Lecture 1 &2
● Basic introduction
Lecture 3 & 4
● Population growth (lambda) has to be 0 or greater
● Net reproductive rate (R0) has to be 1 or greater
○ Abundance is zero in graph
○ Population decrease, both ends of population curve
○ R0 = 1 is stable, maintain population. Population growth of zero
■ Abundance greater than zero
○ R0 is greater than 1 = more population produced
■ Abundance also greater than zero
● Example question
○
○ Right graph is for individuals, left is population
○ One fish has higher activation energy than the other, curve/steepness is different
○ Species b has higher activation so it has the higher curve (non-dotted)
■
■ 15 degrees is the same
■ 20 degrees, B is faster in development times
● Higher Y axis
Lecture 5 & 6
● Energy is limited, therefore energy tradeoffs
, ●
● As libitum = fed until they stop eating. Food is not limited
○ Why does tradeoff of energy disappear? No competition, no energy tradeoff anymore
○ Answer is C
Lecture 7 & 8
● Camera tracking can have alot of interpretations
● Basic introduction
Lecture 3 & 4
● Population growth (lambda) has to be 0 or greater
● Net reproductive rate (R0) has to be 1 or greater
○ Abundance is zero in graph
○ Population decrease, both ends of population curve
○ R0 = 1 is stable, maintain population. Population growth of zero
■ Abundance greater than zero
○ R0 is greater than 1 = more population produced
■ Abundance also greater than zero
● Example question
○
○ Right graph is for individuals, left is population
○ One fish has higher activation energy than the other, curve/steepness is different
○ Species b has higher activation so it has the higher curve (non-dotted)
■
■ 15 degrees is the same
■ 20 degrees, B is faster in development times
● Higher Y axis
Lecture 5 & 6
● Energy is limited, therefore energy tradeoffs
, ●
● As libitum = fed until they stop eating. Food is not limited
○ Why does tradeoff of energy disappear? No competition, no energy tradeoff anymore
○ Answer is C
Lecture 7 & 8
● Camera tracking can have alot of interpretations