Seths70070@students.laalliance.org: /* 2.8 THE DERIVATIVE AS A FUNCTION */

2023-03-30T20:58:43Z

2.8 THE DERIVATIVE AS A FUNCTION

← Older revision		Revision as of 20:58, 30 March 2023
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	==2.8 THE DERIVATIVE AS A FUNCTION ==		==2.8 THE DERIVATIVE AS A FUNCTION ==
			<math>{\frac{d}{dx}} [c] = 0 </math> <br>
			<math>{\frac{d}{dx}} [c\cdot f(x)] = c\cdot{\frac{d}{dx}} [f(x)] </math> <br>

			<math>{\frac{d}{dx}} [f(x)\pm g(x)] = {\frac{d}{dx}} [f(x)] \pm {\frac{d}{dx}} [g(x)] </math> <br>
			<math> {\frac{d}{dx}} [x^n] = n \cdot x^{(n-1)} </math> <br>
			<math>{\frac{d}{dx}} [a^x] = \ln(a)a^x </math><br>
			<math> {\frac{d}{dx}} [e^x] = e^x </math><br>

Dvaezazizi@laalliance.org: Created page with "==2.2 THE LIMIT OF A FUNCTION == Notes go here for 2.2... example:
$\lim_{z\to z_0} f(z)=f(z_0)$ ==2.3 CALCULATING LIMITS USING THE LIMIT LAWS == ==2.5 CONTINUITY == ==2.6 LIMITS AT INFINITY; HORIZONTAL ASYMPTOTES == ==2.7 DERIVATIVES AND RATES OF CHANGE == ==2.8 THE DERIVATIVE AS A FUNCTION =="

2023-03-28T19:03:16Z

Created page with "==2.2 THE LIMIT OF A FUNCTION == Notes go here for 2.2... example:<br> <math>\lim_{z\to z_0} f(z)=f(z_0)</math> ==2.3 CALCULATING LIMITS USING THE LIMIT LAWS == ==2.5 CONTINUITY == ==2.6 LIMITS AT INFINITY; HORIZONTAL ASYMPTOTES == ==2.7 DERIVATIVES AND RATES OF CHANGE == ==2.8 THE DERIVATIVE AS A FUNCTION =="

New page

==2.2 THE LIMIT OF A FUNCTION ==
Notes go here for 2.2... example:<br>
<math>\lim_{z\to z_0} f(z)=f(z_0)</math>

==2.3 CALCULATING LIMITS USING THE LIMIT LAWS ==

==2.5 CONTINUITY ==

==2.6 LIMITS AT INFINITY; HORIZONTAL ASYMPTOTES ==

==2.7 DERIVATIVES AND RATES OF CHANGE ==

==2.8 THE DERIVATIVE AS A FUNCTION ==

2024/G8/2 - Revision history

Seths70070@students.laalliance.org: /* 2.8 THE DERIVATIVE AS A FUNCTION */