Complex quantities are points on a coordinate system; the horizontal axis is called the real numbers, the vertical axis, the imaginary numbers.
The point that represents a complex number can be expressed:
a) In rectangular coordinates, by specifying both coordinates, for example, 5 + 3i
b) In polar coordinates, you specify a distance from the origin, and an angle, for example, 10 (angle symbol) 30 degrees.
It turns out that addition and subtraction are easier with rectangular coordinates, whereas multiplication, division, and therefore also powers and roots, are easier with polar coordinates.
Complex quantities are points on a coordinate system; the horizontal axis is called the real numbers, the vertical axis, the imaginary numbers.
The point that represents a complex number can be expressed:
a) In rectangular coordinates, by specifying both coordinates, for example, 5 + 3i
b) In polar coordinates, you specify a distance from the origin, and an angle, for example, 10 (angle symbol) 30 degrees.
It turns out that addition and subtraction are easier with rectangular coordinates, whereas multiplication, division, and therefore also powers and roots, are easier with polar coordinates.
Complex quantities are points on a coordinate system; the horizontal axis is called the real numbers, the vertical axis, the imaginary numbers.
The point that represents a complex number can be expressed:
a) In rectangular coordinates, by specifying both coordinates, for example, 5 + 3i
b) In polar coordinates, you specify a distance from the origin, and an angle, for example, 10 (angle symbol) 30 degrees.
It turns out that addition and subtraction are easier with rectangular coordinates, whereas multiplication, division, and therefore also powers and roots, are easier with polar coordinates.
Complex quantities are points on a coordinate system; the horizontal axis is called the real numbers, the vertical axis, the imaginary numbers.
The point that represents a complex number can be expressed:
a) In rectangular coordinates, by specifying both coordinates, for example, 5 + 3i
b) In polar coordinates, you specify a distance from the origin, and an angle, for example, 10 (angle symbol) 30 degrees.
It turns out that addition and subtraction are easier with rectangular coordinates, whereas multiplication, division, and therefore also powers and roots, are easier with polar coordinates.
Complex quantities are points on a coordinate system; the horizontal axis is called the real numbers, the vertical axis, the imaginary numbers.
The point that represents a complex number can be expressed:
a) In rectangular coordinates, by specifying both coordinates, for example, 5 + 3i
b) In polar coordinates, you specify a distance from the origin, and an angle, for example, 10 (angle symbol) 30 degrees.
It turns out that addition and subtraction are easier with rectangular coordinates, whereas multiplication, division, and therefore also powers and roots, are easier with polar coordinates.
A complex number is a two-dimensional continuous quantity that is the sum of a real number and an imaginary number expressed in the form a+bi and plotted on a complex coordinate plane with the real line on the horizontal x-axis and the imaginary line on the vertical y-axis.
an arithmetical multiplier for converting a quantity expressed in one set of units into an equivalent expressed in another.
They are numbers in the complex field where the two components - the real and imaginary parts - are expressed in decimal form.
a quantity expressed asa number raised to a power
A multiplier.
A complex number is a two-dimensional continuous quantity that is the sum of a real number and an imaginary number expressed in the form a+bi and plotted on a complex coordinate plane with the real line on the horizontal x-axis and the imaginary line on the vertical y-axis.
A human being is not a measurement. You can measure a human's height, mass, weight, albedo, loudness when he shouts, or whatever, and each of these can be expressed as a measurement, but the human being itself is not a measurement. In general, you have to distinguish an object from its properties.
Need to know the voltage. Quantity of electricity is expressed in Watts. Watts = amp x volts. Total quantity is expressed in watt/hours.
the answer is 70.5 cm
A scalar quantity added to a vector quantity is a complex quantity. An example is a complex number z = a + ib, a is the scalar and ib is the vector quantity.If the vector quantity is 3 dimensional, ib + jc + kd, then the scalar and vector forms a quaternion quantity.
Impedance is expressed in units of 'ohms'.In a DC situation, impedance is simply the scalar resistance.In a circuit where voltage/current have time-varying components,impedance is a complex quantity, with both magnitude and angle.
Depending how you interpret "quantity of matter", that can refer either to the mass (expressed in kilograms), or the number of moles.
It is called a conversion factor.
an arithmetical multiplier for converting a quantity expressed in one set of units into an equivalent expressed in another.
It's an arithmetical multiplier for converting a quantity expressed in one set of units into an equivalent expressed in another.
It may be called a conversion factor.
an arithmetical multiplier for converting a quantity expressed in one set of units into an equivalent expressed in another.