Answer:
(A) and (D)
Explanation:
1) P2 is less than P1, that is when P1 increases in pressure, the velocity V1 of the water also increases. Therefore, on the other hand, since P2 is directly proportional to V1, P2 and V2 will be less than P1 and V1 respectively.
2) For P2 greater than P1 and V2 also is greater than V1. Since P2 is directly proportional to V2, hence, when P2 increases in pressure, P1 reduces in pressure. Similarly, velocity, V2 also increases and V1 reduces.
The most accurate answer to that process is definitely precision. The Rotary encoder is an electro-mechanical device that converts the angular position or motion of a shaft or axle to analog or digital output signals. The efficiency of these devices is subject to the position and angle of the axis in front of the encoder.
Most cars use reduction systems in their gearboxes that convert a certain signal input into an output. Mechanically for example, a 20: 1 reduction box already infers that if there is a revolution in the input at the output there are 20. That same transferred to the encoder pulses would imply greater precision.
For example a decoder with 50 holes would have to read 1000 pulses (50 * 20) which is basically a degree of accuracy of 0.36 degrees. In this way it is possible to conclude that if the assembly of the encoder is carried out next to the motor and not at the output, it can be provided with greater precision at the time of reading.
Answer:
The circuit is shown in my attachments, please take a good look
Answer:
clc
clear
x = input('type value of angle in degrees:\n');
x = x*pi/180; %convverting fron degree to radian
sin_x = x; %as first term of taylor series is x
E = 1; %just giving a value of error greater than desired error
n = 0;
while E > 0.000001
previous = sin_x;
n = n+1;
sin_x = sin_x + ((-1)^n)*(x^(2*n+1))/factorial(2*n+1);
E = abs(sin_x - previous); %calculating error
end
a = sprintf('sin(x) = %1.6f',sin_x);
disp(a)
Explanation:
