diff --git a/README.md b/README.md
index b3d0290..b505d47 100644
--- a/README.md
+++ b/README.md
@@ -1,5 +1,4 @@
 # stream
-
 --
     import "."
 
@@ -50,7 +49,6 @@ var ErrFnRequired = fmt.Errorf("nil InterceptFunc, Fn is required")
 ```go
 func Any[T any](ctx context.Context, in <-chan T) <-chan any
 ```
-
 Any accepts an incoming data channel and converts the channel to a readonly
 channel of the `any` type.
 
@@ -58,10 +56,9 @@ channel of the `any` type.
 
 ```go
 func Distribute[T any](
- ctx context.Context, in <-chan T, out ...chan<- T,
+	ctx context.Context, in <-chan T, out ...chan<- T,
 )
 ```
-
 Distribute accepts an incoming data channel and distributes the data among the
 supplied outgoing data channels using a dynamic select statement.
 
@@ -74,7 +71,6 @@ ensure that the goroutine is properly terminated.
 ```go
 func Drain[T any](ctx context.Context, in <-chan T)
 ```
-
 Drain accepts a channel and drains the channel until the channel is closed or
 the context is canceled.
 
@@ -83,7 +79,6 @@ the context is canceled.
 ```go
 func FanIn[T any](ctx context.Context, in ...<-chan T) <-chan T
 ```
-
 FanIn accepts incoming data channels and forwards returns a single channel that
 receives all the data from the supplied channels.
 
@@ -95,10 +90,9 @@ ensure that the goroutine is terminated.
 
 ```go
 func FanOut[T any](
- ctx context.Context, in <-chan T, out ...chan<- T,
+	ctx context.Context, in <-chan T, out ...chan<- T,
 )
 ```
-
 FanOut accepts an incoming data channel and copies the data to each of the
 supplied outgoing data channels.
 
@@ -110,12 +104,11 @@ ensure that the goroutine is properly terminated.
 
 ```go
 func Intercept[T, U any](
- ctx context.Context,
- in <-chan T,
- fn InterceptFunc[T, U],
+	ctx context.Context,
+	in <-chan T,
+	fn InterceptFunc[T, U],
 ) <-chan U
 ```
-
 Intercept accepts an incoming data channel and a function literal that accepts
 the incoming data and returns data of the same type and a boolean indicating
 whether the data should be forwarded to the output channel. The function is
@@ -126,10 +119,9 @@ not canceled or the incoming channel remains open.
 
 ```go
 func Pipe[T any](
- ctx context.Context, in <-chan T, out chan<- T,
+	ctx context.Context, in <-chan T, out chan<- T,
 )
 ```
-
 Pipe accepts an incoming data channel and pipes it to the supplied outgoing data
 channel.
 
@@ -141,25 +133,25 @@ that the goroutine is properly terminated.
 
 ```go
 type DurationScaler struct {
- // Interval is the number the current step must be divisible by in order
- // to modify the time.Duration.
- Interval int
-
- // ScalingFactor is a value between -1 and 1 that is used to modify the
- // time.Duration of a ticker or timer. The value is multiplied by
- // the ScalingFactor is multiplied by the duration for scaling.
- //
- // For example, if the ScalingFactor is 0.5, then the duration will be
- // multiplied by 0.5. If the ScalingFactor is -0.5, then the duration will
- // be divided by 0.5. If the ScalingFactor is 0, then the duration will
- // not be modified.
- //
- // A negative ScalingFactor will cause the duration to decrease as the
- // step value increases causing the ticker or timer to fire more often
- // and create more routines. A positive ScalingFactor will cause the
- // duration to increase as the step value increases causing the ticker
- // or timer to fire less often and create less routines.
- ScalingFactor float64
+	// Interval is the number the current step must be divisible by in order
+	// to modify the time.Duration.
+	Interval int
+
+	// ScalingFactor is a value between -1 and 1 that is used to modify the
+	// time.Duration of a ticker or timer. The value is multiplied by
+	// the ScalingFactor is multiplied by the duration for scaling.
+	//
+	// For example, if the ScalingFactor is 0.5, then the duration will be
+	// multiplied by 0.5. If the ScalingFactor is -0.5, then the duration will
+	// be divided by 0.5. If the ScalingFactor is 0, then the duration will
+	// not be modified.
+	//
+	// A negative ScalingFactor will cause the duration to decrease as the
+	// step value increases causing the ticker or timer to fire more often
+	// and create more routines. A positive ScalingFactor will cause the
+	// duration to increase as the step value increases causing the ticker
+	// or timer to fire less often and create less routines.
+	ScalingFactor float64
 }
 ```
 
@@ -172,18 +164,19 @@ a configured step value and modifier (between -1 and 1) value.
 type InterceptFunc[T, U any] func(context.Context, T) (U, bool)
 ```
 
+
 #### type Scaler
 
 ```go
 type Scaler[T, U any] struct {
- Wait time.Duration
- Life time.Duration
- Fn   InterceptFunc[T, U]
-
- // WaitModifier is used to modify the Wait time based on the number of
- // times the Scaler has scaled up. This is useful for systems
- // that are CPU bound and need to scale up more/less quickly.
- WaitModifier DurationScaler
+	Wait time.Duration
+	Life time.Duration
+	Fn   InterceptFunc[T, U]
+
+	// WaitModifier is used to modify the Wait time based on the number of
+	// times the Scaler has scaled up. This is useful for systems
+	// that are CPU bound and need to scale up more/less quickly.
+	WaitModifier DurationScaler
 }
 ```
 
@@ -199,7 +192,7 @@ To use Scalar, simply create a new Scaler[T, U], configuring the Wait, Life, and
 InterceptFunc fields. These fields are what configure the functionality of the
 Scaler.
 
-NOTE: Fn is REQUIRED!
+NOTE: Fn is REQUIRED! Defaults: Wait = 1ns, Life = 1µs
 
 After creating the Scaler instance and configuring it, call the Exec method
 passing the appropriate context and input channel.
@@ -216,7 +209,6 @@ successful send occurs. (This should only loop twice).
 ```go
 func (s Scaler[T, U]) Exec(ctx context.Context, in <-chan T) (<-chan U, error)
 ```
-
 Exec starts the internal Scaler routine (the first layer of processing) and
 returns the output channel where the resulting data from the Fn function will be
 sent.