
@@ -32,7 +32,7 @@ pub fn lookup_named_number(named_number: &NamedNumber) -> d128 {
   }
 }
 
-/// Returns the factorial of an `i32` as a [`d128`](decimal/struct.d128.html)
+/// Returns the factorial of an `i32` as a [`struct@d128`]
 pub fn lookup_factorial(n: i32) -> d128 {
   return match n {
     0 => d128!(1),

src/parser.rs

@@ -5,11 +5,11 @@ use crate::TextOperator::{To, Of};
 use crate::units::Unit::{Foot, Inch};
 
 #[derive(Debug)]
-/// A struct with a [`Token`](struct.AstNode.html#structfield.token) and `AstNode` [`children`](struct.AstNode.html#structfield.children)
+/// A struct with a [`Token`](AstNode::token) and [`AstNode`] [`children`](AstNode::children)
 pub struct AstNode {
-  /// The children of the `AstNode`
+  /// The children of the [`AstNode`]
   pub children: Vec<AstNode>,
-  /// The token of the `AstNode`
+  /// The token of the [`AstNode`]
   pub token: Token,
 }
 
@@ -22,7 +22,7 @@ impl AstNode {
   }
 }
 
-/// Parse [`TokenVector`](type.TokenVector.html) into an Abstract Syntax Tree ([`AstNode`](struct.AstNode.html))
+/// Parse [`TokenVector`] into an Abstract Syntax Tree ([`AstNode`])
 pub fn parse(tokens: &TokenVector) -> Result<AstNode, String> {
   parse_level_1(tokens, 0).and_then(|(ast, next_pos)| if next_pos == tokens.len() {
       Ok(ast)
@@ -32,7 +32,7 @@ pub fn parse(tokens: &TokenVector) -> Result<AstNode, String> {
 }
 
 // level 1 precedence (lowest): to, of
-/// Parse [`to`](../enum.TextOperator.html#variant.To) and [`of`](../enum.TextOperator.html#variant.Of)
+/// Parse [`To`](crate::TextOperator::To) and [`Of`](crate::TextOperator::Of)
 pub fn parse_level_1(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize), String> {
   // do higher precedences first, then come back down
   let (mut node, mut pos) = parse_level_2(tokens, pos)?;
@@ -60,7 +60,7 @@ pub fn parse_level_1(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize
 }
 
 // level 2 precedence: +, -
-/// Parse [`Plus`](../enum.Operator.html#variant.Plus) and [`Minus`](../enum.Operator.html#variant.Minus)
+/// Parse [`Plus`](crate::Operator::Plus) and [`Minus`](crate::Operator::Minus)
 pub fn parse_level_2(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize), String> {
   let (mut node, mut pos) = parse_level_3(tokens, pos)?;
   loop {
@@ -82,7 +82,7 @@ pub fn parse_level_2(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize
 }
 
 // level 3 precedence: *, /, modulo, implicative multiplication, foot-inch 6'4"
-/// Parse [`Multiply`](../enum.Operator.html#variant.Multiply), [`Divide`](../enum.Operator.html#variant.Divide), [`Modulo`](../enum.Operator.html#variant.Modulo) and implicative multiplication (for example`2pi`)
+/// Parse [`Multiply`](crate::Operator::Multiply), [`Divide`](crate::Operator::Divide), [`Modulo`](crate::Operator::Modulo) and implicative multiplication (for example`2pi`)
 pub fn parse_level_3(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize), String> {
 
   // parse foot-inch syntax 6'4"
@@ -214,7 +214,7 @@ pub fn parse_level_3(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize
 }
 
 // level 4 precedence: ^
-/// Parse [`Caret`](../enum.Operator.html#variant.Caret)
+/// Parse [`Caret`](crate::Operator::Caret)
 pub fn parse_level_4(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize), String> {
   let (mut node, mut pos) = parse_level_5(tokens, pos)?;
   loop {
@@ -236,7 +236,7 @@ pub fn parse_level_4(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize
 }
 
 // level 5 precedence: - (as in -5, but not 4-5)
-/// Parse [`Negative`](../enum.Token.html#variant.Negative)
+/// Parse [`Negative`](Token::Negative)
 pub fn parse_level_5(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize), String> {
   // Here we parse the negative unary operator. If the current token
   // is a minus, we wrap the right_node inside a Negative AstNode.
@@ -263,7 +263,7 @@ pub fn parse_level_5(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize
 }
 
