Calculus Symbols

Deciphering the Language of Calculus & Analysis: Symbols Unveiled.

Calculus and analysis math symbols and definitions.

Calculus & analysis math symbols table

Symbol Symbol Name Meaning / definition Example
\lim_{x\to x0}f(x) limit limit value of a function  
ε epsilon represents a very small number, near zero ε 0
e e constant / Euler's number e = 2.718281828... e = lim (1+1/ x) x , x→∞
y ' derivative derivative - Lagrange's notation (3 x 3)' = 9 x 2
y '' second derivative derivative of derivative (3 x 3)'' = 18 x
y ( n) nth derivative n times derivation (3 x 3) (3) = 18
\frac{dy}{dx} derivative derivative - Leibniz's notation d(3 x 3)/ dx = 9 x 2
\frac{d^2y}{dx^2} second derivative derivative of derivative d 2(3 x 3)/ dx 2 = 18 x
\frac{d^ny}{dx^n} nth derivative n times derivation  
\dot{y} time derivative derivative by time - Newton's notation  
time second derivative derivative of derivative  
D x y derivative derivative - Euler's notation  
D x 2y second derivative derivative of derivative  
\frac{\partial f(x,y)}{\partial x} partial derivative   ∂( x 2+ y 2)/∂ x = 2 x
integral opposite to derivation  
double integral integration of function of 2 variables  
triple integral integration of function of 3 variables  
closed contour / line integral    
closed surface integral    
closed volume integral    
[ a, b] closed interval [ a, b] = { x | a x b}  
( a, b) open interval ( a, b) = { x | a < x < b}  
i imaginary unit i ≡ √ -1 z = 3 + 2 i
z* complex conjugate z = a+ biz*= a- bi z* = 3 + 2 i
z complex conjugate z = a+ bi z = a- bi z = 3 + 2 i
Re( z) real part of a complex number z = a+ bi → Re( z)= a Re(3 - 2 i) = 3
Im( z) imaginary part of a complex number z = a+ bi → Im( z)= b Im(3 - 2 i) = -2
| z | absolute value/magnitude of a complex number | z| = | a+ bi| = √( a 2+ b 2) |3 - 2 i| = √13
arg( z) argument of a complex number The angle of the radius in the complex plane arg(3 + 2 i) = 33.7°
nabla / del gradient / divergence operator f ( x, y, z)
vector    
unit vector    
x * y convolution y( t) = x( t) * h( t)  
Laplace transform F( s) = { f ( t)}  
Fourier transform X( ω) = { f ( t)}  
δ delta function    
lemniscate infinity symbol  

 

How can I effectively learn and use calculus and analysis symbols in my studies or work?

Answer: To learn and use calculus and analysis symbols effectively:

1. Start with the basics: Familiarize yourself with fundamental symbols such as ∫ (integral), ∂ (partial derivative), and ∇ (nabla).

2. Practice regularly: Solve problems and equations that involve these symbols to reinforce your understanding.

3. Consult references: Keep a handy reference guide or textbook to look up symbols and their meanings as needed.

4. Seek guidance: If you're a student, don't hesitate to ask your teacher or professor for clarification on symbol usage.

5. Utilize software: Math software and calculators often support these symbols, making complex calculations easier.

6. With practice and study, you'll become proficient in using calculus and analysis symbols to tackle mathematical challenges effectively.


See also

Write how to improve this page

CONTENTS
MaxTables
Follow Us
🠕