package org.djunits.value.vfloat.scalar;
   
   import java.util.Locale;
   
   import org.djunits.unit.AccelerationUnit;
   import org.djunits.unit.AngularAccelerationUnit;
   import org.djunits.unit.AngularVelocityUnit;
   import org.djunits.unit.DimensionlessUnit;
   import org.djunits.unit.FrequencyUnit;
  import org.djunits.unit.PowerUnit;
  import org.djunits.unit.SpeedUnit;
  import org.djunits.value.vfloat.scalar.base.FloatScalarRel;
  import org.djutils.base.NumberParser;
  import org.djutils.exceptions.Throw;
  
  import jakarta.annotation.Generated;
  
  /**
   * Easy access methods for the FloatFrequency FloatScalar, which is relative by definition.
   * <p>
   * Copyright (c) 2013-2024 Delft University of Technology, PO Box 5, 2600 AA, Delft, the Netherlands. All rights reserved. <br>
   * BSD-style license. See <a href="https://djunits.org/docs/license.html">DJUNITS License</a>.
   * </p>
   * @author <a href="https://www.tudelft.nl/averbraeck">Alexander Verbraeck</a>
   * @author <a href="https://www.tudelft.nl/staff/p.knoppers/">Peter Knoppers</a>
   */
  @Generated(value = "org.djunits.generator.GenerateDJUNIT", date = "2023-07-23T14:06:38.224104100Z")
  public class FloatFrequency extends FloatScalarRel<FrequencyUnit, FloatFrequency>
  {
      /** */
      private static final long serialVersionUID = 20150901L;
  
      /** Constant with value zero. */
      public static final FloatFrequency ZERO = new FloatFrequency(0.0f, FrequencyUnit.SI);
  
      /** Constant with value one. */
      public static final FloatFrequency ONE = new FloatFrequency(1.0f, FrequencyUnit.SI);
  
      /** Constant with value NaN. */
      @SuppressWarnings("checkstyle:constantname")
      public static final FloatFrequency NaN = new FloatFrequency(Float.NaN, FrequencyUnit.SI);
  
      /** Constant with value POSITIVE_INFINITY. */
      public static final FloatFrequency POSITIVE_INFINITY = new FloatFrequency(Float.POSITIVE_INFINITY, FrequencyUnit.SI);
  
      /** Constant with value NEGATIVE_INFINITY. */
      public static final FloatFrequency NEGATIVE_INFINITY = new FloatFrequency(Float.NEGATIVE_INFINITY, FrequencyUnit.SI);
  
      /** Constant with value MAX_VALUE. */
      public static final FloatFrequency POS_MAXVALUE = new FloatFrequency(Float.MAX_VALUE, FrequencyUnit.SI);
  
      /** Constant with value -MAX_VALUE. */
      public static final FloatFrequency NEG_MAXVALUE = new FloatFrequency(-Float.MAX_VALUE, FrequencyUnit.SI);
  
      /**
       * Construct FloatFrequency scalar.
       * @param value float; the float value
       * @param unit unit for the float value
       */
      public FloatFrequency(final float value, final FrequencyUnit unit)
      {
          super(value, unit);
      }
  
      /**
       * Construct FloatFrequency scalar.
       * @param value Scalar from which to construct this instance
       */
      public FloatFrequency(final FloatFrequency value)
      {
          super(value);
      }
  
      /**
       * Construct FloatFrequency scalar using a double value.
       * @param value double; the double value
       * @param unit unit for the resulting float value
       */
      public FloatFrequency(final double value, final FrequencyUnit unit)
      {
          super((float) value, unit);
      }
  
      @Override
      public final FloatFrequency instantiateRel(final float value, final FrequencyUnit unit)
      {
          return new FloatFrequency(value, unit);
      }
  
      /**
       * Construct FloatFrequency scalar.
       * @param value float; the float value in SI units
       * @return the new scalar with the SI value
       */
      public static final FloatFrequency instantiateSI(final float value)
      {
          return new FloatFrequency(value, FrequencyUnit.SI);
      }
  
