use quarto, not Pluto to render pages
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@@ -19,7 +19,7 @@ const frontmatter = (
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tags = ["CalculusWithJulia", "derivatives", "derivatives"],
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);
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fig_size=(600, 400)
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fig_size=(800, 600)
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nothing
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```
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@@ -1199,16 +1199,16 @@ At which of these points $c= 1/2, 1, 3/2$ is the derivative negative?
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```julia; hold=true; echo=false
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choices = ["``1/2``", "``1``", "``3/2``"]
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ans = 1
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radioq(choices, ans, keep_order=true)
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answ = 1
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radioq(choices, answ, keep_order=true)
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```
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Which value looks bigger from reading the graph:
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```julia; hold=true; echo=false
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choices = ["``f(1)``", "``f(3/2)``"]
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ans = 2
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radioq(choices, ans, keep_order=true)
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answ = 2
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radioq(choices, answ, keep_order=true)
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```
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At $0.708 \dots$ and $1.65\dots$ the derivative has a common value. What is it?
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@@ -1229,8 +1229,8 @@ At $x = -2.5$ the derivative is postive or negative?
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```julia; hold=true; echo=false
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choices = ["positive", "negative"]
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ans = 1
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radioq(choices, ans, keep_order=true)
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answ = 1
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radioq(choices, answ, keep_order=true)
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```
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@@ -1238,16 +1238,16 @@ At $x=0$ the derivative is postive or negative?
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```julia; hold=true; echo=false
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choices = ["positive", "negative"]
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ans = 2
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radioq(choices, ans, keep_order=true)
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answ = 2
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radioq(choices, answ, keep_order=true)
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```
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At $x = 2.5$ the derivative is postive or negative?
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```julia; hold=true; echo=false
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choices = ["positive", "negative"]
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ans = 2
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radioq(choices, ans, keep_order=true)
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answ = 2
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radioq(choices, answ, keep_order=true)
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```
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###### Question
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@@ -1256,8 +1256,8 @@ Compute the derivative of $e^x$ using `limit`. What do you get?
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```julia; hold=true; echo=false
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choices = ["``e^x``", "``x^e``", "``(e-1)x^e``", "``e x^{(e-1)}``", "something else"]
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ans = 1
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radioq(choices, ans, keep_order=true)
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answ = 1
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radioq(choices, answ, keep_order=true)
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```
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###### Question
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@@ -1266,8 +1266,8 @@ Compute the derivative of $x^e$ using `limit`. What do you get?
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```julia; hold=true; echo=false
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choices = ["``e^x``", "``x^e``", "``(e-1)x^e``", "``e x^{(e-1)}``", "something else"]
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ans = 5
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radioq(choices, ans, keep_order=true)
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answ = 5
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radioq(choices, answ, keep_order=true)
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```
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###### Question
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@@ -1276,8 +1276,8 @@ Compute the derivative of $e^{e\cdot x}$ using `limit`. What do you get?
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```julia; hold=true; echo=false
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choices = ["``e^x``", "``x^e``", "``(e-1)x^e``", "``e x^{(e-1)}``", "``e \\cdot e^{e\\cdot x}``", "something else"]
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ans = 5
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radioq(choices, ans, keep_order=true)
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answ = 5
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radioq(choices, answ, keep_order=true)
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```
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###### Question
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@@ -1295,8 +1295,8 @@ choices = [
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L" $1$, as this is clearly the analog of the limit of $\sin(h)/h$.",
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L"Does not exist. The answer is $0/0$ which is undefined",
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L" $0$, as this expression is the derivative of cosine at $0$. The answer follows, as cosine clearly has a tangent line with slope $0$ at $x=0$."]
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ans = 3
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radioq(choices, ans)
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answ = 3
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radioq(choices, answ)
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```
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###### Question
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@@ -1310,8 +1310,8 @@ choices = [
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"``f'(x) = f(x)``",
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"``f'(x) = -f(x)``"
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]
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ans= 1
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radioq(choices, ans)
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answ= 1
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radioq(choices, answ)
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```
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@@ -1326,8 +1326,8 @@ choices = [
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"``f''(x) = -g(x)``",
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"``f''(x) = f(x)``",
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"``f''(x) = -f(x)``"]
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ans= 3
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radioq(choices, ans)
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answ= 3
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radioq(choices, answ)
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```
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@@ -1381,8 +1381,8 @@ L"If the graphs of $f$ and $g$ are translations up and down, the tangent line at
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L"If the graphs of $f$ and $g$ are rescalings of each other through $g(x)=f(x/c)$, $c > 1$. Then the tangent line for corresponding points is the same.",
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L"If the graphs of $f$ and $g$ are rescalings of each other through $g(x)=cf(x)$, $c > 1$. Then the tangent line for corresponding points is the same."
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]
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ans = 1
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radioq(choices, ans)
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answ = 1
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radioq(choices, answ)
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```
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@@ -1409,8 +1409,8 @@ choices = [
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"``f'(x) = -k^2 \\cdot f(x)``",
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"``f''(x) = k^2 \\cdot f(x)``",
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"``f''(x) = -k^2 \\cdot f(x)``"]
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ans = 4
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radioq(choices, ans)
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answ = 4
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radioq(choices, answ)
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```
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###### Question
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@@ -1424,8 +1424,8 @@ choices = [
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"``f'(x) = -k^2 \\cdot f(x)``",
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"``f''(x) = k^2 \\cdot f(x)``",
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"``f''(x) = -k^2 \\cdot f(x)``"]
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ans = 3
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radioq(choices, ans)
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answ = 3
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radioq(choices, answ)
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```
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##### Question
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