Differential-Equation Models

These models and simulations have been tagged “Differential-Equation”.

This insight is a model of a parachute falling through the air. The objective is to determine--by comparing to actual data of a falling parachute--whether the drag coefficient is proportional to the velocity of the parachute, or it's square.
This insight is a model of a parachute falling through the air. The objective is to determine--by comparing to actual data of a falling parachute--whether the drag coefficient is proportional to the velocity of the parachute, or it's square.
This differential equation model simulated the motion of a falling parachute. In particular, the mass of the parachute and velocity are used to calculate a drag force against the downward acceleration of the parachute towards the ground.
This differential equation model simulated the motion of a falling parachute. In particular, the mass of the parachute and velocity are used to calculate a drag force against the downward acceleration of the parachute towards the ground.
This is the file made to answer question 2 for the Modeling Project 1. Population is in units of [i]: individuals, R in units of [Months^-1] = Months (inverser), and that is equal to the differential equation for the population of people in time change of months. THIS WAS DONE OUTSIDE OF CLASS INITI
This is the file made to answer question 2 for the Modeling Project 1. Population is in units of [i]: individuals, R in units of [Months^-1] = Months (inverser), and that is equal to the differential equation for the population of people in time change of months. THIS WAS DONE OUTSIDE OF CLASS INITIALLY. 
3 months ago