192: Public Review delivery

Task-Url: https://github.com/unitsofmeasurement/unit-api/issues/issues/192

src/main/java/javax/measure/Unit.java

@@ -67,7 +67,7 @@
  * @author <a href="mailto:[email protected]">Steve Emmerson</a>
  * @author <a href="mailto:[email protected]">Martin Desruisseaux</a>
  * @author <a href="mailto:[email protected]">Werner Keil</a>
- * @version 2.0, April 24, 2019
+ * @version 2.1, May 12, 2019
  * @since 1.0
  *
  * @see <a href="http://en.wikipedia.org/wiki/Units_of_measurement">Wikipedia: Units of measurement</a>
@@ -136,7 +136,7 @@ public interface Unit<Q extends Quantity<Q>> {
 
     /**
      * Indicates if this unit is compatible with the unit specified. Units don't need to be equals to be compatible. For example (assuming {@code ONE}
-     * is a dimensionless unit):
+     * is a dimensionless unit):<br>
      *
      * <code>
      *     RADIAN.equals(ONE) == false<br>
@@ -153,7 +153,7 @@ public interface Unit<Q extends Quantity<Q>> {
 
     /**
      * Casts this unit to a parameterized unit of specified nature or throw a {@code ClassCastException} if the dimension of the specified quantity and
-     * this unit's dimension do not match. For example:
+     * this unit's dimension do not match. For example:<br>
      *
      * <code>
      *      {@literal Unit<Speed>} C = METRE.multiply(299792458).divide(SECOND).asType(Speed.class);
@@ -234,7 +234,7 @@ public interface Unit<Q extends Quantity<Q>> {
 
     /**
      * Returns the result of setting the origin of the scale of measurement to the given value. The returned unit is convertible with all units that are
-     * convertible with this unit. For example the following code:
+     * convertible with this unit. For example the following code:<br>
      *
      * <code>
      *    CELSIUS = KELVIN.shift(273.15);
@@ -252,7 +252,7 @@ public interface Unit<Q extends Quantity<Q>> {
 
     /**
      * Returns the result of setting the origin of the scale of measurement to the given value. The returned unit is convertible with all units that are
-     * convertible with this unit. For example the following code:
+     * convertible with this unit. For example the following code:<br>
      *
      * <code>
      *    CELSIUS = KELVIN.shift(273.15);
@@ -269,10 +269,10 @@ public interface Unit<Q extends Quantity<Q>> {
 
     /**
      * Returns the result of multiplying this unit by the specified factor. If the factor is an integer value, the multiplication is exact
-     * (recommended). For example:
+     * (recommended). For example:<br>
      *
      * <code>
-     *    FOOT = METRE.multiply(3048).divide(10000); // Exact definition.
+     *    FOOT = METRE.multiply(3048).divide(10000); // Exact definition.<br>
      *    ELECTRON_MASS = KILOGRAM.multiply(9.10938188e-31); // Approximation.
      * </code>
      *
@@ -284,10 +284,10 @@ public interface Unit<Q extends Quantity<Q>> {
     Unit<Q> multiply(Number multiplier);
 
     /**
-     * Returns the result of multiplying this unit by the specified factor. For example:
+     * Returns the result of multiplying this unit by the specified factor. For example:<br>
      *
      * <code>
-     *    FOOT = METRE.multiply(3048).divide(10000); // Exact definition.
+     *    FOOT = METRE.multiply(3048).divide(10000); // Exact definition.<br>
      *    ELECTRON_MASS = KILOGRAM.multiply(9.10938188e-31); // Approximation.
      * </code>
      *
@@ -315,7 +315,7 @@ public interface Unit<Q extends Quantity<Q>> {
     Unit<?> inverse();
 
     /**
-     * Returns the result of dividing this unit by a divisor. If the factor is an integer value, the division is exact. For example:
+     * Returns the result of dividing this unit by a divisor. If the factor is an integer value, the division is exact. For example:<br>
      *
      * <code>
      *    GRAM = KILOGRAM.divide(1000); // Exact definition.
@@ -329,7 +329,7 @@ public interface Unit<Q extends Quantity<Q>> {
     Unit<Q> divide(Number divisor);
 
     /**
-     * Returns the result of dividing this unit by an approximate divisor. For example:
+     * Returns the result of dividing this unit by an approximate divisor. For example:<br>
      *
      * <code>
      *    GRAM = KILOGRAM.divide(1000d);

src/main/java/javax/measure/UnitConverter.java

@@ -44,7 +44,7 @@
  *         Desruisseaux</a>
  * @author <a href="mailto:[email protected]">Thodoris Bais</a>
  * @author <a href="mailto:[email protected]">Andi Huber</a>
- * @version 1.3, March 11, 2019
+ * @version 1.4, May 12, 2019
  * @since 1.0
  *
  * @see Unit
@@ -68,32 +68,28 @@ public interface UnitConverter {
      * vector space (a scalar) to a one-dimensional vector space. Typically from 'R' to 'R', with 'R' the 
      * real numbers.  
      * 
-     * <p>
      * Given such a 'linear' converter 'A', let 'u', 'v' and 'r' be arbitrary numbers, then the following 
      * must hold by definition: 
      *
      * <ul>
      * <li>{@code A(u + v) == A(u) + A(v)}</li>
      * <li>{@code A(r * u) == r * A(u)}</li>
      * </ul>
-     * </p>
      *
-     * <p>
      * Given a second 'linear' converter 'B', commutativity of composition follows by above definition:
      *
      * <ul>
      * <li>{@code (A o B) (u) == (B o A) (u)}</li>
      * </ul>
      * 
      * In other words, two 'linear' converters do have the property that {@code A(B(u)) == B(A(u))}, meaning 
-     * for 'A' and 'B' the order of their composition does not matter. Expressed as Java code:
-     * </p>
-     * <p>
-     *{@code A.concatenate(B).convert(u) == B.concatenate(A).convert(u)}
-     * </p>
-     * <p>
+     * for 'A' and 'B' the order of their composition does not matter. Expressed as Java code:<br>
+     * <br>
+     *
+     *{@code A.concatenate(B).convert(u) == B.concatenate(A).convert(u)}<br>
+     * <br>
+     * 
      * Note: For composing UnitConverters see also {@link UnitConverter#concatenate(UnitConverter)}.
-     * </p>
      *
      * @return {@code true} if this converter represents a linear transformation; 
      * {@code false} otherwise.