 // level 6 precedence: !, percent, units attached to values
-/// Parse [`Factorial`](../enum.UnaryOperator.html#variant.Factorial) and [`Percent`](../enum.UnaryOperator.html#variant.Percent)
+/// Parse [`Factorial`](crate::UnaryOperator::Factorial) and [`Percent`](crate::UnaryOperator::Percent)
 pub fn parse_level_6(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize), String> {
   let (mut node, mut pos) = parse_level_7(tokens, pos)?;
   loop {
@@ -295,11 +295,11 @@ pub fn parse_level_6(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize
 }
 
 // level 7 precedence: numbers, standalone units, constants, functions, parens
-/// Parse [`Number`](../enum.Token.html#variant.Number),
+/// Parse [`Number`](Token::Number),
-/// [`Unit`](../units/enum.Unit.html),
+/// [`Unit`](Token::Unit),
-/// [`Constant`](../enum.Constant.html),
+/// [`Constant`](Token::Constant),
-/// [`FunctionIdentifier`](../enum.FunctionIdentifier.html),
+/// [`FunctionIdentifier`](Token::FunctionIdentifier),
-/// [`Paren`](../enum.Token.html#variant.Paren)
+/// [`Paren`](Token::Paren)
 pub fn parse_level_7(tokens: &TokenVector, pos: usize) -> Result<(AstNode, usize), String> {
   let token: &Token = tokens.get(pos).ok_or(format!("Unexpected end of input at {}", pos))?;
   match token {

src/units.rs

@@ -2,40 +2,40 @@ use decimal_fixes_mirror::d128;
 use crate::Number;
 
 #[derive(Clone, Copy, PartialEq, Debug)]
-/// An enum of all possible unit types, like `Length`, `DigitalStorage` etc.
+/// An enum of all possible unit types, like [`Length`], [`DigitalStorage`] etc.
-/// There is also a `NoType` unit type for normal numbers.
+/// There is also a [`NoType`] unit type for normal numbers.
 pub enum UnitType {
   /// A normal number, for example `5`
   NoType,
-  /// A unit of time, for example `Hour`
+  /// A unit of time, for example [`Hour`]
   Time,
-  /// A unit of length, for example `Mile`
+  /// A unit of length, for example [`Mile`]
   Length,
-  /// A unit of area, for example `SquareKilometer`
+  /// A unit of area, for example [`SquareKilometer`]
   Area,
-  /// A unit of volume, for example `Liter` or `Tablespoon`
+  /// A unit of volume, for example [`Liter`] or [`Tablespoon`]
   Volume,
-  /// A unit of mass, for example `Kilobyte`
+  /// A unit of mass, for example [`Gram`]
   Mass,
-  /// A unit of digital storage, for example `Kilobyte`
+  /// A unit of digital storage, for example [`Kilobyte`]
   DigitalStorage,
-  /// A unit of energy, for example `Joule` or `KilowattHour`
+  /// A unit of energy, for example [`Joule`] or [`KilowattHour`]
   Energy,
-  /// A unit of power, for example `Watt`
+  /// A unit of power, for example [`Watt`]
   Power,
-  /// A unit of electrical current, for example `Ampere`
+  /// A unit of electrical current, for example [`Ampere`]
   ElectricCurrent,
-  /// A unit of electric resistance, for example `Ohm`
+  /// A unit of electric resistance, for example [`Ohm`]
   Resistance,
-  /// A unit of voltage, for example `Volt`
+  /// A unit of voltage, for example [`Volt`]
   Voltage,
-  /// A unit of pressure, for example `Bar`
+  /// A unit of pressure, for example [`Bar`]
   Pressure,
-  /// A unit of frequency, for example `Hertz`
+  /// A unit of frequency, for example [`Hertz`]
   Frequency,
-  /// A unit of x, for example `KilometersPerHour`
+  /// A unit of x, for example [`KilometersPerHour`]
   Speed,
-  /// A unit of temperature, for example `Kelvin`
+  /// A unit of temperature, for example [`Kelvin`]
   Temperature,
 }
 use UnitType::*;
@@ -46,7 +46,7 @@ use UnitType::*;
 macro_rules! create_units {
   ( $( $variant:ident : $properties:expr ),*, ) => {
     #[derive(Clone, Copy, PartialEq, Debug)]
-    /// A Unit enum. Note that it can also be `NoUnit`.
+    /// A Unit enum. Note that it can also be [`NoUnit`].
     pub enum Unit {
       $($variant),*
     }
@@ -285,12 +285,12 @@ fn get_inverted_millivolt_weight() -> d128 {
 /// `to_unit`. For example, the conversion factor from 1 minute to 1 second
 /// is 60.
 /// 
-/// This is not sufficient for `Temperature` units.
+/// This is not sufficient for [`Temperature`] units.
 pub fn get_conversion_factor(unit: Unit, to_unit: Unit) -> d128 {
   return unit.weight() / to_unit.weight();
 }
 
