Triad
The complex roots of an equation are the complex numbers that are solutions to the equation.
#include<iostream.h> #include<conio.h> class complex { int r; int i; public: complex() { } complex(int a,int b) { r=a;i=b; } friend complex operator+(complex,complex); friend show(complex); complex operator+(complex c1,complex c2) { complex c3; c3.r=c1.r+c2.r; c3.i=c1.i+c2.i; return(c3); } show(complex c) { cout<<c.r<<"i+"<<c.i<<endl; } void main() { complex a,b,c; clrscr(); a.complex(3,6); b.complex(4,7); c=a+b; show(a); show(b); show(c); getch() }
whet is real and complex plane
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Changing a complex number from standard form (x + iy) to normal form r(Cos(theta)+isin(theta)) is relatively simple if you're comfortable with trigonometry and Pythagoras's theorem. It is easiest to imagine it in the context of the complex plane.If you were to draw your complex number on the complex plane, theta would be the angle between the number and the positive x axis, and r would be the length of the line. r is easiest to find; simply put x and y into the equation Sqrt(x2 + Y2)and the result will be r, the length of the complex number.To find theta, you must picture a triangle, imagining the length y to be the opposite, and the length x to be the adjacent, and performing arctan(y/x) to find theta - however, be careful as depending on what quadrant the number is in, you may have to perform further operations in order to find the true angle.
one transverse tubule and two terminal cisternae
The endoplasmic reticulum (ER) is the cell component that has a complex network of flattened membrane-bounded sacs called cisternae. It plays a role in protein and lipid synthesis, as well as in the transport of molecules within the cell.
A cell typically has one Golgi complex, which consists of a series of flattened, membrane-bound sacs known as cisternae. These cisternae are responsible for modifying, sorting, and packaging proteins and lipids for transport within and outside the cell.
I think they are in the same complex (Portland Transportation Center).
The specialized set of membranous sacs of the Golgi complex are derived from the endoplasmic reticulum (ER). These sacs, known as cisternae, receive vesicles from the ER for further processing and modification before transporting them to their final destination within or outside the cell.
Transverse waves move perpendicular to the direction of energy transfer, while longitudinal waves move parallel to it. In a medium, transverse waves cause particles to move up and down, while longitudinal waves cause particles to move back and forth. When both types of waves are present in a medium, they can interact and create complex wave patterns.
Transverse deflection is typically calculated using a beam deflection formula, such as Euler-Bernoulli beam theory or Timoshenko beam theory. These formulas consider factors such as material properties, beam geometry, loading conditions, and boundary conditions to determine the amount of deflection at a specific point along the beam. Finite element analysis software can also be used to calculate transverse deflection for more complex beam configurations.
Combined waves are more powerful because they have characteristics of both transverse and longitudinal waves. They can carry energy in multiple ways, allowing for more efficient transmission of energy compared to purely transverse or longitudinal waves. The combination of both wave types creates a more complex and versatile wave that can propagate over longer distances and through different mediums.
The Golgi complex is an organelle found in cells that is responsible for modifying, sorting, and packaging proteins for transport within the cell or secretion outside the cell. It consists of a series of membrane-bound compartments called cisternae. The Golgi complex plays a key role in protein trafficking and processing in eukaryotic cells.
The Golgi apparatus is a cell organelle responsible for modifying, sorting, and packaging proteins and lipids. It consists of flattened membrane-bound sacs called cisternae, with distinct cis and trans faces. It plays a crucial role in intracellular trafficking and is involved in the secretion of substances from the cell.
No, hydrogen is not always a terminal atom in molecules. Hydrogen can also be found in the middle of a molecule, for example in hydrocarbons like methane or in complex organic molecules.
The Golgi apparatus in plant cells is also known as the Golgi body or Golgi complex. It is responsible for modifying, sorting, and packaging proteins and lipids that are synthesized within the cell. The Golgi apparatus consists of a series of flattened membrane-bound sacs called cisternae.