Python, Ruby, JavaScript, Java, and C++
Explanation:
There has been no information about related to which programming language is to be used, writing code algorithm.
Defining I/O's ;
Analogue output
A01, A02, A03,AO4
Analogue Input;
AI_1 // potentiometer input
// Based on controller used, assign channels to I/O's
// code
int voltage
Voltage = AI_1;
If (Voltage > 0 && Voltage < 1.25)
{
A01 = voltage
A02 = 0;
A03= 0
AO4= 0
}
If (Voltage > 1.25 && Voltage < 2.5)
{
A01 = 1.25
A02 = (Voltage -1.25);
A03= 0
AO4= 0
}
If (Voltage > 2.5 && Voltage < 3.75)
{
A01 = 1.25
A02 = 1.25
A03= (Voltage - 2.5);
AO4= 0
}
else
{
A01 = 1.25
A02 = 1.25
A03= 1.25
AO4= (Voltage - 3.75);
}
return
Answer:
0.0375 ohms
Explanation:
The resistance of a material is the product of the resistivity of the material by the length of the material divided by its cross-section area.
Mathematically,
resistance= resistivity × length/area
In this case the resistivity of the material is the same, and the length is the same thus, assume a length of 1 unit, the cross-section area is the one changing
In applying the formula,
resistivity is r and length is l=1 unit, find the resistivity the material as;
resistance= resistivity * length /area
0.075=r*1/1.04
0.075=r*0.9615
0.075/0.9615 =r
r=0.078
use the r=0.078 , a length of 1 unit (assumed), and area of 2.08 mm² to find the new resistance
Resistance= resistivity * length /area
Resistance = 0.078*1/2.08
Resistance= 0.078 * 0.4807 = 0.0375 ohms
Point to note here is that the greater the cross-section area, the less the resistance.
Answer:
The world wars. Most notably world War II
Explanation:
The demand for aircrafts during these events led to extensive research into the design of aircrafts. Aircraft advanced within these years from a simple design to a more complex design; capable of carrying fire power and even became bomb equipped. Also, the material of choice of production moved from wood to metal and the engine was improved on to gain more speed and maneuverability.
