CRAN

afpt 1.0.0

Tools for Modelling of Animal Flight Performance

Released Sep 1, 2017 by Marco KleinHeerenbrink

Allows estimation and modelling of flight costs in animal (vertebrate) flight, implementing the aerodynamic power model described in Klein Heerenbrink et al. (2015) . Taking inspiration from the program 'Flight', developed by Colin Pennycuick (Pennycuick (2008) "Modelling the flying bird". Amsterdam: Elsevier. ISBN 0-19-857721-4), flight performance is estimated based on basic morphological measurements such as body mass, wingspan and wing area. 'afpt' can be used to make predictions on how animals should adjust their flight behaviour and wingbeat kinematics to varying flight conditions.

Installation

Maven

This package can be included as a dependency from a Java or Scala project by including the following your project's pom.xml file. Read more about embedding Renjin in JVM-based projects.

<dependencies>
  <dependency>
    <groupId>org.renjin.cran</groupId>
    <artifactId>afpt</artifactId>
    <version>1.0.0-b12</version>
  </dependency>
</dependencies>
<repositories>
  <repository>
    <id>bedatadriven</id>
    <name>bedatadriven public repo</name>
    <url>https://nexus.bedatadriven.com/content/groups/public/</url>
  </repository>
</repositories>

View build log

Renjin CLI

If you're using Renjin from the command line, you load this library by invoking:

library('org.renjin.cran:afpt')

Test Results

This package was last tested against Renjin 0.9.2644 on Jun 2, 2018.

• Custom_drag_coefficient_in_computeFlappingPower().default_returns_original_coefficients
• Custom_drag_coefficient_in_computeFlappingPower().single_custom_body_drag_coefficient_returns_correctly
• Custom_drag_coefficient_in_computeFlappingPower().speed_dependent_closure_object_returns_drag_coefficient_correctly_for_multiple_speeds
• Multiple_birds_for_computeFlappingPower().Multiple_birds_with_multiple_speeds_but_a_single_frequency_returns_correct_speed_E1
• Multiple_birds_for_computeFlappingPower().Multiple_birds_with_multiple_speeds_but_a_single_frequency_returns_correct_speed_E2
• Multiple_birds_for_computeFlappingPower().Multiple_birds_with_multiple_speeds_but_a_single_frequency_returns_correct_speed_E3
• Multiple_birds_for_computeFlappingPower().Multiple_birds_with_multiple_speeds_returns_correct_speed_E1
• Multiple_birds_for_computeFlappingPower().Multiple_birds_with_multiple_speeds_returns_correct_speed_E2
• Multiple_birds_for_computeFlappingPower().Multiple_birds_with_multiple_speeds_returns_correct_speed_E3
• Multiple_birds_for_computeFlappingPower().Multiple_birds_with_single_speed_returns_same_speed_for_all_birds_E1
• Multiple_birds_for_computeFlappingPower().Multiple_birds_with_single_speed_returns_same_speed_for_all_birds_E2
• Multiple_birds_for_computeFlappingPower().Multiple_birds_with_single_speed_returns_same_speed_for_all_birds_E3
• Multiple_birds_for_computeFlappingPower().Single_bird_with_multiple_speeds_E1
• Multiple_birds_for_computeFlappingPower().Single_bird_with_multiple_speeds_E2
• Multiple_birds_for_computeFlappingPower().Single_bird_with_multiple_speeds_with_prescribed_strokeplane_angle_E1
• Multiple_birds_for_computeFlappingPower().Single_bird_with_multiple_speeds_with_prescribed_strokeplane_angle_E2
• Multiple_birds_for_computeFlappingPower().Single_bird_with_multiple_speeds_with_prescribed_strokeplane_angle_E3
• Multiple_birds_for_computeFlappingPower().Single_bird_with_single_speed_E1
• Multiple_birds_for_computeFlappingPower().Single_bird_with_single_speed_E2
• PowerToFroMechChem-examples
• climbing_birds-examples
• computeAvailablePower-examples
• computeBodyFrontalArea-examples
• computeChemicalPower-examples
• findMaximumClimbRate-examples
• findMaximumPowerSpeed-examples
• findMaximumRangeSpeed-examples
• findMinimumPowerSpeed-examples
• testthat

Source

View GitHub Mirror

Release History

• 1.0.0