-/// Convert a [`Number`](struct.Number.html) to a specified [`Unit`](enum.Unit.html).
+/// Convert a [`Number`] to a specified [`Unit`].
 pub fn convert(number: Number, to_unit: Unit) -> Result<Number, String> {
   if number.unit.category() != to_unit.category() {
     return Err(format!("Cannot convert from {:?} to {:?}", number.unit, to_unit));
@@ -318,7 +318,7 @@ pub fn convert(number: Number, to_unit: Unit) -> Result<Number, String> {
   }
 }
 
-/// If one of two provided [`Number`](struct.Number.html)s has a larger [`Unit`](enum.Unit.html) than the other, convert
+/// If one of two provided [`Number`]s has a larger [`Unit`] than the other, convert
 /// the large one to the unit of the small one.
 pub fn convert_to_lowest(left: Number, right: Number) -> Result<(Number, Number), String> {
   if left.unit.weight() == right.unit.weight() {
@@ -332,7 +332,7 @@ pub fn convert_to_lowest(left: Number, right: Number) -> Result<(Number, Number)
   }
 }
 
-/// Return the sum of two [`Number`](enum.Number.html)s
+/// Return the sum of two [`Number`]s
 pub fn add(left: Number, right: Number) -> Result<Number, String> {
   if left.unit == right.unit {
     Ok(Number::new(left.value + right.value, left.unit))
@@ -344,7 +344,7 @@ pub fn add(left: Number, right: Number) -> Result<Number, String> {
   }
 }
 
-/// Subtract a [`Number`](enum.Number.html) from another [`Number`](enum.Number.html)
+/// Subtract a [`Number`] from another [`Number`]
 pub fn subtract(left: Number, right: Number) -> Result<Number, String> {
   if left.unit == right.unit {
     Ok(Number::new(left.value - right.value, left.unit))
@@ -356,7 +356,7 @@ pub fn subtract(left: Number, right: Number) -> Result<Number, String> {
   }
 }
 
-/// Convert [`Number`](enum.Number.html) to an ideal unit.
+/// Convert a [`Number`] to an ideal unit.
 /// 
 /// If you have 1,000,000 millimeters, this will return 1 kilometer.
 /// 
@@ -462,7 +462,7 @@ pub fn to_ideal_unit(number: Number) -> Number {
   number
 }
 
-/// Convert a [`Number`](enum.Number.html) to an ideal joule unit, if the number is .
+/// Convert a [`Number`] to an ideal [`Joule`] unit, if the number is a unit of [`Energy`].
 pub fn to_ideal_joule_unit(number: Number) -> Number {
   let value = number.value * number.unit.weight();
   if number.unit.category() == Energy {
@@ -483,15 +483,15 @@ pub fn to_ideal_joule_unit(number: Number) -> Number {
   number
 }
 
