Suppose that ants can sense chemical signals instantaneously up to a certain distance (sensing range ... ). As a consequence, if the distance ... between ant ... and ant ... satisfies ... then they can directly communicate. If ... , and there is another ant ... whose position satisfies ... and ... , then ants ... and ... can still communicate with the help of ant ... , which can instantaneously play the role of a relay server. The food (represented as a locator originally at the center) has an odor range ... . If the distance ... between an ant and the food satisfies ... , then the ant can directly sense the food, otherwise it cannot. The model is as follows. 1. Any ant that can directly sense the food will move toward it and keep moving around it to get fed. 2. Ants that cannot directly sense the food but still know its location by communicating with those ants that do sense it will show the same behavior. 3. Other ants will do a random walk to search for the food. Ants that can sense the food (directly or indirectly) are represented as points with a blue sensing area; while ants that cannot sense the food are represented as points with a salmon sensing area. The panel "n/m ants" (at the bottom) means that ... ants of a total of ... ants currently sense the food.


    Education Levels:


      EUN,LOM,LRE4,work-cmr-id:397804,http://demonstrations.wolfram.com:http://demonstrations.wolfram.com/FoodSearchingModelForAnts/,ilox,learning resource exchange,LRE metadata application profile,LRE


      Access Privileges:

      Public - Available to anyone

      License Deed:

      Creative Commons Attribution 3.0


      This resource has not yet been aligned.
      Curriki Rating
      'NR' - This resource has not been rated
      'NR' - This resource has not been rated

      This resource has not yet been reviewed.

      Not Rated Yet.

      Non-profit Tax ID # 203478467