     /**
      * Interpolate between two values.
      * @param zero the low value
      * @param one the high value
      * @param ratio double; the ratio between 0 and 1, inclusive
      * @return a Scalar at the ratio between
      */
     public static FloatFrequency interpolate(final FloatFrequency zero, final FloatFrequency one, final float ratio)
     {
         return new FloatFrequency(zero.getInUnit() * (1 - ratio) + one.getInUnit(zero.getDisplayUnit()) * ratio,
                 zero.getDisplayUnit());
     }
 
     /**
      * Return the maximum value of two relative scalars.
      * @param r1 the first scalar
      * @param r2 the second scalar
      * @return the maximum value of two relative scalars
      */
     public static FloatFrequency max(final FloatFrequency r1, final FloatFrequency r2)
     {
         return r1.gt(r2) ? r1 : r2;
     }
 
     /**
      * Return the maximum value of more than two relative scalars.
      * @param r1 the first scalar
      * @param r2 the second scalar
      * @param rn the other scalars
      * @return the maximum value of more than two relative scalars
      */
     public static FloatFrequency max(final FloatFrequency r1, final FloatFrequency r2, final FloatFrequency... rn)
     {
         FloatFrequency maxr = r1.gt(r2) ? r1 : r2;
         for (FloatFrequency r : rn)
         {
             if (r.gt(maxr))
             {
                 maxr = r;
             }
         }
         return maxr;
     }
 
     /**
      * Return the minimum value of two relative scalars.
      * @param r1 the first scalar
      * @param r2 the second scalar
      * @return the minimum value of two relative scalars
      */
     public static FloatFrequency min(final FloatFrequency r1, final FloatFrequency r2)
     {
         return r1.lt(r2) ? r1 : r2;
     }
 
     /**
      * Return the minimum value of more than two relative scalars.
      * @param r1 the first scalar
      * @param r2 the second scalar
      * @param rn the other scalars
      * @return the minimum value of more than two relative scalars
      */
     public static FloatFrequency min(final FloatFrequency r1, final FloatFrequency r2, final FloatFrequency... rn)
     {
         FloatFrequency minr = r1.lt(r2) ? r1 : r2;
         for (FloatFrequency r : rn)
         {
             if (r.lt(minr))
             {
                 minr = r;
             }
         }
         return minr;
     }
 
     /**
      * Returns a FloatFrequency representation of a textual representation of a value with a unit. The String representation
      * that can be parsed is the double value in the unit, followed by a localized or English abbreviation of the unit. Spaces
      * are allowed, but not required, between the value and the unit.
      * @param text String; the textual representation to parse into a FloatFrequency
      * @return FloatFrequency; the Scalar representation of the value in its unit
      * @throws IllegalArgumentException when the text cannot be parsed
      * @throws NullPointerException when the text argument is null
      */
     public static FloatFrequency valueOf(final String text)
     {
         Throw.whenNull(text, "Error parsing FloatFrequency: text to parse is null");
         Throw.when(text.length() == 0, IllegalArgumentException.class, "Error parsing FloatFrequency: empty text to parse");
         try
         {
             NumberParser numberParser = new NumberParser().lenient().trailing();
             float f = numberParser.parseFloat(text);
             String unitString = text.substring(numberParser.getTrailingPosition()).trim();
             FrequencyUnit unit = FrequencyUnit.BASE.getUnitByAbbreviation(unitString);
             if (unit == null)
                 throw new IllegalArgumentException("Unit " + unitString + " not found");
             return new FloatFrequency(f, unit);
         }
         catch (Exception exception)
         {
             throw new IllegalArgumentException(
                     "Error parsing FloatFrequency from " + text + " using Locale " + Locale.getDefault(Locale.Category.FORMAT),
                     exception);
         }
     }
 