-/// Multiply two [`Number`](enum.Number.html)s
+/// Multiply two [`Number`]s
 /// 
 /// - Temperatures don't work
-/// - If you multiply `NoType` with any other unit, the result gets that other unit
+/// - If you multiply [`NoType`] with any other unit, the result gets that other unit
-/// - If you multiply `Length` with `Length`, the result has a unit of `Area`, etc.
+/// - If you multiply [`Length`] with [`Length`], the result has a unit of [`Area`], etc.
-/// - If you multiply `Speed` with `Time`, the result has a unit of `Length`
+/// - If you multiply [`Speed`] with [`Time`], the result has a unit of [`Length`]
-/// - If you multiply `Voltage` with `Current`, the result has a unit of `Power`
+/// - If you multiply [`Voltage`] with [`ElectricCurrent`], the result has a unit of [`Power`]
-/// - If you multiply `Current` with `Resistance`, the result has a unit of `Voltage`
+/// - If you multiply [`ElectricCurrent`] with [`Resistance`], the result has a unit of [`Voltage`]
-/// - If you multiply `Power` with `Time`, the result has a unit of `Energy`
+/// - If you multiply [`Power`] with [`Time`], the result has a unit of [`Energy`]
 pub fn multiply(left: Number, right: Number) -> Result<Number, String> {
   Ok(actual_multiply(left, right, false)?)
 }
@@ -555,17 +555,17 @@ fn actual_multiply(left: Number, right: Number, swapped: bool) -> Result<Number,
   }
 }
 
-/// Divide a [`Number`](enum.Number.html) by another [`Number`](enum.Number.html)
+/// Divide a [`Number`] by another [`Number`]
 /// 
 /// - Temperatures don't work
-/// - If you divide a unit by that same unit, the result has a unit of `NoType`
+/// - If you divide a unit by that same unit, the result has a unit of [`NoType`]
-/// - If you divide `Volume` by `Length`, the result has a unit of `Area`, etc.
+/// - If you divide [`Volume`] by [`Length`], the result has a unit of [`Area`], etc.
-/// - If you divide `Length` by `Time`, the result has a unit of `Speed`
+/// - If you divide [`Length`] by [`Time`], the result has a unit of [`Speed`]
-/// - If you divide `Power` by `ElectricCurrent`, the result has a unit of `Volt`
+/// - If you divide [`Power`] by [`ElectricCurrent`], the result has a unit of [`Volt`]
-/// - If you divide `Voltage` by `ElectricCurrent`, the result has a unit of `Ohm`
+/// - If you divide [`Voltage`] by [`ElectricCurrent`], the result has a unit of [`Ohm`]
-/// - If you divide `Voltage` by `Resistance`, the result has a unit of `Ampere`
+/// - If you divide [`Voltage`] by [`Resistance`], the result has a unit of [`Ampere`]
-/// - If you divide `Power` by `Voltage`, the result has a unit of `Ampere`
+/// - If you divide [`Power`] by [`Voltage`], the result has a unit of [`Ampere`]
-/// - If you divide `Energy` by `Time`, the result has a unit of `Power`
+/// - If you divide [`Energy`] by [`Time`], the result has a unit of [`Power`]
 pub fn divide(left: Number, right: Number) -> Result<Number, String> {
   let lcat = left.unit.category();
   let rcat = right.unit.category();
@@ -628,9 +628,9 @@ pub fn divide(left: Number, right: Number) -> Result<Number, String> {
     Err(format!("Cannot divide {:?} by {:?}", left.unit, right.unit))
   }
 }
-/// Modulo a [`Number`](enum.Number.html) by another [`Number`](enum.Number.html).
+/// Modulo a [`Number`] by another [`Number`].
 /// 
-/// `left` and `right` need to have the same `UnitType`, and the result will have that same `UnitType`.
+/// `left` and `right` need to have the same [`UnitType`], and the result will have that same [`UnitType`].
 ///
 /// Temperatures don't work.
 pub fn modulo(left: Number, right: Number) -> Result<Number, String> {
@@ -646,11 +646,11 @@ pub fn modulo(left: Number, right: Number) -> Result<Number, String> {
   }
 }
 
-/// Returns a [`Number`](enum.Number.html) to the power of another [`Number`](enum.Number.html)
+/// Returns a [`Number`] to the power of another [`Number`]
 /// 
-/// - If you take `Length` to the power of `NoType`, the result has a unit of `Area`.
+/// - If you take [`Length`] to the power of [`NoType`], the result has a unit of [`Area`].
-/// - If you take `Length` to the power of `Length`, the result has a unit of `Area`
+/// - If you take [`Length`] to the power of [`Length`], the result has a unit of [`Area`]
-/// - If you take `Length` to the power of `Area`, the result has a unit of `Volume`
+/// - If you take [`Length`] to the power of [`Area`], the result has a unit of [`Volume`]
 /// - etc.
 pub fn pow(left: Number, right: Number) -> Result<Number, String> {
   let lcat = left.unit.category();