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Explore the concepts of kinetic and potential energy, total energy conservation, and dimensional consistency in behavior analysis. Learn about dimensional analysis, pendulum periods, allometry in birds, and scaling in fixed interval schedules. Discover the nuances in rate-dependency and skill performance, including Baum's Law and 1/f noise in interval response time schedules.
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DIMENSION IN ACTIONANDTHE PROBLEM OF BEHAVIORAL UNITSM. Jackson Marrmm27@prism.gatech.edu
KINETIC ENERGY = 1/2 m v2 = M L2/T2 POTENTIAL ENERGY = m g h = M L2/T2 TOTAL ENERGY = K + P (conserved) TOTAL ENERGY IS A CONSTANT OF MOTION
DIMENSIONAL CONSISTENCY? B = k r / (r + ro) Rout = {ln [1+(PB/γPR)(exp [1/Rin] – 1]} -1
log [cabin] = ?! But, log [4 cabins / 2 cabins] = log 2 = 0.30103.
Dimensional Analysis Period of a Pendulum T= f (L, g, m)? T1 = La (L T-2)b Mc in units of length, mass, and time. Solve for a, b, and c to yield dimensional consistency. a =1/2, b = -1/2, c =0, gives: T = k (L/g)1/2 , where k is dimensionless. In fact, k = 2π.
If f (x) = c xα then, log f (x) = log c + α log x. This is a linear function on a log-log-scale.
Scaling in IRT>t Schedules IRT>t Scheduled Value
Rate-Dependency In FI Schedules (CPZ) Control Rate
Baum’s Law (B1 / B2) = b(r1 / r2)a b: bias a: sensitivity