     /**
      * Returns a FloatFrequency based on a value and the textual representation of the unit, which can be localized.
      * @param value double; the value to use
      * @param unitString String; the textual representation of the unit
      * @return FloatFrequency; the Scalar representation of the value in its unit
      * @throws IllegalArgumentException when the unit cannot be parsed or is incorrect
      * @throws NullPointerException when the unitString argument is null
      */
     public static FloatFrequency of(final float value, final String unitString)
     {
         Throw.whenNull(unitString, "Error parsing FloatFrequency: unitString is null");
         Throw.when(unitString.length() == 0, IllegalArgumentException.class, "Error parsing FloatFrequency: empty unitString");
         FrequencyUnit unit = FrequencyUnit.BASE.getUnitByAbbreviation(unitString);
         if (unit != null)
         {
             return new FloatFrequency(value, unit);
         }
         throw new IllegalArgumentException("Error parsing FloatFrequency with unit " + unitString);
     }
 
     /**
      * Calculate the division of FloatFrequency and FloatFrequency, which results in a FloatDimensionless scalar.
      * @param v FloatFrequency; scalar
      * @return FloatDimensionless; scalar as a division of FloatFrequency and FloatFrequency
      */
     public final FloatDimensionless divide(final FloatFrequency v)
     {
         return new FloatDimensionless(this.si / v.si, DimensionlessUnit.SI);
     }
 
     /**
      * Calculate the multiplication of FloatFrequency and FloatDuration, which results in a FloatDimensionless scalar.
      * @param v FloatFrequency; scalar
      * @return FloatDimensionless; scalar as a multiplication of FloatFrequency and FloatDuration
      */
     public final FloatDimensionless times(final FloatDuration v)
     {
         return new FloatDimensionless(this.si * v.si, DimensionlessUnit.SI);
     }
 
     /**
      * Calculate the multiplication of FloatFrequency and FloatLength, which results in a FloatSpeed scalar.
      * @param v FloatFrequency; scalar
      * @return FloatSpeed; scalar as a multiplication of FloatFrequency and FloatLength
      */
     public final FloatSpeed times(final FloatLength v)
     {
         return new FloatSpeed(this.si * v.si, SpeedUnit.SI);
     }
 
     /**
      * Calculate the multiplication of FloatFrequency and FloatSpeed, which results in a FloatAcceleration scalar.
      * @param v FloatFrequency; scalar
      * @return FloatAcceleration; scalar as a multiplication of FloatFrequency and FloatSpeed
      */
     public final FloatAcceleration times(final FloatSpeed v)
     {
         return new FloatAcceleration(this.si * v.si, AccelerationUnit.SI);
     }
 
     /**
      * Calculate the multiplication of FloatFrequency and FloatEnergy, which results in a FloatPower scalar.
      * @param v FloatFrequency; scalar
      * @return FloatPower; scalar as a multiplication of FloatFrequency and FloatEnergy
      */
     public final FloatPower times(final FloatEnergy v)
     {
         return new FloatPower(this.si * v.si, PowerUnit.SI);
     }
 
     /**
      * Calculate the multiplication of FloatFrequency and FloatAngle, which results in a FloatAngularVelocity scalar.
      * @param v FloatFrequency; scalar
      * @return FloatAngularVelocity; scalar as a multiplication of FloatFrequency and FloatAngle
      */
     public final FloatAngularVelocity times(final FloatAngle v)
     {
         return new FloatAngularVelocity(this.si * v.si, AngularVelocityUnit.SI);
     }
 
     /**
      * Calculate the multiplication of FloatFrequency and FloatAngularVelocity, which results in a FloatAngularAcceleration
      * scalar.
      * @param v FloatFrequency; scalar
      * @return FloatAngularAcceleration; scalar as a multiplication of FloatFrequency and FloatAngularVelocity
      */
     public final FloatAngularAcceleration times(final FloatAngularVelocity v)
     {
         return new FloatAngularAcceleration(this.si * v.si, AngularAccelerationUnit.SI);
     }
 
     @Override
     public FloatDuration reciprocal()
     {
         return FloatDuration.instantiateSI(1.0f / this.si);
     }
 
 }